Starlink Speed Tests 2026: Download, Latency & Availability

By Callum Rowe — network operations engineer (CCNP), eleven years in regional ISP network operations, testing satellite internet links from rural sites since 2021. Certifications, employment history and disclosure statement are published on the author profile page, along with every other report under this byline. Published: 19 September 2026. Last updated: 19 September 2026. Corrections and dataset requests via our contact form; the methodology and its limitations are set out in the next section, before any figure is quoted.

Starlink Residential subscribers in 2026 typically record 45–280 Mbps download, 10–30 Mbps upload and 25–60 ms latency according to SpaceX’s published specification — but the working median across independent and crowdsourced satellite internet testing sits far lower, at roughly 70 Mbps down and 11 Mbps up. That gap between the advertised ceiling and the everyday median is the single most important thing to understand before you order a dish, choose a plan, or blame your hardware for an evening slowdown.

This report draws on Measurement Lab’s open datasets, Ookla’s published Starlink reporting, national regulator material from Ofcom, ACMA, Anatel and the NCC, SpaceX’s own specification and FCC filings, and a manually curated panel of 847 user speed-test submissions. Every figure is labelled with when it was measured and what kind of source it came from, because on a shared-capacity network those two variables move results more than the hardware does.

How We Got These Numbers (And Where They Are Weak)

Direct answer: This report uses three tiers of evidence — third-party measurement platforms, regulator and operator documents, and a self-selected community panel. The community panel is the weakest tier and is labelled as such everywhere it appears. Nothing here comes from a private network telemetry system, because we do not operate one.

The test rig

First-hand testing was run on three terminals across the 2026 measurement window:

• Terminal A — Gen 3 Standard kit, Residential plan, rural mid-Wales, UK. Router in bypass mode behind a UniFi UDM-SE, with a dedicated Intel NUC wired at 1 GbE running the Ookla CLI and the M-Lab ndt7 client on cron.
• Terminal B — Gen 2 Standard Actuated kit, Residential plan, a high-country site in New South Wales, Australia. Same wired test harness, stock Starlink router.
• Terminal C — Starlink Mini on a Roam plan, used for cross-border and mobile testing, tested wired via the Mini’s Ethernet adapter.

All three run the four-slot protocol described later: 06:00, 14:00, 20:00 and 23:00 local, wired, with other household traffic idle. Three terminals is a rig, not a national panel. It is enough to characterise behaviour — how handoffs feel, how the evening curve bends, what an obstruction does to a call — and nowhere near enough to produce a national median. Every national or global figure below comes from M-Lab, Ookla or a regulator, not from these three dishes.

The community panel, and how far to trust it

The 847-submission figure is a manual curation, not an automated feed. Submissions were read and logged from public posts in the r/StarlinkSpeedtest community between 1 January and 12 September 2026. A post was included only if it contained a result screenshot, a stated plan tier, a stated local time of test, and a statement that the test was run over Ethernet. Everything else was discarded.

That inclusion rule improves data quality and simultaneously guarantees bias. Three biases matter:

• Self-selection. People who post speed tests to a specialist subreddit are technically engaged, disproportionately likely to have optimised their installation, and concentrated in mature English-language markets. North America, the UK, Australia and New Zealand are heavily over-represented; Latin America, Africa and Southeast Asia are heavily under-represented.
• Wired-only filtering. Requiring Ethernet raises the panel median above what a typical household on Wi-Fi experiences. The panel measures the link, not the lived speed.
• Bimodal posting motivation. People post either to celebrate an unusually good result or to complain about an unusually bad one. The tails are inflated at both ends, which is why we report medians and interquartile behaviour rather than means.

Net effect: the panel median of 71/11 is indicative and probably slightly optimistic on download. Where the panel and M-Lab disagree, believe M-Lab.

Data vintage at a glance

Source	Metric	Value	Period	Evidence tier
Measurement Lab	Starlink cell download band	40–150 Mbps	Rolling, updated continuously	Independent platform
Ookla (US market report)	Median upload, Starlink vs Hughesnet	21.46 vs 4.10 Mbps	US, most recent published	Independent platform
Ookla Speedtest Global Index	Global Starlink median	65 / 10 Mbps	Q2 2024 — historical anchor only	Independent platform, stale
Community panel (n=847)	Residential median	71 / 11 Mbps	Jan–Sep 2026	Self-selected, low confidence
SpaceX specification page	Advertised Residential band	45–280 / 10–30 Mbps	Current	Operator claim

Note the third row. Ookla’s Q2 2024 global Starlink median of 65/10 Mbps is the number recycled by most "2026" articles on this topic, and it is two years old. We quote it strictly as a historical anchor, because it establishes something genuinely useful: the global median has stayed broadly flat in the 65–75 Mbps region while the subscriber base roughly doubled, which means capacity additions have kept pace with growth. Every current-year figure here comes from M-Lab’s rolling dataset, Ookla’s more recent US-market reporting, or the 2026 panel, and is labelled accordingly.

What Starlink Actually Delivers: 2026 Speed Test Ranges

Direct answer: Starlink delivers roughly 70 Mbps down and 11 Mbps up as a working median in 2026, inside an observed band of 40–150 Mbps down and 8–25 Mbps up, driven by cell congestion, ground-station distance and plan tier. Advertised ranges are accurate as ceilings, not as expectations.

Measurement Lab’s aggregation spreads Starlink cells across a 40–150 Mbps download band. The low end is not broken hardware; it is a saturated cell in a popular rural corridor at 20:30 on a weekday. The high end is an underused cell at 04:00. Both are the same product working as designed.

The comparison that reveals most about the technology is not download but upload. Ookla’s US-market reporting gives Starlink a median upload of 21.46 Mbps against 4.10 Mbps for Hughesnet — a five-fold advantage over legacy geostationary satellite internet. That single ratio explains why upload-heavy tasks (cloud backup, video calls, photo sync, remote desktop, uploading site-survey footage) behave so differently on the two systems, and why households migrating from GEO satellite or rural DSL describe the change as categorical rather than incremental.

Plans, prices and observed medians

The table uses concrete US ordering-portal prices captured between 12 and 15 September 2026. SpaceX changes pricing, plan names and promotional hardware subsidies without notice, and regional pricing diverges substantially.

Plan	US price / month (Sept 2026)	Advertised download	Panel median 2026	Data policy
Residential Lite	$80	25–100 Mbps	~48–66 Mbps (n=112)	Unlimited, deprioritised behind Residential
Residential	$120	45–280 Mbps	~65–78 Mbps (n=503)	Unlimited standard data, fair use applies
Local Priority (business)	from $65 (40GB) to ~$540 (2TB)	40–220 Mbps	~105–160 Mbps (n=97)	Metered priority data, then standard priority
Global Priority	from $250 (50GB)	100–350 Mbps	Insufficient panel data	Priority data with global roaming
Roam 50GB / Roam Unlimited	$50 / $165	Deprioritised	Highly variable (n=135)	Portable, lowest queue priority

Hardware is typically $349 for the Standard kit and $599 for the Mini in the US, with periodic promotions taking the kit to $0–$199 in markets where SpaceX is pushing to fill spare cell capacity. Those promotions are the clearest public signal of where capacity is currently under-used — a $0 hardware offer is an open cell advertising itself.

How that compares to fibre and cable

A symmetrical gigabit fibre line beats Starlink on every measurable metric — throughput, jitter, packet loss and latency floor. Cable (DOCSIS 3.1) typically beats it on download and loses on upload in older deployments. The comparison that matters, though, is not Starlink versus fibre; it is Starlink versus what is actually available at that address. Last-mile fibre remains uneconomical for more than 20% of US households, and for those addresses the realistic alternatives are DSL at 3–10 Mbps, geostationary satellite internet at sub-25 Mbps with 600 ms latency, or nothing at all.

One rule governs every number in this article: a Starlink speed figure without a stated testing window is close to meaningless, because the peak-versus-off-peak spread on a single dish routinely exceeds 40%. The mechanics of that spread are set out in the congestion section below.

Starlink Availability in 2026: Waitlists, Coverage and Order Timelines

Direct answer: Starlink is commercially available in more than 100 markets in 2026, and in most of North America, Europe, Australia and New Zealand Residential service can be ordered immediately. Waitlists still exist, but they are per-cell rather than per-country — your neighbour 30 km away can be open for orders while your address is sold out.

This catches people out constantly, because it inverts how terrestrial broadband availability works. With fibre or cable, availability is a question about infrastructure reaching your street. With satellite internet the infrastructure is overhead everywhere; availability is a question about how many subscribers SpaceX has already sold into the capacity cell that covers your roof.

The four states you will see on the availability map

• Available — the cell has spare capacity. Order and ship immediately.
• Waitlist / Sold out — the cell is at its subscriber ceiling. You register interest and are released in order as capacity is added, either by new satellites overhead or by existing subscribers leaving.
• Coming soon — regulatory approval is pending or gateway infrastructure is not yet live. Dates quoted here are aspirational and have slipped repeatedly in several markets.
• Available with a service-plan restriction — increasingly common. Residential is closed but Residential Lite, Local Priority or Roam remain orderable at the same address, because they sit at different points in the scheduler.

What to do if your address is waitlisted

1. Re-check with the exact address, not the town. Cell boundaries are invisible and can run through a single property’s land. Test two or three points on a large rural holding.
2. Check Residential Lite. It was introduced precisely as a capacity valve — a cheaper, more deprioritised tier that lets SpaceX sell into cells it would otherwise close. For a light-use or off-peak-heavy household it is frequently the right answer anyway.
3. Check the business tiers. Local Priority is often orderable where Residential is not, because priority data is scheduled differently. It is more expensive and metered, but it is service.
4. Consider Roam as a bridge. Roam is orderable in most cells regardless of Residential status. You accept the lowest queue priority in exchange for being connected now, and can switch later. The trade-offs are covered in our guide to Starlink for Digital Nomads: Portable Internet Across Borders.
5. Do not buy hardware speculatively. A kit bought for a waitlisted cell is a paperweight until that cell opens.

Order-to-activation timelines

Lead times quoted at checkout on the ordering portal in Q3 2026 run to roughly 1–2 weeks in the US and Western Europe and 4–8 weeks in several emerging markets, where customs handling and local distribution add most of the delay. These are the operator’s own published estimates rather than our measurements, visible to anyone who takes an order as far as the checkout page, and worth screenshotting — they move with regional stock.

If you are weighing a seasonal property, note that availability status and billing are separable concerns: you can hold a cell slot while paused in some circumstances and lose it in others. The mechanics are set out in Starlink Account Management: Transferring, Pausing, and Canceling Service, and getting this wrong is one of the more expensive avoidable mistakes in a congested cell.

Latency Explained: Gaming, Video Calls, and Real-Time Applications

Direct answer: Starlink’s median latency is 36–62 ms depending on ground-station distance and satellite generation, with typical jitter of 5–15 ms and occasional 100–300 ms spikes during satellite handoffs. That is low enough for video calls, VoIP and mainstream online gaming, and marginal for competitive esports.

Low-Earth-orbit geometry is what makes this possible. A Starlink satellite orbits at roughly 550 km; a geostationary satellite sits at 35,786 km. The round-trip physics alone accounts for the difference between Starlink’s sub-60 ms typical ping and legacy satellite internet’s 600 ms-plus. No amount of engineering closes that gap for GEO, which makes the comparison structural rather than competitive.

What moves your latency number

• Distance to the ground station and point of presence. Traffic is relayed to a gateway and then onto terrestrial backbone. Our UK terminal, roughly 90 km from its gateway with a nearby PoP, sits at 32–41 ms to a local test server. The Australian terminal, backhauled considerably further, sits at 54–68 ms under identical test conditions. Same product, same firmware, 20 ms of geography.
• Satellite generation. Gen 2 hardware (V1.5 and V2 mini, with laser inter-satellite links) shows a measurable latency reduction against Gen 1 in comparative measurement, consistent with SpaceX’s FCC technical filings and with independent academic work including studies from UC San Diego’s Scripps Institution of Oceanography.
• Handoffs. Your dish re-points to a new satellite every few minutes. Most handoffs are invisible in the data. A minority produce a 100–300 ms spike or a sub-second packet-loss event, and those are what real-time applications actually feel.
• Obstructions. A tree clipping the field of view forces repeated re-acquisition and converts clean handoffs into visible stutters. This is by far the most common cause of "bad latency" complaints that turn out not to be latency problems at all.

Application thresholds in practice

• VoIP and video conferencing: comfortable below 150 ms. Starlink clears this with room to spare.
• First-person shooters, casual and ranked: generally playable above 60 ms; most players report no perceptible disadvantage in the 50–80 ms band.
• Competitive esports: requires consistent sub-50 ms. Starlink hits that median and cannot yet guarantee it across a whole match.
• Cloud gaming at 1080p60: needs sub-40 ms sustained — the hardest consumer workload on the network, covered in the gaming section below.

Peak Hour Slowdown: Why Satellite Internet Speeds Drop at Night

Direct answer: Expect a 20–40% download reduction in oversubscribed cells between roughly 18:00 and 23:00 local time. Independent measurement puts the typical peak decline at 25–35%. Priority and business plans substantially, though not completely, avoid it. This is the canonical explanation of evening congestion; every other reference in this report points back here.

Starlink sells capacity per geographic cell, and every subscriber under the same beam draws from the same pool. When SpaceX opens a cell to new orders faster than it adds satellite and gateway capacity above it, the cell becomes oversubscribed and evening performance degrades for everyone in it. Residential and Residential Lite traffic is deprioritised behind Priority and business traffic in exactly those windows, which is documented in SpaceX’s own plan terms — the slowdown is scheduler design, not a fault, and support cannot escalate it away. It is also why two neighbours 40 km apart report wildly different evening speeds on identical hardware and identical plans, and why any generalised claim about "Starlink evening speeds" is meaningless without a location.

Where congestion is worst

The most affected cells are high-density rural areas in North America and Europe — commuter-belt countryside, lake districts, popular retirement corridors — precisely where demand for a non-terrestrial option is highest and where a cell can fill within months of opening. Genuinely remote cells (outback stations, high-latitude settlements, small island communities) frequently show no measurable evening degradation, because there are too few subscribers in the beam to saturate it. Our Australian test site, well outside any commuter belt, records a peak-hour decline of under 10% on most weekdays; the UK site, in a popular walking region with heavy second-home ownership, regularly loses a third of its afternoon throughput after 19:30. Same plan, same generation of hardware, opposite experience.

Does paying more actually help?

Yes, and the mechanism is documented even where the magnitude is not. Priority data routes ahead of Residential traffic in the scheduler under SpaceX’s published plan terms. Quantifying the gain independently is harder. Within the community panel we isolated 61 paired submissions in which a Priority and a Residential user posted results from what appeared to be the same congested cell during the 19:00–23:00 window; across that subsample Priority ran roughly 2–2.5x the Residential download speed. That is a directional signal from a small self-reported sample, and it lines up with both the published scheduler behaviour and the panel’s wider plan-tier medians (105–160 Mbps for Local Priority against 65–78 Mbps for Residential) — three weak-to-moderate indicators pointing the same way.

Business tiers go further, with SLA terms committing to maintaining a defined proportion of advertised speeds. The trade-off is cost and metering: priority allocations are capped, and once exhausted, traffic falls back to standard-priority handling for the rest of the billing cycle — which can mean paying business rates for Residential performance in the last week of the month if you size the allocation badly.

Diagnosing congestion yourself

Run the same wired test at 14:00 and again at 20:30 on three consecutive weekdays. If the evening figure is consistently 25% or more below the afternoon figure while your obstruction percentage stays at zero, you are in a congested cell and no amount of router tuning will change it. The three available fixes are a plan change, a scheduling change (move backups, game patches and large downloads to the small hours), or a different technology.

Video Call Reliability: Zoom, Teams and Meet on Starlink

Direct answer: A 1080p video call needs roughly 3–4 Mbps symmetric. Starlink’s 10–30 Mbps upload clears that comfortably, and an unobstructed installation produces near-zero drops. Obstructed installations generate several brief interruptions of 2–15 seconds per day, which is where almost all reliability complaints originate.

The upload figure is the one that surprises people migrating from DSL. A 21.46 Mbps median upload means a single line can host several simultaneous HD calls — something a 1 Mbps-upload rural DSL circuit could never do, and the specific reason Starlink changed the economics of rural remote work rather than merely improving them.

Bandwidth budgeting for concurrent calls

Scenario	Upload required	Download required
One 1080p call	3–4 Mbps	3–4 Mbps
One 720p call	1.2–1.8 Mbps	1.2–1.8 Mbps
Three concurrent 1080p calls (household)	9–12 Mbps	9–12 Mbps
1080p call + screen share + cloud backup	8–15 Mbps	5 Mbps

The fourth row is where congested-cell households actually get hurt. Upload is the scarcer resource, and a background backup client will take all of it without asking.

Why calls survive jitter better than you would expect

Zoom, Teams and Meet all run adaptive bitrate over UDP. When a handoff introduces a 200 ms spike, the client degrades resolution for a second or two and recovers, rather than stalling the way a TCP-based transfer would. That masking is why subjective ratings of Starlink call reliability cluster around 4/5 against 5/5 for fibre — noticeably good, occasionally imperfect — even though the underlying link is measurably less stable than a terrestrial one.

Settings that measurably improve call quality

• Get the dish to an unobstructed sky view first. The obstruction checker in the Starlink app must read No Obstructions before any software tuning is worth attempting.
• Use Ethernet for the calling device where possible. In-house Wi-Fi contention is a more common cause of choppy audio than the satellite link is.
• Disable "HD video" in Zoom for calls with eight or more participants — the quality gain is negligible at gallery-view tile sizes and the upload saving is real.
• Suspend cloud backup clients and console auto-updates during working hours; they will happily consume the full upload allocation.
• If you run your own router in bypass mode, apply QoS rules prioritising UDP conferencing traffic over bulk transfer. On our UK rig this removed almost all mid-call resolution drops that were not attributable to handoffs.

Gaming Performance by Platform and Genre

Direct answer: Starlink handles mainstream console and PC multiplayer well, with Fortnite and Apex Legends players reporting 50–80 ms typical ping. The real constraints are carrier-grade NAT, unsupported port forwarding, and occasional packet loss during satellite transitions.

Console specifics

Xbox and PlayStation consoles on Starlink almost always report Cone NAT (frequently displayed as Moderate / Type 2) because the network uses CGNAT by default. Port forwarding is not officially supported on the standard service. In practice this rarely blocks matchmaking on major titles, but it can affect peer-hosted lobbies, some older games, and party chat in specific titles. Enabling IPv6 on the console resolves a surprising proportion of NAT complaints, since Starlink assigns routable IPv6 addresses. Where a genuinely open NAT is required, a public IPv4 address is available on business tiers.

Cloud gaming

GeForce Now at 720p60 is reliably playable on a typical Starlink line. 1080p60 demands sub-40 ms consistent latency, which only users close to a gateway and testing off-peak will sustain; elsewhere the stream drops resolution during handoffs. Xbox Cloud Gaming behaves similarly. Cloud gaming is the most latency-sensitive consumer workload on the network and consequently the most honest test of link quality you can run — if cloud gaming is clean, everything else will be.

Genre tolerance

• Turn-based, strategy, MMOs: effectively unaffected. World of Warcraft, EVE Online and Civilization play identically to fibre.
• Battle royales (Fortnite, Apex, Warzone): very playable at 50–80 ms, with occasional rubber-banding during handoffs.
• Tactical shooters (Valorant, CS2) at ranked level: the 100–300 ms spike events are the problem, not the median. One spike per match can decide a round.
• Fighting games with rollback netcode: workable, but jitter above 10 ms is perceptible to experienced players.

Starlink’s "Gaming Mode" — in beta on some router firmware — prioritises latency-sensitive traffic within the local network. It reduces in-home contention; it does nothing about congestion in the satellite beam itself, and marketing that implies otherwise should be read carefully.

Regional Performance Variations: Country-by-Country Data

Direct answer: National medians in 2026 range from roughly 45 Mbps in newer African markets to 85 Mbps-plus in Australia. Regulator data consistently shows Starlink as the fastest option available at rural addresses in these markets, even where its absolute numbers trail urban fibre by an order of magnitude.

Country	Median download	Median upload	Residential price / month (Sept 2026)	Regulatory and competitive context
Australia	85 Mbps	12 Mbps	A$139	ACMA-licensed; NBN Sky Muster tops out at 25 Mbps down / 5 Mbps up
United Kingdom	70 Mbps	11 Mbps	£75	Ofcom broadband reporting identifies Starlink as the fastest rural option
Brazil	55 Mbps	10 Mbps	R$184	Anatel-licensed since 2022, expanded 2024; very wide internal variation
Nigeria	45 Mbps	9 Mbps	₦57,000 (approx.)	NCC licence obtained February 2024; competing with MTN 5G fixed wireless

Prices were captured from local ordering portals between 12 and 15 September 2026; tax treatment and hardware subsidies differ by market. Median figures are derived from M-Lab regional aggregation cross-checked against regulator reporting where available.

Australia: the clearest case for switching

The Australian comparison is unusually stark because the incumbent satellite internet service is a known quantity. NBN Co’s Sky Muster specifies a maximum of 25 Mbps down and 5 Mbps up; Starlink medians sit more than three times higher on download and roughly double on upload. For households beyond the fixed-wireless footprint this is not a marginal upgrade, it is a change in what the connection can be used for — remote schooling, telehealth and cloud-based work all become viable at the same address. We cover the plan-by-plan comparison in Starlink in Australia: NBN Alternative for Rural and Remote Areas.

Brazil and Nigeria: capacity still catching up with demand

Brazil has been operational under Anatel authorisation since 2022 with an expanded footprint from 2024, and its national median masks enormous internal spread — Amazonian cells behave very differently from those in the south-east, where terrestrial competition is real and cells fill faster. Nigeria’s NCC licence, granted in February 2024, opened a market where Starlink now competes directly against MTN’s 5G fixed wireless in peri-urban areas while remaining the only credible option across much of the north-east. In both markets, availability is the binding constraint more often than speed is.

Where headline speed stops mattering

In emergency deployments the metric that counts is time-to-connectivity, not megabits. A terminal delivering 30 Mbps into a cyclone-hit district within hours outperforms any theoretical 200 Mbps link that does not exist, which is why rapidly deployed terminals have reshaped disaster response — a pattern we examine in Starlink in Disaster Relief: Hurricane and Conflict Zone Connectivity. The same reframing applies to mobile users crossing borders on Roam plans, where deprioritised throughput is simply the price of coverage continuity.

How to Test Your Own Starlink: Methodology and Tools

Direct answer: Use Ookla Speedtest or Measurement Lab over a wired connection, run the same test at 06:00, 14:00, 20:00 and 23:00 local across at least seven days, and record obstruction percentage, firmware version and weather with every result. A single test tells you nothing; a week of timed tests tells you almost everything.

Choosing the right tool

• Ookla Speedtest — the de facto standard and the source of the published indices most comparisons rely on. Pick a server geographically near your point of presence, not near your dish; the two can be hundreds of kilometres apart.
• Measurement Lab (M-Lab) — open, transparent methodology with publicly downloadable raw data. Slower to run, better for defensible measurement, and the right choice if you intend to show the results to anyone.
• The Starlink app’s built-in test — useful for checking the link between dish and point of presence, but it does not measure the full internet path. Never use it as your only source.
• Avoid ISP-hosted tests entirely. A test hosted inside the network you are measuring is not an independent measurement of that network.

The four-slot protocol

1. 06:00 — off-peak baseline, the closest you will get to your cell’s uncontended ceiling.
2. 14:00 — daytime working load.
3. 20:00 — peak congestion window.
4. 23:00 — late-evening recovery curve, which tells you how sharply the cell drains.

Run each slot wired, with other household devices idle, and repeat for seven consecutive days before drawing any conclusion. Log download, upload, latency, jitter and packet loss; the last two are where satellite internet links differ most from terrestrial ones and are routinely omitted from user reports, which is precisely why most user reports cannot be compared with each other.

Making your result useful to other people

A number on its own cannot be interpreted. Publish it with context: obstruction percentage from the app, firmware version, plan tier, approximate cell or nearest town, weather at time of test, and whether the test was wired or wireless. Crowdsourced aggregations — including the panel behind this report — are only as good as the metadata attached to submissions. Of the several thousand posts reviewed for this report, fewer than a third carried enough context to be usable at all. The well-documented ones are the ones that end up in analyses like this.

When Performance Falls Short: Troubleshooting and Alternatives

Direct answer: Before concluding your service is underperforming, verify three things in order — zero obstructions, current firmware, and wired-versus-Wi-Fi test conditions. The large majority of below-median results trace to one of those three rather than to network capacity.

The diagnostic sequence

1. Obstruction check. Open the Starlink app’s obstruction tool and let it complete a full 12-hour scan. Anything other than No Obstructions means your rated performance figures do not apply. Even 1% obstruction generates repeated handoff failures, and those failures cluster in exactly the minutes when a satellite is low on the horizon.
2. Firmware. Starlink builds are versioned YYYY.WW.patch, so the version string reveals its age at a glance. A terminal reporting a 2024 or early-2025 build in late 2026 is many releases behind and missing successive improvements to handoff logic. Terminals left offline for long periods lag furthest. Reboot, leave it online overnight, and re-check.
3. Test conditions. Re-run the test on Ethernet. Wi-Fi contention, a router placed in a metal-framed outbuilding, or a mesh node on a congested 2.4 GHz channel will all produce "slow Starlink" results that have nothing to do with the satellite.
4. Cell congestion. If the first three check out, apply the 14:00-versus-20:30 comparison described in the congestion section above — a consistent 25%+ evening gap with zero obstructions is a capacity condition, not a fault.
5. Connectivity errors. Recurring dropouts, "offline" states and router faults have their own diagnostic path — our walkthrough on Starlink Offline or Disconnected: Fixing Common Errors covers those cases in order of likelihood.

Is a Priority upgrade worth the money?

Against $120/month Residential, Local Priority starts around $65/month for a small metered allocation and rises steeply with the data tier — a meaningful allocation for a working household or small business lands in the $250–$540 band. What you buy is consistency during the congested 19:00–23:00 window rather than a higher ceiling.

For a household that streams in the evening, the upgrade is usually unnecessary: 65 Mbps still carries two 4K streams without strain. For a remote worker whose 20:00 client calls cannot stutter, or a small business running point-of-sale and nightly cloud backup, it frequently pays for itself in one avoided outage. Run the four-slot protocol for a week first and upgrade only if the evening numbers fall below what your workload actually needs. If you are reconsidering the plan entirely — including pausing seasonally rather than upgrading — the options are set out in our Starlink Account Management: Transferring, Pausing, and Canceling Service guide.

Realistic alternatives

Fixed wireless access from local cellular operators has expanded aggressively on 5G and LTE and now outperforms satellite internet at some addresses — particularly peri-urban ones within clear line of sight of a mast, where FWA can deliver 100–300 Mbps at lower latency and lower cost. MTN’s 5G FWA in Nigeria and comparable products across Europe and Australia are genuine competitors in that niche, and anyone within mast coverage should price both.

The calculus flips the moment you move beyond that footprint. Last-mile fibre remains uneconomical for more than 20% of US households, and FWA thins out fast outside mast coverage. That is the territory where Starlink still has no meaningful rival, and where a 70 Mbps median is not a compromise but a transformation of what is possible at the address — which is, in the end, why the gap between 70 Mbps and the advertised 280 Mbps matters far less than most speed-test arguments assume.

Sourcing, Updates and Corrections

Author: Callum Rowe, network operations engineer (CCNP), eleven years in regional ISP network operations and a Starlink subscriber since 2021. Certifications, employer history, professional profiles and conflict-of-interest disclosure are listed on the author profile page. Test rig and panel methodology are disclosed in full in the second section of this report, including known biases.

Published: 19 September 2026. Last updated: 19 September 2026. Plan pricing, availability status and national medians change frequently. Pricing here was captured manually from local Starlink ordering portals between 12 and 15 September 2026.

Primary sources: Measurement Lab open measurement datasets (rolling); Ookla Speedtest Global Index and Ookla US market reporting (speedtest.net/global-index — note the Q2 2024 vintage of the last published global Starlink median); Opensignal satellite experience reporting; UC San Diego Scripps Institution of Oceanography Starlink technical studies; SpaceX published service specifications, plan terms and FCC technical filings; Ofcom (UK) broadband performance reporting; ACMA (Australia); Anatel (Brazil, Resolution No. 728/2022); NCC (Nigeria, licence granted February 2024). Community panel: 847 curated public submissions from r/StarlinkSpeedtest, 1 January – 12 September 2026.

Changelog

• 2026-09-19: Consolidated three separate discussions of peak-hour congestion into a single canonical section, with cross-references replacing the repeated explanations. Repaired a broken placeholder link in the disaster-relief paragraph and removed the editorial note that accompanied it.
• 2026-09-19: Removed three performance claims previously attributed to internal tracking systems (a congestion dashboard, a hardware fulfilment tracker and a firmware before-and-after log). We do not operate those systems and the claims should not have been published. The congestion figure has been replaced with a disclosed 61-pair subsample from the community panel; the shipping figure is now attributed to operator-quoted checkout lead times; the firmware claim, which cannot be substantiated from any public source, has been deleted rather than re-sourced.
• 2026-09-19: Added a full methodology section disclosing the three-terminal test rig, panel inclusion criteria and three named sources of sampling bias, plus a data-vintage table so every headline figure carries its measurement period.
• 2026-09-19: Added an availability section covering per-cell waitlist mechanics, the four availability-map states, and what to do when an address is sold out.
• 2026-09-19: Replaced generic price ranges with portal-captured figures and a capture date; added local Residential pricing to the country table. Reclassified Ookla’s Q2 2024 global median as a historical anchor rather than a current benchmark.
• 2026-09-15: Added confirmation of Nigeria’s NCC licence status and MTN 5G FWA competitive context.
• 2026-08-22: Updated Australian median download figures against the latest published index release.

Correction [2026-09-10]: An earlier version of this report stated a 50 Mbps median for Brazil. The figure has been corrected to 55 Mbps in line with updated measurement data. The error originated in a transcription of an older regional aggregate and did not affect any other figure in the report.

Frequently Asked Questions

What is the average Starlink speed in 2026?

There is no single trustworthy 2026 global average, and any article quoting one without a measurement date should be distrusted. Measurement Lab’s continuously updated open dataset places most Starlink cells in a 40–150 Mbps download band. Our own community panel — 847 wired, timestamped submissions logged from r/StarlinkSpeedtest between 1 January and 12 September 2026 — returned a median of 71 Mbps down and 11 Mbps up for Residential, with the self-selection caveats disclosed in the methodology section. SpaceX’s specification page describes 45–280 Mbps down and 10–30 Mbps up as the Residential band. Roughly 70 Mbps down / 11 Mbps up is the sensible planning figure; 280 Mbps is a ceiling, not an expectation.

Is there still a Starlink waitlist in 2026?

In most of North America, Europe, Australia and New Zealand, Residential service is available on demand with no waitlist. Waitlists persist cell-by-cell rather than country-by-country: individual capacity cells in busy commuter-belt countryside, lake districts and retirement corridors still show as sold out while a cell 30 km away is open. The only reliable check is your exact service address on the Starlink availability map. Where Residential is waitlisted, Residential Lite, Local Priority or a Roam plan are frequently still orderable at the same address, with different priority and pricing consequences.

How much does Starlink cost per month in 2026?

On the US ordering portal captured in mid-September 2026, Residential is $120/month, Residential Lite is $80/month, Roam 50GB is $50/month and Roam Unlimited is $165/month, with Local Priority business tiers starting around $65/month for a small metered data allocation. Hardware is typically $349 for the Standard kit, frequently discounted or bundled to $0 in promotional markets. Prices, taxes and hardware subsidies differ substantially by country — the UK, Australia, Brazil and Nigeria all price locally.

Is Starlink fast enough for 4K streaming?

Yes. A 4K stream from Netflix, YouTube or Disney+ needs about 15–25 Mbps sustained, well below even congested-cell Starlink speeds. The practical limit is concurrency: two 4K streams plus a video call is roughly 40 Mbps, which is comfortable off-peak but can buffer in an oversubscribed cell between 19:00 and 23:00 local time. If evening 4K stutters while your obstruction reading stays at zero, the cell is congested — it is not the dish.

Why does my Starlink speed drop at night?

Starlink allocates capacity per geographic cell, and every subscriber in your cell shares the same satellite beam. Between roughly 18:00 and 23:00 local, simultaneous demand in oversubscribed cells produces a 20–40% reduction in download speed, consistent with independent measurement showing typical peak-hour declines of 25–35%. Residential and Residential Lite traffic is deprioritised behind Priority and business traffic during those windows, so the drop is designed behaviour, not a fault.

Can I game competitively on Starlink?

Casual and ranked play is fine — a median latency of 36–62 ms puts Fortnite, Apex Legends and Call of Duty in the 50–80 ms ping band most players tolerate without a perceptible disadvantage. Competitive esports demanding sub-50 ms on every frame is a different matter, because satellite handoffs still produce occasional 100–300 ms spikes and short packet-loss events. Median latency is not the problem; the tail is. If your ranking depends on never dropping an input, keep a terrestrial backup for match days.

Does Starlink work well for Zoom calls?

For a single 1080p call, yes: Zoom, Teams and Meet each need roughly 3–4 Mbps symmetric, and Starlink’s 10–30 Mbps upload has ample headroom. Reliability depends almost entirely on obstructions — a clear field of view produces near-zero drops, while a partially blocked dish can generate several brief 2–15 second interruptions per day. Panel respondents who volunteered a subjective rating put call reliability around 4/5 against 5/5 for fibre, which matches the technical picture: excellent most of the time, occasionally imperfect.

How do I run an accurate Starlink speed test?

Use Ookla Speedtest or Measurement Lab over an Ethernet connection rather than Wi-Fi, and avoid ISP-hosted test servers that flatter their own network. Run the same test at 06:00, 14:00, 20:00 and 23:00 local for at least seven consecutive days so you capture the peak-hour curve rather than one flattering sample. Record obstruction percentage, firmware version, plan tier and weather alongside each result — a speed number without that metadata cannot be interpreted by anyone, including you.