Starlink
46 resultsThe short version, if you only read one box
Starlink is satellite internet fast enough and responsive enough to run a business on, because its satellites orbit a few hundred miles up instead of twenty-two thousand. For most operations the decision comes down to one question: does the dish stay put, travel with people, or live somewhere punishing.
- It stays on a building or a yard. Starlink Standard. Most coverage per pound spent, 3,200 sq ft, up to 235 devices.
- It travels with a crew or in a vehicle. Starlink Mini. 2.43 lb, router built in, and 25 to 40 W means a portable power station runs it all day.
- It lives on a vessel, a rig or anywhere exposed. Starlink Performance. IP69K, rated to survive 174 mph winds, clears 3.5 inches of snow an hour.
- It is a permanent commercial install with a long cable run. Starlink Enterprise. Ships with a 164 ft cable and a grounded power supply.
- It has to work no matter what. Starlink alone is not enough. It needs power and sky. Pair it with a satellite phone.
What Starlink actually is
Starlink is a satellite internet network operated by SpaceX. Thousands of satellites orbit a few hundred miles above the Earth, and a flat panel on the ground talks to whichever one is overhead. What makes it different from every satellite service that came before is not the hardware. It is the altitude.
Traditional satellite internet uses geostationary satellites, which sit roughly 22,000 miles up so they stay above the same spot on the ground. That is an elegant piece of engineering with one unavoidable consequence: every packet travels about 45,000 miles to get up there and back, and then the reply does it again. Light is fast, but it is not instant, and that round trip alone costs the better part of half a second before any equipment has done a thing.
Half a second does not sound like much. In practice it is the difference between a conversation and two people talking over each other, which is why anyone who tried a video call over old satellite internet generally did not try twice.
Starlink flies its satellites a few hundred miles up instead. At that altitude the distance contributes almost nothing to the delay, and what is left is dominated by ordinary ground network infrastructure, the same as any terrestrial connection. Video calls behave. Remote desktop behaves. VoIP behaves. That is the entire reason Starlink changed what satellite internet is good for.
Schematic, not to scale. The distances are real; the drawing is not.
A satellite that close is moving at roughly 17,000 mph, so no single one stays overhead for more than a few minutes. That is why the constellation has to be enormous, and why the dish is a phased array: it steers its beam electronically and hands off between satellites with nothing mechanical moving. It also explains why the dish needs a genuinely clear view of the sky rather than a clear view of one fixed point.
| Starlink | Traditional satellite | Cellular | |
|---|---|---|---|
| Where the signal goes | A few hundred miles up | Roughly 22,000 miles up | A tower, typically within a few miles |
| Delay from distance alone | Negligible | Close to half a second round trip | Negligible |
| Real-time work | Video calls, remote desktop and VoIP all behave normally | Usable for email and browsing, painful for conversation | Normal, where there is coverage |
| Where it reaches | Populated landmasses and most maritime regions, subject to regulatory approval | Very wide, long established | Only where somebody built a tower and it is worth their while |
| What it needs on site | Power and an unobstructed view of the sky | Power and a clear line to one fixed point | Nothing, if you have signal |
| Typical failure mode | Obstruction, or loss of power | Delay makes some work impractical | No coverage at all, or congestion |
This compares the three by the physics and the practical consequences, not by any one product's marketing figures.
Is Starlink right for your operation
Starlink solves a specific problem extremely well and a few adjacent problems badly. It is worth being blunt about which is which before hardware gets ordered.
Choosing a terminal
There are four, and they are genuinely different pieces of hardware rather than trim levels. The honest way to choose is to describe where the dish will physically live and let that decide.

Starlink Mini
2.43 lb, router built into the dish, 25 to 40 W. Covers 1,200 sq ft and up to 128 devices. The low power draw is the underrated part: it is the only terminal a modest power station runs comfortably for a full working day.
Everything about the Mini →
Starlink Standard
6.4 lb, separate Wi-Fi 6 router, 75 to 100 W. Covers 3,200 sq ft and up to 235 devices. The most coverage and throughput per pound spent, and the right default whenever the dish is not going anywhere.
Everything about the Standard →
Starlink Performance
11.5 lb, 140 degree field of view, IP69K with cables installed. Operates from -40°F to 140°F, survives 174 mph winds and clears 3.5 inches of snow an hour. Built for vessels, rigs and exposed installations.
Everything about the Performance →Starlink Enterprise
The same panel as the Standard, in a kit built for permanent commercial installation. It ships with a 164 ft cable rather than 50 ft, and a grounded power supply with a dedicated earth terminal and a mount. Specify it when the dish and the equipment room are a long way apart and the install is meant to outlive the project.
See the Enterprise terminal →The rules that settle most cases
Full specification comparison
Every figure below is taken from Starlink's own published specification sheet for that terminal. Where a sheet does not state a figure, the cell says so rather than filling the gap with something plausible.
| Mini | Standard | Performance | Enterprise | |
|---|---|---|---|---|
| Best suited to | Crews and vehicles | Fixed sites | Harsh conditions and marine | Permanent commercial installs |
| Weight | 2.43 lb | 6.4 lb | 11.5 lb | Not stated |
| Weight with kickstand | 2.56 lb | 7 lb | Not stated | Not stated |
| Dimensions | 11.75 x 10.2 x 1.45 in | 23.4 x 15.07 x 1.5 in | 24 x 15.6 x 1.6 in | 23.4 x 15.07 x 1.5 in |
| Antenna | Electronic phased array | Electronic phased array | Electronic phased array | Electronic phased array |
| Power draw | 25 to 40 W | 75 to 100 W | 75 to 100 W | 75 to 100 W |
| Field of view | 110° | 110° | 140° | 110° |
| Environmental rating | IP67 | IP67 | IP69K plugged, IP68 unplugged | IP67 |
| Operating temperature | -22°F to 122°F | -22°F to 122°F | -40°F to 140°F | -22°F to 122°F |
| Wind | Operational 60 mph+ | Operational 60 mph+ | Survivable 174 mph+ | Operational 60 mph+ |
| Snow melt | 1 in/hr | 1.5 in/hr | 3.5 in/hr | 1.5 in/hr |
| Router | Built into the dish, Wi-Fi 5 | Separate Router 3, Wi-Fi 6 | Bring your own | Bring your own |
| Wi-Fi coverage | 1,200 sq ft | 3,200 sq ft | Depends on your router | Depends on your router |
| Devices | Up to 128 | Up to 235 | Depends on your router | Depends on your router |
| Cable supplied | 50 ft | 50 ft | 82 ft | 164 ft |
| Published download speed | Not stated on the sheet | Not stated on the sheet | Up to 400+ Mbps | Not stated on the sheet |
Two rows are easy to misread. The Performance wind figure is what the hardware will survive, while the other three describe what they will operate in. And download speed is a property of the service plan rather than the dish, which is why three of those four cells are empty on Starlink's own documentation.
The three mistakes that cost the most
Buying the Mini for a fixed site because it is cheaper
It covers a third of the area and supports about half the devices. If nothing is going to pick the dish up and carry it, that portability is money spent on a property you will never use, and the coverage shortfall shows up the first busy afternoon.
Buying hardware before settling the region
Crossing a border and going to sea are the things a plan has to cover. A terminal on a regional plan that leaves its region is not a slow connection, it is no connection. In-motion use is included on everything we sell, so that part is one less thing to get wrong.
Measuring the cable run and then ordering exactly that length
The dish wants sky and the router wants to be near people, and those two places are rarely close together. Every kit ships with a set cable length, and the second order is almost always a longer cable.
Coverage and what actually affects performance
Starlink covers populated landmasses and most maritime regions, with some territories still subject to regulatory approval. Whether it performs where you are is a different question from whether it reaches, and four things account for nearly all of the variation.
Obstructions
The single largest cause of a disappointing install. The dish tracks satellites across a wide arc of sky, so a tree or a roofline that clips that arc causes brief dropouts every time a satellite passes behind it. The app maps this before you drill anything, and it is worth believing what it tells you.
Weather
Heavy rain or snow can reduce throughput while it is falling. Every dish has a heating element to clear its own face: 1 inch an hour on the Mini, 1.5 on the Standard and Enterprise, 3.5 on the Performance. Very heavy snowfall can still outpace the lower ratings, which is a reason to mount somewhere reachable.
Congestion
Bandwidth is shared with everyone else served by the same cell. Busy periods in busy areas are slower than quiet periods in empty ones, which is the opposite of the intuition people arrive with, and it is what priority data on a plan is for.
Mounting and alignment
A dish on the ground on a kickstand works, and a dish mounted high and aimed properly works better. The kickstand is for getting started, not for a permanent install. Anything staying put for months deserves a real mount, and anything on a vehicle or vessel deserves one rated for the speeds involved.
Mounts, cables and accessories →Power, and why it quietly settles the terminal choice
Every terminal except the Mini averages 75 to 100 W. The Mini averages 25 to 40 W. On mains power that difference is invisible. Away from mains it decides what is possible.
A rough figure you can do in your head: divide a power station's watt-hours by about 30 for the Mini, or by about 90 for the others. A 1 kWh station is most of a working day on a Mini and a few hours on a Standard. Cold weather shortens both, because the dish spends energy heating itself.
Running from a vehicle, take DC power directly rather than through an inverter. The Mini supports this with a DC cable, and it avoids the conversion losses that make an inverter the weakest link in an otherwise sensible setup.
How the plans work
One question settles almost every plan choice: does the terminal stay inside one region or leave it. Mobility is included either way, so answer that and only the data tier is left.
Local
For terminals that stay within one region. The lowest cost per gigabyte and the right answer for a depot, an office or a yard that is not going anywhere.
Global
For terminals that cross borders or go to sea. This is what a vessel, an international project or a travelling crew needs, and it is the plan people most often realise too late that they should have bought.
Pooled
One data allowance shared across several terminals on a single account. Easier to administer than a subscription per site, and it stops one quiet location subsidising a busy one.
| Term | What it actually means |
|---|---|
| Priority data | The portion of your monthly allowance that gets precedence on a busy cell. Past it, service continues at a lower priority rather than stopping. |
| Unlimited | The connection does not cut off when priority data runs out. Throughput can drop at congested times. |
| Local | Tied to a home region. Cheapest per gigabyte, and correct if the terminal is not going anywhere. |
| Global | Works across borders and at sea, subject to each territory's regulatory status. |
| Mobility | Use while in motion. Included on every business plan we sell, so it is not a tier to choose or an add-on to buy. |
| Pooled | One allowance shared across several terminals under one account. |
Size the allowance from your busiest week, not your monthly average. Most sites are not limited by how much data they move overall, they are limited by the few days when everyone is on a video call and something is backing up to the cloud at the same time. If you are unsure, start one tier below what feels safe: moving up is straightforward, and paying for headroom you never touch is the more common mistake.
Buying against renting
There is a crossover point, and it is worth finding before you commit either way.
Buy when the need repeats
If a terminal will go out more than a handful of times a year, or it needs to live permanently on a roof, a mast or a vessel, owning costs less over any sensible horizon and you can mount it properly. You also keep it configured the way your crew expects to find it, which matters more than it sounds like it should.
Shop Starlink kits →Rent when it is one job
A six week shoot. A ten day deployment. A contract somewhere you may never return to. Renting hands you a tested kit with service already active, keeps the hardware off the balance sheet, and means somebody else owns the problem if a unit fails in the field.
See rental kits →Renting is also the cheapest way to find out whether Starlink suits the work at all. If you are not certain the site has the sky view, or that the plan tier is right, one rental answers both questions for a fraction of a purchase and without committing the capital.
Where it gets used
The pattern is the same every time: somewhere the infrastructure does not reach, or the day it stops reaching.
What installing one actually involves
Less than people expect. The kits are designed to be self-installed, and the most common reason an install disappoints has nothing to do with the hardware.
Find the sky, before anything else
Use the app's obstruction check from the exact spot you are considering. It maps the arc the dish needs and tells you what is in the way. Doing this first is the difference between one install and two.
Get power to that spot
Mains if it exists, DC from a vehicle if it does not, or a power station sized from the figures above. This is usually the genuinely hard part, not the satellite side.
Mount it properly if it is staying
The kickstand is for getting started. Anything permanent wants a wall, pipe or pole mount suited to the surface, and anything on a vehicle or vessel wants one rated for the speeds and vibration involved.
Run the cable, then put the router where people are
The dish wants sky and the router wants to be near the people using it. Plan the cable for the second of those, not the first.
Power it up and let it find itself
Alignment is software assisted. It orients, finds satellites and comes online without anyone on a roof with a signal meter, which is the part that genuinely is as easy as it sounds.
Setup documentation
Our own guides cover each model, alignment, and the questions that come up most often once a kit is out of the box.
Describe the site to us and we will tell you what it needs. Call (800) 279-2366.
What Starlink does not do
Every one of these is solvable. None of them is solved by the dish.
It does not work without power
A terminal draws 25 to 100 W continuously. When the generator stops or the battery flattens, the connection goes with it. Anything that has to survive a power failure needs its own power plan, not just its own internet.
It does not work without sky
Indoors, under dense canopy, in a steep valley or against a tall building on the wrong side, it will struggle or fail. The app will tell you honestly if you let it.
It is not a guaranteed inbound connection
Terminals sit behind carrier-grade NAT by default, so inbound connections do not work without a public address, and that is a plan-tier question. Build anything you host with that in mind.
And it is not a substitute for a satellite phone
This is the one worth being unambiguous about. Starlink is an internet connection. If somebody has to be reachable during a power failure, in a place with no sky view, or while walking away from the vehicle, a handset on a different network and its own battery is what does that job. Operations that take communication seriously carry both, precisely because the two fail for different reasons.
Satellite phones and radios →Glossary
The terms that come up in every Starlink conversation, in plain language.
- Low Earth orbit (LEO)
- An orbit a few hundred miles above the Earth. Close enough that the distance stops contributing meaningfully to delay, which is the whole basis of Starlink's advantage.
- Geostationary orbit (GEO)
- An orbit roughly 22,000 miles up, where a satellite stays above the same point on the ground. Used by traditional satellite internet, and the reason it feels delayed.
- Phased array
- An antenna that steers its beam electronically rather than by moving. It is how a flat panel tracks fast-moving satellites and hands off between them with no moving parts.
- Field of view
- How wide an arc of sky the dish can use. 110 degrees on most terminals, 140 on the Performance. A wider view gives more satellites to choose from and more tolerance of imperfect siting.
- Obstruction
- Anything that blocks part of the sky the dish needs. Trees, rooflines and masts are the usual culprits, and brief repeated dropouts are the usual symptom.
- Priority data
- The share of your monthly allowance that gets precedence when the local cell is busy. Past it, service continues at lower priority rather than stopping.
- Mobility
- Use of the terminal while it is in motion. Included on every business plan we sell, so it is not a separate permission or an upgrade.
- Pooled data
- One allowance shared across several terminals on a single account, rather than a separate subscription for each.
- IP rating
- How well sealed the hardware is against dust and water. IP67 covers immersion; IP69K adds high-pressure, high-temperature water jets, which is why it appears on the marine terminal.
- Snow melt capacity
- How much snowfall per hour the dish's heater can clear off its own face. 1 inch on the Mini, 1.5 on the Standard and Enterprise, 3.5 on the Performance.
- Carrier-grade NAT
- A shared-address arrangement that lets many customers use one public IP. It is why inbound connections do not work by default and why a public address is a separate plan question.
- Kit
- The boxed set: dish, power supply, cabling and a basic mount or kickstand. Longer cables, proper mounts and cases are bought separately.






