Starlink covers more of the Earth than any other consumer internet service β but “nearly everywhere” is not the same as “everywhere.” Six categories of locations still fail it, and understanding those limits before you buy prevents a lot of expensive disappointment.
The marketing answer is “almost anywhere.” The honest answer is more nuanced β and more useful. Starlink’s actual limits fall into three categories: political (countries that have banned or restricted it), physical (terrain, trees, and buildings blocking the sky view), and technical (congestion in dense subscriber areas). Here’s what you need to know before assuming it works at your specific address.
Almost certainly yes β but confirm it before ordering. As of mid-2026, Starlink is available in all 50 states including Alaska and Hawaii, with virtually no remaining waitlists. A handful of very small geographic pockets in states like New Mexico and West Virginia still show limited availability on the coverage map, but these represent a tiny fraction of U.S. addresses. The only reliable way to know for your exact address is to enter it at starlink.com. Don’t check by ZIP code alone β availability can vary street by street in edge areas. The map will show “Available” for immediate service, “Waitlist” for limited-capacity areas, or “Coming Soon” where service is still rolling out. The $99 deposit for waitlisted areas is fully refundable.
Coverage availability and dish performance are two different things. An address can show “Available” in the system while a surrounding tree line, your roofline geometry, or a neighboring building blocks enough of the sky to prevent reliable service. Starlink requires a clear view of the sky across a wide arc β roughly a 100-degree cone pointing south and upward for U.S. installations. Even partial obstructions cause brief but recurring disconnections during satellite handoffs, which disrupts video calls and streaming on a predictable schedule. Download the free Starlink app and use its built-in obstruction checker before purchasing equipment. Hold your phone in the sky at your planned dish location and let the app scan β it uses your camera and satellite geometry data to show exactly which trees, chimneys, or structures will clip the signal path.
Yes β and this is where Starlink performs best, not worst. Rural areas with fewer Starlink subscribers share less satellite cell capacity, which means rural users often see faster and more consistent speeds than suburban users on the same plan tier. Independent testing puts the median rural download speed at 65β150 Mbps, which substantially outperforms DSL (5β15 Mbps) and far surpasses old geostationary satellite services like HughesNet (which filed for bankruptcy in August 2026 after losing nearly 60% of its subscribers to Starlink over six years). More than 85% of Starlink’s U.S. subscribers are in rural areas β the service was built for exactly this use case, and it shows in real-world performance data.
Technically yes, but it’s often not the best choice. In urban environments, building density creates two problems: physical obstructions (skyscrapers, apartment buildings, and rooflines that block sky view) and subscriber density (many people in the same satellite cell competing for bandwidth). A Penn State University analysis found that Starlink’s architecture supports approximately 6.66 households per square mile before speeds drop below the FCC’s broadband minimum of 100 Mbps. Dense urban cores like midtown Manhattan or downtown San Francisco aren’t the target audience β and in those locations, fiber or cable almost always delivers better performance at lower cost anyway. In suburban areas and smaller cities, Starlink works well, especially at lower subscriber densities. The app’s coverage map uses color shading to indicate relative congestion by area.
It depends on latitude and terrain. Starlink’s polar coverage now extends to approximately 75Β° North latitude, up from its original 60Β° limit β which covers the vast majority of Alaska’s populated areas. Truly remote northern Alaska above the 70th parallel sees thinner satellite coverage, though SpaceX continues launching satellites specifically to improve high-latitude performance. For mountain locations, the satellite signal itself reaches fine β the obstacle is the terrain blocking the dish’s sky view, not the coverage map. A dish installed in a canyon or valley with ridgelines visible in every direction will struggle; the same dish on an exposed ridgetop in the same region might perform excellently. Remote islands in U.S. territories β Puerto Rico, Guam, the U.S. Virgin Islands β are covered by Starlink. International islands depend on whether the country they belong to has approved Starlink service.
On a Roam plan, yes β in the 163+ countries where Starlink is active. Roam plans support international use, though the Global Roam tier ($165/month for U.S.-based unlimited) includes a two-month continuous international travel limit; stays beyond two months in a single foreign country require account adjustments. Eight countries are hard-blocked and cannot be activated regardless of which plan you carry β China, Russia, North Korea, Belarus, Afghanistan, Syria, and others enforce legal bans or signal geofencing. Starlink uses GPS-based geofencing: bring a functioning dish into a blocked country and it stops working automatically at the border, without any error message beyond simple disconnection. Residential plans registered to a U.S. home address do not support international roaming β only Roam plans are authorized for cross-border use.
Weather is a real but usually minor factor. Heavy rain causes brief speed reductions β not full outages in most cases β because the signal travels through more water vapor at steeper dish angles. Snow accumulation on the dish is a more practical issue: the dish has a built-in electric heater that clears light accumulation automatically, typically within 10β20 minutes. The heater can spike power draw significantly during heavy snowfall β important for off-grid users to plan around. Severe thunderstorms with intense precipitation can cause temporary signal degradation that resolves when the storm passes. The more common and harder-to-solve performance issue isn’t weather β it’s static obstructions like tree branches and rooflines that block the signal path year-round, not just during storms.
It depends on three variables: your plan tier, your local subscriber density, and the time of day. In lightly loaded rural cells, speeds of 150β220 Mbps are typical during daytime hours. In more populated suburban cells during peak evening hours (6β10pm), the same plan tier might deliver 25β50 Mbps on the entry-level 100 Mbps plan and 80β150 Mbps on the 200 Mbps or MAX tiers. The MAX plan at $120β$130/month receives the highest network priority and maintains performance better during congested periods. Independent testing by FCC Measuring Broadband America found Starlink meets the 100/20 Mbps broadband standard in the majority of test locations, with rural and low-density suburban areas consistently outperforming dense urban cells at the same plan tier.
The United States is Starlink’s most developed market, with service built out more densely here than anywhere else on the planet. But not all U.S. locations perform equally β geography, subscriber density, and sky-view obstructions create real performance differences between an address in rural Montana and one in suburban New Jersey.
| Location Type | Available? | Typical Speeds | Main Challenge | Verdict |
|---|---|---|---|---|
| Rural β open land, farms | β Yes Β· all states | 65β220 Mbps | Finding clear sky view | Best performance zone |
| Small towns & rural suburbs | β Yes | 60β180 Mbps | Some peak-hour congestion | Excellent overall |
| Suburban (medium density) | β Yes | 40β150 Mbps | Evening congestion Β· buildings | Good Β· check alternatives |
| Dense urban core | β Available | 20β80 Mbps peak hours | Building obstructions Β· congestion | Works Β· often not best choice |
| Alaska (south of 70Β°N) | β Yes | 40β150 Mbps | Fewer satellites at high latitude | Strong for most of state |
| Alaska (above 70Β°N) | β οΈ Partial | Variable | Thin satellite coverage | Improving Β· check map |
| Hawaii | β Yes | 60β180 Mbps | Volcanic terrain in some areas | Full coverage Β· all islands |
| Puerto Rico | β Yes | 50β160 Mbps | Hurricane season weather dips | Available β major improvement over prior options |
| Forested campgrounds | β Signal reaches | Varies widely | Tree canopy blocks dish view | Depends on site sky view |
| Mountain valleys / canyons | β Signal reaches | Varies by terrain | Ridgelines block sky arc | Hilltop sites work Β· valley sites struggle |
The coverage map at starlink.com uses your exact address β not your ZIP code, not your town β to confirm availability and any local congestion surcharge. Color coding on the map indicates coverage quality: darker shading signals better performance and lower congestion; lighter areas may see more peak-hour speed variation. If your address shows “Available,” download the free Starlink app before buying hardware and run the obstruction checker at your planned installation spot. That 60-second scan tells you whether a tree line, roofline, or neighboring structure blocks enough sky to cause reliability problems β which is information no coverage map can give you. Ordering the dish, installing it on your roof, and then discovering that a maple tree clips the signal is an entirely preventable problem.
The satellite signal itself reaches virtually every point in the continental United States. What actually prevents Starlink from working at a specific location is almost never about the satellites β it’s about what’s between the dish and the sky. Six real-world limits explain most failures, and most of them are solvable if you know what you’re dealing with.
The dish needs a clear view of the sky across a roughly 100-degree arc, oriented south and upward. Any object that clips that arc β a tree branch, your own roofline, a neighboring house β causes brief but recurring disconnections precisely when the constellation hands off between satellites overhead. These outages follow a predictable 2β4 minute cycle, which is distinctive enough that experienced installers recognize it immediately. Taller mounting (roof peak instead of ground level, or a pole extension above the roofline) solves most residential obstruction problems. The Starlink app’s obstruction checker is the diagnostic tool for this exact problem β run it before you mount anything and save yourself the frustration of a post-installation discovery. Dense tree canopy at campgrounds is the same problem scaled to an extreme: a site under 60% canopy coverage will rarely produce usable streaming video regardless of plan tier.
Every Starlink installation in a given geographic area shares bandwidth through the same satellite overhead. As more subscribers join a cell, peak-hour speeds decline for everyone on lower-priority tiers. A Penn State analysis found that Starlink’s architecture efficiently serves roughly 6.66 households per square mile before speeds drop below FCC broadband thresholds. Rural areas rarely hit this ceiling. Dense suburbs and urban neighborhoods increasingly do β especially between 6 and 10pm when everyone’s home and streaming simultaneously. Plan tier is the lever: the 200 Mbps plan and MAX tier receive higher network priority during congested periods and maintain speeds that the 100 Mbps tier can’t hold during peak hours. This is the correct fix for reliable evening performance in congested areas β not switching hardware or repositioning the dish.
Starlink’s own official availability data identifies eight countries as hard-blocked: China, Russia, North Korea, Belarus, Afghanistan, Syria, Hong Kong, and Macao. In the first five especially, the ban is actively enforced. Starlink uses GPS-based geofencing: when a dish detects it has crossed into blocked territory, it cuts service automatically β no error message, just disconnection. China went further in early 2026 by issuing its first formal penalty to a foreign vessel for using Starlink within Chinese territorial waters. In Russia, terminals can be confiscated and traced. In Iran (marked “coming soon” on Starlink’s map but effectively blocked by the Iranian government’s own jamming and penalties), possession carries potential criminal consequences. There is no workaround that is both legal and reliable β the geofencing is enforced at the hardware level, not just by policy.
Rain attenuation is a real but manageable factor. Light to moderate rain has minimal impact on Starlink. Heavy downpours can reduce speeds by 10β30% temporarily as the signal travels through denser water vapor at certain dish angles. Snow accumulation is the more disruptive issue: the dish heater clears light snow within 10β20 minutes, but sustained heavy snowfall at the rate of several inches per hour can temporarily overwhelm the heater and require manual clearing of the dish surface. The heater also spikes power draw significantly β a consideration for off-grid users. Important perspective: weather events cause temporary performance dips, not prolonged outages, in the vast majority of cases. The far more common and persistent problem is the static obstruction that clips the signal every single day regardless of conditions.
Starlink’s polar coverage has improved substantially β the network now serves addresses up to approximately 75Β°N latitude, covering most of populated Alaska and all of Canada. The far northern reaches of Alaska above the 70th parallel represent the genuine coverage edge: satellite density thins at extreme latitudes because orbital mechanics result in fewer satellites overhead at once in those zones. SpaceX has been launching dedicated polar-orbit satellites specifically to address this, and coverage continues to improve. For context, Fairbanks, Alaska sits at 64.8Β°N β well within reliable coverage. Barrow (UtqiaΔ‘vik), Alaska at 71.3Β°N is near the current performance edge. Check the Starlink map specifically for your address if you’re in far northern Alaska β the coverage picture has improved significantly and continues to change with each satellite batch.
A significant list of countries have not banned Starlink but haven’t yet granted regulatory approval. India, Pakistan, Thailand, Turkey, Vietnam, Brunei, and Saudi Arabia are the major names in a regulatory-watch category where the outcome could go either way. India is the most significant: Starlink received a partial license and has commercial agreements in place, but final security clearances from Indian government agencies have been withheld, leaving the country in an extended pending status. Turkey shows “coming soon” on Starlink’s map with no expected date attached β the 12-nautical-mile geofencing cutoff already applies in Turkish territorial waters. These countries are not banned but cannot be relied upon β travelers and international users should verify current status at starlink.com for any specific country before departure.
163 countries have active Starlink service as of mid-2026. Another 42 are in active rollout. Eight are hard-blocked. The rest sit in regulatory limbo. For anyone traveling, moving abroad, or managing connectivity across borders, this breakdown is what you actually need to know.
| Region / Country | Status | Notes |
|---|---|---|
| United States (all 50 states) | β Full coverage | Including Alaska, Hawaii, Puerto Rico Β· all 50 states |
| Canada, Mexico | β Full coverage | North American Roam plan covers all three |
| UK, Germany, France, Italy, Spain, most EU | β Full coverage | Most Western and Central European countries active |
| Australia, New Zealand | β Full coverage | Comprehensive Β· popular with rural outback users |
| Brazil, Chile, Colombia, Peru, Argentina | β Available | Expanding Β· some remote areas still on waitlist |
| Japan, Philippines | β Available | Asia-Pacific active markets |
| Africa (many countries) | β οΈ Expanding | Some countries active Β· large portion still in rollout |
| India | β οΈ Pending | Partial license Β· security clearance withheld Β· watch closely |
| Turkey, Thailand, Vietnam, Saudi Arabia | β οΈ Pending | Regulatory approval not yet granted |
| China, Russia, North Korea, Belarus | β Blocked | Hard ban Β· active geofencing Β· legal consequences |
| Afghanistan, Syria, Hong Kong, Macao | β Blocked | Included in Starlink’s 8-country hard-block list |
| Iran | β Effectively blocked | Marked “coming soon” but government bans use Β· criminal penalties |
β οΈ Country status changes as Starlink receives new regulatory approvals. Always verify at starlink.com for the specific country before international travel. Eight countries are geofenced at the hardware level β bringing a dish into these territories causes automatic disconnection regardless of which plan is active.
Coverage “availability” is a misleading metric when comparing internet options β what matters is where each technology actually delivers usable speeds. Here’s where each option wins and loses in the real-world geography of the United States.
| Technology | Rural Remote | Suburban | Dense Urban | International | Monthly Cost |
|---|---|---|---|---|---|
| Starlink | β Best option | β οΈ Good Β· check fiber | β οΈ Works Β· congested | β 163 countries | $55β$130/mo |
| Fiber / Cable | β Not available | β Best choice | β Best choice | β οΈ Varies by country | $50β$100/mo |
| 5G Fixed Wireless | β Needs towers | β Good where 5G strong | β Strong signal | β οΈ Country-specific | $50β$70/mo |
| HughesNet / Viasat | β οΈ Available Β· high latency | β Inferior choice | β Not a realistic choice | β οΈ Limited countries | $50β$150/mo |
| DSL | β οΈ Slow Β· 5β15 Mbps | β οΈ Aging Β· budget only | β οΈ Better options exist | β Fixed line only | $40β$60/mo |
| Cellular hotspot | β οΈ Fails without towers | β Good for mobile | β Works well | β οΈ Roaming fees apply | $25β$80/mo |
Coverage maps tell you whether the service area reaches your address. They don’t tell you whether your specific roof, yard, or installation point has a clear enough sky view to deliver reliable performance. Both checks matter, and they’re done with different tools.
Go to starlink.com and enter your full address including street number and ZIP code. The system checks in real time whether service is immediately available, on a waitlist, or not yet offered at your specific location. The result also reflects whether a one-time congestion surcharge applies in your area β this fee ($100β$1,500 in high-demand zones) does not appear on the standard pricing page and only surfaces during checkout. Do not assume the standard hardware price of $349 applies at your address until you’ve completed a full checkout for your specific location. The $99 waitlist deposit is fully refundable if you change your mind. A 30-day return window applies to all hardware purchases β so even after buying, you have a month to verify performance before committing permanently.
Download the free Starlink app (available for iOS and Android without needing an account) and use the “Check for Obstructions” feature. Stand at your planned installation location β roof peak, yard, pole location β and hold your phone up while slowly sweeping it across the full sky arc. The app uses your phone’s camera combined with satellite geometry data for your coordinates to generate a color-coded sky map. Green areas are clear signal paths; red or orange marks show obstructions that will clip the signal during satellite handoffs. The scan takes about 60 seconds. If the scan shows significant red areas, moving the installation point even 10β15 feet horizontally often clears the obstruction entirely. Mounting height is equally important: the same tree that blocks the signal from ground level may not interfere with a dish mounted at roof height six feet higher.
Before committing to Starlink’s hardware cost, check T-Mobile Home Internet and Verizon 5G Home Internet at your specific address. Both offer fixed wireless home internet at $50β$70/month with no hardware purchase and no contract β if either reaches your address with adequate signal strength, they deliver comparable speeds to Starlink’s lower tiers at meaningfully lower cost. T-Mobile’s coverage tool and Verizon’s availability checker require your specific address, not your ZIP code, and both are free to check online. The practical rule: try 5G fixed wireless first in suburban and semi-rural areas, and use Starlink where towers don’t reach. This is the sequence that saves money without sacrificing performance.
This is the situation Starlink was built for, and where it performs best. Rural areas typically have fewer Starlink subscribers per satellite cell, which translates to better-than-average speeds at any given plan tier. More than 85% of Starlink’s U.S. customers are in rural areas β they’re the core audience, not an afterthought. Independent testing puts the median rural download speed at 65β150 Mbps, which is dramatically faster than DSL (5β15 Mbps typical) and substantially better than HughesNet or Viasat, both of which suffered from 600ms+ latency that made video calls and gaming effectively unusable. Enter your address at starlink.com to confirm availability and pricing at your specific location β then run the obstruction scanner at your planned installation spot before ordering hardware.
Probably β but it may not be your best option. Starlink works technically in urban and suburban environments, but two problems compound: physical obstructions (neighboring buildings and your own roofline limiting the dish’s sky view) and subscriber density (many dishes sharing the same satellite cell, which reduces speeds during peak evening hours). In an apartment building or row house with limited roof access, mounting the dish in a viable position may not be possible. If fiber or cable is available at your address, either option delivers better performance at lower cost without the hardware investment. Check for fiber or cable first, then 5G fixed wireless, then consider Starlink if both fail. The obstruction scanner will tell you quickly whether your building’s geometry makes Starlink viable at all.
On a Roam plan, yes β in countries where Starlink is active. The Global Roam plan covers 163+ countries, though the two-month continuous international stay rule applies: staying in one foreign country more than two months without account adjustments may result in service restriction. Bring your Roam plan documentation and verify the destination country’s current status at starlink.com before departure β country approvals change. Eight countries are hard-blocked by geofencing at the hardware level: China, Russia, North Korea, Belarus, Afghanistan, Syria, Hong Kong, and Macao. Do not attempt to use Starlink in any of these eight countries β the dish will not function, and in some cases possession itself carries legal risk under local law.
Mountain terrain creates two distinct problems that often get confused. The satellite signal itself reaches mountainous terrain just as readily as flat land β coverage maps show mountain states like Colorado, Montana, and Idaho as fully covered. The local problem is whether your specific installation spot has a clear view of the sky above the surrounding ridgelines and tree lines. A dish on an exposed ridgeline or in an open meadow may perform excellently. The same dish in a canyon or valley with steep walls visible in every direction will struggle because the walls clip the signal arc the dish needs. The obstruction scanner tells you precisely how much sky your location has β run it from three different spots on your property to find the one with the clearest arc, then install there regardless of whether it’s the most convenient location for cable routing.
Two steps tell you everything before spending a dollar. First, go to starlink.com and enter your home address β the site will immediately show you whether it’s available and what it costs. Second, download the free Starlink app on your phone and use the obstruction checker at the spot where you’d put the dish β usually the roof or a tall pole in the yard. The app shows a green-and-red sky map: mostly green means it will work, heavy red means there’s a tree or structure problem to solve first. If both checks come back positive, the 30-day return window gives you a full month to verify performance after installation β if for any reason the dish doesn’t perform as expected at your address, you can return the hardware for a refund. That’s a meaningful safety net for a first-time subscriber who isn’t sure what to expect.
This is the one scenario where Starlink availability and Starlink usability genuinely diverge. Your address almost certainly shows “Available” on the coverage map β but if your house sits in a clearing completely surrounded by tall tree canopy, the dish may not have enough clear sky arc to maintain reliable service. The test: run the obstruction scanner app from your roof, from a pole in your yard at 10-foot height, and from any elevated point on the property. If every scan shows heavy obstruction (marked red) in the northern and overhead portions of the sky, no plan tier or hardware upgrade will solve it β the signal physically cannot reach the dish through dense canopy. The practical solutions are raising the dish above the canopy with a tall pole mount, clearing a specific tree or branch in the signal path, or accepting that Starlink may not be viable at your specific location. A professional antenna installer can assess whether a viable mounting point exists on your property before you spend money on hardware.
This guide is for general informational purposes only and is not affiliated with, sponsored by, or endorsed by SpaceX or Starlink. Coverage availability, plan pricing, hardware costs, international country status, and service features change frequently β always verify current details at starlink.com before making any purchase decision. Country status information reflects publicly available data from Starlink’s official availability file and independent mapping analysis as of mid-2026; regulatory approvals can change without notice. The Penn State University subscriber density analysis cited reflects published research. FCC broadband data is from publicly available FCC Broadband Data Collection filings. HughesNet Chapter 11 filing date reflects court records. This content is entirely original.