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Best Home Broadband Provider for Gaming at Home: What to Check Before You Choose

FTTH Operators • Buyer guides

Best Home Broadband Provider for Gaming at Home: What to Check Before You Choose

By Junun Saleh · Updated · Built on Opensignal, FCC, NVIDIA, Microsoft (via Pure Xbox), GFiber, PC Tech Magazine and NerdZap sources, each linked below

Search for the best home broadband provider for gaming and most pages hand you a list ranked by headline speed. A gamer needs something else: a ping that stays low and steady during the match, on the evening they actually play. This page sets out what to compare, what public evidence exists, and where it runs out. It is also written for FTTH operators and ISPs, because a plan page that says “gaming-ready” without a number invites exactly the doubt this page is built to answer.

Quick answer: The best home broadband provider for gaming is the one that gives you low, steady ping to your game’s servers in the evening, on a wired connection, with enough speed for downloads or cloud streaming. Compare providers on latency, jitter, packet loss and peak-hour consistency first, and on Mbps second. Fiber usually leads on idle latency (FCC testing: 8 to 14 ms on fiber, 13 to 22 on cable, 20 to 61 on DSL), but we found no public source that ranks Indonesian providers by gaming ping. The closest proxy is Opensignal’s Consistent Quality score, where Indosat HiFi led nationally and in Jakarta in the 90 days from 1 January 2026. Use it to shortlist, then test at your address between 8 and 10pm.

In this page, latency (ping) is the round-trip time between your device and a server, in milliseconds. Jitter is the variation in latency over time. Packet loss is the share of packets that never arrive. Bandwidth (plan speed) is the maximum data per second. Routing and peering describe the path your traffic takes from your provider to the game’s servers. Fixed wireless access (FWA) is home broadband delivered over a mobile or radio network, not a fiber or copper line. Consistent Quality is Opensignal’s share of tests that meet its thresholds for HD video, video calls and gaming across all hours.

Should you compare home broadband providers on ping or download speed?

Compare on ping, jitter and packet loss first, and use download speed only to check that the plan is big enough. An online match is a stream of small updates sent back and forth, so how long each one takes, and how steady that is, decides how the game feels. A bigger plan carries more data per second. It does not shorten the trip. Opensignal’s Consistent Quality score reflects this: it combines six indicators, namely download and upload speed, latency, jitter, packet loss and time to first byte (Opensignal: Indonesia fixed broadband experience).

< 40 mswhat NVIDIA recommends for cloud gaming, with under 80 ms requiredNVIDIA GeForce NOW requirements
8 to 14 msmedian idle latency on fiber in FCC testing, against 13 to 22 on cable and 20 to 61 on DSLFCC Measuring Broadband America, 2023 report
6indicators in Opensignal’s Consistent Quality: download, upload, latency, jitter, packet loss and time to first byteOpensignal, April 2026
14.8 mstypical latency GFiber reports for its own fiber network (provider claim)GFiber, May 2026

Eight Indonesian fixed broadband providers ranked by download speed and by Consistent QualityA slope chart with two columns. The left column ranks eight providers by download speed from Biznet Home at 41.0 megabits per second down to Icon Plus at 17.2. The right column ranks the same providers by Opensignal Consistent Quality, from Indosat HiFi at 69.7 percent down to CBN at 44.3 percent. Lines join each provider across the columns and draw in from left to right. Biznet Home falls from first to sixth, Indosat HiFi rises from fifth to first, and Icon Plus rises from eighth to third.Fastest download is not the most consistentRank by download speedRank by Consistent QualityBiznet Home 41.0 MbpsBiznet Home 54.4%XL SATU 38.8 MbpsXL SATU 68.7%Oxygen.id 35.3 MbpsOxygen.id 52.0%MyRepublic 35.0 MbpsMyRepublic 58.7%Indosat HiFi 30.9 MbpsIndosat HiFi 69.7%CBN 30.5 MbpsCBN 44.3%IndiHome 26.2 MbpsIndiHome 57.8%Icon Plus 17.2 MbpsIcon Plus 60.5%Teal: ranks higher on Consistent Quality than on download. Red: ranks lower. Grey: same rank.Source: Opensignal Indonesia fixed broadband experience, 90 days from 1 January 2026. Ranks are our ordering of its table.Opensignal notes results reflect each provider’s plan mix and routers, so this is not a like-for-like gaming test.Eight Indonesian fixed broadband providers ranked by download speed and by Consistent QualityA slope chart with two columns. The left column ranks eight providers by download speed from Biznet Home at 41.0 megabits per second down to Icon Plus at 17.2. The right column ranks the same providers by Opensignal Consistent Quality, from Indosat HiFi at 69.7 percent down to CBN at 44.3 percent. Lines join each provider across the columns and draw in from left to right. Biznet Home falls from first to sixth, Indosat HiFi rises from fifth to first, and Icon Plus rises from eighth to third.Download rank vs consistencyBy downloadBy consistencyBiznet Home 41.0Biznet Home 54.4%XL SATU 38.8XL SATU 68.7%Oxygen.id 35.3Oxygen.id 52.0%MyRepublic 35.0MyRepublic 58.7%Indosat HiFi 30.9Indosat HiFi 69.7%CBN 30.5CBN 44.3%IndiHome 26.2IndiHome 57.8%Icon Plus 17.2Icon Plus 60.5%Left: download in Mbps. Right: Consistent Quality.Teal: ranks higher on consistency than on download.Red: ranks lower. Grey: same rank.Source: Opensignal Indonesia, 90 days from 1 Jan 2026.Ranks are our ordering of its table. Plan mix androuters differ by provider, so it is not a gaming test.

Figure 1: The provider with the fastest median download (Biznet Home, 41.0 Mbps) ranks sixth for Consistent Quality, and the one with the best consistency (Indosat HiFi) is fifth for download. Headline Mbps and gaming-ready quality are different questions.

Figure 1 uses Opensignal’s national table for Indonesian fixed broadband, covering fiber, xDSL and cable in the 90 days from 1 January 2026. Biznet Home had the fastest median download (41.0 Mbps) yet ranked sixth for Consistent Quality (54.4%). Indosat HiFi ranked fifth for download (30.9 Mbps) and first for Consistent Quality (69.7%). Icon Plus had the lowest download (17.2 Mbps) and ranked third for consistency (60.5%). Opensignal states that results reflect real user plans and are influenced by plan mix and routers, so this is a signal and not a gaming benchmark. The score also covers HD video and video calls, not gaming alone.

The best result also depends on where you live. Opensignal reports different winners by region: Indosat HiFi leads Consistent Quality, Reliability and Video in Jakarta; XL SATU wins all five awards in Kalimantan, Jawa Barat and Sulawesi; GlobalXtreme wins all five in Bali Nusra; and IndiHome wins in Maluku and Papua, where it is the only ISP operating at scale. A “best provider” page is therefore really a “best provider at this address” page. When a test reads low, here is why speed tests come in below the plan.

Opensignal Indonesia fixed broadband, national results, 90 days from 1 January 2026
Provider Download (Mbps) Upload (Mbps) Consistent Quality (% of tests) Reliability (100–1000)
XL SATU 38.8 27.6 68.7 497
Indosat HiFi 30.9 24.1 69.7 469
Oxygen.id 35.3 29.6 52.0 459
Biznet Home 41.0 28.2 54.4 450
MyRepublic 35.0 21.3 58.7 405
CBN 30.5 23.3 44.3 403
IndiHome 26.2 12.9 57.8 351
Icon Plus 17.2 14.8 60.5 313

The four numbers to compare, and how to check each

Gaming broadband metrics, what they mean and how to check them
Metric What it is How to check it
Latency (ping) Round-trip time between your device and a server, in ms In-game ping, or a ping test to the game’s nearest server region
Jitter Variation in latency over time; inconsistent delay causes stutter and lag spikes Compare minimum, average and maximum ping over five minutes
Packet loss Packets that never arrive back; the FCC counts one as lost after three seconds Read the loss percentage from the same ping test
Routing and peering The path from your provider to the game’s servers Ping several server regions; a trace route shows the hops
Download speed Maximum data per second; sets download time and cloud stream quality Wired speed test, then compare with the game’s needs

The definitions of latency, jitter and bandwidth follow a wireless ISP’s plain-language explainer (Hudson Valley Wireless: Understanding latency, jitter and bandwidth), which also promotes its own service, so we used it for definitions only. Routing is the factor customers see least. Two homes on the same plan can reach the same game region by routes of very different length, which is why a provider’s peering to the game’s region matters as much as its last-mile technology.

Two routes from one home to one game server, 12 ms direct and 48 ms by detourA diagram with a home box on the left and a game server region box on the right. Two lines connect them. Route A runs straight through an ISP edge, an exchange and a hosting node, with hop times of 3, 4, 3 and 2 milliseconds, about 12 in total. Route B passes through five nodes including a far city, with hop times of 4, 11, 13, 10, 7 and 3 milliseconds, about 48 in total, and a marked congested hop that can drop packets. Small dots travel along each route, quickly on route A and slowly on route B.Same speed plan, different route to the game serverYourhomeGameserverregionRoute A: direct, about 12 msISP edgeExchangeHosting3 ms4 ms3 ms2 msRoute B: detour, about 48 msISP edgeTransitFar cityTransitHosting4 ms11 ms13 ms10 ms7 ms3 ms× a congested hop can also drop packetsIllustrative: the hop times are ours and add up to 12 ms and 48 ms. Real routes differ by provider, game and time of day.Both homes could have the same plan. Only the path, and so the ping, differs.Two routes from one home to one game server, 12 ms direct and 48 ms by detourA diagram with a home box on the left and a game server region box on the right. Two lines connect them. Route A runs straight through an ISP edge, an exchange and a hosting node, with hop times of 3, 4, 3 and 2 milliseconds, about 12 in total. Route B passes through five nodes including a far city, with hop times of 4, 11, 13, 10, 7 and 3 milliseconds, about 48 in total, and a marked congested hop that can drop packets. Small dots travel along each route, quickly on route A and slowly on route B.Two routes to one game serverYour home (same plan on both routes)A: direct, ~12 msB: detour, ~48 msISP edgeExchangeHostingISP edgeTransitFar cityTransitHosting×Game server regionIllustrative: hop times are ours and add up to12 ms (A) and 48 ms (B). The red × marks a congestedhop that can also drop packets. Real routes differ.

Figure 2: Ping is the length of the path as well as the speed of the line. Two customers on the same plan can see very different latency if their provider’s routes or peering to the game region differ (illustrative).

Why a “best for gaming” claim needs a definition

Provider rankings often use a gaming score without saying what is in it. A press release by Optimum, a US cable brand, says it won “best gaming experience” in three states using Ookla data, but it does not define the Game Score or say whether jitter and packet loss are included (Business Wire: Optimum and Ookla rankings, January 2025). Treat any such award as marketing until the metric is defined. GFiber, for example, reports a typical latency of 14.8 ms, which it says is 41% better than the US average. That figure is GFiber’s own analysis of Ookla data for the second half of 2025 using a multi-server median, and the post gives no sample size or time-of-day breakdown (GFiber blog). It is a useful example of the kind of number to publish, with the method stated, and not proof about any other network.

One gaming claim, written two ways (illustrative; use your own measured figures)

TypicalGaming-ready fiber with speeds up to 1 Gbps.
Customer-readyYour plan speed sets how fast games download. Your ping sets how a match feels. In our own wired tests last month, median ping to the Jakarta game region was 9 ms at 3pm and 11 ms between 8 and 10pm, with no packet loss (example figures: publish your own, with the test date and method). If your evening ping is much higher than that on a cable, send us the times and we will check the route and the load.

How consistent is home broadband for gaming during busy evening hours?

Consistency in the evening depends on how a provider shares capacity and keeps queues short, so ask for evening evidence and not a daily average. Regulators define a peak window for this reason. The FCC measures US performance from 7 to 11pm local time on weeknights, and its report says most subscribers see only slight degradation in speed at peak (FCC Measuring Broadband America, 2023 report). That finding is about speed. The report does not compare peak and off-peak latency, so we found no public peak-hour ping data for Indonesian providers.

7 to 11pmweeknight peak window used for FCC measurementsFCC
69.7% vs 44.3%best and worst national Consistent Quality, as a share of tests meeting thresholds across all hoursOpensignal
8pmwhen one consumer guide says shared fixed wireless capacity “gets thin”PC Tech Magazine, Sept 2026

Schematic of ping across a day for a steady connection and a peak-sensitive oneA line chart of ping in milliseconds across 24 hours for two connections on the same plan. Connection A, in teal, stays near 14 to 18 milliseconds all day. Connection B, in red, is also near 14 milliseconds until the late afternoon, then climbs through the evening to about 88 milliseconds around 9pm with a jagged, jittery shape, and falls back after 11pm. A shaded band marks the FCC peak window from 7 to 11pm and a dashed line marks 40 milliseconds. The lines draw from left to right.Ping across an evening: steady vs peak-sensitivePeak window used by the FCC: 7 to 11pm40 ms: NVIDIA’s recommended ceiling for cloud gamingConnection A: stays near 14 to 18 msConnection B: spikes and jitters in the peak window00:0006:0012:0018:0024:00Schematic, not measured data. Both lines are the same plan speed. An average over the day would make B look acceptable.What matters for gaming is the worst stretch, not the average. Test inside the evening window.Schematic of ping across a day for a steady connection and a peak-sensitive oneA line chart of ping in milliseconds across 24 hours for two connections on the same plan. Connection A, in teal, stays near 14 to 18 milliseconds all day. Connection B, in red, is also near 14 milliseconds until the late afternoon, then climbs through the evening to about 88 milliseconds around 9pm with a jagged, jittery shape, and falls back after 11pm. A shaded band marks the FCC peak window from 7 to 11pm and a dashed line marks 40 milliseconds. The lines draw from left to right.Ping across an evening40 ms0006121824Teal A: steady, 14 to 18 ms.Red B: spikes and jitters in the peak.Shaded: FCC peak window, 7 to 11pm.Dashed: 40 ms, NVIDIA cloud gaming guidance.Schematic, not measured. Same plan speed;an all-day average hides B’s bad hours.

Figure 3: Two connections can match at 3pm and part ways at 9pm. Judge a gaming connection by its worst evening stretch, not its daily average (schematic).

Figure 3 is a schematic, not measured data. Two connections on the same plan look identical in the afternoon. One keeps its ping steady through the evening; the other climbs and becomes jittery in the peak window. A daily average would make the second look acceptable, which is why gamers should judge a connection by its worst stretch. Opensignal’s score counts tests across all hours, so a provider with a poor evening shows up as a lower Consistent Quality, but the score does not isolate the evening.

Idle ping flatters a connection

The second trap is load. The FCC reports that latency under downstream load is generally much higher than idle latency, with a larger gap for DSL, and notes that some ISPs have since added active queue management, which improved results after its 2022 testing. In a home, that means a stream or a game update on another device can turn good ping into a laggy match.

Idle ping and ping under load for two connections, 12 to 22 ms against 12 to 140 msFour horizontal bars in two groups. For Connection A the idle bar is 12 milliseconds and the bar while a download is running is 22 milliseconds. For Connection B the idle bar is also 12 milliseconds, but the bar while a download is running grows to 140 milliseconds. A dashed vertical line marks 40 milliseconds, which only the long red bar passes. The bars grow from the left.Idle ping vs ping while the line is busy40 ms (NVIDIA cloud gaming guidance)Connection A: queue kept shortIdle12 msA download running22 msConnection B: queue builds under loadIdle12 msA download running140 msSchematic. FCC testing found latency under load is generally much higher than idle, with a bigger gap for DSL.A family member’s download or a game update can therefore turn good idle ping into a laggy match.Idle ping and ping under load for two connections, 12 to 22 ms against 12 to 140 msFour horizontal bars in two groups. For Connection A the idle bar is 12 milliseconds and the bar while a download is running is 22 milliseconds. For Connection B the idle bar is also 12 milliseconds, but the bar while a download is running grows to 140 milliseconds. A dashed vertical line marks 40 milliseconds, which only the long red bar passes. The bars grow from the left.Idle ping vs ping under load40 ms (NVIDIA cloud gaming guidance)Connection A: queue kept shortIdle12 msA download running22 msConnection B: queue builds under loadIdle12 msA download running140 msSchematic. FCC found latency under load isgenerally much higher than idle, and the gapis larger for DSL. One busy device can lag a match.

Figure 4: Idle ping flatters a connection. What counts for a household is latency while someone else is streaming or downloading (schematic values; the pattern is described by the FCC).

On the wireless side, the evening risk is different. A consumer guide published in September 2026 says fixed wireless capacity is shared and “gets thin at 8pm”, and that median speeds can hide a drop in the evening, when heavy users notice it most (PC Tech Magazine). The article is a consumer explainer, gives no magnitude for the drop, and relies on secondhand figures, so read it as a warning to test, not as a measurement.

How to run a fair evening test

  1. Plug in. Use an Ethernet cable. NVIDIA recommends a hardwired connection or a 5GHz wireless router, and says 2.4GHz Wi-Fi is not recommended on smart TVs.
  2. Pick the right target. Ping the game’s nearest server region, not a speed-test server.
  3. Test twice a day. Run a five-minute ping at about 3pm and again between 8 and 10pm.
  4. Repeat on three evenings. Record minimum, average and maximum ping, and any packet loss.
  5. Add load. Repeat once with a large download running on another device.
  6. Compare and report. If only the evening or only the loaded test is bad, send the times to your provider.

This is our suggested method, not a standard. It separates three causes that feel the same in a match.

What you see in an evening test, what it usually means, and what to do
What you see What it usually means What to do
Fine at 3pm, high and jittery at 8 to 10pm, on a cable Busy shared links or a congested route Send the times and results to your provider
High at every hour, on a cable Long route to the server, or a line or equipment fault Try another server region, then ask the provider to test the line
Fine when idle, spikes when someone downloads Delay building up under load Ask whether your router can manage the queue, and check the provider’s router options
Bad on Wi-Fi, fine on a cable Home wireless limits Play on Ethernet, or move to a 5GHz router closer to the console

A peak-hour promise, written two ways (illustrative)

TypicalA consistent gaming experience, even at peak.
Customer-readyWe test ping from sample homes every hour and publish the 8 to 10pm results next to the afternoon results each month. If your own evening ping is well above what we publish, tell us the times and we will check the load on your fiber first.

Is fiber or wireless broadband better for competitive and cloud gaming?

For competitive multiplayer, wired fiber is the safer default, because it showed the lowest and narrowest idle latency in FCC testing and its capacity is not shared across a radio cell. Fixed wireless can work, but its evening consistency has to be proven at your address. For cloud gaming, the limits are set by the service: NVIDIA requires under 80 ms to its data center and recommends under 40 ms, and asks for 15 to 45 Mbps depending on resolution and frame rate (NVIDIA GeForce NOW system requirements).

8 to 14 msfiber median idle latency range, the lowest of the technologies the FCC reportedFCC
15 to 45 Mbpsbandwidth NVIDIA GeForce NOW requires, from 720p at 60 FPS to 4K at 120 FPSNVIDIA
20 Mbpsreported Xbox Cloud Gaming requirement for consoles, PCs and tablets, with 5GHz Wi-FiPure Xbox, citing Microsoft
200 GB+reported install size of Call of Duty: Modern Warfare III on PS5NerdZap, Aug 2026

Idle latency ranges for fiber, cable, DSL and a fixed wireless claim, against 40 ms and 80 ms cloud gaming limitsA horizontal range chart from 0 to 80 milliseconds. Fiber spans 8 to 14 milliseconds, cable 13 to 22, DSL 20 to 61, and a fixed wireless claim from a wireless ISP, drawn as a dashed outline, 5 to 15. A dashed vertical line marks 40 milliseconds, the level NVIDIA recommends for cloud gaming, and another marks 80 milliseconds, the level it requires. The bars grow from their left edges.Typical idle latency by access technologyRecommended: under 40 msRequired: under 80 msFiber (FCC)8 to 14 msCable (FCC)13 to 22 msDSL (FCC)20 to 61 msFixed wireless (claim)5 to 15 ms020406080MillisecondsFCC: weighted-median idle latency by technology and speed tier (Chart 16), to servers near ISP interconnection points,not to a game server. Fixed wireless is a wireless ISP’s own claim, not a measurement. NVIDIA: GeForce NOW guidance.Idle latency ranges for fiber, cable, DSL and a fixed wireless claim, against 40 ms and 80 ms cloud gaming limitsA horizontal range chart from 0 to 80 milliseconds. Fiber spans 8 to 14 milliseconds, cable 13 to 22, DSL 20 to 61, and a fixed wireless claim from a wireless ISP, drawn as a dashed outline, 5 to 15. A dashed vertical line marks 40 milliseconds, the level NVIDIA recommends for cloud gaming, and another marks 80 milliseconds, the level it requires. The bars grow from their left edges.Idle latency by technology40 ms80 msFiber8 to 14 msCable13 to 22 msDSL20 to 61 msFWA claim5 to 15 msTeal dashed: NVIDIA recommends under 40 ms.Red dashed: NVIDIA requires under 80 ms.FCC: median idle latency to servers near ISPinterconnects, not to a game server. FWA is awireless ISP’s own claim (dashed outline), not tested.

Figure 5: In FCC testing, fiber showed the lowest idle latency and the narrowest range; DSL had the widest. All reported technologies sit under the 80 ms cloud gaming requirement at the median, but the chart says nothing about peak-hour behaviour or the route to a particular game server.

Figure 5 shows fiber with the lowest and tightest range, cable close behind, and DSL with the widest spread. The FCC measured idle latency to servers near ISP interconnection points using a router-based test, so it describes the access technology, not the route to a particular game. The fixed wireless bar is a claim from a wireless ISP that cites 5 to 15 ms for fixed wireless and 600+ ms for satellite (Hudson Valley Wireless). It is a vendor statement and not a measurement. It does show why wireless should not be ruled out on idle ping alone: the open question is the evening, and the load.

Home broadband technologies compared for gaming, with the strength of the evidence
Technology Idle latency evidence Main evening risk Best fit
Fiber 8 to 14 ms (FCC, measured) Busy shared fiber or a congested route to the game Competitive multiplayer, cloud gaming, large downloads
Cable 13 to 22 ms (FCC, measured) Shared neighbourhood capacity Most online play when fiber is not available
DSL 20 to 61 ms (FCC, measured), widest range Larger gap between idle and loaded latency (FCC) Casual play; check cloud gaming limits first
Fixed wireless 5 to 15 ms (wireless ISP claim, not measured) Shared radio capacity that “gets thin at 8pm” (consumer guide) Where fiber is unavailable, if evening tests are steady

Cloud gaming sets a bandwidth floor and a latency ceiling

Cloud gaming streams video from a data center, so it adds a bandwidth floor to the usual latency question. NVIDIA lists 15 Mbps for 720p at 60 FPS, 25 Mbps for 1080p at 60 FPS, 35 Mbps for streaming up to 1440p or 1600p at 120 FPS, 40 Mbps for 4K at 60 FPS on smart TVs, and 45 Mbps for up to 4K at 120 FPS on Windows PC and macOS Ultimate. It requires under 80 ms latency from an NVIDIA data center and recommends a hardwired connection or a 5GHz wireless router. Pure Xbox reports, citing Microsoft as of April 2025, 10 Mbps on mobile and 20 Mbps on consoles, PCs and tablets, plus 5GHz Wi-Fi or mobile data; check Microsoft’s own support page before you buy.

Large downloads are where plan speed pays off

Game installs are big. NerdZap, a games news site, reports Call of Duty: Modern Warfare III past 200 GB, with some PS5 players reporting about 240 GB, and notes that sizes grow with updates and that the larger figure is player-reported.

Best-case download time for a 200 GB game at 50, 100, 300 and 1,000 MbpsFour horizontal bars show the best-case time to download a 200 gigabyte game. At 50 megabits per second it takes 8 hours 53 minutes, at 100 about 4 hours 27 minutes, at 300 about 1 hour 29 minutes, and at 1,000 about 27 minutes. The bars grow from the left.Time to download a 200 GB gameBest case: 200 GB × 8 ÷ plan speed, with the line fully used and no other traffic.50 Mbps8 h 53 min100 Mbps4 h 27 min300 Mbps1 h 29 min1,000 Mbps27 minOur arithmetic with decimal gigabytes. Real downloads are slower: servers, Wi-Fi and overheads all take a share.Install sizes: NerdZap (Aug 2026) reports Call of Duty: Modern Warfare III past 200 GB; some PS5 players reported about 240 GB.Best-case download time for a 200 GB game at 50, 100, 300 and 1,000 MbpsFour horizontal bars show the best-case time to download a 200 gigabyte game. At 50 megabits per second it takes 8 hours 53 minutes, at 100 about 4 hours 27 minutes, at 300 about 1 hour 29 minutes, and at 1,000 about 27 minutes. The bars grow from the left.Time to download 200 GBBest case: 200 GB × 8 ÷ plan speed.508 h 53 min1004 h 27 min3001 h 29 min1,00027 minPlan speeds in Mbps. Our arithmetic, decimal GB.Real downloads are slower than this best case.Size: NerdZap (Aug 2026) reports Call of Duty:Modern Warfare III past 200 GB on PS5.

Figure 6: Large downloads are the one place where headline Mbps clearly pays off, and the only part of gaming where a bigger plan helps directly. It does not lower ping (our arithmetic; best case).

Figure 6 is arithmetic: 200 GB is 1,600,000 megabits, divided by the plan speed. Moving from 100 to 300 Mbps cuts a best-case install from about 4 hours 27 minutes to about 1 hour 29 minutes. That is the one part of gaming where a bigger plan helps directly. It does not change your ping, so do not pay for a faster tier to fix lag.

Fiber is the better fit when…

  • You play ranked or competitive matches where every millisecond counts.
  • You stream cloud games at 1080p or higher.
  • Several people share the line and you install large games.

Wireless can be acceptable when…

  • Fiber is not available at your address.
  • Your 8 to 10pm tests stay steady for three evenings.
  • You play casual or turn-based games, or stream at lower settings.

What should you check before you choose a gaming broadband provider, or publish a gaming claim?

Check that the claim names its metric, its time of day, its route and its method. Gamers can use this list to compare providers. Operators and editors can use the same list to review a plan page, a comparison page or an advert.

  • Does it name ping, jitter and packet loss, and not only Mbps?
  • Does it say where the ping is measured: to which server region, on which test?
  • Does it show the evening result, 8 to 10pm, next to the afternoon one?
  • Does it say whether the test was wired and idle, or loaded?
  • Does it say which technology and which area the figures describe?
  • Does it define any gaming score it quotes, and say what is in it?
  • Does it separate a measurement from the provider’s own claim?
  • Does it state the plan speed needed for the games and cloud services it mentions?
  • Does every number carry a date and a source, and who checked it before publication?

Best home broadband for gaming: frequently asked questions

What is the best home broadband provider for gaming at home?

There is no single best provider, because the answer depends on your address and on the game server you play on. We found no public source that ranks Indonesian providers by gaming ping. The nearest public measure is Opensignal’s Consistent Quality score, which includes latency, jitter and packet loss: in the 90 days from 1 January 2026, Indosat HiFi led nationally (69.7%, ahead of XL SATU at 68.7%) and in Jakarta. Shortlist providers available at your address, then test wired ping in the evening.

Does a faster internet plan lower my ping?

Not directly. Plan speed is the maximum data per second; latency is the round-trip time to a server. A bigger plan speeds up downloads and cloud game streams, but it cannot shorten the route to a game server. In Opensignal’s Indonesian data, the provider with the fastest median download (Biznet Home, 41.0 Mbps) ranked sixth of eight for Consistent Quality.

What ping is good for gaming?

There is no universal number, because it depends on the game. For cloud gaming, NVIDIA requires under 80 ms to its data center and recommends under 40 ms. In FCC testing, median idle latency ranged from 8 to 14 ms on fiber, 13 to 22 ms on cable and 20 to 61 ms on DSL, but that was measured to servers near ISP interconnection points, not to a game server.

What are jitter and packet loss, and do they matter?

Jitter is the variation in latency over time, and packet loss is the share of packets that never arrive. In the FCC’s tests, a packet not returned within three seconds counts as lost. Both can cause stutter and lag spikes even when average ping looks fine. Opensignal includes latency, jitter and packet loss among the six indicators in its Consistent Quality score.

How much bandwidth do I need for cloud gaming?

NVIDIA GeForce NOW requires at least 15 Mbps for 720p at 60 FPS and 25 Mbps for 1080p at 60 FPS, 35 Mbps for 1440p or 1600p at 120 FPS, 40 Mbps for 4K at 60 FPS on smart TVs, and 45 Mbps for up to 4K at 120 FPS on Windows PC and macOS Ultimate. Xbox Cloud Gaming is reported, citing Microsoft, at 20 Mbps for consoles, PCs and tablets, with 5GHz Wi-Fi.

Is fiber better than fixed wireless for competitive gaming?

Fiber is the safer default. In FCC testing it showed the lowest and narrowest idle latency range. Fixed wireless can look similar on paper, and one wireless ISP cites 5 to 15 ms, but its capacity is shared across a radio cell and one consumer guide says shared capacity gets thin at 8pm. If fixed wireless is your only choice, test it in the evening before you commit.

Why is my ping worse in the evening?

More households are online, so shared links and routes can get busier. The FCC measures peak performance from 7 to 11pm on weeknights. Latency under load is also generally much higher than idle latency, so a family member’s stream or download can add delay on your own line. Test on Ethernet at 3pm and again at 8 to 10pm to see which applies.

How do I test a broadband provider for gaming before I sign up?

Use a wired connection and ping the game’s nearest server region for about five minutes at 3pm and again between 8 and 10pm, on three evenings. Record the minimum, average and maximum ping and any packet loss, then repeat with a large download running on another device. Ask neighbours on the same provider for their evening results, and check Opensignal’s regional table if your region is covered.

How long does it take to download a large game?

Best case, a 200 GB game takes about 8 h 53 min at 50 Mbps, 4 h 27 min at 100 Mbps, 1 h 29 min at 300 Mbps and 27 min at 1,000 Mbps (our arithmetic, decimal gigabytes). Real downloads are slower. NerdZap reports Call of Duty: Modern Warfare III installs past 200 GB.

Sources

  1. Opensignal: Indonesia fixed broadband experience (April 2026; 90 days from 1 January 2026)
  2. NVIDIA: GeForce NOW system requirements (fetched October 2026)
  3. FCC: 2023 Fixed Measuring Broadband America Report
  4. GFiber blog: network performance and low latency (27 May 2026)
  5. PC Tech Magazine: Fixed wireless access vs. fiber, what actually determines real-world speeds (11 September 2026)
  6. Pure Xbox: Xbox Cloud Gaming, how it works and supported devices (January 2025, updated April 2025)
  7. NerdZap: 5 games whose installs blew past a ludicrous 150GB (19 August 2026)
  8. Hudson Valley Wireless: Understanding latency, jitter and bandwidth (undated wireless ISP explainer)
  9. Business Wire: Optimum press release on Ookla rankings (January 2025)

Figures 2, 3 and 4, the scripts, the test method, the choose-list and the checklist are our illustrations, not measurements or standards. Figure 2’s hop times and Figures 3 and 4’s values are invented to show a pattern. Figure 6 and the FAQ download times are our arithmetic (200 GB × 8,000 ÷ plan speed), best case, in decimal gigabytes. Figure 1 ranks Opensignal’s national table in our own order, and Opensignal notes its results reflect each provider’s plan mix and routers; its Consistent Quality score covers HD video, video calls and gaming, not gaming alone. The Opensignal page gives no latency or gaming metric by provider. The FCC figures are US idle latency to servers near ISP interconnection points, from a report whose data year we did not confirm, and the FCC does not compare peak and off-peak latency in it. The ranges in Figure 5 are weighted medians by technology and speed tier. GFiber’s figures are the provider’s own analysis of Ookla data, and the Optimum release is a company press release that does not define its Game Score. PC Tech Magazine is a consumer guide whose figures are mostly secondhand, and its fiber latency figure is unsourced. The Hudson Valley Wireless explainer is a wireless ISP’s marketing, used for definitions and for its 5 to 15 ms fixed wireless claim, which we show as a claim. The Xbox requirement comes from Pure Xbox citing Microsoft. NerdZap’s install sizes include player-reported and estimated figures. We found no public provider-by-provider gaming ping data for Indonesia, so this page does not name a single best provider.

Best Fiber Home Broadband Provider: Compare Consistency, Availability and Long-Term Value

FTTH Operators • Buyer guides

Best Fiber Home Broadband Provider: Compare Consistency, Availability and Long-Term Value

By Junun Saleh · Updated · Built on Opensignal, FCC, Komdigi (via Bisnis.com), Emtelle and Biznet sources, each linked below

Ask which fiber provider is best and most pages answer with a ranked list of speeds. A household needs three different answers: does the line stay good at 9pm, can fiber actually be connected at this address, and what will it cost over the years we plan to stay? This page works through those three questions with the public data that exists for Indonesia, and says where the data stops. It is also written for FTTH operators, because the same three questions are the ones a prospective customer is silently asking your sales page.

Quick answer: The best fiber home broadband provider is the one that can actually connect your address, stays consistent in the evening, and has the lowest total cost over the period you will use it. Judge providers on three tests, in this order. First, availability: ask whether your home is “passed” or “connected”. Second, consistency: in Opensignal’s April 2026 Indonesia report, Indosat HiFi led Consistent Quality (69.7%), XL SATU led Reliability (497) and Biznet Home led download speed (41.0 Mbps), so no single provider won every metric. Third, value: add setup and monthly fees, including any price rise after a promotion, over 36 months. Opensignal’s results blend fiber, xDSL and cable, so they shortlist providers; they do not prove fiber quality.

In this page, consistency is how often a connection delivers a usable experience, not its top speed. Opensignal’s Consistent Quality is the share of tests that meet its thresholds for HD video, video calls and gaming across all hours, and its Reliability score (100 to 1,000) measures a household’s ability to connect and complete uninterrupted tasks. Homes passed means fiber runs past a home; homes connected means the home is actively linked and can use the service immediately. The last mile is the final stretch of cable between the provider’s network and your home. Peak hours is the evening period of highest demand; the FCC measures it as 7 to 11pm on weeknights.

How do you compare fiber providers beyond advertised speed?

Compare how consistently each provider delivers, how reliably it connects, how low its latency is, and how it holds up in the evening, and treat advertised speed as the ceiling. Opensignal measures real user experience and notes that its results do not depend on the plan a customer bought, only on the mix of plans each provider sells and on routers (Opensignal: Indonesia fixed broadband experience). That makes it a better guide to everyday experience than a plan page.

69.7%best national Consistent Quality, Indosat HiFi, 90 days from 1 January 2026Opensignal, April 2026
497best national Reliability score, XL SATU, on a 100 to 1,000 scaleOpensignal, April 2026
8 to 14 msmedian idle latency on fiber in FCC testing, against 20 to 61 ms on DSLFCC Measuring Broadband America, 2023 report
7 to 11pmweeknight peak window the FCC uses to measure peak performanceFCC

Consistent Quality for eight Indonesian fixed broadband providers in two Opensignal reportsA dumbbell chart for eight providers. Each row shows a hollow dot for the November 2025 Consistent Quality score and a filled dot for April 2026, joined by a line that draws in. Indosat HiFi rises from 68.9 to 69.7 percent, XL stays level at 68.7, IndiHome rises from 53.8 to 57.8, Biznet Home falls from 57.9 to 54.4, MyRepublic falls from 60.8 to 58.7, CBN rises from 41.8 to 44.3, Oxygen.id rises from 50.9 to 52.0 and Icon Plus falls from 61.9 to 60.5.Consistent Quality moves between reportsNov 2025 reportApr 2026 report (teal up, red down, grey level)40%50%60%70%Indosat HiFi68.9 to 69.7XL SATU68.7 to 68.7Icon Plus61.9 to 60.5MyRepublic60.8 to 58.7IndiHome53.8 to 57.8Biznet Home57.9 to 54.4Oxygen.id50.9 to 52.0CBN41.8 to 44.3Share of tests meeting Opensignal’s thresholds for HD video, video calls and gaming across all hours. National results.Nov 2025 report: 1 Aug to 30 Oct 2025. Apr 2026 report: 90 days from 1 Jan 2026. Fixed-line: fiber, xDSL, cable.The provider listed as XL Home in November 2025 appears as XL SATU in April 2026.Consistent Quality for eight Indonesian fixed broadband providers in two Opensignal reportsA dumbbell chart for eight providers. Each row shows a hollow dot for the November 2025 Consistent Quality score and a filled dot for April 2026, joined by a line that draws in. Indosat HiFi rises from 68.9 to 69.7 percent, XL stays level at 68.7, IndiHome rises from 53.8 to 57.8, Biznet Home falls from 57.9 to 54.4, MyRepublic falls from 60.8 to 58.7, CBN rises from 41.8 to 44.3, Oxygen.id rises from 50.9 to 52.0 and Icon Plus falls from 61.9 to 60.5.Consistent Quality, two reportsNov 2025Apr 2026 (teal up, red down)40506070Indosat HiFi69.7XL SATU68.7Icon Plus60.5MyRepublic58.7IndiHome57.8Biznet Home54.4Oxygen.id52.0CBN44.3Axis: % of tests meeting Opensignal’s video, calland gaming thresholds. Number shown: Apr 2026.Fixed-line only: fiber, xDSL and cable blended.XL Home (Nov 2025) appears as XL SATU (Apr 2026).

Figure 1: Provider consistency is not fixed. Between two Opensignal reports four of eight providers moved up, three moved down (two by more than 2 points) and one stayed level, so treat any single ranking as a snapshot.

Figure 1 compares two Opensignal reports for the same eight providers. Consistency moved: Biznet Home fell from 57.9% to 54.4%, while IndiHome rose from 53.8% to 57.8%, and XL stayed level at 68.7%. The provider listed as XL Home in the November 2025 report appears as XL SATU in April 2026. The lesson is that a ranking is a snapshot of 90 days. Opensignal also blends fiber, xDSL and cable in these tables, so a provider that sells both fiber and DSL will look different from a pure fiber operator (Opensignal, April 2026).

A rank grid of eight Indonesian fixed broadband providers across five Opensignal metricsA grid with eight provider rows and five metric columns: download, upload, reliability, consistency and video. Each cell shows the provider rank for that metric, and the cells appear column by column. Biznet Home ranks first for download but sixth for consistency. XL SATU ranks first for reliability. Indosat HiFi ranks first for consistency. Oxygen.id ranks first for upload and video. No provider ranks first in every column.Rank by metric: no provider leads every columnDownloadUploadReliabilityConsistencyVideoXL SATU2 (38.8)3 (27.6)1 (497)2 (68.7)2 (70.0)Indosat HiFi5 (30.9)4 (24.1)2 (469)1 (69.7)3 (69.7)Oxygen.id3 (35.3)1 (29.6)3 (459)7 (52.0)1 (70.3)Biznet Home1 (41.0)2 (28.2)4 (450)6 (54.4)4 (69.1)MyRepublic4 (35.0)6 (21.3)5 (405)4 (58.7)7 (65.8)CBN6 (30.5)5 (23.3)6 (403)8 (44.3)5 (68.7)IndiHome7 (26.2)8 (12.9)7 (351)5 (57.8)6 (66.0)Icon Plus8 (17.2)7 (14.8)8 (313)3 (60.5)8 (65.5)Rank among eight providers, with the value in brackets. Teal outline: first. Red: sixth to eighth. Reliability is scored 100 to 1,000.Source: Opensignal Indonesia fixed broadband experience, national results, 90 days from 1 January 2026. Ranks are our ordering.Download in Mbps; Consistency is % of tests; Video is a 0 to 100 score.A rank grid of eight Indonesian fixed broadband providers across five Opensignal metricsA grid with eight provider rows and five metric columns: download, upload, reliability, consistency and video. Each cell shows the provider rank for that metric, and the cells appear column by column. Biznet Home ranks first for download but sixth for consistency. XL SATU ranks first for reliability. Indosat HiFi ranks first for consistency. Oxygen.id ranks first for upload and video. No provider ranks first in every column.Rank by metricDownUpReliabConsistVideoXL SATU23122Indosat HiFi54213Oxygen.id31371Biznet Home12464MyRepublic46547CBN65685IndiHome78756Icon Plus87838Rank among eight providers (1 = best). Teal outline:first. Red: sixth to eighth.Source: Opensignal Indonesia, national, 90 days from1 Jan 2026. Ranks are our ordering of its table.

Figure 2: Four different providers lead the five metrics in the April 2026 table. A “best provider” claim is only meaningful with the metric attached.

Figure 2 shows why one number cannot name a winner. In the April 2026 table, Biznet Home ranks first for download (41.0 Mbps) and sixth for Consistent Quality (54.4%). XL SATU ranks first for Reliability. Indosat HiFi ranks first for Consistent Quality, and Oxygen.id ranks first for upload (29.6 Mbps) and for Video. Opensignal publishes a different winner for each award, which is the honest picture: providers are good at different things. Choose the metric that matches how you use the line. For the reliability question behind those scores, see is fiber internet reliable.

What to compare beyond advertised speed, and where the public evidence stands
What to compare Public evidence What to check yourself
Speed consistency Opensignal Consistent Quality: share of tests meeting video, call and gaming thresholds across all hours Wired tests at 3pm and 8 to 10pm over three days
Reliability Opensignal Reliability score, 100 to 1,000 Ask neighbours on the same provider about outages
Latency FCC (US): fiber 8 to 14 ms, cable 13 to 22, DSL 20 to 61, idle Ping a nearby server, idle and with a download running
Peak-hour speed FCC: most subscribers see only slight degradation at peak; no Indonesian provider peak data found Repeat the speed test between 8 and 10pm
Upload speed Opensignal upload, for example Oxygen.id 29.6 Mbps and IndiHome 12.9 Mbps Check upload on the plan, not only download

The FCC’s latency figures are US idle measurements to servers near ISP interconnection points, from a report that does not compare peak and off-peak latency, so they show the technology and not any one Indonesian provider (FCC 2023 Fixed Measuring Broadband America report). They are still a useful reminder that fiber access usually starts with an advantage that a provider has to keep through its own network and routing. Our suggested home test is simple: use Ethernet, run a speed test and a five-minute ping at about 3pm, repeat between 8 and 10pm on three evenings, and repeat once with a large download running on another device.

One speed claim, written two ways (illustrative; use your own measurements)

TypicalUltra-fast fiber up to 100 Mbps.
Customer-readyYour plan is 100 Mbps, which is the top speed on a good day. In our own wired tests last month, customers on this plan saw a median of 94 Mbps at 3pm and 91 Mbps between 8 and 10pm, with a median ping of 9 ms (example figures: publish your own, with the test date and method). If your evening result is far below that, send us the times and we will check your fiber.

Does fiber coverage mean fiber is actually available at your address?

No. “Covered” usually means fiber runs near your home, and connecting your home can still need a survey, permits and a drop cable. The fiber industry separates three states. Homes passed counts premises that fiber runs past, up to a demarcation point such as a pole or chamber. Homes passed plus extends the fiber to the property boundary. Homes connected counts premises that are actively linked and can use services immediately (Emtelle: FTTH insights on homes passed, passed plus and connected). Emtelle is a fiber cable maker, and its page describes common deployment terms, not a standard.

21%fixed broadband penetration in Indonesia, per the communications and digital minister, October 2025Bisnis.com
50%the 2029 penetration target in the national medium-term planBisnis.com
90%the target share of districts reached by fiber optic by 2029Bisnis.com
62.4%best rural Consistent Quality, Indosat HiFi, Nov 2025 reportOpensignal

Three stages of FTTH availability: homes passed, homes passed plus and homes connectedThree panels side by side. In the first, fiber runs along the street to a pole near the home and a dashed red line marks the unbuilt drop to the house: homes passed. In the second the fiber reaches the property boundary and a short dashed red gap remains: homes passed plus. In the third the fiber runs all the way into the home to an optical unit and a pulse of light travels along it: homes connected. The panels appear one after another.Three meanings of “fiber is available”HomeHomes passedFiber runs past the home.Connecting it still needssignificant work and cost.Work still to doHomeHomes passed plusFiber extended to theproperty boundary. Work thenstarts inside the boundary.Closer, not doneHomeHomes connectedPremises actively linked andable to use the servicewith no further installation.Usable todayDefinitions follow Emtelle, a fiber cable maker, describing common FTTH deployment terms. The drawing is schematic.Teal line: fiber. Dashed red: the part still to be built. Dashed grey: property boundary.Three stages of FTTH availability: homes passed, homes passed plus and homes connectedThree panels side by side. In the first, fiber runs along the street to a pole near the home and a dashed red line marks the unbuilt drop to the house: homes passed. In the second the fiber reaches the property boundary and a short dashed red gap remains: homes passed plus. In the third the fiber runs all the way into the home to an optical unit and a pulse of light travels along it: homes connected. The panels appear one after another.Three meanings of “available”HomeHomes passedFiber runs past the home. Connecting it still needssignificant work and cost.HomeHomes passed plusFiber extended to the property boundary. Work thenstarts inside the boundary.HomeHomes connectedPremises actively linked and able to use the servicewith no further installation.Definitions follow Emtelle, a fiber cable maker.Teal: fiber. Dashed red: still to build. Dashed grey:property boundary. The drawing is schematic.

Figure 3: A coverage map usually shows homes passed. Only homes connected can use the service immediately; the gap in between is the installation work, cost and wait you need to ask about.

Figure 3 is why the same address can be “covered” on a map and still be weeks from service. Indonesia is still building: the minister put fixed broadband penetration at about 21% of households and offices and set a 50% target for 2029, and a Komdigi director general repeated that fiber should reach 90% of districts (kecamatan) by 2029 (Bisnis.com, 1 October 2025; Bisnis.com, 5 November 2025). TeleGeography, as relayed by Bisnis.com, reports that fiber is nearly 89% of fixed broadband subscribers, so most connections are fiber, but whether it reaches your street is a local question (Bisnis.com, 25 November 2025).

Urban and rural reliability gaps and rural Consistent Quality for Indonesian fixed broadband providersTwo panels. The left panel shows reliability scores for IndiHome and Icon Plus: both are 318 in urban areas and fall to 240 and 256 in rural areas, shown as joined dots. The right panel shows rural Consistent Quality as bars: Indosat HiFi 62.4 percent, XL Home 59.8, MyRepublic 58.3 and IndiHome 41.1. The bars grow from the left.Place changes the resultReliability, urban vs rural (100 to 1,000)240280320IndiHomeurban 318rural 240Icon Plusurban 318rural 256Rural Consistent Quality (% of tests)Indosat HiFi62.4XL Home59.8MyRepublic58.3IndiHome41.1Opensignal Indonesia, Nov 2025 report (1 Aug to 30 Oct 2025). Only providers named in its urban and rural findings.Fixed-line results blend fiber, xDSL and cable, so the gap is not a pure fiber measure.Results also reflect each provider’s plan mix and routers.Urban and rural reliability gaps and rural Consistent Quality for Indonesian fixed broadband providersTwo panels. The left panel shows reliability scores for IndiHome and Icon Plus: both are 318 in urban areas and fall to 240 and 256 in rural areas, shown as joined dots. The right panel shows rural Consistent Quality as bars: Indosat HiFi 62.4 percent, XL Home 59.8, MyRepublic 58.3 and IndiHome 41.1. The bars grow from the left.Place changes the resultReliability, urban vs rural240280320IndiHomeurban 318rural 240Icon Plusurban 318rural 256Rural Consistent Quality (%)Indosat HiFi62.4XL Home59.8MyRepublic58.3IndiHome41.1Opensignal Indonesia, Nov 2025 report. Only providersnamed in its urban and rural findings are shown.Fixed-line blend of fiber, xDSL and cable, so not apure fiber measure. Plan mix and routers differ.

Figure 4: The same provider can score very differently in a city and in a village, and the rural leader differs from the urban one. Check results for your type of area, not just the national table.

Figure 4 uses Opensignal’s November 2025 report. Rural reliability was lower for the providers it names: IndiHome fell from 318 in urban areas to 240 in rural areas, and Icon Plus from 318 to 256. In rural areas Indosat HiFi led Consistent Quality at 62.4%, while in urban areas XL Home led at 69.0% (Opensignal, November 2025). Bisnis.com framed the same data as Indosat HiFi being strong in villages and Biznet in cities (Bisnis.com, 25 November 2025). The April 2026 report adds regional winners: Indosat HiFi in Jakarta, XL SATU in Kalimantan, Jawa Barat and Sulawesi, GlobalXtreme in Bali Nusra, and IndiHome in Maluku and Papua, where it is the only ISP operating at scale (Opensignal, April 2026). The best provider on paper is therefore the best provider at your address. If you are moving from another line, read how to avoid losing internet when switching providers.

Availability terms, what they mean for you, and what to ask
Term What it means What to ask the provider
Homes passed Fiber runs past the home; connecting it usually needs significant extra work and investment “Is my exact address passed or connected?”
Homes passed plus Fiber extended to the property boundary, so work can start inside it “How far is the fiber from my boundary?”
Homes connected Premises actively linked that can use services immediately “When can I start, and what is the date in writing?”

An address check you can run in a day

  1. Ask for an address-level check. A postcode or area is not enough.
  2. Ask passed or connected. Use the three terms above.
  3. Ask about the drop. How long is it, from which pole or chamber, and aerial or underground?
  4. Check permissions. Building management, landlord and any road or pole permits.
  5. Ask for the timeline and the fallback. How long to install, and what happens, and what you pay, if the survey fails.
  6. Ask who maintains the last mile. You want one party responsible for faults.
  7. Ask neighbours. Someone on your street on the same provider is the best evidence.

This is our suggested checklist, not a standard. It is deliberately the questions a good provider answers easily.

Which fiber provider offers the best long-term value?

The best long-term value is the lowest total cost over the period you will stay, for a connection that is reliable and can be upgraded, not the lowest monthly price. Total cost is the setup fee plus months multiplied by the monthly price, including any rise after a promotion. Reliability and upgrade options then decide whether that cost buys something you can use. Check the usage terms too: a fair usage policy can change what a plan delivers.

Rp 250,000Biznet’s reported price for a 100 Mbps package after a planned speed increase from 65 MbpsBisnis.com, 3 March 2026
Rp 150,000Biznet’s Q1 2026 promotional price for 100 Mbps for three months, in parts of BantenBisnis.com
36 monthsa common horizon for comparing total cost; ours, not a standardOur method

36-month cost of three invented fiber offers: Rp 8.70, 8.78 and 9.60 millionThree horizontal stacked bars. Offer A, with no setup fee, three months at Rp 150,000 and then Rp 250,000, totals Rp 8.70 million. Offer B, with a Rp 500,000 setup fee and a flat Rp 230,000, totals Rp 8.78 million. Offer C, with no setup fee, 12 months at Rp 200,000 and then Rp 300,000, totals Rp 9.60 million. The segments are setup, promotional price and regular price, and they grow from the left.Same 36 months, three very different billsSetup feePromotional priceRegular priceOffer ARp 0 setup. Rp 150,000 for 3 months, then Rp 250,000.Rp 8.70 millionOffer BRp 500,000 setup. Flat Rp 230,000.Rp 8.78 millionOffer CRp 0 setup. Rp 200,000 for 12 months, then Rp 300,000.Rp 9.60 millionInvented offers to show the method, not real prices. Total = setup + (months × monthly price), in Rp thousands:A = 450 + 8,250 = 8,700. B = 500 + 8,280 = 8,780. C = 2,400 + 7,200 = 9,600. The lowest first-year price (C) costs the most.36-month cost of three invented fiber offers: Rp 8.70, 8.78 and 9.60 millionThree horizontal stacked bars. Offer A, with no setup fee, three months at Rp 150,000 and then Rp 250,000, totals Rp 8.70 million. Offer B, with a Rp 500,000 setup fee and a flat Rp 230,000, totals Rp 8.78 million. Offer C, with no setup fee, 12 months at Rp 200,000 and then Rp 300,000, totals Rp 9.60 million. The segments are setup, promotional price and regular price, and they grow from the left.Three bills over 36 monthsSetupPromoRegularOffer ARp 0 setup.Rp 150,000 for 3 months, then Rp 250,000.8.70 millionOffer BRp 500,000 setup.Flat Rp 230,000.8.78 millionOffer CRp 0 setup.Rp 200,000 for 12 months, then Rp 300,000.9.60 millionInvented offers to show the method. Rp thousands:A = 450 + 8,250 = 8,700. B = 500 + 8,280 = 8,780.C = 2,400 + 7,200 = 9,600. The lowest first-yearprice (C) costs the most over 36 months.

Figure 5: Compare plans on setup plus months times monthly price, including what happens after any promotional period. Offers are invented to show the arithmetic.

Figure 5 uses three invented offers to show the arithmetic. Offer C has the lowest price in the first year (Rp 200,000), and over 36 months it costs the most, Rp 9.60 million, because its price rises to Rp 300,000. Offer B charges a setup fee, yet comes within Rp 80,000 of offer A. The point is that a setup fee, a promotion and a price rise all change the answer, and none of them is visible in a headline monthly price.

Waterfall from a Rp 7.20 million headline cost to a Rp 9.60 million real cost over 36 monthsA waterfall of three horizontal bars for the invented Offer C. The first bar is the headline cost of Rp 200,000 for 36 months, Rp 7.20 million. The second, in red, adds the price rise of Rp 100,000 for the last 24 months, Rp 2.40 million. The third shows the real 36-month cost of Rp 9.60 million. A dashed line marks Offer A at Rp 8.70 million. The bars grow from the left.From headline price to real cost: Offer COffer A: 8.70Headline: Rp 200,000 × 36Rp 7.20 millionPrice rise: +Rp 100,000 × 24+ Rp 2.40 millionReal 36-month costRp 9.60 millionIllustrative arithmetic: 200 × 36 = 7,200; 100 × 24 = 2,400; total 9,600 (Rp thousands).Dashed line: Offer A from Figure 5. The price rise after the first year is the cost the headline hides.Waterfall from a Rp 7.20 million headline cost to a Rp 9.60 million real cost over 36 monthsA waterfall of three horizontal bars for the invented Offer C. The first bar is the headline cost of Rp 200,000 for 36 months, Rp 7.20 million. The second, in red, adds the price rise of Rp 100,000 for the last 24 months, Rp 2.40 million. The third shows the real 36-month cost of Rp 9.60 million. A dashed line marks Offer A at Rp 8.70 million. The bars grow from the left.Headline price to real costOffer A: 8.70Headline: Rp 200,000 × 367.20Price rise: +Rp 100,000 × 24+2.40Real 36-month cost, Offer C9.60 millionIllustrative: 200 × 36 = 7,200; 100 × 24 =2,400; total 9,600 (Rp thousands). Dashed line: Offer Afrom Figure 5. The first-year price hides the rise.

Figure 6: The cheapest-looking monthly price can carry the highest 36-month cost once the price rise is included (invented example).

Figure 6 breaks offer C into its parts. Real-world price lists are more complicated than three offers, so the habit to build is simple: ask for the regular price after any promotion, and put it in the calculation. In the United States, the FCC’s broadband labels now require providers to disclose important information about prices, introductory rates and data allowances at the point of sale (FCC: Broadband Labels). We did not find an equivalent Indonesian label requirement in our research, so ask for the same items in writing.

What the provider’s own statements say

Providers do publish useful signals about value, with the caveat that they are marketing. Biznet said in March 2026 that customers still weigh service quality, especially bandwidth, above price, and described plans to raise speeds with no price change, for example from 65 Mbps to 100 Mbps at a fixed Rp 250,000, with a promotion of 100 Mbps at Rp 150,000 a month for three months in parts of Banten (Bisnis.com: Biznet on quality over price). On those numbers the price per Mbps falls from about Rp 3,846 to Rp 2,500. The article also says speeds will rise by “up to 30%” while its example is a 54% increase, so the reported numbers are not fully consistent. Treat it as an example of the question to ask, “will my speed rise at the same price?”, not as a market-wide fact.

The cost and value lines to compare, and what to ask
Line What to ask Why it matters
Monthly price after promotion “What is the price in month 4, month 13 and month 25?” Promotions end; the regular price is what you pay for most of the term
Setup and installation fee “Is it waived, refundable if the survey fails, or paid up front?” A one-off cost that sits outside the monthly price
Contract length and exit “What happens if I leave at month 12?” Early exit terms change the real cost of a short stay
Speed upgrades “Can I move up, at what price, and is it free to move down?” Providers sometimes raise speeds at the same price
Reliability and support “How are outages handled and how fast is a repair?” Opensignal Reliability ranges from 313 to 497 across providers
Router and equipment “Is the router included, and can I use my own?” Opensignal notes routers affect results

Good long-term value looks like…

  • A stated regular price and a written post-promotion price.
  • A clear setup fee, or a refund if installation fails.
  • Stable evening results and a Reliability score near the top of the table.
  • An upgrade path that does not reset the contract.

Red flags…

  • A very low first-year price with no mention of month 13.
  • “Covered” with no date for connection.
  • A speed claim with no consistency or evening figure.
  • No clear owner for faults in the last mile.

One value claim, written two ways (illustrative; use your own prices)

TypicalThe best-value fiber plan in town.
Customer-readyOver 36 months this plan costs Rp 9.0 million in total: Rp 250,000 a month, no setup fee and no price change over the 36 months (example figures: use your own). Your speed can rise at the same price when we upgrade the network, and if installation fails at survey we refund any fee you paid.

What should you check before you choose a fiber provider, or publish a comparison?

Check that the claim is tied to an address, a time of day, a total cost and a source. Households can use this list to compare providers. Operators and editors can use the same list to review a plan page, a comparison article or an advert.

  • Does it say whether the address is passed or connected, and when service can start?
  • Does it name the metric behind “best”: consistency, reliability, latency or speed?
  • Does it show the evening result next to the afternoon one?
  • Does it say which technologies the data covers: fiber only, or fiber, xDSL and cable blended?
  • Does it say which area the result describes, since city and village results differ?
  • Does it show total cost over a stated period, with setup and the post-promotion price?
  • Does it explain upgrades, contract length and what happens on early exit?
  • Does it separate measurements from the provider’s own claims?
  • Does every number carry a date and a source, and who checked it before publication?

Best fiber home broadband provider: frequently asked questions

What is the best fiber home broadband provider?

There is no single best provider, because the answer depends on your address, the hours you use the line and what you pay over time. In Opensignal’s April 2026 Indonesia report, Indosat HiFi led Consistent Quality (69.7%), XL SATU led Reliability (497) and Biznet Home led download speed (41.0 Mbps). Those results blend fiber, xDSL and cable, so use them to shortlist and then check fiber availability at your address.

Is the provider with the fastest download speed the best?

Not necessarily. In Opensignal’s April 2026 table, Biznet Home had the fastest median download (41.0 Mbps) but ranked sixth of eight for Consistent Quality (54.4%). Indosat HiFi ranked fifth for download (30.9 Mbps) and first for Consistent Quality (69.7%). Download speed shows the ceiling; consistency shows how often you reach a usable experience.

How do I check whether fiber is available at my address?

Ask the provider to check your exact address, not your area, and ask whether your premises are “passed” or “connected”. A coverage map often shows homes passed, where fiber runs nearby. Connecting your home may still need a survey, permits and a drop cable. Ask for the expected installation time and what happens if the survey fails.

What is the difference between homes passed and homes connected?

Homes passed is a count set by the network owner for premises that fiber runs past, up to a demarcation point such as a pole or chamber, and connecting each customer usually needs significant extra work. Homes connected counts premises actively linked and able to use the service immediately. Homes passed plus sits between them: fiber extended to the property boundary. These definitions follow Emtelle, a fiber cable maker.

Is fiber really lower latency than other broadband?

In FCC testing of US providers, weighted-median idle latency ranged from 8 to 14 ms on fiber, 13 to 22 ms on cable and 20 to 61 ms on DSL. That measures idle latency to test servers near ISP interconnection points. Latency under load is generally much higher than idle, so check evening results on your own line.

Does fiber slow down in the evening?

Usually only a little on a well-run network. The FCC measures peak performance from 7 to 11pm on weeknights and reports that most subscribers see only slight speed degradation at peak, especially for upload. Opensignal’s Consistent Quality counts tests across all hours. Test your own line at 3pm and again between 8 and 10pm over several days.

How do I compare the real cost of fiber plans?

Add the setup fee to months multiplied by the monthly price for the whole period you expect to stay, including any price rise after a promotion, and divide by the months. For three invented offers over 36 months, we get Rp 8.70 million, Rp 8.78 million and Rp 9.60 million, even though the offer with the lowest first-year price is the most expensive overall. Ask for the post-promotion price in writing.

Are promotional prices worth it?

They can be, if the regular price is fair. Biznet said a Q1 2026 promotion offered 100 Mbps for Rp 150,000 a month for three months in parts of Banten, and described a Rp 250,000 package at 100 Mbps. If Rp 250,000 is the regular price (our assumption), the promotion saves Rp 300,000 over 36 months, about 3.3%. The regular price and contract terms matter far more than a short introductory discount.

Does a faster plan make fiber better value?

Only if you use the speed. Biznet said it planned to raise some packages without a price change, for example from 65 Mbps to 100 Mbps at Rp 250,000, which on its numbers cuts the price per Mbps from about Rp 3,846 to Rp 2,500. That is a provider statement. A cheaper price per Mbps does not help if the connection is inconsistent at peak, so weigh it against Reliability and Consistent Quality.

Sources

  1. Opensignal: Indonesia fixed broadband experience (April 2026; 90 days from 1 January 2026)
  2. Opensignal: Indonesia fixed broadband experience (November 2025; 1 August to 30 October 2025)
  3. FCC: 2023 Fixed Measuring Broadband America Report
  4. FCC: Broadband Labels
  5. Bisnis.com: Komdigi targets fixed broadband penetration rising from 21% to 50% by 2029 (1 October 2025)
  6. Bisnis.com: Komdigi targets 90% of districts connected by fiber optic by 2029 (5 November 2025)
  7. Bisnis.com: Opensignal report, Telkomsel holds 67% of Indonesia fixed broadband market (25 November 2025)
  8. Bisnis.com: Fixed broadband competition map, Indosat HiFi strong in villages, Biznet in cities (25 November 2025)
  9. Bisnis.com: Biznet on customers weighing quality, not price (3 March 2026)
  10. Emtelle: FTTH insights on homes passed, homes passed plus and homes connected (27 March 2025)

Figures 3, 5 and 6, the address check, the home test, the scripts and the checklist are our illustrations, not published standards. Figure 3 is schematic and follows Emtelle’s definitions; Emtelle is a fiber cable maker. The three offers in Figures 5 and 6 are invented to show the arithmetic and are not real prices; the totals are our arithmetic (setup + months × monthly price, in Rp thousands). The 3.3% promotion saving and the price per Mbps figures use Biznet’s reported numbers with our assumption that Rp 250,000 is the regular 100 Mbps price. Figures 1, 2 and 4 are our orderings of Opensignal’s tables. Opensignal blends fiber, xDSL and cable and notes that results depend on each provider’s plan mix and on routers, so they are not a pure fiber comparison. The Opensignal summary text says Biznet Home won four of five Jakarta awards, while its regional table shows Indosat HiFi winning three, so we used the table. The XL Home and XL SATU names refer to the same line in the November 2025 and April 2026 reports as we read them, which we have not confirmed with Opensignal. Bisnis.com articles are Indonesian-language news reports of ministers’ and Opensignal’s statements; Biznet’s statements are its own marketing and its example (65 to 100 Mbps) does not match its “up to 30%” headline. The FCC figures are US idle latency from a report whose data year we did not confirm, and the FCC page we read did not list installation fees or latency in the broadband label. We found no public provider-by-provider peak-hour latency or installation fee data for Indonesia, so this page does not name a single best provider.

How to Explain Why Speed Test Results Are Lower Than the Plan

FTTH Operators • Customer education

How to Explain Why Speed Test Results Are Lower Than the Plan

By Junun Saleh · Updated · Built on Ofcom, M-Lab, Cloudflare, ISPreview, Snapone, Bisnis.com and Telkomsel sources, each linked below

A customer pays for 300 Mbps, runs a speed test on a phone in the bedroom, sees 90 and calls support. If the agent says “it is your Wi-Fi”, the customer hears “it is your fault”. If the agent says “we will check the line”, the engineer wastes a visit. Both are guessing, because a speed test does not measure the plan. It measures the narrowest point between one device and one server at one moment. This page gives support, sales and marketing teams the explanation, the three places a speed is lost, and a repeatable test process that separates in-home limits from access-network problems.

Quick answer: A speed test result is lower than the plan because it reports the slowest link on the whole path, not the plan speed at the router. Explain it in three steps. First, Wi-Fi: a phone tests the wireless link on top of the plan, and Ofcom notes a wired connection is usually faster and more reliable, so test with a cable first. Second, the path: the home, the shared access network and the test server can each be the narrowest point, and server distance, streams and time of day change the number. Third, prove it: run the same wired test several times at peak and off-peak, then add Wi-Fi, and the step where the number falls shows which side to investigate.

In this page, plan speed is the speed the contract describes, delivered to the customer’s router. Throughput is the data rate a test actually achieves. A link rate is the negotiated Wi-Fi rate between two devices, which is always higher than the throughput you can use. Latency is the round-trip time for data, and loaded latency is that time while the connection is busy. A bottleneck is the slowest point on the path, which sets the result.

How do you explain Wi-Fi vs wired speed test results to customers?

The plan is delivered to the router. A phone on Wi-Fi then tests a second link, the wireless one, and that link is usually the weaker of the two. Ofcom’s advice is plain: a wired connection is usually faster and more reliable, and it suggests connecting a device with an Ethernet socket directly to the router when the device does not need to move (Ofcom: Get help with broadband and Wi-Fi problems). That is why a cable test is the first step in any complaint about speed.

29.8%of Ethernet speed was what UK Wi-Fi tests reached in Q1 2023, in Ookla dataISPreview, May 2023
20-40 Mbpsreal-world throughput in a good 2.4 GHz set-up (vendor rule of thumb)Snapone Araknis
150-400 Mbpsthe same rule of thumb for a good 5 GHz set-upSnapone Araknis
~1 Gbpstypical wired Ethernet link to a router, so a cable rarely limits a plan below thatISPreview, May 2023

The Ookla figure comes from user-run Speedtest.net tests, and ISPreview points out that those tests record no device, room, wall material or distance, so treat 29.8% as a sign of the gap, not a rule. The vendor ranges are for one three-stream Wi-Fi 5 access point and will differ for other equipment.

Ethernet and Wi-Fi tests on the same 300 Mbps planThree horizontal bars against a dashed line marking a 300 Mbps plan. The Ethernet bar reaches the plan line. The 5 GHz Wi-Fi bar solidly covers 150 Mbps with a lighter band to the plan line. The 2.4 GHz Wi-Fi bar covers only 20 Mbps with a lighter band to 40 Mbps.One 300 Mbps plan, three ways to measure itPlan: 300 Mbps (illustrative)Laptop on an Ethernet cableLimited by the plan, not by the home.Phone on 5 GHz Wi-FiVendor rule of thumb: 150 to 400 Mbps in a good 5 GHz set-up.Phone on 2.4 GHz Wi-FiVendor rule of thumb: 20 to 40 Mbps in a good 2.4 GHz set-up.Schematic. Light band = range, for one 3-stream Wi-Fi 5 access point (Snapone Araknis guide), not every router.The cable result is capped by the plan, so one line can look fast or slow depending on how the device is attached.Ethernet and Wi-Fi tests on the same 300 Mbps planThree horizontal bars against a dashed line marking a 300 Mbps plan. The Ethernet bar reaches the plan line. The 5 GHz Wi-Fi bar solidly covers 150 Mbps with a lighter band to the plan line. The 2.4 GHz Wi-Fi bar covers only 20 Mbps with a lighter band to 40 Mbps.One 300 Mbps plan, three testsPlan: 300 Mbps (illustrative)Laptop on an Ethernet cableLimited by the plan,not by the home.Phone on 5 GHz Wi-FiVendor rule of thumb:150 to 400 Mbps, good set-up.Phone on 2.4 GHz Wi-FiVendor rule of thumb:20 to 40 Mbps, good set-up.Schematic. Light band = range, for one 3-streamWi-Fi 5 access point (Snapone Araknis guide).A cable result is capped by the plan.

Figure 1: The same plan measured three ways (schematic, using one vendor’s rule-of-thumb ranges). The test shows the weakest link between the device and the server, and on Wi-Fi that link is often the wireless one.

Why the number on the router box is not a speed

A router sold as 1,750 Mbps adds its two radios together: 450 Mbps on 2.4 GHz and 1,300 Mbps on 5 GHz. A phone uses one band at a time. Most phones have two Wi-Fi streams where the access point has three, which takes the 5 GHz figure to about 867 Mbps (our arithmetic: two thirds of 1,300). Wi-Fi is also half-duplex, so a device sends or receives but not both at the same moment, which the Snapone guide says roughly halves the usable rate. Distance, walls and neighbours then take more. Even the guide’s best-case 400 Mbps is under a quarter of the number on the box.

How a router label of 1,750 Mbps shrinks to a real Wi-Fi resultFive bars in sequence. The label reads 1,750 Mbps. One band at a time gives 1,300. A phone with two streams gives about 867. Half-duplex operation gives about 433. Walls and interference leave a vendor rule of thumb of 150 to 400 Mbps.From the router’s label to a speed test resultNumber on the box450 + 1,300 Mbps added up1,750One band at a time5 GHz, 3 streams, 80 MHz1,300Phone has 2 streams2 of 3 streams: about 867867Wi-Fi is half-duplexSend or receive, not both433Walls and interferenceVendor rule of thumb150 to 400Example: a 3×3 Wi-Fi 5 access point sold as 1,750 Mbps (Snapone Araknis guide). 867 is our arithmetic (2/3 of 1,300).Half-duplex roughly halves the rate in the guide. Schematic: real results depend on the room, phone and neighbours.How a router label of 1,750 Mbps shrinks to a real Wi-Fi resultFive bars in sequence. The label reads 1,750 Mbps. One band at a time gives 1,300. A phone with two streams gives about 867. Half-duplex operation gives about 433. Walls and interference leave a vendor rule of thumb of 150 to 400 Mbps.From the router label to a resultNumber on the box450 + 1,300 Mbps added up1,750One band at a time5 GHz, 3 streams, 80 MHz1,300Phone has 2 streams2 of 3 streams: about 867867Wi-Fi is half-duplexSend or receive, not both433Walls and interferenceVendor rule of thumb150 to 400Example: a 3×3 Wi-Fi 5 access point sold as1,750 Mbps (Snapone Araknis guide). The 867 isour arithmetic. Half-duplex roughly halves therate. Schematic; real rooms vary.

Figure 2: Router box numbers add the radios and use the most streams. A phone uses one band, fewer streams and shares the air with everything nearby, so the result sits far below the label.
What lowers a Wi-Fi speed test result, and what to tell the customer
Factor What the sources say What to say
Distance and walls Ofcom: Wi-Fi works best with fewer obstacles and walls between router and device; keep the router off the floor and roughly central “Test next to the router first, then in the room where it feels slow.”
Band: 2.4 GHz or 5 GHz Snapone: 20 to 40 Mbps on 2.4 GHz and 150 to 400 Mbps on 5 GHz in a good set-up (one access point type) “Connect to the 5 GHz network for the test.”
The device itself Snapone: most mobile devices have fewer streams than the access point. Ofcom: if one device is much slower than the others, the problem might be that device “Try a second device. If only one is slow, the line is not the cause.”
Interference Ofcom lists microwaves, baby monitors, cordless phones and dimmer switches as possible sources “Move the router away from those and test again.”
Other traffic and old devices Snapone: more devices mean longer waits to transmit, and a slow legacy device holds the air longer for everyone “Pause downloads and streams while you test.”

A cable test tells you…

  • Whether the plan reaches the router.
  • What the line does at different hours.
  • Whether the access network deserves a fault ticket.

A Wi-Fi test tells you…

  • What one device gets in one spot.
  • Whether the router position, band or device is the limit.
  • Where Wi-Fi coverage needs help, not the line.

One speed explanation, written two ways (illustrative)

TypicalWi-Fi speed depends on many factors, so results may vary from your package speed.
Customer-readyYour plan is 300 Mbps at the router. A phone on Wi-Fi measures the wireless link on top of that, and walls, the band and the phone all lower it. To see the plan itself, plug a laptop into the router with a cable and test again. If the cable test is close to 300 and the phone is not, the line is fine and we will help with the Wi-Fi.

How do you explain end-to-end speed bottlenecks?

A speed test reports the narrowest point on the whole path between the device and the test server. That point can be in the home, in the shared access network, or at the test server. Cloudflare describes its own result as reflecting “the combined performance of all components along the path to the content”, including local factors such as the browser and Wi-Fi (Cloudflare: How does Cloudflare’s speed test really work?). Customers tend to hear a single number as a verdict on the ISP. It is a verdict on the path. Much of that path is in-home Wi-Fi, which is why the customer experience ends in every room.

The path between a phone and a speed test serverSix boxes in a row: phone or laptop, home Wi-Fi, router and ONT, ISP access network, ISP core and peering, and test server. Brackets group the first three as customer premises, the next two as the ISP network and the last as the test provider. Small pulses travel along the links. In turn, the home Wi-Fi, the shared access network and the test server are highlighted with a note about how each can cap the result.The path a speed test crossesCustomer premisesISP networkTest providerPhoneor laptopHomeWi-FiRouterand ONTISP accessnetworkISP coreand peeringTestserverHome Wi-FiWalls, noise and the phone’sradio often set the ceiling.Shared accessBusy hours leave lesscapacity per customer.Test serverFar, busy, or one-streamtests report less.A speed test reports the narrowest point on the whole path. Schematic: the links are not to scale.Where the server sits changes what the test can see: M-Lab places its servers outside ISP last-mile networks.The path between a phone and a speed test serverSix boxes in a row: phone or laptop, home Wi-Fi, router and ONT, ISP access network, ISP core and peering, and test server. Brackets group the first three as customer premises, the next two as the ISP network and the last as the test provider. Small pulses travel along the links. In turn, the home Wi-Fi, the shared access network and the test server are highlighted with a note about how each can cap the result.The path a speed test crossesPhone or laptopCustomer premisesHome Wi-FiCustomer premisesRouter and ONTCustomer premisesISP access networkISP networkISP core and peeringISP networkTest serverTest providerHome Wi-FiWalls, noise and thephone radio often capthe speed.Shared accessBusy hours leave lesscapacity per customer.Test serverFar, busy, or one-streamtests report less.A speed test reports the narrowest point on thewhole path. Schematic, not to scale. M-Lab placesits servers outside ISP last-mile networks.

Figure 3: A speed test measures the narrowest part of the path, and any of three places can be the narrowest: the home Wi-Fi, a busy shared access segment or the test server itself.

In our view, fiber has a lot of headroom, so on a healthy FTTH line the narrowest point is more often in the home or beyond the access network than on the fiber itself. We have no measured share to quote, which is why the test process in the next section matters.

Why two tests on the same line disagree

Test design changes the number. Cloudflare says that, even with the same method, results differ noticeably with the distance to the server, and that how a test ramps up data, how many streams it opens and how it aggregates samples all change outcomes. M-Lab’s NDT uses a single stream because it measures bulk transport capacity more accurately, while a multiple-stream test is less sensitive to spurious packet loss and may mirror the best of its streams (M-Lab: Speed tests, accuracy, NDT and M-Lab). M-Lab also points out that its servers sit outside ISP last-mile networks, so a test crosses the points where ISPs connect to the wider internet, and that, anecdotally, tests hosted inside an ISP network usually read higher.

500+servers M-Lab ran its NDT test on worldwide in 2019, outside ISP last-mile networksM-Lab, March 2019
~100 msidle-to-loaded latency gap on a wired link that Cloudflare says points toward the ISPCloudflare blog
8-10pmresidential peak time in Ofcom’s 2019 broadband speed codesComms Ombudsman
51.40 MbpsIndonesia’s fixed broadband median download in Ookla’s August 2026 indexBisnis.com, 14 Oct 2026

Speed test results for the same line under different test set-upsTwo panels of three bars against a dashed plan line. In the first panel, a near server with many streams comes closest to the plan, a far server with many streams is lower, and a far server with a single stream is lowest. In the second panel, mid-morning and mid-afternoon tests come close to the plan, while an evening peak test is clearly lower.Same line, same plan, different resultsServer distance and streamsNear server, many streamsFar server, many streamsFar server, one streamplanTime of dayMid-morningMid-afternoonEvening peak, 8 to 10pmplanSchematic, not measured data. Server distance, stream count and test design change results (Cloudflare, M-Lab).Ofcom’s codes put residential peak at 8 to 10pm, and Ofcom advises testing more than once. One test is a sample.Speed test results for the same line under different test set-upsTwo panels of three bars against a dashed plan line. In the first panel, a near server with many streams comes closest to the plan, a far server with many streams is lower, and a far server with a single stream is lowest. In the second panel, mid-morning and mid-afternoon tests come close to the plan, while an evening peak test is clearly lower.Same line, different resultsServer distance and streamsNear server, many streamsFar server, many streamsFar server, one streamplanTime of dayMid-morningMid-afternoonEvening peak, 8 to 10pmplanSchematic, not measured data. Server distance andstream count change results (Cloudflare, M-Lab).Ofcom defines residential peak as 8 to 10pm.

Figure 4: The same line can return very different numbers depending on the server, the number of streams and the hour (schematic). Run several tests before drawing a conclusion.

Congestion and the time of day

M-Lab lists three possible causes for poor performance: Wi-Fi signal problems, congestion inside the ISP’s network, and congestion between ISPs. Ofcom’s codes measure speed at peak times, defined as 8 to 10pm for residential customers, and Ofcom advises customers that speed varies by day and time, so a fuller picture needs more than one test. Telkomsel’s guide for customers says the same in Indonesian: test several times and record results at different times, because morning and night results can differ (Telkomsel: how to test internet speed).

A national figure is not any customer’s plan. Ookla’s August 2026 index puts Indonesia’s fixed broadband median at 51.40 Mbps download, 36.23 Mbps upload and 8 ms latency, 113th globally. Komdigi’s 2026 target is a 45 Mbps average for fixed broadband, up from 37 Mbps in 2025 (Bisnis.com, January 2026). The two figures come from different sources and periods, so do not compare them with each other or with a household’s result.

Where the limit can sit, what you see, and who can fix it
Where What you tend to see Who can usually fix it
Phone or laptop One device slow, others fine Customer: update, restart, try another device
Home Wi-Fi Cable near plan, Wi-Fi far below, worse in far rooms Customer with ISP advice: position, band, router
Router, ONT and drop Low on cable at every hour, on every server ISP: line and port tests, technician visit
Shared access network Cable result falls in the evening peak ISP: capacity review
Upstream path and test server Low on one server, fine on another Test provider or ISP peering team

How do you prove ISP network performance with a standard troubleshooting process?

Use the same wired-first test ladder every time, and write the results down. The step where the number falls tells you whether to look inside the home or at the access network. Ofcom’s customer advice follows the same logic: run a speed test before changing anything, try a few checkers, test at different times, use a cable where practical, check whether one device is slower than the others, and reverse recent changes to the home network.

A five-step ladder for testing a slow connectionFive boxes in sequence. Step 1: connect a laptop by cable to the router and pause other apps. Step 2: run three tests on two different servers and note the times. Step 3: repeat in the evening peak and in the morning. Step 4: test on Wi-Fi beside the router and then far away. Step 5: find the step where the number falls and record it. A green bar under steps 1 to 3 marks the ISP side and an amber bar under step 4 marks the home side. The boxes highlight in order.A five-step test ladder: wired first, Wi-Fi second1 Wire itLaptop on a cableto the router.Pause other apps.2 RepeatRun three tests,two differentservers. Note time.3 PeakRepeat in theevening peak andin the morning.4 Add Wi-FiThen test on Wi-Fibeside the router,then far away.5 CompareFind the stepwhere the numberfalls. Record it.Steps 1 to 3 test the ISP side: no Wi-Fi in the wayStep 4: the home sideSame device, room and servers for every run. Change one thing at a time and note the time of each test.Ofcom: test before changing anything, try a few checkers, test at different times, use a cable where practical.A five-step ladder for testing a slow connectionFive boxes in sequence. Step 1: connect a laptop by cable to the router and pause other apps. Step 2: run three tests on two different servers and note the times. Step 3: repeat in the evening peak and in the morning. Step 4: test on Wi-Fi beside the router and then far away. Step 5: find the step where the number falls and record it. A green bar under steps 1 to 3 marks the ISP side and an amber bar under step 4 marks the home side. The boxes highlight in order.A five-step test ladder1 Wire itISP sideLaptop on a cable to the router.Pause other apps and downloads.2 RepeatISP sideRun three tests on two different servers.Note the time of each one.3 PeakISP sideRepeat in the evening peak and the morning.Same laptop, same cable.4 Add Wi-FiHome sideTest on Wi-Fi beside the router, then inthe far room. Same device.5 CompareDecisionFind the step where the number falls.Record it with the time.Same device, room and servers for every run.Change one thing at a time; note the time.Ofcom: test before changing anything, try a fewcheckers, test at different times, use a cable.

Figure 5: Wired steps come first because they take the home Wi-Fi out of the measurement. The step where the number falls tells you which side to investigate.
  1. Wire it. Connect one laptop to the router by Ethernet cable and pause other downloads and streams. A cable that cannot carry the plan speed will mislead the test, so use a cable rated for it, as Ofcom advises.
  2. Repeat it. Run three tests on two different servers and note the time. A single test is a sample.
  3. Test at peak and off-peak. Repeat in the evening, between 8 and 10pm, and again in the morning. Keep the device, the cable and the servers the same.
  4. Add Wi-Fi. Test on Wi-Fi next to the router on 5 GHz, then in the room where the problem is felt. Change one thing at a time.
  5. Compare and record. Find the step where the number falls. Record date, device, connection, server, download, upload and latency.
6 weeksin the UK before a customer can use a free dispute scheme if the provider’s complaint process has not solved the problemOfcom, updated Aug 2026
30 daysa UK provider may have to improve speeds before the customer gets a penalty-free exit, under the 2019 codesComms Ombudsman
45 MbpsKomdigi’s 2026 target for average fixed broadband speed, from 37 Mbps in 2025Bisnis.com, Jan 2026
92.4%precision reported by a 2024 master’s thesis for classifying whether a Wi-Fi test reflects a broadband bottleneckUniversity of Notre Dame

Reading the pattern

The results fall into a few recognisable patterns. A cable result near the plan with a low Wi-Fi result points to the home. A cable result that is low at every hour and on every server points to the line or the access side, and justifies a fault ticket. A cable result that falls only in the evening points to congestion. A result that is low on one server and fine on another points to the path or the server. Cloudflare adds one more signal: a gap between idle and loaded latency approaching 100 ms or more over a wired connection suggests the ISP is at fault.

Four test patterns and what each one suggestsFour rows, each with a pattern, a likely side and a first step. Cable near plan but Wi-Fi well below points to a home Wi-Fi limit: reposition, change band or upgrade the router. Cable low at every hour and server points to a line or access fault: open a fault ticket with the logged results. Cable low only in the evening points to congestion at peak: escalate for a capacity review. Cable low on one test server only points to a path or server issue: retest on another server. Each row highlights in turn.Reading the pattern: where to look firstPATTERN YOU SEELIKELY SIDEFIRST STEPCable near plan, Wi-Fi well belowHome Wi-Fi limitReposition, change band,or upgrade the router.Cable low at every hour and serverLine or access faultOpen a fault ticket withthe logged results.Cable low only in the eveningCongestion at peakEscalate for a capacityreview, with the times.Cable low on one test server onlyPath or server issueRetest on another server;check the upstream path.These patterns point the investigation; they do not prove a cause. Confirm with the ISP’s own line tests and the device logs.If one device is much slower than the others, Ofcom says the problem might be with that device rather than the broadband.Four test patterns and what each one suggestsFour rows, each with a pattern, a likely side and a first step. Cable near plan but Wi-Fi well below points to a home Wi-Fi limit: reposition, change band or upgrade the router. Cable low at every hour and server points to a line or access fault: open a fault ticket with the logged results. Cable low only in the evening points to congestion at peak: escalate for a capacity review. Cable low on one test server only points to a path or server issue: retest on another server. Each row highlights in turn.Reading the patternPATTERNCable near plan, Wi-Fi well belowLIKELY SIDEHome Wi-Fi limitFIRST STEPReposition, change band,or upgrade the router.PATTERNCable low at every hour and serverLIKELY SIDELine or access faultFIRST STEPOpen a fault ticket withthe logged results.PATTERNCable low only in the eveningLIKELY SIDECongestion at peakFIRST STEPEscalate for a capacityreview, with the times.PATTERNCable low on one test server onlyLIKELY SIDEPath or server issueFIRST STEPRetest on another server;check the upstream path.These patterns point the investigation; they do notprove a cause. Confirm with the ISP’s line tests.

Figure 6: Four patterns and the first place to look for each. This is a triage guide: it separates in-home limits from access-network problems, and it does not replace the ISP’s own line tests.

These patterns are a triage guide, not proof. The Notre Dame thesis shows researchers are working on exactly this question, telling a Wi-Fi limit from a broadband bottleneck, and it reports a classifier with 92.4% precision. The abstract gives no sample size and the work is a master’s thesis, so we cite it as a sign the problem is real, not as a method to copy. For a customer conversation, the wired ladder is simpler and easier to explain.

What to do when the pattern points to the ISP

Ofcom says the provider is responsible for fixing faults even if another company owns the network, and asks customers to say when the problem started, whether it is constant or intermittent, and what they have tried. Give support the same fields so the ticket arrives complete. In the UK, voluntary speed codes also set a minimum guaranteed speed and a right to exit if speed regularly falls below it, with measurement at peak times (Comms Ombudsman on the 2019 codes). We did not find a published Indonesian rule on how a residential speed complaint must be tested, so write down your own method and publish it.

A good support script holds to one question, one number and one next step, then points to a reference page for detail. How to Educate Complex Buyers Without Overwhelming Them describes that method for technical buyers, and it works the same way for a customer on the phone.

A support reply, written two ways (illustrative)

TypicalPlease restart your router and run the test again. If the issue continues, a technician will be scheduled.
Customer-readyLet’s test in order. First plug a laptop into the router with a cable, close other apps and run the test three times. Then run it again tonight between 8 and 10pm. Send us both sets of numbers and the times. If the cable results are well below your plan at every hour, we will open a fault with your results attached. If they are near your plan, we will look at your Wi-Fi next.

What should a speed test explanation include before you publish it?

It should say what a test measures, what it cannot measure, and what the customer does next. Use this list to review a help article, a support script, a plan page note or a chatbot answer.

  • Does it say the test measures the slowest link on the path, not the plan speed at the router?
  • Does it tell the customer to test with a cable first, and say how?
  • Does it explain why Wi-Fi results are lower, with distance, band and device as reasons?
  • Does it say that server, streams and time of day change the number, and ask for more than one test?
  • Does it name the peak window and ask for a test inside and outside it?
  • Does it show what the support team will do with each result pattern?
  • Does it list what to send to support: time, device, connection, server and results?
  • Does every number carry a date and a source, and is there a review date?
  • Who writes it, and which network and support owners check it before it goes live?

Speed test results lower than the plan: frequently asked questions

Why is my speed test result lower than my plan speed?

A speed test measures the slowest point between your device and the test server, not the speed written in your contract. The usual causes are Wi-Fi limits such as distance, walls, band and the phone itself, the test server or test design, and busy periods on shared networks. A wired test from a laptop to the router removes Wi-Fi first.

Why is Wi-Fi slower than a cable in a speed test?

Ofcom says a wired connection is usually faster and more reliable. Wi-Fi is shared, sends or receives but not both at once, and weakens with distance and obstacles, and phones often use fewer streams than the router has. One vendor guide puts good real-world throughput at 150 to 400 Mbps on 5 GHz and 20 to 40 Mbps on 2.4 GHz for a three-stream access point.

Which speed test result should I trust?

Trust a pattern, not a single number. Ofcom advises trying a few checkers and testing more than once at different times. Use the same device, cable and server for each run, note the time, and compare wired results before Wi-Fi results.

Does the speed test server location matter?

Yes. Cloudflare says results differ noticeably with the distance to the server, and test design such as the number of streams and how samples are aggregated also changes outcomes. M-Lab notes that many popular tests are hosted inside ISP networks and anecdotally report higher results than its servers, which sit outside ISP last-mile networks.

Why are my speeds lower in the evening?

Shared parts of the network and the wider internet path are busier at peak. Ofcom’s 2019 broadband speed codes define residential peak time as 8 to 10pm, and M-Lab lists congestion inside an ISP network or between ISPs as a possible cause of poor performance. Test in the evening and the morning and compare.

How do I tell whether the problem is my Wi-Fi or my ISP?

Test with a laptop on an Ethernet cable plugged into the router while other devices are idle, then repeat on Wi-Fi in the same spot. If the cable result is near the plan and Wi-Fi is far below it, look at Wi-Fi. If the cable result is low at all hours and on several servers, report a possible fault to the provider with your logged results.

Is it normal to get less than the plan speed in a test?

Some gap between a test result and the plan is normal because of test design, server distance and shared capacity. How large a gap is acceptable depends on the contract, which may state an up to, typical or minimum speed. In the UK, voluntary codes give customers a right to exit if speed regularly falls below a minimum guaranteed level. Check your own terms.

What is latency under load?

Loaded latency is the round-trip time while your connection is busy, compared with idle latency measured when nothing is transferring. Cloudflare’s test records both. Cloudflare says a gap approaching 100 milliseconds or more over a wired connection suggests the ISP is at fault, which makes it a useful extra number for video call and gaming complaints.

What should support staff collect before escalating a slow speed complaint?

Date and time, the device and how it was connected (cable or Wi-Fi band), the test tool and server, download, upload and latency results, results at peak and off-peak, and what has already been tried. Ofcom’s advice to customers is to say when the problem started, whether it is constant or intermittent, and what they have tried.

Sources

  1. Ofcom: Get help with broadband and Wi-Fi problems (published 13 October 2023, updated 25 August 2026)
  2. Measurement Lab: How fast is my Internet? Speed tests, accuracy, NDT and M-Lab (26 March 2019)
  3. Cloudflare blog: How does Cloudflare’s speed test really work?
  4. ISPreview: Ookla study finds UK home Wi-Fi speeds lag wired Ethernet (17 May 2023)
  5. Snapone Araknis help: Understanding real-world Wi-Fi throughput
  6. Communications Ombudsman: Ofcom update on broadband speeds from 1 March 2019
  7. Bisnis.com: Target Komdigi 2026, rerata kecepatan seluler 60 Mbps, fixed broadband 45 Mbps (5 January 2026)
  8. Bisnis.com: Peringkat kecepatan internet RI merangkak di global Agustus 2026 (14 October 2026)
  9. Telkomsel Jelajah: Cara tes kecepatan internet WiFi dan paket data dengan mudah
  10. University of Notre Dame: Robust determination of WiFi throughput tests being indicative of broadband bottlenecks (master’s thesis, 2024)

Figures 1 to 6, the scripts, the checklist and the pattern table are our illustrations, not published standards; the bars in Figures 1 and 4 are schematic. The Snapone ranges describe one three-stream Wi-Fi 5 access point from a vendor guide, and the 867 Mbps figure is our arithmetic (two thirds of 1,300). The 29.8% Ookla figure is from ISPreview’s report of Q1 2023 Speedtest.net results, and ISPreview itself notes the tests record no device, room or distance; we could not open Ookla’s own methodology page, so we do not describe it. The M-Lab post is from 2019 and M-Lab’s tools may have changed since; it is cited for the single-stream versus multi-stream principle and for server placement. The Cloudflare 100 ms point is Cloudflare’s own guidance. The Ofcom codes of 2019 are voluntary and signed by a limited list of providers, and are used as an example of structure, not as an Indonesian rule. The Notre Dame item is a master’s thesis whose abstract gives no sample size. The Komdigi target and the Ookla index come from different sources and periods and are not comparable. Telkomsel’s guide is general consumer advice and does not discuss wired testing. We found no published Indonesian rule on how a residential speed complaint must be tested. The in-our-view statement about where limits most often sit is not a measured share.

How to Explain Uptime SLA to Customers

FTTH Operators • Customer education

How to Explain Uptime SLA to Customers

By Junun Saleh · Updated · Built on Google SRE, AWS, Ofcom, ISPreview, Google Fiber and detikInet sources, each linked below

A business customer reads “99.9% uptime” in the contract, then loses the connection three times during one Monday of video calls. Support replies, truthfully, that the network is within its SLA. The customer hears “we do not care”. Both sides are right, because an uptime percentage and the continuity a customer feels are different measurements. This page gives sales, support and marketing teams the definitions, the downtime arithmetic and the wording to explain an uptime SLA clearly, including what is excluded and how compensation works.

Quick answer: Explain an uptime SLA in three steps. First, separate availability, the share of time the service works, from reliability, how often it fails and how fast it recovers: 99.9% allows 43.2 minutes of downtime in a 30-day month whether that is one outage or forty-three. Second, translate percentages into minutes: 99% is 7.2 hours a month, 99.9% is 43.2 minutes and 99.99% is 4.32 minutes (Google SRE book). Third, state how downtime is measured, what is excluded and how credits arrive, for example a 25% credit when monthly uptime falls below 99.9% in one business SLA, or 10.34 pounds a day for a UK home line not repaired within two working days.

In this page, a service level agreement (SLA) is a written service commitment. Uptime or availability is the share of a period in which the service works. Reliability describes how often failures happen and how quickly service is restored. MTBF is the mean time between failures and MTTR the mean time to repair. An exclusion is a type of downtime the SLA does not count. A service credit is compensation, usually on a future bill, when the target is missed. The ITU-T keeps a standard vocabulary for these terms in Recommendation E.800, Definitions of terms related to quality of service.

How do you explain availability vs reliability to customers?

Availability is how much of the time the service works. Reliability is how often it fails and how quickly it comes back. A percentage captures the first and hides the second. The AWS Well-Architected framework defines availability as the percentage of time a workload is available for use, meaning it performs its agreed function successfully when required, and gives the formula as available time divided by total time (AWS Well-Architected Reliability pillar). Nothing in that formula records how many separate interruptions made up the lost time. For the customer-facing side of that question, see is fiber internet reliable.

That is the gap customers fall into. Forty-three one-minute drops and one 43-minute outage leave a 30-day month at the same 99.9%, and they are not the same service.

Two months with the same 99.9% uptime but different outage patternsTwo timelines of a 30-day month. In month A a single block of downtime lasting 43 minutes appears. In month B forty-three short blocks of about one minute each flicker across the month. Both total 43 minutes, which is 99.9 percent uptime.Two months, both at 99.9% uptimeMonth A: one outageTotal downtime 43 minutes. Felt as one bad evening.Month B: forty-three one-minute dropsTotal downtime 43 minutes. Felt as video calls that keep dropping.Schematic, not to scale. 99.9% over a 30-day month allows 43.2 minutes of downtime (Google SRE book).The percentage is identical; the customer experience is not. That is the gap between availability and reliability.Two months with the same 99.9% uptime but different outage patternsTwo timelines of a 30-day month. In month A a single block of downtime lasting 43 minutes appears. In month B forty-three short blocks of about one minute each flicker across the month. Both total 43 minutes, which is 99.9 percent uptime.Both months: 99.9% uptimeMonth A: one outage43 minutes in total. One bad evening.Month B: 43 one-minute drops43 minutes in total. Calls that keep dropping.Schematic, not to scale. 99.9% over 30 daysallows 43.2 minutes (Google SRE book). Samepercentage, different experience: that is thegap between availability and reliability.

Figure 1: Availability counts minutes; reliability is about how often and how long. Two months can share one percentage and feel completely different (schematic).

Where reliability comes from: failures and repairs

Availability has two levers. How often things break is the mean time between failures (MTBF). How long repairs take is the mean time to repair (MTTR). AWS gives the estimate as MTBF divided by the sum of MTBF and MTTR, and its worked example, 150 days between failures and a one-hour repair, comes to about 99.97%. Run the same example with a four-hour repair and the result falls to 99.89%, which is about 9.7 hours of downtime a year against 2.4.

How repair time changes availability when failures stay the sameTwo bars show a stretch of 150 days between failures followed by a repair. With a four hour repair, availability is 99.89 percent and about 9.7 hours are lost a year. With a one hour repair, availability is 99.97 percent and about 2.4 hours are lost a year. The red repair segment is four times shorter in the second bar.Faster repair raises availability, with the same failuresAvailability = MTBF ÷ (MTBF + MTTR)MTBF: average time between failures. MTTR: average time to repair. Here MTBF is 150 days (3,600 hours).Repair takes 4 hoursMTBF: 150 days between failures99.89%9.7 h a yearRepair takes 1 hourMTBF: 150 days between failures99.97%2.4 h a yearSchematic, not to scale. Arithmetic with the formula in the AWS Well-Architected Reliability pillar.Red = time to repair. Cutting repair time is often the cheapest way to raise availability.How repair time changes availability when failures stay the sameTwo bars show a stretch of 150 days between failures followed by a repair. With a four hour repair, availability is 99.89 percent and about 9.7 hours are lost a year. With a one hour repair, availability is 99.97 percent and about 2.4 hours are lost a year. The red repair segment is four times shorter in the second bar.Faster repair, higher availabilityAvailability = MTBF ÷ (MTBF + MTTR)MTBF: average time between failures.MTTR: average time to repair.Here MTBF is 150 days (3,600 hours).Repair takes 4 hoursMTBF: 150 days99.89%9.7 h down a yearRepair takes 1 hourMTBF: 150 days99.97%2.4 h down a yearSchematic, not to scale. Formula from the AWSWell-Architected Reliability pillar. Red is repairtime; cutting it is often the cheapest fix.

Figure 2: Same failures, different repair time (arithmetic on the AWS formula). Availability depends on how long repairs take as well as how often things break.

For an FTTH operator this is useful because the two levers belong to different teams. Network design and fiber protection affect how often service fails. Field operations, spares, alarms and customer communication affect how long it takes to recover. Telling customers about both makes an SLA sound like a service, not a number.

One practical choice follows. Google measures large distributed services by request success rate, because part of such a service is nearly always serving traffic somewhere (Google SRE book: Embracing Risk). A single customer line has no such cover; when it is down, it is down. In our view time-based measurement is the natural fit for an access line, and it should be reported with outage counts and the longest outage.

One SLA sentence, written two ways (illustrative)

TypicalThe network is guaranteed 99.9% availability in accordance with the SLA.
Customer-ready99.9% means that in a 30-day month your service may be down for up to 43 minutes in total. The percentage does not say how many outages that is, so we also report how many outages you had and how long each one took to fix.

How do you translate 99%, 99.9% and 99.99% uptime into real downtime?

Convert every percentage into minutes per month and hours per year, and say which period the SLA measures. Customers cannot picture 99.9%. They can picture 43 minutes. The Google SRE availability table gives the standard conversions, and its note says it assumes no planned downtime.

43.2 minof downtime a 30-day month allows at 99.9% uptimeGoogle SRE book
8.76 hof downtime a year allows at 99.9% uptimeGoogle SRE book
52.6 minof downtime a year allows at 99.99% uptimeGoogle SRE book
10×less downtime allowed for each extra nine of uptimeOur arithmetic on the same table

Allowed downtime at three common uptime promises
Uptime Per year Per month Per day What to say
99% 3.65 days 7.2 hours 14.4 minutes About seven lost hours every month. Few fiber customers would call this high availability.
99.9% 8.76 hours 43.2 minutes 1.44 minutes Under 45 minutes a month. A common business SLA target.
99.99% 52.6 minutes 4.32 minutes 8.64 seconds A few minutes a month. Ten times stricter than 99.9%, and usually costs more to deliver.
Allowed monthly downtime at 99%, 99.9% and 99.99% uptimeA bar chart of the downtime each uptime promise allows in a 30-day month. 99 percent allows 7.2 hours. 99.9 percent allows 43.2 minutes. 99.99 percent allows 4.32 minutes. Each extra nine makes the bar ten times shorter.What each promise allows in a 30-day month99% uptimePer year: 3.65 days7.2 hours a month99.9% uptimePer year: 8.76 hours43.2 minutes a month99.99% uptimePer year: 52.6 minutes4.32 minutes a monthMaximum downtime if the whole allowance is used. Full track = 99% (7.2 hours). Each extra nine cuts it tenfold.Source: Google SRE book availability table (assumes no planned downtime).Allowed monthly downtime at 99%, 99.9% and 99.99% uptimeA bar chart of the downtime each uptime promise allows in a 30-day month. 99 percent allows 7.2 hours. 99.9 percent allows 43.2 minutes. 99.99 percent allows 4.32 minutes. Each extra nine makes the bar ten times shorter.Allowed downtime in 30 days99% uptimePer year: 3.65 days7.2 hours a month99.9% uptimePer year: 8.76 hours43.2 minutes a month99.99% uptimePer year: 52.6 minutes4.32 minutes a monthFull track = 99% (7.2 hours). Each extra ninecuts downtime tenfold. Source: Google SRE bookavailability table (assumes no planned downtime).

Figure 3: The three promises in real time (Google SRE availability table). Moving from 99% to 99.9% cuts allowed downtime from 7.2 hours to 43 minutes a month.

The table is arithmetic: the share of the period that may be lost. It is not a forecast. Two points change how you present it.

  • The period matters. Google Fiber’s business SLA measures monthly uptime. An annual 99.9% allows 8.76 hours, and nothing in the percentage stops those hours falling in one bad day. Say whether your SLA is monthly or annual.
  • Planned work may or may not count. The SRE table assumes none. AWS says some customers exclude scheduled maintenance from total time, and advises against it, because users will probably want the service then too. Whatever your contract does, state it.

Why the customer’s line is weaker than any one part

An end-to-end service depends on a chain: the drop and ONT, the OLT and aggregation, the core and upstream links. AWS notes that when each element is a hard dependency, their availabilities multiply. Three good parts at 99.9%, 99.99% and 99.95% give about 99.84%, which is roughly 14 hours of downtime a year, more than 99.9% alone. The values in Figure 4 are illustrative, not measured, but the arithmetic is general: a per-component figure can overstate what the customer receives.

Three network parts with good uptime combine into a lower end-to-end figureThree boxes in a chain: drop and ONT at 99.9 percent, OLT and aggregation at 99.99 percent, core and upstream at 99.95 percent. A pulse travels along the chain and the running total falls from 99.90 to 99.89 to 99.84 percent. The customer gets 99.84 percent, about 14 hours of downtime a year.Parts that are each good can add up to lessDrop + ONT99.9%running total99.90%OLT + aggregation99.99%running total99.89%Core + upstream99.95%running total99.84%Customer gets99.84%about14 hours a yearEach part alone allows 8.8 hours a year or less. Together the chain allows about 14 hours, more than 99.9% alone (8.76 hours).Illustrative values. If each part is a hard dependency, availabilities multiply (AWS Well-Architected).Arithmetic: 0.999 × 0.9999 × 0.9995 = 0.9984.Three network parts with good uptime combine into a lower end-to-end figureThree boxes in a chain: drop and ONT at 99.9 percent, OLT and aggregation at 99.99 percent, core and upstream at 99.95 percent. A pulse travels along the chain and the running total falls from 99.90 to 99.89 to 99.84 percent. The customer gets 99.84 percent, about 14 hours of downtime a year.Good parts, weaker wholeDrop + ONT99.9%running total99.90%OLT + aggregation99.99%running total99.89%Core + upstream99.95%running total99.84%Customer gets99.84%about14 hours a yearEach part alone allows 8.8 hours a year or less;the chain allows about 14. Illustrative values. Harddependencies multiply (AWS Well-Architected):0.999 × 0.9999 × 0.9995.

Figure 4: End-to-end availability is the product of its parts (illustrative values). A customer cares about the whole chain, so a per-component uptime figure can overstate what they receive.

Higher targets also cost more. AWS says tighter availability targets generally need more rigorous testing, automated recovery and operations, and recommends working out the true need before designing for it. That is a useful sentence to give a customer who asks for “five nines” on a residential-grade line.

Two uptime targets, written two ways (illustrative)

TypicalSLA uptime: 99.99%.
Customer-ready99.99% is about 4 minutes of downtime in a month, or 53 minutes across a year. It is ten times stricter than 99.9%, which allows 43 minutes a month. We measure it monthly, and we report the minutes each month.

How do you explain SLA accountability, exclusions and service credits?

Say what is measured, what is excluded, what the customer gets and how it arrives, in that order. A commitment is only as clear as its weakest line. Most SLA disputes start at the exclusions, because that is where the customer’s count of bad minutes and the contract’s count part ways.

£10.34 a dayfor UK landline or broadband not fixed within 2 working days of a fault report, from April 2026Ofcom, 8 April 2026
25%of the monthly charge credited when a business fiber SLA falls below 99.9% uptimeGoogle Fiber, May 2022
30 daysnormal window for a UK automatic compensation bill creditOfcom, updated July 2026
£63mpaid under the UK scheme in 2024 across about 1 million paymentsISPreview, April 2026

What is measured

Define downtime in one sentence. Google Fiber’s Premium SMB SLA defines monthly uptime as total minutes in the month minus downtime minutes, divided by total minutes, and counts downtime only when service is unusable through a total loss of signal (Google Fiber SLA). The consequence is worth saying aloud: a slow connection is not “down” under that definition. If your SLA counts only total loss of service, tell customers so before they find out.

What is excluded

Common exclusions, with what to tell the customer
Exclusion How the sources treat it What to say
Planned maintenance Excluded by Google Fiber with at least 72 hours’ notice “Work we announce 72 hours ahead does not count, and we say when it will happen.”
Customer equipment or actions Excluded by Google Fiber; Ofcom excludes faults inside the home and customer breach “If the fault is in your router or wiring, we show you where our line test ends.”
Events beyond the provider’s control Google Fiber excludes them, such as commercial power outages. Ofcom’s scheme generally still pays for weather, strikes and third-party damage unless an exclusion applies “Tell the customer which rule applies to them, in one sentence.”
Part months or suspended service Excluded by Google Fiber for months with less than a full subscription or suspended service “The target applies to full months of active service.”
The same month counted by the customer and by the SLA contractA timeline of a 30-day month with four events. A 20 minute outage and a 30 minute outage count toward the SLA. Planned work with notice and a fault in the customer router are excluded. The customer felt 215 minutes of problems, 99.50 percent uptime. The contract counts 50 minutes, 99.88 percent, which is still below a 99.9 percent target, so a credit is due.One month, counted two ways20 min outagePlanned work, notice givenCustomer router fault30 min outageCounts toward the SLAExcluded by the contractSchematic month of 43,200 minutes, not to scale.What the customer felt: 215 minutes down = 99.50% uptimeWhat the contract counts: 50 minutes down = 99.88% uptimeBelow 99.9% (43.2 minutes allowed), so a credit is due even after the exclusions.Illustrative month. Exclusions follow the types listed in Google Fiber’s Premium SMB SLA (May 2022): planned work with notice,customer equipment and events beyond its control.The same month counted by the customer and by the SLA contractA timeline of a 30-day month with four events. A 20 minute outage and a 30 minute outage count toward the SLA. Planned work with notice and a fault in the customer router are excluded. The customer felt 215 minutes of problems, 99.50 percent uptime. The contract counts 50 minutes, 99.88 percent, which is still below a 99.9 percent target, so a credit is due.One month, counted two ways20 minPlannedCustomer30 minCounts toward the SLAExcluded: planned work, customer equipmentSchematic month of 43,200 minutes.Customer felt: 215 min = 99.50%Contract counts: 50 min = 99.88%Below 99.9% (43.2 min allowed): credit due.Illustrative month. Exclusion types follow GoogleFiber’s Premium SMB SLA (May 2022).

Figure 5: Why the customer’s number and the contract’s number differ (illustrative month). Exclusions reduce the counted minutes; they do not always remove the credit.

Figure 5 shows why exclusions deserve their own paragraph. In this illustrative month a customer experiences 215 minutes of problems, which would be 99.50% uptime. The contract counts 50 minutes after removing planned work and the customer’s own router fault. That is 99.88%, still below 99.9%, so a credit is due. Exclusions narrow the count; they do not always erase the credit. Showing the arithmetic prevents an argument.

What the customer gets, and how it arrives

Two published designs show the range. Google Fiber’s SLA credits 25% of the monthly recurring charge when uptime falls below 99.9%, capped at that level per month, and applies it automatically to the bill for the second billing cycle after the month, with monthly uptime reports. Ofcom’s UK scheme pays 10.34 pounds for each day a fault stays unrepaired after two working days, paid automatically once the customer has reported the fault, usually as a bill credit within 30 calendar days; it only applies to participating providers, and, as ISPreview notes, the scheme is voluntary (Ofcom).

Two examples of how an outage becomes a creditTwo rows of four boxes: trigger, exclusions, credit and delivery. The Google Fiber business SLA triggers below 99.9 percent monthly uptime, excludes planned work, customer equipment and power cuts, gives 25 percent of the monthly charge and applies it automatically on the second bill after the month. The Ofcom UK residential scheme triggers when a fault is not fixed within two working days of being reported, excludes faults inside the home and customer breach, pays 10 pounds 34 per unrepaired day and credits the bill normally within 30 days. Highlights move across the columns.Two ways to write accountabilityTRIGGEREXCLUSIONSCREDITDELIVERYBusiness SLA: Google Fiber Premium SMB (May 2022)Uptime below 99.9%in a month; downtime istotal loss of signalPlanned work (72 hnotice), customerequipment, power cuts25% of the monthlycharge, cappedApplied automatically,on the second bill afterthe monthUK residential: Ofcom automatic compensation (July 2026)Fault not fixed within2 working days ofbeing reportedFault inside the home,customer breach, orcustomer blocks repair£10.34 for each dayunrepaired (April 2026)Bill credit, normallywithin 30 days ofrestorationExamples of structure, not Indonesian rules. Ofcom’s scheme covers participating UK providers and still counts events such asweather; the business SLA excludes events beyond its control. Check the actual contract before quoting either.Two examples of how an outage becomes a creditTwo rows of four boxes: trigger, exclusions, credit and delivery. The Google Fiber business SLA triggers below 99.9 percent monthly uptime, excludes planned work, customer equipment and power cuts, gives 25 percent of the monthly charge and applies it automatically on the second bill after the month. The Ofcom UK residential scheme triggers when a fault is not fixed within two working days of being reported, excludes faults inside the home and customer breach, pays 10 pounds 34 per unrepaired day and credits the bill normally within 30 days. Highlights move across the columns.Two ways to write accountabilityBusiness SLA: Google Fiber (May 2022)TRIGGERUptime below 99.9%in a month; downtime istotal loss of signalEXCLUSIONSPlanned work (72 hnotice), customerequipment, power cutsCREDIT25% of the monthlycharge, cappedDELIVERYApplied automatically,on the second bill afterthe monthUK residential: Ofcom (July 2026)TRIGGERFault not fixed within2 working days ofbeing reportedEXCLUSIONSFault inside the home,customer breach, orcustomer blocks repairCREDIT£10.34 for each dayunrepaired (April 2026)DELIVERYBill credit, normallywithin 30 days ofrestorationExamples of structure, not Indonesian rules. Ofcom’sscheme counts events beyond anyone’s control; thebusiness SLA excludes them. Check each contract.

Figure 6: Trigger, exclusions, credit and delivery in two real designs. Whatever your terms are, a customer should be able to read these four things in that order.

In Indonesia, the example we found is a pro-rata design after a large event. When the SMPCS 2 cable break disrupted South Papua and Central Papua from 16 August 2025, Telkomsel reported a bill discount for IndiHome and Telkomsel Halo customers matching the length of the service degradation, plus replacement of internet quota that expired during the outage (detikInet, 25 August 2025). We did not find a published national SLA figure for residential FTTH, so state your own terms instead of borrowing a number.

Network planners compare these terms before they take a sales call, and they check what is published. What Network Planners and CTOs Actually Want Before They Take a Sales Call makes that point for fiber vendors generally: publish sourced, checkable material first. An SLA explainer that states the measure, the exclusions and the credit does that.

A credit clause, written two ways (illustrative; use your own terms)

TypicalService credits are subject to the SLA terms, conditions and exclusions.
Customer-readyIf we are down for more than 43 minutes in a month, you get a 25% credit on that month’s fee, added to your bill automatically. Work we announce 72 hours ahead, faults in your own equipment and power cuts outside our network do not count. Every month we send you the minutes we counted and the minutes we excluded.

What should an SLA explanation include before you publish it?

It should answer the customer’s next question before they ask it, and name its sources. Use this list to review a contract summary, a sales page, a support script or a monthly service report.

  • Does it give the uptime target and the period it is measured over, monthly or annual?
  • Does it convert the percentage into minutes a month and hours a year?
  • Does it say that the percentage does not limit how many outages there are?
  • Does it define downtime, including whether a slow connection counts?
  • Does it list the exclusions, each with its condition, such as notice for planned work?
  • Does it show one worked example of counted and excluded minutes?
  • Does it state the credit, whether the customer must claim, and when it arrives?
  • Does every number carry a date and a source, and is there a review date?
  • Who writes it, and which network and legal owners check it before it goes live?

Uptime SLA: frequently asked questions

What is an uptime SLA?

An uptime SLA is a written commitment to keep a service available for a stated share of time, usually a percentage per month. A complete one also says how downtime is measured, what is excluded, and what the customer receives, often a bill credit, if the target is missed.

What does 99.9% uptime mean in real time?

In a 30-day month, 99.9% uptime allows about 43.2 minutes of downtime. Over a year it allows about 8.76 hours. The figure says nothing about whether that time comes as one outage or many short ones, so state the measurement period and also report outage counts.

How much downtime does 99.99% uptime allow?

About 4.32 minutes in a 30-day month, or about 52.6 minutes in a year, according to the Google SRE availability table. That is roughly ten times stricter than 99.9%. Each extra nine cuts the allowed downtime tenfold.

What is the difference between availability and reliability?

Availability is the share of time a service works. Reliability is how often it fails and how quickly it recovers. A line can reach 99.9% availability with one long outage or many short drops, and customers experience those very differently.

Does 99.9% uptime mean there will be no outages?

No. It is a budget of allowed downtime, not a promise of continuity. At 99.9% a service can still fail several times a month and stay within its SLA, as long as the total downtime stays under about 43 minutes in a 30-day month.

How is SLA uptime calculated?

Most SLAs divide the minutes the service was up by the total minutes in the period. Google Fiber’s business SLA defines monthly uptime as total minutes minus downtime minutes, divided by total minutes. Check what counts as downtime and which minutes are excluded.

What is usually excluded from SLA uptime?

Common exclusions are planned maintenance with notice, faults in the customer’s own equipment, customer actions, and events outside the provider’s control. Google Fiber’s business SLA lists all of these, including commercial power outages. Ofcom’s UK scheme excludes faults inside the home and customer breach.

What is a service credit, and is it paid in cash?

A service credit is compensation for missed targets, usually applied to a future bill. In the sources reviewed, Google Fiber applies a 25% credit to the bill and Ofcom’s UK scheme pays a bill credit, normally within 30 days. Check whether your contract allows cash or only credit.

Do FTTH customers get compensation for outages?

It depends on the provider, contract and country. UK landline and broadband customers of participating providers get 10.34 pounds a day for faults not fixed within two working days. After a 2025 cable break, IndiHome gave a bill discount pro-rated to the length of the service disruption.

Sources

  1. Google SRE book: Availability table
  2. Google SRE book: Chapter 3, Embracing Risk
  3. AWS Well-Architected Framework: Reliability pillar, Availability
  4. ITU-T Recommendation E.800 (09/2008): Definitions of terms related to quality of service
  5. Ofcom: Automatic compensation, what you need to know (updated 20 July 2026)
  6. Ofcom: Quicker complaints resolution and more money in your pocket when things go wrong (8 April 2026)
  7. ISPreview: Ofcom raise UK consumer compensation payments for broadband ISP woes (April 2026)
  8. Google Fiber: Premium SMB Service Level Agreement (last modified 10 May 2022)
  9. detikInet: Kabel laut putus di Papua, Telkomsel dan IndiHome beri kompensasi ke pelanggan (25 August 2025)

Figures 1 to 6, the conversions, the checklist and the scripts are our illustrations and arithmetic, not published standards. Downtime conversions follow the Google SRE table (365-day year, 30-day month, no planned downtime). The 99.89% and 99.97% availability figures apply the AWS MTBF formula to a 150-day MTBF with 4-hour and 1-hour repairs, and the 99.84% chain figure multiplies three illustrative availabilities as hard dependencies. The Google Fiber SLA is a US business agreement last modified in May 2022 and may have changed; Ofcom’s compensation scheme is voluntary, covers residential landline and broadband customers of participating UK providers, and is used here as an example of structure, not as an Indonesian rule. The scheme’s coverage and payout figures come from ISPreview’s report. The ITU-T page is cited for the existence and title of Recommendation E.800; we did not quote its definitions. The Papua compensation is one event reported by detikInet and not a standing residential SLA. We found no published national SLA figure for residential FTTH in Indonesia.

How to Explain Router Placement, Wi-Fi Coverage and Mesh Wi-Fi to Customers

FTTH Operators • Customer education

How to Explain Router Placement, Wi-Fi Coverage and Mesh Wi-Fi to Customers

By Junun Saleh · Updated · Built on Ofcom, FCC, Wi-Fi Alliance and NHS England sources, each linked below

A customer on a fiber plan stands in the back bedroom, runs a speed test and calls support. The fiber is fine. The router sits in a cupboard at the other end of the house. Many Wi-Fi complaints begin like this, and many are solved by moving a box, not by upgrading a plan. This page gives support and marketing teams the explanations, numbers and scripts to make that case clearly, and to explain mesh Wi-Fi honestly when a move is not enough.

Quick answer: Explain router placement, coverage and mesh in this order. First, put the router in a central, raised, open spot, because signal weakens as it passes through objects (Ofcom). Second, expect walls to cost more at 5 GHz than at 2.4 GHz: light drywall costs about 3.5 dB at 5 GHz and heavy concrete about 44 dB (NHS England). Third, run the free fixes before any equipment, then add mesh only for dead zones that remain, and link the units by Ethernet where you can, because each wireless hop can roughly halve usable speed on some systems.

In this page, router placement means where the main Wi-Fi unit physically sits. Coverage is the area where a device gets a usable signal. A dead zone is a spot with little or no signal. A mesh system is a set of units managed as one network, and each unit is a node. Backhaul is the link between nodes, wireless or by Ethernet cable. A range extender is a single unit that repeats an existing signal. dB (decibel) measures signal loss: every 10 dB is a tenfold drop in power.

How do you explain the best router location to customers?

Give customers three rules: central, raised and in the open. Ofcom advises placing the router centrally and off the floor, such as on a shelf, so the signal is not lost to the outside or the ground. The FCC gives the same advice: a central spot, or the room where most online activity happens.

The logic fits in one breath. Wi-Fi spreads outward from the router in every direction. A router in a corner or at the end of a hall sends much of that signal toward the garden and the neighbours, and leaves the far rooms with what is left. Put it in the middle and every room is closer.

Up to 50%of support engagements traced to home Wi-Fi setups in some ISP casesRouteThis via ISPA, 2022
6.5 dBextra signal loss at 5 GHz than at 2.4 GHz at just 1 m (46.7 dB against 40.2 dB)Ofcom, 2020
£60–£200+UK price range of mesh starter packs; larger homes may need more unitsOfcom, 2024
117.9 MWi-Fi 7 access points ABI Research forecasts will ship in 2026ABI Research via IT Brief, Jan 2026

Read the numbers together. In some ISPs as much as half of support engagements trace back to home Wi-Fi setups. The 5 GHz band loses range faster than 2.4 GHz even at one metre. Mesh equipment costs real money. Forecasts point to a wave of Wi-Fi 7 hardware, and none of it changes the first rule: the best upgrade is usually a better position. The fiber ends at the ONT, but the customer experience ends in every room.

Router in a corner against router in the centre of a homeTwo floor plans of the same four-room home. With the router in a corner, the nearest room has a strong signal, two neighbouring rooms a fair signal and the far room a weak signal. With the router in the centre, all four rooms have a good signal. Rings spread out from the router in both plans.Same router, two positions: where the signal reachesStrongFairFairWeakGoodGoodGoodGoodRouter in a corner: far rooms get littleRouter in the centre: even signalIllustrative floor plan. Real signal also depends on walls and furniture.Router in a corner against router in the centre of a homeTwo floor plans of the same four-room home. With the router in a corner, the nearest room has a strong signal, two neighbouring rooms a fair signal and the far room a weak signal. With the router in the centre, all four rooms have a good signal. Rings spread out from the router in both plans.Same router, two positionsRouter in a corner: far rooms get littleStrongFairFairWeakRouter in the centre: even signalGoodGoodGoodGoodIllustrative floor plan. Real signal alsodepends on walls and furniture.

Figure 1: The same router in two positions (illustrative). A corner position sends signal to the outside wall and leaves the far room weak; a central position reaches every room more evenly.

Height, open space and what sits around the router

Position is more than the room. Ofcom advises keeping the router off the floor and away from radiators and fish tanks, because water, metal and glass block signal. A router inside a cabinet, behind a TV or beside metal shelving is boxed in before the signal leaves the shelf. If the router has external aerials, Ofcom suggests pointing them in different directions, for example one upright and one flat, to improve coverage.

Router in a floor cabinet against router on an open shelfTwo side views of a room. A router inside a cabinet on the floor sends only a faint signal outside the cabinet, so a phone across the room gets a weak signal. A router on a shelf in the open sends rings of signal across the room, so the same phone gets a strong signal.Height and open space change what a room receivesCabinet on the floorWeakShelf, in the openStrongOn the floor, inside a cabinetOn a shelf, in the openSide view, illustrative. Water, metal and glass also weaken signal (Ofcom).Router in a floor cabinet against router on an open shelfTwo side views of a room. A router inside a cabinet on the floor sends only a faint signal outside the cabinet, so a phone across the room gets a weak signal. A router on a shelf in the open sends rings of signal across the room, so the same phone gets a strong signal.Height and open space matterOn the floor, inside a cabinetCabinet on the floorWeakOn a shelf, in the openShelf, in the openStrongSide view, illustrative. Water, metal and glassalso weaken signal (Ofcom).

Figure 2: Router placement from the side (illustrative). A router boxed in on the floor wastes its signal; the same router on an open shelf reaches the whole room.

The fiber catch: the best Wi-Fi spot is rarely where the fiber arrives

In many installs the router sits wherever the technician could reach the ONT, which is often where the drop cable enters the home: a hallway by the front door, a utility room, a corner of the garage. That suits the installer and suits Wi-Fi badly. Two answers work. Ask the technician to run a cable from the ONT to a central spot, or use a longer patch cable to move the router once the service is live. Either costs far less than extra equipment, and both are easy to explain in a sentence.

One line in a help article, written two ways (illustrative)

TypicalFor optimal performance, ensure your router is positioned in a location that minimises obstruction and signal attenuation.
Customer-readyWi-Fi spreads out from the router like light from a lamp. Put the lamp on a shelf in the middle of the home, in the open, and more rooms get light. Put it in a cupboard in the corner and only the cupboard does.

How do you explain walls and signal interference to customers?

Tell customers that every wall takes a bite out of the signal, and that the bite is bigger for dense materials and at 5 GHz. Ofcom says it is usually more difficult to get wifi throughout a house with brick internal walls than one with hollow walls, and that water, metal and glass also block it. Interference is the second problem: other devices and neighbouring networks compete for the same airwaves, mostly at 2.4 GHz.

Signal loss is measured in decibels (dB). Every 10 dB is a tenfold drop in power, and every 3 dB roughly halves it. NHS England’s building guidance lists the transmission loss of common building materials. Light drywall costs about 2.5 dB at 2.4 GHz and 3.5 dB at 5 GHz, so a few plasterboard walls barely register. Heavy concrete costs 22 dB at 2.4 GHz and 44 dB at 5 GHz, which is about 160 times less power at 2.4 GHz and about 25,000 times less at 5 GHz.

Signal loss through five common barriers at 2.4 GHz and 5 GHzA grouped bar chart of signal loss in decibels. Light drywall: 2.5 at 2.4 GHz and 3.5 at 5 GHz. Wooden door: 1.9 and 3.2. Medium glass: 3.6 and 4.9. Light concrete: 8 and 16. Heavy concrete: 22 and 44. Loss is higher at 5 GHz for every material and rises sharply for concrete.Signal lost passing through one barrier (dB)2.4 GHz5 GHzLight drywall2.5 dB3.5 dBWooden door1.9 dB3.2 dBMedium glass3.6 dB4.9 dBLight concrete8 dB16 dBHeavy concrete22 dB44 dBSource: NHS England building guidance (last edited 7 March 2025). Every 10 dB is a tenfold drop in power.Signal loss through five common barriers at 2.4 GHz and 5 GHzA grouped bar chart of signal loss in decibels. Light drywall: 2.5 at 2.4 GHz and 3.5 at 5 GHz. Wooden door: 1.9 and 3.2. Medium glass: 3.6 and 4.9. Light concrete: 8 and 16. Heavy concrete: 22 and 44. Loss is higher at 5 GHz for every material and rises sharply for concrete.Signal lost through one barrier (dB)2.4 GHz5 GHzLight drywall2.5 dB3.5 dBWooden door1.9 dB3.2 dBMedium glass3.6 dB4.9 dBLight concrete8 dB16 dBHeavy concrete22 dB44 dBSource: NHS England building guidance(7 March 2025). 10 dB is a tenfold power drop.

Figure 3: Signal loss per barrier from the NHS England table of common building materials. Plasterboard barely registers; heavy concrete at 5 GHz removes almost all of the signal.
Signal loss through common barriers, with what to tell the customer
Barrier 2.4 GHz 5 GHz What to say
Light drywall 2.5 dB 3.5 dB Barely noticeable alone; several in a row add up.
Wooden door 1.9 dB 3.2 dB An open door helps a little.
Medium glass 3.6 dB 4.9 dB Ordinary windows are not the problem. Coated glass can be.
Light concrete 8 dB 16 dB Noticeable. Plan the router position around it.
Heavy concrete 22 dB 44 dB Treat as a barrier: use a cable, or put a unit on the other side.

The table is a guide, not a survey of your customers’ homes. NHS England also lists stone and brick at 7.7 dB at 5 GHz; its 2.4 GHz entries for brick are unclear, so we leave them out. It lists energy-efficient windows with a metallic coating at 20 to 40 dB, so one window can matter as much as one wall.

Choose the band for the room, not for the label

Do not tell customers that 5 GHz is simply better. The FCC says 2.4 GHz gives broader coverage but slower speeds, while 5 GHz is faster with a shorter range, and it suggests dedicating 5 GHz to the most important uses such as work or school. Ofcom’s 2020 router tests found Wi-Fi performance tends to be better on 5 GHz. Walls cost more at 5 GHz. The practical script is: 5 GHz in the same room or the next one, 2.4 GHz for far rooms and simple devices.

Interference from devices and neighbours

Ofcom lists the usual suspects: microwave ovens, baby monitors, fairy lights and cordless phones can interfere with the router’s signal, so keep the router away from them. The FCC points out that 2.4 GHz is the band many household devices and most Wi-Fi routers share, and suggests checking the router’s settings for other networks in range. Customers rarely connect those dots. Showing the crowd makes it obvious.

Everyday devices and neighbouring routers compete on 2.4 GHzTwo panels, each showing a home router. In the 2.4 GHz panel, six sources send overlapping rings toward the router: a neighbour router, a microwave oven, a baby monitor, a cordless phone, fairy lights and another router. In the 5 GHz panel, only one neighbouring router sends signal, so the band is less crowded.Why the 2.4 GHz band gets crowded2.4 GHz: many sources share one bandNeighbour’s routerMicrowave ovenBaby monitorCordless phoneFairy lightsAnother routerRouter5 GHz: usually less crowded, shorter reachNeighbour’s routerRouterIllustrative. Device list from Ofcom; band comparison from the FCC. Wi-Fi 5 GHz still has neighbours, just fewer.Everyday devices and neighbouring routers compete on 2.4 GHzTwo panels, each showing a home router. In the 2.4 GHz panel, six sources send overlapping rings toward the router: a neighbour router, a microwave oven, a baby monitor, a cordless phone, fairy lights and another router. In the 5 GHz panel, only one neighbouring router sends signal, so the band is less crowded.Why the 2.4 GHz band gets crowded2.4 GHz: many sources, one bandNeighbour’s routerMicrowave ovenBaby monitorCordless phoneFairy lightsAnother routerRouter5 GHz: usually less crowdedNeighbour’s routerRouterIllustrative. Devices from Ofcom; bands from the FCC.

Figure 4: Why 2.4 GHz gets crowded (illustrative). Household devices and most routers share the band, while 5 GHz usually has fewer competitors but a shorter reach.

Interference, written two ways (illustrative)

TypicalInterference from adjacent networks and household devices may degrade wireless performance.
Customer-readyYour neighbours’ routers, your microwave and your baby monitor all share the same road as your Wi-Fi. When they talk at once, everyone slows down. Try the 5 GHz network near the router, and keep the router out of the kitchen.

Walls and interference are the two honest reasons a good fiber line still gives a weak room. Explain both, and the customer stops hearing “your Wi-Fi is bad” and starts hearing “your Wi-Fi is working against a few specific things we can fix”.

How can you reduce Wi-Fi complaints without upgrading the plan?

Run the free fixes first, in a fixed order, and recommend equipment only when they fail. A faster plan does nothing for a router that is boxed in, and extra equipment is a poor answer to a problem a shelf could solve. A fixed order also keeps every agent giving the same advice. Consistent advice matters because Wi-Fi experience drives FTTH retention as much as price does.

Five-step triage for a weak Wi-Fi complaintFive boxes in order: Ask which room is slow and where the router sits. Test next to the router, then by cable. Move the router to a central, raised, open spot. Tune bands, using 5 GHz near the router and 2.4 GHz far away, and avoid noisy spots. Add powerline or mesh only if the free steps fail. Each box lights up in turn.Five-step triage for a weak Wi-Fi complaint1AskWhich room is slowand where does therouter sit?2TestNext to the router,then by cable ifpossible3MoveCentral, raised andin the open4TuneUse 5 GHz nearby,2.4 GHz far away;avoid noisy spots5AddPowerline or mesh,only if the freesteps failIllustrative order. The first four steps cost the customer nothing.Five-step triage for a weak Wi-Fi complaintFive boxes in order: Ask which room is slow and where the router sits. Test next to the router, then by cable. Move the router to a central, raised, open spot. Tune bands, using 5 GHz near the router and 2.4 GHz far away, and avoid noisy spots. Add powerline or mesh only if the free steps fail. Each box lights up in turn.Five-step triage for weak Wi-Fi1AskWhich room is slow, and where doesthe router sit?2TestNext to the router, then by cableif possible.3MoveCentral, raised and in the open.4TuneUse 5 GHz nearby, 2.4 GHz far away;avoid noisy spots.5AddPowerline or mesh, only if thefree steps fail.Illustrative order. The first four steps are free.

Figure 5: A fixed order for Wi-Fi complaints (our summary of Ofcom and FCC advice). Four free steps come before any equipment is recommended.
  1. Ask where the router sits and which room is slow. Two questions locate most problems before anyone opens an app.
  2. Test next to the router, then by cable if possible. The FCC notes that a direct Ethernet connection gives the highest speeds. If the cable result matches the plan, the fiber and the plan are fine.
  3. Move the router. Central, raised and in the open, away from radiators, metal and water, as Ofcom advises.
  4. Tune the bands. Put important devices on 5 GHz near the router and leave far rooms on 2.4 GHz, as the FCC suggests.
  5. Check the noise. Look for microwaves, baby monitors, cordless phones and fairy lights near the router.
  6. Only then talk equipment. Ofcom puts powerline adapters from around £20 and mesh starter packs at £60 to over £200.

Build the install-day version of this list with TheWriter.id’s free Technician Checklist Generator, which covers equipment, access, signal and customer readiness. If agents or a chatbot handle these tickets, the Telecom Chatbot Scenario Builder helps structure the scenarios so every customer hears the same order of advice.

Cost of each Wi-Fi fix, from free to a mesh systemA bar chart of cost. Moving or raising the router costs nothing. Using 5 GHz for key devices costs nothing. Powerline adapters start at about 20 pounds. A mesh starter pack costs from 60 pounds to over 200 pounds.What each fix costs the customer (UK prices, GBP)Move or raise the router£0Use 5 GHz for key devices£0Powerline adaptersfrom about £20Mesh starter pack£60 to £200+Prices from Ofcom (February 2024). Mesh bar: solid to £60, lighter band to £200 and above.Cost of each Wi-Fi fix, from free to a mesh systemA bar chart of cost. Moving or raising the router costs nothing. Using 5 GHz for key devices costs nothing. Powerline adapters start at about 20 pounds. A mesh starter pack costs from 60 pounds to over 200 pounds.What each fix costs (UK prices, GBP)Move or raise the router£0Use 5 GHz for key devices£0Powerline adaptersfrom about £20Mesh starter pack£60 to £200+Prices from Ofcom (February 2024). Lighterband: mesh packs run to £200 and above.

Figure 6: The escalation ladder in money (Ofcom, UK prices). The first two fixes are free, which is why they come first.

The same finding, written two ways (illustrative)

TypicalYour Wi-Fi issue is caused by poor router placement in your premises.
Customer-readyYour fiber line is healthy: it tested at full speed on a cable. The Wi-Fi in the back bedroom is weaker because the router sits in the far corner. Moving it to the hallway shelf costs nothing and is the first thing to try.

How do you explain mesh Wi-Fi to customers?

Say that mesh is several small Wi-Fi units working as one network, so the signal is spread through the home instead of coming from one spot. Ofcom describes mesh systems as boxes that connect to your existing router and sit around the home, improving signal strength and coverage without reducing the performance of the broadband connection. It puts starter packs at £60 to over £200, and says larger homes may need more units.

A mesh node removing a Wi-Fi dead zoneTwo floor plans of a three-room home. With one router in the first room, the second room has a fair signal and the third room has no signal. With the router plus one mesh node in the second room, all three rooms have a strong signal. Rings spread from the router and from the node.A dead zone and the node that removes itOne router: the far room has no signalStrongFairNo signalRouter plus one node: signal reaches the far roomStrongStrongStrongRouterMesh nodeIllustrative single-storey home. The node sits where the router signal is still strong.A mesh node removing a Wi-Fi dead zoneTwo floor plans of a three-room home. With one router in the first room, the second room has a fair signal and the third room has no signal. With the router plus one mesh node in the second room, all three rooms have a strong signal. Rings spread from the router and from the node.A dead zone and the node that removes itOne router: the far room has no signalStrongFairNoneRouter plus one node: all rooms coveredStrongStrongStrongRouterMesh nodeIllustrative home. The node sits where therouter signal is still strong.

Figure 7: One mesh node turns a dead zone into covered space (illustrative). The node works because it still receives a strong signal from the router.

Eliminating Wi-Fi dead zones

A dead zone is a room the router signal cannot reach, and a mesh node is a second source placed to reach it. The node must be able to hear the router well. A node placed inside the dead zone has nothing strong to repeat, which is the most common placement mistake. Put it between the router and the dead zone, in the last spot where the router signal is still strong, then test.

Three mesh node positions: too far, right spot and too closeThree cards, each with a router, a mesh node and a dead zone in a line. Too far: the node sits inside the dead zone and its link back to the router is weak and dashed. Right spot: the node sits between the router and the dead zone with a strong link and covers the dead zone. Too close: the node sits next to the router with a strong link but covers no new space.Where to put a mesh nodeToo farDead zoneWeak link back to the router:slow and unstableRight spotDead zoneStrong link, and it reachesthe dead zoneToo closeDead zoneStrong link, but it addsno new coverageRule of thumb from common practice: place the node where it still gets a strong signal from the router,between the router and the dead zone. Shaded circle = node coverage. Illustrative.Three mesh node positions: too far, right spot and too closeThree cards, each with a router, a mesh node and a dead zone in a line. Too far: the node sits inside the dead zone and its link back to the router is weak and dashed. Right spot: the node sits between the router and the dead zone with a strong link and covers the dead zone. Too close: the node sits next to the router with a strong link but covers no new space.Where to put a mesh nodeToo farDead zoneWeak link back to the router: slow and unstableRight spotDead zoneStrong link, and it reaches the dead zoneToo closeDead zoneStrong link, but it adds no new coverageRule of thumb: place the node where it still getsa strong signal from the router. Illustrative.

Figure 8: Mesh node placement (illustrative, our summary of common practice). The link back to the router matters as much as the coverage the node adds.

Figure 8 is our summary of common practice, not a standard, so tell customers to follow the app’s signal indicator for their own home. If one node does not cover the room, try moving it before adding another, because every extra wireless unit adds a hop.

Mesh vs traditional Wi-Fi extenders

An extender repeats one router’s signal. A mesh system is managed as one network. Ofcom says boosters, extenders and repeaters amplify the signal and can extend coverage, but unlike mesh they can affect data speeds and how responsive the connection feels. The Wi-Fi Alliance adds a standard: Wi-Fi EasyMesh is a certification that gives multi-unit home networks a controller, which onboards units, sets channels and can suggest that a device move to a better unit, and agents that carry out its commands.

Range extender and mesh system compared
Factor Range extender Mesh system
Link to the main router Wireless link to the router Wireless or Ethernet, depending on model
Effect on speed Can affect speed and responsiveness (Ofcom); about half on single-radio designs (Omada) Dedicated backhaul reduces the loss; none with Ethernet between units
Roaming Basic extenders do not coordinate it; the device decides Many systems add roaming assistance; features vary
Management Usually per device One app or controller
Network name Often separate by default, depending on model Typically one name across nodes
Cost Typically lower for a single unit Higher, and grows with each node

The speed row comes from vendor guidance, so call it indicative. The roaming row is the one customers feel: on a basic extender the phone clings to the first unit until its signal is poor, as Figure 10 shows. Steering works best with devices that support 802.11v, according to the Wi-Fi Alliance, so a mesh system helps most with recent phones and laptops.

A range extender set-up against a mesh system set-upTwo chains of devices from a router to a phone. In the range extender chain, the router connects wirelessly to an extender which connects wirelessly to the phone, using one radio for both jobs. In the mesh chain, the router connects to a node which connects to the phone, and a controller coordinates the units under one network name. Pulses travel along the wireless links.How the two set-ups are builtRange extenderRouterExtenderMesh systemRouterNodeOne radio does both jobs: usable speed canfall by about half on single-radio designs.Often a separate network name; the phonedecides when to switch.controllerUnits are managed together: a controller setschannels and can suggest the best unit.One network name; Ethernet between unitsremoves the wireless speed penalty.Wireless links dashed. Sources: Ofcom, Wi-Fi Alliance, TP-Link Omada guidance. Illustrative.A range extender set-up against a mesh system set-upTwo chains of devices from a router to a phone. In the range extender chain, the router connects wirelessly to an extender which connects wirelessly to the phone, using one radio for both jobs. In the mesh chain, the router connects to a node which connects to the phone, and a controller coordinates the units under one network name. Pulses travel along the wireless links.How the two set-ups are builtRange extenderRouterExtenderMesh systemRouterNodeOne radio does both jobs: usable speed canfall by about half on single-radio designs.Often a separate network name; the phonedecides when to switch.controllerUnits are managed together: a controller setschannels and can suggest the best unit.One network name; Ethernet between unitsremoves the wireless speed penalty.Wireless links dashed. Illustrative.

Figure 9: Extender against mesh (illustrative). The extender simply repeats; the mesh system is managed as one network and can use Ethernet between units.
A phone walking through a home on an extender and on a mesh systemTwo tracks, each showing a phone walking from a router toward a second unit. On the range extender track, the phone stays connected to the router until its signal is very poor, then jumps to the extender. On the mesh track, the controller moves the phone to the nearer node about half way, so the signal stays moderate to strong all the way.A phone walks through the homeRange extender: the phone decides when to moveRouterExtenderSignal at the phoneStays on the routerSwitches to the extenderMesh system: the controller can suggest the moveRouterNodeSignal at the phoneStarts on the routerMoved to the nearer nodeSteering works best with devices that support 802.11v (Wi-Fi Alliance). Illustrative.A phone walking through a home on an extender and on a mesh systemTwo tracks, each showing a phone walking from a router toward a second unit. On the range extender track, the phone stays connected to the router until its signal is very poor, then jumps to the extender. On the mesh track, the controller moves the phone to the nearer node about half way, so the signal stays moderate to strong all the way.A phone walks through the homeExtender: the phone decides when to moveRouterExtenderSignal at the phoneStays on the routerSwitches to the extenderMesh: the controller can suggest the moveRouterNodeSignal at the phoneStarts on the routerMoved to the nearer nodeSteering works best with devices that support802.11v (Wi-Fi Alliance). Illustrative.

Figure 10: Roaming compared (illustrative). The meter shows signal at the phone: the extender clings to the first unit, while the mesh controller can nudge the phone to the nearer one.

Coverage vs speed trade-offs

Every wireless hop between nodes costs speed, and the cost depends on how the nodes are linked. The TP-Link Omada guidance (October 2026) says a single-radio extender can lose about half its usable bandwidth and puts mesh at roughly 50% per wireless hop. A dedicated backhaul radio reduces the penalty rather than eliminating it, and Ethernet between units removes it. Wi-Fi EasyMesh supports both wired and wireless backhaul, and the Wi-Fi Alliance notes that wireless backhaul lets installers place units without running cables.

Usable speed after wireless hops in a mesh systemA bar chart of usable speed as a share of the main router. Ethernet between units keeps 100 percent. One wireless hop leaves about 50 percent. Two wireless hops leave about 25 percent. One hop with a dedicated backhaul radio sits somewhere between 50 and 100 percent depending on the model.Usable speed left after each wireless hop (share of the main router)Ethernet between units100%1 wireless hopabout 50%2 wireless hopsabout 25%1 hop, dedicated radiovaries by model, 50% to 100%Illustrative. Assumes each wireless hop halves usable speed, as in TP-Link Omada guidance; a dedicatedbackhaul radio “reduces the penalty rather than eliminating it”. Real results vary by model and placement.Usable speed after wireless hops in a mesh systemA bar chart of usable speed as a share of the main router. Ethernet between units keeps 100 percent. One wireless hop leaves about 50 percent. Two wireless hops leave about 25 percent. One hop with a dedicated backhaul radio sits somewhere between 50 and 100 percent depending on the model.Usable speed after each wireless hopEthernet between units100%1 wireless hopabout 50%2 wireless hopsabout 25%1 hop, dedicated radio50% to 100%Illustrative. Assumes each wireless hop halvesspeed (TP-Link Omada guidance). A dedicatedradio reduces the loss; results vary by model.

Figure 11: The speed price of wireless backhaul (illustrative arithmetic on vendor guidance). Every hop between nodes costs speed; a cable between nodes does not.

This is where fiber customers have an advantage. A home with an Ethernet socket near a weak room can use a wired node, and the speed penalty disappears. A home with no sockets can still use wireless nodes, with fewer hops and nodes placed where the router signal is strong. Figure 12 compares the two.

Wireless backhaul against Ethernet backhaul between mesh unitsTwo chains of boxes from a fiber ONT and router to two mesh nodes. In the wireless backhaul chain the links are dashed wireless links that share airtime. In the Ethernet backhaul chain the links are solid cables that keep full speed and avoid walls between units. Pulses travel along each link.Two ways to link the mesh unitsWireless backhaulONT +routerNode 1Node 2Ethernet backhaulONT +routerNode 1Node 2Easy to install: no cable runs.Shares airtime, so speed fallswith each wireless hop.Needs a cable between units.No wireless hop penalty, and wallsno longer matter between units.Wi-Fi EasyMesh supports both wired and wireless backhaul (Wi-Fi Alliance). Illustrative.Wireless backhaul against Ethernet backhaul between mesh unitsTwo chains of boxes from a fiber ONT and router to two mesh nodes. In the wireless backhaul chain the links are dashed wireless links that share airtime. In the Ethernet backhaul chain the links are solid cables that keep full speed and avoid walls between units. Pulses travel along each link.Two ways to link the mesh unitsWireless backhaulONT +routerNode 1Node 2Ethernet backhaulONT +routerNode 1Node 2Easy to install: no cable runs. Sharesairtime, so speed falls with each hop.Needs a cable between units. No wirelesshop penalty; walls stop mattering.EasyMesh supports both (Wi-Fi Alliance).

Figure 12: Backhaul options between mesh units (illustrative). A cable between nodes keeps full speed; wireless links trade speed for easier installation.

Which advice to give

Recommend mesh if…

  • The router is already in the best spot and a room still has no usable signal.
  • The home is large, has several floors or has thick internal walls.
  • The customer wants one network name and automatic switching between units.
  • Ethernet can link at least some of the nodes.

Recommend a move or a cable first if…

  • The router sits in a cupboard, a corner or far from where people use Wi-Fi.
  • A cable test matches the plan speed and only one room is affected.
  • The weak room already has an Ethernet socket for a wired device or access point.
  • The customer wants the cheapest fix that works today.

Mesh in one sentence, written two ways (illustrative)

TypicalA mesh topology employs multiple access points under a unified SSID with a central controller.
Customer-readyMesh is a set of small Wi-Fi boxes that work as one network. You keep one network name, and the system helps your phone move to the closest box as you walk around the house.

What should a good Wi-Fi explanation include before you publish it?

It should answer the customer’s next question before they ask it, and name its sources. Use this list to review a help article, an install leaflet or a chatbot script.

  • Does it state the router rule in one sentence: central, raised and in the open?
  • Does it name the walls, not just “obstacles”, with at least one number a customer can picture?
  • Does it separate 2.4 GHz and 5 GHz and say which rooms suit each?
  • Does it list the free fixes in order before any equipment?
  • Does it show what mesh costs and what wireless links do to speed?
  • Does it say when a cable beats another node?
  • Does it avoid words that blame the customer, such as wrong, poor or incorrect?
  • Does every number carry a date and a source?
  • Who writes it, and which engineer checks it before it goes live?

Router placement and mesh Wi-Fi: frequently asked questions

Where is the best place to put a Wi-Fi router at home?

Put it in a central spot, raised on a shelf or table, in the open and away from metal, water and large appliances. Ofcom advises central and off the floor, and the FCC suggests a central location or the room where most online activity happens. In a fiber home, ask for a cable from the ONT if the fiber enters at the edge of the house.

Do walls really block Wi-Fi, and which ones block most?

Yes. Dense materials block most. NHS England lists light drywall at about 2.5 dB at 2.4 GHz and 3.5 dB at 5 GHz, against 22 dB and 44 dB for heavy concrete. Ofcom adds that brick internal walls block more than hollow walls, and that water, metal and glass also weaken the signal.

Should a customer move their router before buying a mesh system?

Yes. Moving the router costs nothing and often fixes weak rooms. Ofcom prices mesh starter packs from £60 to over £200, and larger homes may need more units. Recommend mesh when a better position and 5 GHz for key devices still leave a dead zone.

What is the difference between mesh Wi-Fi and a Wi-Fi extender?

An extender repeats the signal of one router, often under a separate network name, and the device decides when to switch. A mesh system is a set of units managed together as one network, and a controller can suggest which unit a device should use. Ofcom notes that extenders can affect data speeds and responsiveness, while mesh improves coverage without reducing the broadband connection.

Does mesh Wi-Fi make the internet slower?

It can, when units link to each other over Wi-Fi. TP-Link Omada guidance says a single-radio extender can lose about half its usable bandwidth and puts mesh at roughly 50% per wireless hop. A dedicated backhaul radio reduces the loss, and an Ethernet cable between units removes it. Results vary by model and placement.

How many mesh nodes does a home need?

Use as few as the layout allows. Start with the main router and add one node where the signal is still strong but fades beyond it, then test the dead zone. Each wireless hop can cost speed, and Ofcom notes that larger homes may need more units. Ethernet links between nodes make extra units less costly to speed.

Is 5 GHz or 2.4 GHz better for Wi-Fi coverage?

Neither wins everywhere. The FCC says 2.4 GHz reaches further but is slower and more crowded, while 5 GHz is faster with a shorter range. Ofcom testing found Wi-Fi performance tends to be better on 5 GHz, and walls cost more signal at 5 GHz. Use 5 GHz near the router and 2.4 GHz for far rooms and simple devices.

How should an ISP explain router placement without blaming the customer?

Start with what is working: say the fiber line tested fine on a cable. Describe Wi-Fi as light from a lamp that spreads out from the router, then offer one free step, such as moving the router to a central shelf. Avoid words like wrong or poor, and give the reason in one sentence.

Sources

  1. Ofcom: Improving your wifi experience (19 February 2024)
  2. Ofcom: Wi-Fi performance testing of home broadband routers (13 May 2020)
  3. FCC Consumer Help Center: Home Network Tips (26 March 2020)
  4. Wi-Fi Alliance: Wi-Fi CERTIFIED EasyMesh Technology Overview (January 2024)
  5. NHS England: Wireless infrastructure building guidance, building factors to consider (last edited 7 March 2025)
  6. TP-Link Omada: Wi-Fi extender vs mesh (9 October 2026)
  7. ISPA UK and RouteThis: ISP service experience report (8 September 2022)
  8. IT Brief: Wi-Fi 7 surges as the alliance maps out the path to Wi-Fi 8 (7 January 2026)

Figures 1 to 12, the checklists and the scripts are our illustrations, not published standards. Wall-loss values come from NHS England’s table for health and care buildings and describe typical materials, not your customers’ homes; the table’s 2.4 GHz entries for stone and brick are unclear and are not used. TP-Link Omada is a vendor, so its speed figures are guidance, not an independent test, and Figure 11 applies its 50% per hop estimate as simple arithmetic. The RouteThis figure is an upper bound (“as much as 50%”) from 2022. The Wi-Fi 7 shipment figure is an ABI Research forecast as reported by IT Brief. Ofcom’s guidance dates from February 2024 and the FCC’s from March 2020, so check for updates. The node-placement rule and the point about where fiber installers usually place routers are our practical observations.

How to Explain Fair Usage Policy (FUP) to Customers

FTTH Operators • Customer education

How to Explain Fair Usage Policy (FUP) to Customers

By Junun Saleh · Updated · Built on FCC, Ofcom, Bisnis.com, Selular.ID and Preseem sources, each linked below

A customer on a 50 Mbps fiber plan sees video buffering on the 28th of the month, checks the bill, finds the price unchanged and calls support: “I pay for 50 Mbps.” The line is healthy. The usage counter crossed a threshold three days ago, and nobody told the customer the counter existed. A typical FUP complaint begins like this, and it is a communication problem before it is a network problem. This page gives support and marketing teams the numbers, wording and disclosure steps to explain a fair usage policy in plain language, using published Indonesian operator policies and international transparency rules.

Quick answer: Explain FUP in three moves. First, state the threshold, the speed after it and the reset date as numbers: IndiHome’s 50 Mbps plan, for example, was reported at 1,200 GB of full speed, then 25 Mbps, then 10 Mbps above 1,800 GB. Second, put the same facts on the plan page, in the order confirmation and in a usage meter, and warn before the threshold, because both the FCC’s broadband label and Ofcom’s traffic-management guidance ask providers to be open about data allowances and speed measures. Third, give the reason as shared capacity, with a number a customer can picture: 1,500 GB is about 67 hours of a fully used 50 Mbps line.

In this page, a fair usage policy (FUP) is a contract term that limits heavy use of a broadband line. A threshold is the monthly usage level at which the policy acts. A speed step-down is the lower speed that applies once the threshold is passed. A data cap is a fixed allowance with a charge or a hard limit beyond it. Traffic management is any measure a provider uses to shape traffic on its network.

What is a FUP, and why do customers misread it?

A FUP is a rule about heavy use, and customers misread it because the same three letters mean two different things. In the UK, Broadband Genie describes a FUP as a contract term that stops a small number of heavy users slowing the network for everyone else, usually vague and without a stated figure, in contrast to a data cap with a published allowance (Broadband Genie, updated 5 October 2026). In Indonesia, the FUP that customers meet is usually numeric: a published monthly threshold, then a lower speed.

Explain which kind you run. If your policy is a conduct clause, say what “excessive” means in practice. If it is a threshold, state it as a number. A customer who reads “unlimited” on the sales page and discovers a threshold in the terms has met a third thing: a surprise.

Penalties also differ. Broadband Genie lists a warning, a speed restriction for hours or the rest of the month, a move to another package, and in extreme cases cancellation, and notes that the bill payer is responsible for the whole household. The Indonesian policies reported here use a speed step-down only. Say so, because “FUP” without a consequence reads as a threat.

How do you explain usage thresholds and speed changes to customers?

State the threshold in GB, the speed after it, any second step and the reset date, in that order. Customers hear “FUP” as “my internet will be limited”. The accurate version is narrower: nothing changes until usage reaches a stated level, then speed steps down, and it returns when the counter resets. Selular.ID’s January 2026 explainer says exceeding an IndiHome FUP reduces access speed without cutting access, and that service stays active until the billing period ends (Selular.ID, 26 January 2026).

52–67 hof a fully used line to reach a 700–1,500 GB threshold; a month has 720 hoursOur arithmetic on Bisnis.com, March 2024
4.6 Mbpsaverage use, around the clock for 30 days, that adds up to 1,500 GBOur arithmetic
50 → 5 MbpsBiznet 50 Mbps plan after 1,500 GB in Java, Bali, Batam and South Sumatra: a 90% cutBisnis.com, 16 March 2024
2 stepsIndiHome’s reported policy: speed halves at the first threshold, then drops furtherBisnis.com, 14 March 2024

Read the numbers together. A threshold of 1,500 GB sounds large because the customer has no scale for it. Converted to time, it is under three days of a fully used 50 Mbps line, or 50 GB a day. That gives support teams an honest sentence: the policy applies to sustained, heavy use, and a household that streams and browses will usually stay far below it. Test this against your own usage data before you say it.

Speed steps down as monthly usage crosses two thresholdsA step chart of one month of usage on a 50 megabit plan. From zero to 1,200 gigabytes the speed is 50 megabits per second. Between 1,200 and 1,800 gigabytes it drops to 25 megabits per second. Above 1,800 gigabytes it drops to 10 megabits per second. The chart draws itself from left to right as usage builds.One month of usage on a 50 Mbps plan50 Mbps: full speedusage from 0 to 1,200 GB25 Mbps1,200 to 1,800 GB10 Mbps01,200 GB1,800 GBThreshold 1Threshold 2usageIndiHome 50 Mbps plan as reported by Bisnis.com (14 March 2024). The counter resets each month.Illustrative; confirm current terms on the operator’s own FUP page before quoting them.Speed steps down as monthly usage crosses two thresholdsA step chart of one month of usage on a 50 megabit plan. From zero to 1,200 gigabytes the speed is 50 megabits per second. Between 1,200 and 1,800 gigabytes it drops to 25 megabits per second. Above 1,800 gigabytes it drops to 10 megabits per second. The chart draws itself from left to right as usage builds.Usage builds, speed steps down50 Mbps plan, one month50 Mbps: full speed0 to 1,200 GB25 Mbps10 Mbps01,200 GB1,800 GBThreshold 1Threshold 2IndiHome 50 Mbps plan as reported byBisnis.com (14 March 2024). The counterresets monthly. Illustrative; confirm currentterms before quoting them.

Figure 1: Speed against usage on a two-step policy (illustrative, based on IndiHome’s 50 Mbps plan as reported in March 2024). Usage is counted per month, and full speed returns when the counter resets.
FUP thresholds and speeds as reported in March 2024 (confirm current terms before quoting)
Plan Full speed up to Next step Second step
IndiHome 30 Mbps 700 GB a month 15 Mbps up to 1,100 GB 6 Mbps above 1,100 GB
IndiHome 50 Mbps 1,200 GB a month 25 Mbps up to 1,800 GB 10 Mbps above 1,800 GB
Biznet 50 Mbps (Java, Bali, Batam, South Sumatra) 1,500 GB 5 Mbps None reported
Biznet 50 Mbps (Sumatra except South Sumatra, Kalimantan) 1,250 GB 5 Mbps None reported

Bisnis.com reported that IndiHome applies FUP to plans of 10 Mbps and above, counts it monthly, resets it at the start of each month and adds no extra quota after the threshold (Bisnis.com, 14 March 2024). Biznet applied FUP from plans of 50 Mbps and above, with limits that vary by region (Bisnis.com, 16 March 2024), and its CEO said Biznet reviews the limits monthly (Bisnis.com, 21 March 2024). The two designs differ in shape: IndiHome steps down twice and Biznet once, but harder. Neither is wrong, and the explanation must match the shape.

Hours of flat-out use needed to reach three FUP thresholdsA bar chart comparing the time a fully used line needs to reach a monthly threshold with the 720 hours in a month. A 30 megabit plan with a 700 gigabyte threshold needs 52 hours. A 50 megabit plan with 1,200 gigabytes needs 53 hours. A 50 megabit plan with 1,500 gigabytes needs 67 hours. Each bar is a small part of the month.How long a full line takes to reach the threshold0whole month: 720 hoursIndiHome 30 Mbps, 700 GB23 GB a day; 2.2 Mbps on average all month52 hours (2.2 days)IndiHome 50 Mbps, 1,200 GB40 GB a day; 3.7 Mbps on average all month53 hours (2.2 days)Biznet 50 Mbps, 1,500 GB50 GB a day; 4.6 Mbps on average all month67 hours (2.8 days)Arithmetic, not a measurement: threshold in GB ÷ plan speed, decimal GB, 30-day month, line fully used.Thresholds as reported by Bisnis.com (14 and 16 March 2024). Check current terms.Hours of flat-out use needed to reach three FUP thresholdsA bar chart comparing the time a fully used line needs to reach a monthly threshold with the 720 hours in a month. A 30 megabit plan with a 700 gigabyte threshold needs 52 hours. A 50 megabit plan with 1,200 gigabytes needs 53 hours. A 50 megabit plan with 1,500 gigabytes needs 67 hours. Each bar is a small part of the month.Hours of full-speed use to hit itwhole month: 720 hoursIndiHome 30 Mbps, 700 GB52 hours (2.2 days)23 GB a day; 2.2 Mbps on average all monthIndiHome 50 Mbps, 1,200 GB53 hours (2.2 days)40 GB a day; 3.7 Mbps on average all monthBiznet 50 Mbps, 1,500 GB67 hours (2.8 days)50 GB a day; 4.6 Mbps on average all monthArithmetic, not a measurement: threshold in GB÷ plan speed, decimal GB, 30-day month, linefully used. Thresholds as reported by Bisnis.com(March 2024). Check current terms.

Figure 2: The threshold as time (illustrative arithmetic). Reaching it takes two to three days of a fully used line, or a few Mbps on average around the clock, which is why ordinary households rarely meet it.

The three questions behind every FUP call

  1. “Is my internet being cut?” No. The line stays connected and the speed changes, for the rest of the billing month at most. Say the speed in Mbps.
  2. “How much is that threshold, really?” Convert it. 1,200 GB is 40 GB a day, or about 53 hours of a fully used 50 Mbps line. Use one comparison, not three.
  3. “Can I pay for more?” Say what is true for your plan. IndiHome’s reported policy adds no extra quota after the threshold, so the options are to wait for the reset, to use less bandwidth-heavy services, or to move to a higher plan (Selular.ID, January 2026).

Keep each answer to one number and one next step. This follows the method in How to Educate Complex Buyers Without Overwhelming Them: one buyer question, one sourced number, one worked example, with the detail on a linked reference page rather than in the call.

One FUP sentence, written two ways (illustrative)

TypicalSubscribers exceeding the monthly fair usage threshold will be subject to bandwidth reduction in accordance with the applicable policy.
Customer-readyYour plan runs at 50 Mbps. Up to 1,200 GB in a month you will notice nothing. If you pass that, speed drops to 25 Mbps for the rest of the month and returns to 50 Mbps on the 1st. For scale, 1,200 GB is about 40 GB every day.

How do you state FUP terms clearly to avoid billing disputes?

Put the same six facts on the plan page, the order confirmation and a usage meter, and warn before the threshold, not after it. A billing dispute about FUP is rarely about money. The customer sees a slower connection and an unchanged bill and concludes that the provider has not delivered the plan. The way out is to make the speed change foreseeable.

Regulators in two large markets point the same way. The FCC’s broadband label guidance requires providers to state the data included in a plan and to disclose “any additional charges or reductions in service for any data used in excess” of it (FCC, DA 24-459). In July 2026 the FCC streamlined the label rules, letting sales staff give a verbal summary on the phone, and that summary must still cover the data allowance, according to Davis Wright Tremaine. In the UK, Ofcom says providers must be clear and transparent about their traffic management policy and practices (Ofcom enforcement programme). In an earlier case it said that failing to highlight exceptions to a zero-rated offer “may have been considered as a misleading action or omission” under consumer protection rules (Ofcom, 16 May 2019).

Indonesia leaves the choice to the operator. The ministry said in March 2024 that the government does not set telecom tariffs or FUP strategies, that each operator sets them for its target market, and that it welcomes public complaints about service quality (Bisnis.com, 13 March 2024). Commentators quoted in the same coverage argued that FUP needs transparency because throttling is sometimes not explained up front, and that subscribers who buy a speed tier expect it to hold all month (Bisnis.com, 12 March 2024). Where no rule sets the wording, the operator’s own disclosure is the only safeguard.

Five places to state a fair usage policy before a complaintA timeline of five numbered touchpoints that light up in turn as a pulse travels along it. Before signing: the plan page, then the order confirmation. During the month: the usage meter, an early alert at about 80 percent of the threshold, and an alert when the threshold is reached.Five places to state the policy before a complaintBEFORE SIGNINGDURING THE MONTH1Plan pageThreshold, speed afterand reset date2Order confirmationThe same terms inwriting, not a link3Usage meterIn the app, by SMSor on the web4Early alertAt about 80% ofthe threshold5Threshold alertWhat changed andwhen it resetsThe five touchpoints are our recommendation, not a standard.Example: IndiHome customers can check FUP status in MyIndiHome, or text INFO to 3636 (Selular.ID, 26 January 2026).Five places to state a fair usage policy before a complaintA timeline of five numbered touchpoints that light up in turn as a pulse travels along it. Before signing: the plan page, then the order confirmation. During the month: the usage meter, an early alert at about 80 percent of the threshold, and an alert when the threshold is reached.Where customers should hear it1Plan pageThreshold, speed after it, reset date2Order confirmationThe same terms, in writing3Usage meterApp, SMS or web, any time4Early alertAt about 80% of the threshold5Threshold alertWhat changed and when it resetsThe five touchpoints are our recommendation.IndiHome customers can check FUP status inMyIndiHome or text INFO to 3636(Selular.ID, 26 January 2026).

Figure 3: A disclosure path for a usage threshold (our recommendation). Each point repeats the same numbers, so the first time a customer meets the policy is never a speed drop.

The FUP fact box

Six lines cover most of what customers ask. They also map onto the two facts the FCC label asks for: the data included and what happens beyond it. Biznet said its thresholds and speed reductions are published on its website (Bisnis.com, 22 March 2024); the box makes the same content easy to find at the point of sale instead of in the terms.

A six-line fact box that states a fair usage policyA table of six lines with a highlight that moves down the rows. Plan speed, 50 megabits. Full speed until 1,200 gigabytes a month. Then 25 megabits up to 1,800 gigabytes. After that 10 megabits. Resets on the first of every month. Check usage in the app, by SMS or on the web. Each row has a short reason for its place.The FUP fact box: six lines for every plan pageLINEEXAMPLE VALUEWHY IT IS THEREPlan speed50 MbpsThe promise the customer boughtFull speed untilUp to 1,200 GB a monthThe one number to quote at the saleThen25 Mbps up to 1,800 GBWhat changes, in Mbps, not just “reduced”After that10 Mbps above 1,800 GBThe floor, so nothing is a surpriseResets1st of every monthWhen full speed returnsCheck usageApp, SMS or webSo customers never call just to askExample values, modelled on a two-step policy such as IndiHome’s (Bisnis.com, 14 March 2024).The FCC label asks for the same two facts: data included, and any charge or service reduction beyond it.A six-line fact box that states a fair usage policyA table of six lines with a highlight that moves down the rows. Plan speed, 50 megabits. Full speed until 1,200 gigabytes a month. Then 25 megabits up to 1,800 gigabytes. After that 10 megabits. Resets on the first of every month. Check usage in the app, by SMS or on the web. Each row has a short reason for its place.The FUP fact boxPlan speed50 MbpsThe promise the customer boughtFull speed untilUp to 1,200 GB a monthThe one number to quote at the saleThen25 Mbps up to 1,800 GBWhat changes, in Mbps, not just “reduced”After that10 Mbps above 1,800 GBThe floor, so nothing is a surpriseResets1st of every monthWhen full speed returnsCheck usageApp, SMS or webSo customers never call just to askExample values, modelled on a two-step policysuch as IndiHome’s (Bisnis.com, 14 March 2024).The FCC label asks for the same two facts: dataincluded, and any charge or service reduction beyond it.

Figure 4: A fact box for the plan page (illustrative values). If a customer can read these six lines in ten seconds, most “why is my internet slow” calls at month-end never happen.

Wording that prevents the dispute

Say this, not that
Topic Avoid Say instead
Speed after the threshold “Speed may be reduced.” “Speed drops to 25 Mbps.”
Reset “Until the next cycle.” “Full speed returns on the 1st.”
“Unlimited” “Unlimited internet” with the threshold in the terms “No data charges; speed steps down after 1,200 GB.”
The customer “Excessive use” or “abuse” “Your usage reached the monthly threshold.”
Checking usage “Contact support for details.” “See usage in the app, or text INFO to 3636.” (use your own channel)

The “unlimited” row matters because customers compare. Selular.ID reported in June 2026 that MyRepublic says none of its home packages has a FUP, and in March 2024 Bisnis.com reported that Moratelindo planned none and XL Axiata would keep unlimited home internet. One August 2026 article describes Biznet Home as allowing use without quota limits and, in the same text, reminds readers to check the FUP “if applied to certain plans” (Selular.ID, 7 August 2026). A reader cannot tell which plans are affected. Your page should never leave that question open.

We have found no public study that measures how much clear FUP wording reduces disputes, so treat the touchpoints in Figure 3 as good practice drawn from the regulators’ direction, and measure the effect on your own ticket volume.

A plan-page line, written two ways (illustrative)

TypicalFair usage policy applies. See terms and conditions.
Customer-readyNo data charges. Full speed up to 1,200 GB a month. After that, speed drops to 25 Mbps until 1,800 GB, then 10 Mbps, and returns to 50 Mbps on the 1st. Check your usage any time in the app.

How do you explain FUP as a balance between network capacity and customer experience?

Say that FUP protects shared capacity, name the number that defines heavy use, and show that ordinary households sit far below it. The reason ISPs give is capacity. Bisnis.com reported that Telkom applies FUP because of unreasonable use by some customers and to keep service quality for the rest (Bisnis.com, 14 March 2024). Biznet said it saw unusually high traffic in some locations, growing each year, and customers reselling the plans they bought; it began applying FUP to some packages in January 2024 (Bisnis.com, 22 March 2024).

The capacity argument is strongest on shared segments at busy hours, and weakest when it is stated as a slogan. Preseem’s subscriber data, from fixed wireless networks, shows why: in March 2024, 27% of subscribers used under 1 GB a day, 23% used over 16 GB a day, and average monthly use was 386 GB, up 17% from the year before (Preseem, 21 March 2024). Use is uneven, and it is growing. Fiber homes can differ, so use this for the shape, not as your own numbers.

How a speed step-down changes who gets a shared link at the busy hourTwo bars show one shared link at the busy hour, split between four homes. Without a policy the heaviest home takes 50 percent and three other homes take 17 percent each. With a speed step-down the heaviest home takes 33 percent and the others take 22 percent each. Small pulses run along each link.One shared link at the busy hourWithout a policyThe heaviest home takes half50%Heavy17%Home A17%Home B17%Home CLight users wait: pages load slowlyand video buffers when the link is busy.With a speed step-downThe heaviest home is limited33%Heavy22%Home A22%Home B22%Home CHeavy use is capped, so everyone elsekeeps a steadier share of the link.Illustrative shares, not measurements. The effect is largest at busy hours on shared segments.Telkom says it applies FUP to keep service quality for other customers (Bisnis.com, 14 March 2024).How a speed step-down changes who gets a shared link at the busy hourTwo bars show one shared link at the busy hour, split between four homes. Without a policy the heaviest home takes 50 percent and three other homes take 17 percent each. With a speed step-down the heaviest home takes 33 percent and the others take 22 percent each. Small pulses run along each link.One shared link at the busy hourWithout a policyThe heaviest home takes half50%Heavy17%Home A17%Home B17%Home CLight users wait: pages load slowly andvideo buffers when the link is busy.With a speed step-downThe heaviest home is limited33%Heavy22%Home A22%Home B22%Home CHeavy use is capped, so everyone elsekeeps a steadier share of the link.Illustrative shares, not measurements. Largesteffect: busy hours on shared segments. Telkomsays it applies FUP to keep service quality(Bisnis.com, 14 March 2024).

Figure 5: Capacity shared at the busy hour (illustrative shares). A step-down does not remove heavy use; it stops one home taking a share the other homes would have used.

Biznet’s CEO put the threshold in household terms: he said 1,500 GB is enough for a family of about four, and that the benefit falls sharply if 10 or more families share one service (Bisnis.com, 21 March 2024). Figure 6 puts that claim next to the data. The thresholds convert to 23 to 50 GB a day, above the 16 GB a day that Preseem calls heavy. A threshold above the heavy line catches the extreme tail rather than the busy quarter, and that is the sentence customers need to hear. Clear limits also protect revenue, as our guide on growing ARPU without increasing churn explains.

Share of subscribers by daily usage against FUP thresholdsA stacked bar shows 27 percent of fixed wireless subscribers use under 1 gigabyte a day, 50 percent use between 1 and 16, and 23 percent use over 16. Below it, bars compare the 16 gigabyte heavy-user line with FUP thresholds converted to gigabytes per day: 23 for a 700 gigabyte plan, 40 for 1,200 and 50 for 1,500. The thresholds sit above the heavy-user line.Most homes use little; thresholds sit above the heavy lineShare of subscribers by daily download (fixed wireless, Preseem)27%Under 1 GB a day50%1 to 16 GB a day23%Over 16 GB a day (heavy)Where FUP thresholds sit, in GB per day (monthly threshold ÷ 30)Heavy-user line (Preseem)16 GB/day (480 GB a month)IndiHome 30 Mbps, 700 GB23 GB/dayIndiHome 50 Mbps, 1,200 GB40 GB/dayBiznet 50 Mbps, 1,500 GB50 GB/dayPreseem covers fixed wireless networks (March 2024), so fiber homes can differ. Use it for the shape, not the numbers.Thresholds as reported by Bisnis.com (March 2024). Check current terms.Share of subscribers by daily usage against FUP thresholdsA stacked bar shows 27 percent of fixed wireless subscribers use under 1 gigabyte a day, 50 percent use between 1 and 16, and 23 percent use over 16. Below it, bars compare the 16 gigabyte heavy-user line with FUP thresholds converted to gigabytes per day: 23 for a 700 gigabyte plan, 40 for 1,200 and 50 for 1,500. The thresholds sit above the heavy-user line.Most homes use littleSubscribers by daily downloadFixed wireless, Preseem, March 202427%Under 1 GB50%1 to 16 GB23%Over 16 GBWhere FUP thresholds sit (GB per day)Heavy-user line (Preseem)16 GB/day (480 GB a month)IndiHome 30 Mbps, 700 GB23 GB/dayIndiHome 50 Mbps, 1,200 GB40 GB/dayBiznet 50 Mbps, 1,500 GB50 GB/dayPreseem covers fixed wireless networks (March2024), so fiber homes can differ: use it for theshape, not the numbers. Thresholds as reportedby Bisnis.com (March 2024). Check current terms.

Figure 6: Who uses what, and where the line is drawn (Preseem fixed wireless data, March 2024, and thresholds reported by Bisnis.com). A threshold above the heavy-user line catches the extreme tail, not the busy quarter.

Where the criticism is fair

Do not explain FUP as if no one disagrees. An ITB telecommunications policy specialist argued that FUP should be based on field measurements of normal household usage, and that throttling is hard to justify when the stated reason is resale, because resale will continue (Bisnis.com, 12 March 2024). The credible reply is specific: show how the threshold was set, say what it protects, and keep reviewing it as usage grows. Biznet says it reviews its limits monthly; that is the kind of detail that builds trust.

When a customer calls after hitting the threshold

  1. Confirm the usage. Open the meter with the customer and read the number back. Do not argue from memory.
  2. State the policy in one breath. Threshold, current speed, reset date.
  3. Ask what changed. A new streaming box, a cloud backup or a camera upload explains many sudden jumps, and naming it helps the customer fix it.
  4. Offer real options. Wait for the reset, use less bandwidth-heavy services, or move to a higher plan, as Selular.ID lists for IndiHome.
  5. Record the reason. Repeat contacts show where the policy is unclear, and that is a content fix.

Lead with capacity if…

  • You can show your own usage distribution and where the threshold sits.
  • The threshold is well above typical household use.
  • You review the limit as usage grows.
  • You can offer a higher plan as a path.

Do not lead with capacity if…

  • The real aim is stopping resale. Say so, in the terms of use.
  • Ordinary households can reach the threshold.
  • You cannot say how the number was chosen.
  • Support cannot show the customer their own usage.

The capacity reason, written two ways (illustrative; check against your own data)

TypicalFUP is implemented to ensure equitable bandwidth distribution among all subscribers.
Customer-readyYour neighbourhood shares network capacity. A few lines use many times more than a family does, and that can slow the evening for everyone. The 1,200 GB threshold is about 40 GB every day, which is set well above normal family use, so it only affects extreme usage.

What should a good FUP explanation include before you publish it?

It should answer the customer’s next question before they ask it, and name its sources. Use this list to review a plan page, a welcome message, an alert or an agent script.

  • Does it state the threshold in GB, the speed after it and the reset date?
  • Does it say whether the internet is cut or the speed changes?
  • Does it convert the threshold into something a customer can picture, such as GB a day?
  • Does it avoid “unlimited” unless the threshold sits right beside it?
  • Does it show where customers check their usage?
  • Is there an alert before the threshold, and another when it is reached?
  • Does it avoid words that blame the customer, such as abuse or excessive?
  • Does every number carry a date and a source, and is there a review date?
  • Who writes it, and which network or product owner checks it before it goes live?

Fair usage policy: frequently asked questions

What is a fair usage policy (FUP) in broadband?

A fair usage policy is a term in a broadband contract that limits how heavily a connection can be used so a few heavy users do not slow the network for others. In some markets it is a vague conduct clause. In Indonesia it is usually a stated monthly threshold, after which the speed steps down.

Is a fair usage policy the same as a data cap?

Not quite. A data cap is a fixed allowance, and passing it usually brings a charge or a slower speed. A classic UK-style FUP states no figure and applies to every tariff. Indonesian FUPs often behave like a soft cap: a published threshold, then a lower speed rather than a bill or a cut-off.

Does FUP cut off my internet when I pass the threshold?

No. In the IndiHome policy reported by Selular.ID in January 2026, passing the threshold lowers the speed and does not end access, and service stays active until the billing period ends. Check your own plan, because terms differ by operator and can change.

How much data does a typical FUP allow?

It depends on the plan. Bisnis.com reported in March 2024 that IndiHome gave full speed up to 700 GB on a 30 Mbps plan and 1,200 GB on a 50 Mbps plan. Biznet listed 1,500 GB on a 50 Mbps plan in Java, Bali, Batam and South Sumatra. Always confirm current figures.

Does the FUP counter reset every month?

Usually yes. IndiHome resets its counter at the start of each month, and passing the threshold does not add extra quota. When you explain a FUP, say the reset date in plain words, such as the 1st of the month, so the customer knows when full speed returns.

Why do ISPs use a fair usage policy?

ISPs give two main reasons. Telkom says it applies FUP because some customers use the network unreasonably and it wants to keep service quality for others. Biznet reported abnormal traffic in some locations, growing each year, and customers reselling home plans. Critics say the policy should rest on measured household usage.

How should an ISP tell customers about FUP before a speed drop?

State the threshold, the speed after it and the reset date on the plan page and in the order confirmation. Give customers a usage meter in an app, by SMS or online. Then send an alert before the threshold, for example at 80 percent, and another when it is reached.

How can a customer check how much FUP data they have used?

It depends on the operator. IndiHome customers can open the MyIndiHome app and view usage and FUP status, or send INFO by SMS to 3636, according to Selular.ID in January 2026. Other ISPs should offer an equivalent meter and say where to find it.

Do all fiber providers apply a FUP?

No. Selular.ID reported in June 2026 that MyRepublic says none of its home packages have a FUP. Bisnis.com reported in March 2024 that Moratelindo planned no FUP and XL Axiata would keep unlimited home internet. Customers compare, so state clearly whether your plan has one.

Sources

  1. FCC Consumer and Governmental Affairs Bureau: Broadband Label guidance (DA 24-459)
  2. Davis Wright Tremaine: FCC eases broadband nutrition label compliance burdens (July 2026; Report and Order of 22 July 2026)
  3. Ofcom: Ofcom’s approach to net neutrality (16 May 2019)
  4. Ofcom: Enforcement programme into Internet Service Providers’ traffic management practices (closed 16 May 2019)
  5. Bisnis.com: Mengenal FUP IndiHome milik Telkomsel dan ketentuan pemakaiannya (14 March 2024)
  6. Bisnis.com: FUP Biznet vs IndiHome Telkomsel, siapa yang lebih menarik? (16 March 2024)
  7. Bisnis.com: Kemenkominfo angkat bicara soal usulan pengaturan FUP internet (13 March 2024)
  8. Bisnis.com: Kebijakan FUP dinilai rugikan konsumen yang ingin internet cepat (12 March 2024)
  9. Bisnis.com: FUP Biznet disebut optimal untuk pemakaian 1 keluarga, bukan 10 (21 March 2024)
  10. Bisnis.com: Biznet sebut FUP dapat diterima pelanggan, tak ada keluhan (22 March 2024)
  11. Bisnis.com: FUP Biznet imbas tren pemakaian tak wajar yang terus meningkat (22 March 2024)
  12. Selular.ID: Cara cek FUP IndiHome terbaru via aplikasi dan SMS (26 January 2026)
  13. Selular.ID: Perbandingan paket internet rumah MyRepublic, IndiHome dan Biznet 2026 (2 June 2026)
  14. Selular.ID: Intip 4 paket WiFi unlimited Biznet Home hingga 500 Mbps (7 August 2026)
  15. Preseem: Subscriber data usage metrics and trends (21 March 2024)
  16. Broadband Genie: What is a fair usage policy? (updated 5 October 2026)

Figures 1 to 6, the conversions, the checklists and the scripts are our illustrations and arithmetic, not published standards. Thresholds for IndiHome and Biznet come from Bisnis.com reports of March 2024 and were not re-checked against the operators’ live pages, so confirm current figures before quoting them; Selular.ID’s 2026 articles confirm that IndiHome FUP is staged and checkable, and that Biznet reminds users to check its FUP, but give no current figures. Hours-to-threshold and GB-a-day values divide the threshold by plan speed or by 30 days, use decimal GB and assume a fully used line. Preseem’s figures describe fixed wireless subscribers, not fiber. The FCC’s July 2026 changes are described as reported by a law-firm summary; the primary order was not available to us, so read it before relying on label details. The 80% alert, the five touchpoints, the six-line fact box and the point that a threshold above the heavy line catches the tail are our recommendations. We found no published measurement of how much clearer FUP wording reduces billing disputes.

How to Explain Contention Ratio or Oversubscription to Customers

FTTH Operators • Customer education

How to Explain Contention Ratio or Oversubscription to Customers

By Junun Saleh · Updated · Built on Nokia, Ofcom, FCC, ITU, an AAISP engineer’s analysis, Selectra, Indosat and Wikipedia sources, each linked below

A customer on a 300 Mbps plan asks why the fiber is “shared” when the plan says “dedicated line” on the sales page. An agent answers “our contention ratio is 1:32”, and the customer hears a number that sounds like a 1-in-32 chance of getting service. Contention ratio is a true and useful engineering term, and it is among the least useful things to say to a customer. This page gives sales, support and marketing teams the plain-language explanation, the peak-hour expectations that can honestly be set, and the engineering that keeps a shared network from congesting.

Quick answer: Contention ratio compares the total speed sold on a shared link with the capacity of that link. Oversubscription means that total is higher than the capacity, on the bet that customers are not all busy at once. Explain it in three steps. First, shared capacity: one GPON fiber carries 2.488 Gbit/s downstream for all the homes on it, so 32 homes sold 300 Mbps each is a 3.9:1 ratio (our arithmetic). Second, peak hours: when many homes are online together, such as 8 to 10pm in Ofcom’s definition, each home’s share can fall, though published data shows well-run fiber stays close to plan. Third, engineering: operators measure the busy hour, add capacity before links run hot, and manage how what remains is shared.

In this page, contention ratio is the total demand sold on a shared link divided by its capacity, such as 8:1. Oversubscription is selling more total speed than the link can carry at once. A PON (passive optical network) is a fiber network in which one fiber is split passively to serve many homes. The OLT is the operator’s equipment at the head of the PON and the ONT is the unit in the home. A split ratio such as 1:32 is the number of homes on one PON. The busy hour is the period of highest demand on a link. The ITU-T standards behind these networks include G.984.1 (GPON) and G.9807.1 (XGS-PON).

How do you explain shared bandwidth and contention ratio with simple analogies?

Say that the plan speed is the top speed one home can reach, and that the fiber behind it is shared by many homes who are rarely all busy at once. A PON is a shared network: the OLT sends a single stream of downstream traffic that every home on that fiber receives, and bandwidth is commonly shared among its users (Wikipedia: Passive optical network). GPON carries 2.488 Gbit/s downstream, and most deployments split it 1:64, 1:32 or smaller. XGS-PON raises the shared capacity to about 10 Gbit/s and supports up to 1:128.

2.488 Gbit/sshared downstream on one GPON fiberWikipedia summary of ITU-T G.984
1:64the split ratio at which most PONs are deployed, per the same sourceWikipedia
3.9 : 1oversubscription for 32 homes on 300 Mbps plans sharing one GPON downstreamOur arithmetic
8 : 1an ISP engineer’s example: 100 customers on 80 Mb/s sharing a 1 Gb/s fibreAAISP, 2017

One shared fiber serving 32 homes, sold 9,600 Mbps against 2,488 Mbps of capacityAn OLT box labelled 2,488 megabits per second shared downstream connects through one feeder fiber and a splitter to a grid of 32 small squares, one per home. The squares light up at different moments to show homes using the line. Below, a long bar shows 9,600 megabits per second sold, 32 homes at 300 each, and a short bar shows 2,488 megabits per second of shared capacity. That is a ratio of 3.9 to 1. If all 32 homes were busy at once each would get about 78 megabits per second.One shared fiber, 32 homes, a 300 Mbps plan eachOLT2,488 Mbpsshared downstreamone feeder fiber32 homes, each on a 300 Mbps plan. Lit = in use.Sold: 32 × 300 Mbps9,600 MbpsShared: GPON downstream2,488 Mbps9,600 ÷ 2,488 = 3.9 : 1 oversubscribedIf all 32 homes were busy at the same instant: 2,488 ÷ 32 = about 78 Mbps each. Most homes are not busy together.Illustrative 32-way split on GPON (2.488 Gbit/s downstream, ITU-T G.984). Arithmetic is ours; real networks also shareuplinks and backhaul further upstream, where the same question applies again.One shared fiber serving 32 homes, sold 9,600 Mbps against 2,488 Mbps of capacityAn OLT box labelled 2,488 megabits per second shared downstream connects through one feeder fiber and a splitter to a grid of 32 small squares, one per home. The squares light up at different moments to show homes using the line. Below, a long bar shows 9,600 megabits per second sold, 32 homes at 300 each, and a short bar shows 2,488 megabits per second of shared capacity. That is a ratio of 3.9 to 1. If all 32 homes were busy at once each would get about 78 megabits per second.One shared fiber, 32 homesOLT: 2,488 Mbps shared downstreamone feeder fiber to a splitter32 homes, each sold a 300 Mbps plan. Lit = in use.Sold: 32 × 300 Mbps9,600Shared: GPON downstream2,488 Mbps3.9 : 1 oversubscribed (9,600 ÷ 2,488)All 32 busy at once: 2,488 ÷ 32 = about78 Mbps each. Most homes are not busy together.Illustrative 32-way GPON split (ITU-T G.984).Arithmetic is ours. Uplinks and backhaul upstreamshare capacity again.

Figure 1: Oversubscription is arithmetic: speeds sold added up, divided by the capacity they share. Here 32 homes on a 300 Mbps plan sit on one 2,488 Mbps GPON downstream (illustrative).

Figure 1 is the whole idea in one picture. The speeds sold add up to 9,600 Mbps, the shared capacity is 2,488 Mbps, and the ratio is 9,600 divided by 2,488, about 3.9 to 1. That is not a defect. It works because home internet use is bursty: a household streaming a film uses a fraction of its line speed on average, and the moments when many homes ask for the full plan together are short. The number you quote to customers should therefore say what the worst case would be, and what a normal busy evening looks like. Customers often fold this into a wider question, so it helps to know how reliable fiber internet really is.

Why the ratio alone misleads

An engineer at the UK ISP AAISP argues that a contention ratio is a poor measure for three reasons. It ignores link size: two 10:1 links can have very different risk. It ignores usage: a ratio is only meaningful if you know the demand as well. And it can be gamed: a provider selling slow packages looks good on the ratio because the speed side is small. His preferred measure is the average throughput per customer on a link, in Mb/s (AAISP: contention ratios).

The same 10 to 1 ratio on two links of very different sizeTwo bars show demand from five active homes, each on a 10 megabit line. On link A, a 10 megabit link shared by 10 homes, demand is 50 megabits, five times the link, and the bar overruns the dashed 100 percent line. On link B, a 1,000 megabit link shared by 1,000 homes, the same 50 megabits is 5 percent of the link and the bar is tiny. Both links have a 10 to 1 contention ratio.Two 10:1 links that behave very differentlyDemand when 5 homes are active at once, as a share of link capacity. The dashed line is 100%.Link A: 10 homes on a 10 Mbps linkEach home has a 10 Mbps line. Five active homes ask for 50 Mbps.Demand is 5 times the link: slowdown is likely.Link B: 1,000 homes on a 1,000 Mbps linkEach home has a 10 Mbps line. Five active homes ask for 50 Mbps.Demand is 5% of the link: no slowdown.Both links are 10:1, as in an AAISP engineer’s critique of contention ratios (10 homes on 10 Mbps; 1,000 homes on 1,000 Mbps).The five active homes are our illustration. The ratio is identical; the size of the link and the usage decide the risk.The same 10 to 1 ratio on two links of very different sizeTwo bars show demand from five active homes, each on a 10 megabit line. On link A, a 10 megabit link shared by 10 homes, demand is 50 megabits, five times the link, and the bar overruns the dashed 100 percent line. On link B, a 1,000 megabit link shared by 1,000 homes, the same 50 megabits is 5 percent of the link and the bar is tiny. Both links have a 10 to 1 contention ratio.Two 10:1 links, two outcomesLink A: 10 homes, 10 Mbps linkEach line is 10 Mbps. Five homes areactive and ask for 50 Mbps.Demand is 5 times the link: slow.Link B: 1,000 homes, 1,000 Mbps linkEach line is 10 Mbps. Five homes areactive and ask for 50 Mbps.Demand is 5% of the link: fine.Dashed line = 100% of link capacity.Both are 10:1, as in an AAISP engineer’s critiqueof contention ratios. Five active homes is ourillustration. Link size and usage decide the risk.

Figure 2: The same ratio can mean very different things. The ratio ignores how big the link is and how much the customers actually use it (illustrative scenario).

Analogies that work, and where each one breaks

Customers grasp sharing through everyday pictures. Each picture also leaves a wrong impression if you stop there, so finish the analogy with the corrective sentence.

Three analogies for shared bandwidth, with the sentence that fixes each one
Analogy What it explains Where it breaks, and what to add
Water main Each home has a tap that could run at full flow, but one main feeds the whole street. If every tap opens together, each gets less. Water is used up; data is shared moment by moment. Add: “Most taps are closed most of the time.”
Motorway One road for many cars: fast at 3pm, slower at 6pm when everyone drives home. It can sound as if the ISP is choosing to slow you. Add: “We widen the road when traffic grows.”
Shared lift A building lift is fine all day and queues only when everyone leaves at once. A lift queue is visible and fixed in length. Add: “The wait on our network is usually a small speed dip, not a queue.”

One contention explanation, written two ways (illustrative; use your own split and plan)

TypicalOur network uses a 1:32 contention ratio.
Customer-readyYour plan is 300 Mbps, and that is the top speed you can reach. The fiber that serves your street is shared by up to 32 homes, and it carries 2.5 Gbit/s in total. Most homes are quiet at any moment, so you normally get the full 300. If all 32 homes were downloading flat out at the same instant, each would get about 78 Mbps, which almost never happens. We watch the busiest hour on every shared fiber and add capacity when it fills.

How do you explain why broadband speed varies at peak hours?

Say that more homes are online together in the evening, so a shared link can reach capacity and each home’s share can fall. On a well-planned network that dip is small, and a large one is a fault to report. Nokia puts the effect plainly: during busy hours, long-lasting high demand may prevent users from reaching the advertised bitrate on a crowded PON (Nokia: Assure peak bandwidth for broadband subscribers).

Demand across a day on one shared link, with the evening peak windowsA line and area chart of demand over 24 hours on a shared link. Demand is low overnight, rises through the day and climbs steeply in the evening. A dashed line marks the capacity of the shared link. Only between about 7 and 9pm does demand reach the capacity line, and that part is shaded red. Two bands behind the curve mark the Ofcom peak window of 8 to 10pm and the wider FCC peak window of 7 to 11pm. The curve draws from left to right.A day on one shared link: tight for a few hours onlyEvening peak windowsCapacity of the shared linkDemand from all homes on the link00:0006:0012:0018:0024:00Ofcom peak (UK): 8 to 10pm. FCC peak (US): 7 to 11pm.Schematic, not measured data. The link is tight only in the busiest hours; the rest of the day there is headroom.That is why a monthly average hides the problem, and why speed should be checked inside the peak window.Demand across a day on one shared link, with the evening peak windowsA line and area chart of demand over 24 hours on a shared link. Demand is low overnight, rises through the day and climbs steeply in the evening. A dashed line marks the capacity of the shared link. Only between about 7 and 9pm does demand reach the capacity line, and that part is shaded red. Two bands behind the curve mark the Ofcom peak window of 8 to 10pm and the wider FCC peak window of 7 to 11pm. The curve draws from left to right.A day on one shared linkLink capacityDemand, all homes0006121824Darker band: Ofcom peak (UK), 8 to 10pm.Lighter band: FCC peak (US), 7 to 11pm.Schematic, not measured data. The link is tightonly in the busiest hours; averages hide it.

Figure 3: Demand on a shared link follows the day. It reaches the link’s capacity only in the evening peak (schematic), so the same line can test fast at 3pm and slower at 9pm.

The curve in Figure 3 is a schematic, not measured data. It shows the shape that matters: demand follows the day and touches the link’s capacity only for a few evening hours. That is why a monthly average hides the problem and why a speed test at 3pm says little about 9pm. Regulators define the window for this reason. Ofcom reports UK speeds for 8 to 10pm (Ofcom: latest home broadband performance trends), and the FCC measures US performance on weeknights from 7 to 11pm local time (FCC Measuring Broadband America, thirteenth report).

8-10pmUK residential peak window used by Ofcom for peak-time speedsOfcom, Sept 2023
95%UK peak-time average download speed as a share of average maximum speed, March 2023Ofcom
8 of 12US ISP set-ups that met or exceeded advertised download speed at peak, Sept to Oct 2022FCC
20%+year-on-year data traffic growth Indosat reported over Eid 2026 on its mobile networkIndosat statement, March 2026

Published peak-time results from Ofcom and the FCCTwo panels. On the left, three bars of UK average speeds in March 2023: the average maximum speed of 71.0 megabits per second, the 8 to 10pm peak-time average of 67.7, about 95 percent of the maximum, and the average daily minimum of 63.3, about 89 percent. On the right, twelve squares for twelve US ISP set-ups measured at peak in 2022: eight teal squares met or exceeded advertised download speed and four amber squares reached about 86 to 90 percent.What published peak-time data showsUK, March 2023: average speeds (Mbps)Average maximum speed71.0 (100%)8 to 10pm peak-time average67.7 (95%)Average daily minimum63.3 (89%)US, Sept to Oct 2022: 12 ISP set-ups at peak8 met or exceeded their advertised download speed at peak4 reached about 86 to 90% of itOfcom: peak-time average was about 95% of the average maximum, and the effect of congestion was lowest on full-fibre lines.FCC: weeknights 7 to 11pm. Different countries, years and methods: compare the pattern, not the numbers.Published peak-time results from Ofcom and the FCCTwo panels. On the left, three bars of UK average speeds in March 2023: the average maximum speed of 71.0 megabits per second, the 8 to 10pm peak-time average of 67.7, about 95 percent of the maximum, and the average daily minimum of 63.3, about 89 percent. On the right, twelve squares for twelve US ISP set-ups measured at peak in 2022: eight teal squares met or exceeded advertised download speed and four amber squares reached about 86 to 90 percent.What published peak-time data showsUK, March 2023: average speeds (Mbps)Average maximum speed71.0 (100%)8 to 10pm peak-time average67.7 (95%)Average daily minimum63.3 (89%)US, Sept to Oct 2022: 12 set-ups at peak8 met or beat advertised download at peak4 reached about 86 to 90% of itOfcom: peak average about 95% of the maximum;congestion effect lowest on full fibre. FCC:weeknights 7 to 11pm. Different countries andmethods: compare the pattern, not the numbers.

Figure 4: Well-run networks usually deliver close to the plan at peak, but not always at 100%. Published data supports saying so honestly: a small dip is normal, a large one is a signal.

Two readings of Figure 4 belong in any customer explanation. First, a small dip is normal: Ofcom’s peak-time average was about 95% of the average maximum speed, and the FCC found that most subscribers saw only slight degradation from off-peak to peak. Second, the dip is smallest on fiber: Ofcom found the effect of congestion during busy periods was lowest for full-fibre lines. The data does not say that fiber never congests. Four of the FCC’s 12 set-ups reached about 86% to 90% of advertised speed at peak, and individual PONs can run hotter than the average.

Demand spikes are real and sometimes national. Indosat reported more than 20% year-on-year traffic growth during the 2026 Eid homecoming and a government projection of up to 40% growth over Ramadan and Eid, on a mobile network and by the operator’s own account (Meatech Watch on Indosat). The lesson for fiber teams is that peaks can be forecast, so they can be planned for.

What a customer sees in the evening, what it usually means, and what to say
What the customer sees What it usually means What to say
Slightly lower at 8 to 10pm, near the plan Normal sharing at the busy hour “A small evening dip is expected. You are still close to your plan.”
Well below plan every evening, fine in the afternoon, on a cable Shared-link congestion “That pattern points to a busy shared link. Send us the times, and we will check its load.”
Low at every hour on a cable Not contention: look at the line, port or equipment “A problem at all hours is not about sharing. We will test the line.”
Low only on Wi-Fi Home wireless limits “Your line is fine. Let us look at the Wi-Fi.”

To tell the first two patterns apart, ask for a wired test. Ofcom’s customer advice is to test more than once at different times and to use a cable where practical (Ofcom: Get help with broadband and Wi-Fi problems), and Selectra suggests a laptop on Ethernet, three tests ten minutes apart, in the afternoon and in the evening, repeated over three evenings (Selectra: Your fibre line is shared with up to 31 other homes). Selectra is a comparison site, so treat that as practical advice and not a standard.

A peak-hour statement, written two ways (illustrative)

TypicalSpeeds may vary during peak hours.
Customer-readyBetween about 7 and 11pm more homes are online together, so a small dip below your plan speed is normal. On a cable you should still be close to your plan. If your evening tests are far below your afternoon tests, that is congestion and we want to know. Please send three wired test results from two evenings, with the times.

How do capacity planning and traffic management help ISPs control congestion?

ISPs control congestion by measuring the busy hour on every shared link, adding capacity before a link runs hot, spreading customers across links, and managing how the remaining capacity is shared. The AAISP engineer’s point is that there is no single contention ratio for an ISP, because sharing happens at several layers, from the customer line to the cabinet, backhaul, carrier links, edge routers and transit. Each layer needs its own check.

Where sharing happens on an FTTH network, and what the operator can do
Layer Shared by What the operator can do
PON (fiber and splitter) The homes on one fiber, up to the split ratio Move customers to a quieter port, lower the split, upgrade the PON generation
OLT uplink and aggregation Every PON on that OLT Add or upgrade uplink capacity
Backhaul and core Whole regions of customers Add capacity on busy routes; monitor loads
Transit and peering The ISP’s customers and the wider internet Add interconnect capacity; choose routes
A four-step loop for capacity planning on shared fiberFour boxes in sequence: measure busy-hour load on each PON and uplink, forecast growth from faster plans and new homes, act by moving customers, adding PON ports, upgrading the PON or growing uplinks, and verify by re-testing at peak on a cable. A dashed line runs from the last box back to the first to show that the loop repeats. The boxes highlight in order.The capacity planning loop1 MeasureBusy-hour load on eachPON and each uplink,not the monthly average.2 ForecastFaster plans and newhomes raise the busyhour. Plan ahead.3 ActMove customers, addPON ports, upgrade thePON, grow uplinks.4 VerifyRe-test at peak on acable. Compare with theplan and the baseline.Repeat on a schedule you setTrade-offs in Nokia’s description: raising the overbooking factor adds congestion on the PON; fewer subscribers per PONunderuses the network and needs field work. The loop is our synthesis for explaining the work, not a standard.A four-step loop for capacity planning on shared fiberFour boxes in sequence: measure busy-hour load on each PON and uplink, forecast growth from faster plans and new homes, act by moving customers, adding PON ports, upgrading the PON or growing uplinks, and verify by re-testing at peak on a cable. A dashed line runs from the last box back to the first to show that the loop repeats. The boxes highlight in order.The capacity planning loop1 MeasureBusy-hour load on each PON and uplink,not the monthly average.2 ForecastFaster plans and new homes raise thebusy hour. Plan ahead.3 ActMove customers, add PON ports, upgradethe PON, grow uplinks.4 VerifyRe-test at peak on a cable and comparewith the plan and the baseline.Then repeat, on a schedule you set.Nokia: more overbooking adds congestion on the PON;fewer customers per PON underuses it and needsfield work. The loop is our synthesis, not a standard.

Figure 5: Capacity planning is a loop, not a one-off: measure the busy hour, forecast, act before the PON runs hot, then verify with a peak-time test.

Two levers that change the worst case

Capacity per home depends on two things an operator controls: how many homes share a PON, and which PON generation carries them. Divide the shared capacity by the homes and the worst case, every home at full demand in the same instant, moves a long way. Figure 6 uses the GPON and XGS-PON rates and split ratios described above. Only XGS-PON at 1:32 covers a 300 Mbps plan even in the worst case, which is one reason operators plan around the busy hour and not the theoretical peak. Selectra reports that Openreach is deploying XGS-PON in the UK, and reads the move as raising shared capacity from 2.5 to 10 Gb/s; that is a comparison-site report and we have not independently verified the rollout figures.

Worst-case bandwidth per home on GPON and XGS-PON at different split ratiosFive bars show capacity divided by homes if every home were busy at once. GPON at 1 to 64 gives 39 megabits per second, GPON at 1 to 32 gives 78, XGS-PON at 1 to 128 gives 78, XGS-PON at 1 to 64 gives 156 and XGS-PON at 1 to 32 gives 312. A dashed line marks a 300 megabit plan, which only the last bar exceeds.Worst-case share per home if everyone is busy at onceA 300 Mbps planGPON, 1:64 split39 MbpsGPON, 1:32 split78 MbpsXGS-PON, 1:128 split78 MbpsXGS-PON, 1:64 split156 MbpsXGS-PON, 1:32 split312 MbpsWorst case: every home on the PON at full demand in the same instant, which is rare. Capacity ÷ homes.GPON 2.488 Gbit/s; XGS-PON about 10 Gbit/s (Wikipedia summary of ITU-T). Arithmetic is ours.Uplinks and backhaul add their own limits.Worst-case bandwidth per home on GPON and XGS-PON at different split ratiosFive bars show capacity divided by homes if every home were busy at once. GPON at 1 to 64 gives 39 megabits per second, GPON at 1 to 32 gives 78, XGS-PON at 1 to 128 gives 78, XGS-PON at 1 to 64 gives 156 and XGS-PON at 1 to 32 gives 312. A dashed line marks a 300 megabit plan, which only the last bar exceeds.Worst-case share per homeA 300 Mbps planGPON, 1:64 split39 MbpsGPON, 1:32 split78 MbpsXGS-PON, 1:128 split78 MbpsXGS-PON, 1:64 split156 MbpsXGS-PON, 1:32 split312 MbpsWorst case: every home at full demand in the sameinstant, which is rare. Capacity ÷ homes. GPON2.488 Gbit/s, XGS-PON about 10 Gbit/s (Wikipediasummary of ITU-T). Arithmetic is ours; uplinks add a limit.

Figure 6: Two levers change the worst case: fewer homes per PON and a faster PON generation. Even the worst case is rarely reached, which is why operators plan around the busy hour.

The trade-offs operators face

Nokia describes the trade-off directly. Competitors push advertised rates up, and the traditional response is to raise the overbooking factor so subscribers can reach higher rates without adding capacity, which increases congestion on the PON and reduces peak-rate availability. The opposite fix, fewer subscribers per PON, underuses the network and needs field work to move customers. Nokia’s own answer is a software app that uses machine learning on high-frequency traffic data to improve peak-rate availability on loaded PONs. The article is a vendor post and reports no measured results, so treat it as a description of the problem, not proof that the product works (Nokia blog, November 2022).

Traffic management then decides how what remains is shared. In GPON the OLT hands out upstream transmission opportunities to each customer unit according to its activity and its traffic contract, in priority order from fixed to assured to non-assured to best-effort (IP Infusion: DBA, the GPON upstream bandwidth maestro). The page has no named author or date, so use it as a plain explainer of the mechanism. Customers do not need the mechanism; they need to know that capacity is shared by rule, not by accident.

Operators also report using monitoring to see trouble early. Indosat said it used real-time monitoring and predictive analytics to detect congestion more than 60% faster during Eid 2026, on its mobile network and by its own account. Network planners compare these practices before they take a sales call, and they check what is published. What Network Planners and CTOs Actually Want Before They Take a Sales Call makes that point for fiber vendors generally: evidence first, claims second.

Say this about your engineering…

  • What you measure: busy-hour load on each shared link.
  • What you do when a link fills: move, add, upgrade.
  • How customers can check: a wired test, in the evening.

Avoid saying…

  • “Dedicated” for a shared PON.
  • “No congestion”, which no shared network can guarantee.
  • A bare ratio such as “1:32” with no capacity or plan speed.

An engineering claim, written two ways (illustrative; describe your own process)

TypicalWe continuously optimise our network to deliver a consistent experience.
Customer-readyWe watch the busiest hour on every shared fiber. When one gets crowded we move some customers to a quieter port, add capacity or upgrade it. If your cable tests in the evening are well below your plan, tell us the times and we will check the load on your fiber first.

What should a contention ratio explanation include before you publish it?

It should say what is shared, what the worst case is, what a normal evening looks like, and what the customer can do. Use this list to review a plan page, a help article, a support script or a sales answer.

  • Does it say the plan speed is the top speed one home can reach, not a guaranteed constant?
  • Does it name what is shared, and give the capacity and the number of homes, not only a ratio?
  • Does it explain oversubscription as a normal practice, and say when it becomes a problem?
  • Does it use one analogy, and add the sentence that stops the analogy misleading?
  • Does it name the busy window and say what a normal dip looks like?
  • Does it tell the customer how to check: a wired test in the afternoon and the evening?
  • Does it say what you measure and what you do when a shared link fills?
  • Does it avoid “dedicated” and “no congestion” unless they are true?
  • Does every number carry a date and a source, and who checks it before it goes live?

Contention ratio and oversubscription: frequently asked questions

What is contention ratio?

Contention ratio compares the total speed sold on a shared link with the capacity of that link, written as a ratio such as 8:1. One ISP engineer’s example is a 1 Gb/s fibre serving 100 customers on 80 Mb/s connections: 8 Gb/s of possible demand on 1 Gb/s of capacity, or 8:1. It describes sharing, not the speed you will get.

What is oversubscription, and is it deceptive?

Oversubscription means selling more total speed than a shared link can carry at once, on the assumption that customers are not all busy at the same moment. It is a normal way to share capacity. It becomes a problem when busy-hour demand regularly exceeds capacity and customers are not told what to expect.

Is a lower contention ratio always better?

No. The ratio ignores link size and usage. An ISP engineer notes that 10 homes on a 10 Mb/s link and 1,000 homes on a 1 Gb/s link are both 10:1, but the chance of slowdown is high on the first and low on the second. A better measure is average throughput per customer on a link, checked at the busy hour.

What contention ratio is normal for FTTH?

There is no single standard, because the ratio depends on where it is measured. On the fibre itself, GPON deployments mostly use 1:64, 1:32 or smaller splits, and XGS-PON supports up to 1:128. One ISP, PCN, says typical fibre ratios are about 10:1 and offers lower or dedicated 1:1 services. Ask which link a quoted ratio refers to.

How much bandwidth does each home get on a PON?

On GPON, 2.488 Gbit/s is shared downstream. Divided by 32 homes that is about 78 Mbit/s each if every home were busy at the same instant, and about 39 Mbit/s each on a 1:64 split. This worst case is rare, because most homes are idle at any moment. XGS-PON raises shared capacity to about 10 Gbit/s.

Why is my internet slower in the evening?

More homes on the same shared links are online at once. Ofcom measures UK residential peak time as 8 to 10pm, and the FCC measures US peak performance on weeknights from 7 to 11pm. Nokia notes that during busy hours, long-lasting high demand may prevent users from reaching the advertised bitrate on a crowded PON.

Does fiber slow down at peak hours?

Usually only a little on a well-planned network. Ofcom found UK peak-time average download speed was about 95% of the average maximum in March 2023, and that the effect of congestion was lowest on full-fibre lines. In the FCC’s 2022 data, eight of 12 ISP set-ups met or exceeded advertised download speed at peak and the other four reached roughly 86% to 90%.

How can I tell whether a slowdown is congestion?

Test with a laptop on an Ethernet cable, once in the afternoon and again in the evening. Selectra suggests running three tests ten minutes apart and repeating over three evenings. A line that is fine in the afternoon but poor in the evening points to shared infrastructure. A slowdown at all hours points more to your own equipment.

How do ISPs reduce congestion on shared fiber?

They measure the busy hour on each shared link, move customers to quieter ports, add PON ports or uplinks, upgrade to a faster PON generation, and manage how remaining capacity is shared. Nokia notes that raising the overbooking factor increases congestion, while cutting subscribers per PON underuses the network and needs field work.

Sources

  1. AAISP (revk.uk): Contention ratios (May 2017)
  2. Nokia blog: Assure peak bandwidth for broadband subscribers with new Altiplano app (17 November 2022)
  3. Wikipedia: Passive optical network (summary of ITU-T PON standards and split ratios)
  4. ITU-T Recommendation G.984.1: Gigabit-capable passive optical networks (GPON): General characteristics
  5. ITU-T Recommendation G.9807.1: 10-Gigabit-capable symmetric passive optical network (XGS-PON)
  6. Ofcom: Latest home broadband performance trends revealed (14 September 2023, March 2023 data)
  7. FCC: Thirteenth Measuring Broadband America Fixed Broadband Report (Sept to Oct 2022 data, Appendix C of FCC 24-136)
  8. Ofcom: Get help with broadband and Wi-Fi problems (updated 25 August 2026)
  9. Selectra UK: Your fibre line is shared with up to 31 other homes (22 September 2026, updated 16 October 2026)
  10. IP Infusion: DBA, the GPON upstream bandwidth maestro (no author or date shown)
  11. Meatech Watch: Indosat records over 20% traffic surge during 2026 Eid homecoming (26 March 2026)
  12. PCN: Fibre Internet, what is contention ratio? (undated ISP FAQ)

Figures 1 to 6, the analogies, the scripts, the checklist and the pattern table are our illustrations, not published standards. Figure 3 is a schematic, not measured data, and the five active homes in Figure 2 are our illustration. The 3.9:1 ratio and the per-home shares in Figures 1 and 6 are our arithmetic (for example 9,600 ÷ 2,488, and 2,488 ÷ 32); XGS-PON is treated as about 10 Gbit/s. GPON rates and split ratios come from Wikipedia’s summary of the ITU-T standards, which we used because the ITU pages we could open give titles and status but not rates; the ITU pages are cited for the existence and title of each Recommendation. The AAISP post is a 2017 engineer’s argument, not a standard. Nokia’s post is a 2022 vendor article without measured results. The IP Infusion page has no named author or date. Selectra is a commercial comparison site and its Openreach rollout figures are unverified. The Ofcom and FCC figures are from different countries, years and methods and should be compared as patterns only. Indosat’s traffic and congestion figures are the company’s own statements about a mobile network, relayed by Meatech Watch. PCN is an ISP and its ratios describe its own services. We found no published Indonesian rule or national figure on contention ratios for residential FTTH.