Does Weather Affect Starlink? Rain, Heat & Snow Guide

Short answer: rain is the only weather that routinely slows Starlink, costing roughly 30–70% of throughput for the minutes a storm cell sits in the dish’s line of sight and recovering by itself in 30–120 seconds. Heat throttles the terminal at around 50°C dish-surface temperature — not air temperature. Snow is melted automatically for about US$2–5 of electricity per winter. Wind is the only condition that destroys hardware, and what it actually destroys is the mount.

Weather affects Starlink, but the effect is usually smaller and far shorter than new subscribers of any satellite internet service expect. The distinction that matters is between signal degradation — temporary, self-healing, caused by water in the air — and hardware risk, which is permanent and almost always a mounting failure rather than a satellite one. This guide separates the two, condition by condition, with the numbers behind each and an honest label on where each number comes from.

Quick Reference: Weather Conditions and What They Actually Do

Condition	Effect on service	Duration	Hardware risk	What to do
Light rain, cloud, fog	None to negligible	—	None	Nothing
Heavy rain (25–50 mm/h)	30–50% speed loss, latency 60–120 ms	Minutes	None	Wait; it self-restores
Thunderstorm core (50 mm/h+)	50–70% loss, brief dropouts	5–15 minutes	Lightning transients	Surge protector on the router side
Extreme heat	Throttle, then possible suspension	Midday to late afternoon	None (protective)	Shade and an air gap under the dish
Snow and freezing rain	Usually none; heater runs	Duration of the event	Ice loading on the mount	Standard dish, reachable mount
Sustained wind above ~110 km/h	Service may continue	—	High — mount failure	Engineered mount, or dismount

How this guide was compiled, and how to read the numbers. Figures fall into two classes. Spec figures come from SpaceX’s published hardware specifications and Support Center. Reported figures are this publication’s estimated ranges, read off publicly posted owner measurements — consumer speed tests, inline power meters, surface thermometers and Starlink app outage logs — across more than forty threads in the r/Starlink community and regional owner groups during 2025 and 2026, plus published speed-test video. They are not an aggregated dataset, there is no controlled sample, the instruments are uncalibrated and the conditions are self-described. Treat them as the shape of the behaviour, not a guaranteed value. Where SpaceX publishes nothing, this guide says so rather than inventing a figure, and no independent laboratory or field testing was performed for this article.

How Rain Affects Starlink: The Rain Fade Threshold

Rain fade is the absorption and scattering of a microwave signal by raindrops whose diameter approaches the signal’s wavelength. Above roughly 10 GHz the effect becomes significant, and every frequency Starlink uses sits above that line: consumer terminals talk to satellites on Ku-band (roughly 10.7–12.7 GHz down, 14 GHz up), while the gateway feeder links carrying traffic to the ground network run on Ka-band (roughly 17.8–19.3 GHz down, 27.5–29.1 GHz up). Either link can fade, and the gateway link often fades first because Ka-band attenuates harder — which is why your service can sag in clear local weather if the gateway 300 km away is under a storm.

The ITU’s specific attenuation model, Recommendation ITU-R P.838-3, puts coefficients on this. Worked through that model, a heavy tropical rain rate near 50 mm/h gives horizontal-polarisation attenuation on the order of 2–3 dB per kilometre of path at 12 GHz, climbing to roughly 6 dB per kilometre in Ka-band. Multiply by the slant path length through the rain cell — commonly 2–5 km of wet air, with the geometry statistics set out in ITU-R P.618 — and a violent squall can strip 10–20 dB from a link budget that has only a few dB of headroom at full data rate. These are model outputs, not measurements of a specific dish, and real cells are patchy rather than uniform. Crucially, the modem does not drop the connection when this happens: it steps down to a more robust modulation and coding scheme, and the user sees the speed halve instead of the link die.

Why LEO geometry blunts rain fade on satellite internet links

This is where Starlink structurally outperforms legacy Ku-band satellite internet delivered from geostationary orbit. A GEO dish in Lagos, London or Calgary points at a fixed arc, often at an elevation angle of 20–35°, forcing the signal through a long, shallow slant path packed with rain. A Starlink terminal tracks satellites at roughly 550 km operational altitude and generally works at elevation angles of 40° and above, cutting the wet path length substantially. It also has something no GEO service has: constellation diversity. If the currently served satellite sits behind the storm core, the scheduler can hand the terminal to another satellite on a different azimuth within seconds.

In practice that means Starlink users experience rain fade as a series of short sags rather than the 20–40 minute total blackout that GEO VSAT customers in the tropics know well.

What users actually measure (reported ranges — our estimate)

Owner-posted measurements converge on a consistent pattern across high-rainfall markets. The percentages below are the middle of a wide spread and this publication’s reading of that spread, not thresholds:

• Light to moderate rain (under about 10 mm/h): little or no measurable change; speeds stay within normal congestion variance.
• Heavy rain (25–50 mm/h): 30–50% throughput loss, latency rising from the typical 25–50 ms band into 60–120 ms, occasional 1–3% packet loss.
• Tropical downpour or thunderstorm core (over 50 mm/h): 50–70% loss with intermittent dropouts of seconds to minutes. Reports from Nigeria and the Philippines during peak wet-season storms cluster here.
• After the cell passes: full recovery, typically within 30–120 seconds, without user intervention. Water sitting on the dish face adds a small residual loss until it sheds.

For country-level comparisons, aggregated measurement programmes such as Ookla Speedtest Intelligence are the more defensible reference, because they partly normalise for the sampling bias baked into user-posted screenshots: people run a speed test when something feels wrong, not on a fixed schedule. Any figure drawn from forum posts — including ours — is skewed toward the bad minutes.

The operational takeaway: if the link degrades when it rains and recovers when it stops, nothing is wrong with the installation. If it degrades and stays degraded after the sky clears, the cause is obstruction, cabling or power — not weather.

Storms, Hail and Lightning: Outage Patterns vs. Dish Survival

Two different failure modes get conflated in storm discussions. The first is signal loss — rain fade plus wind-driven rain and hail across the panel. The second is physical destruction, which is a question of mounting engineering, debris and electrical transients, not radio physics.

Ingress protection by dish generation

The Gen 2 Rectangular Dish carries an IP54 rating (spec): protection against dust ingress and water splashed from any direction. The Flat High Performance terminal is rated IP67 (spec) — full dust exclusion and temporary immersion tolerance — which is why it is the unit specified for maritime, mining and in-motion deployments. IP54 is adequate for driving rain on a roof; it is not a licence to mount the dish where it can sit in standing water, and the cable entry point remains the most common place for water to find a way in.

Hail and ice loading

SpaceX publishes no hail impact rating, and there is no substitute number to offer. What owner accounts suggest is that small hail is a non-event for the panel and a brief signal nuisance, while large stones driven at angle are a cosmetic-to-structural risk to the face and, more often, to the mount’s alignment. Two things are worth knowing: the dish’s self-selected tilt sheds hail and freezing rain better than a flat orientation, and any cracking of the panel face is an insurance matter rather than a warranty one, because storm damage is explicitly outside warranty cover.

Lightning is an electrical problem, not a radio one

A direct strike on the dish is rare and unsurvivable for the hardware. The common damage is indirect: a nearby strike induces a transient on the mains supply or the dish cable, and the router or the terminal’s power supply dies while the panel itself is untouched. A surge protector on the router side, a properly earthed metal mount where local code requires one, and unplugging during a severe electrical storm cover the realistic cases. This is the cheapest weather protection available for any satellite internet installation and the one most often skipped.

Wind is the real threat in a hurricane

Published figures for the Gen 2 Rectangular Dish sit around 110 km/h operational and 160 km/h survival. Be careful with these: SpaceX has revised wind figures between hardware generations and regional spec sheets, so check the specifications page for the exact kit you own rather than trusting a number in any article, including this one. A Category 1 hurricane starts at 119 km/h sustained wind; a Category 3 begins at 178 km/h. The arithmetic is unforgiving — above roughly Category 1, the dish is outside its rating and the mount, not the electronics, decides the outcome.

SpaceX’s public statements after Hurricane Ian in 2022 indicated that approximately 80% of deployed terminals in the affected area remained operational through the event. That is a vendor claim with no published methodology or raw dataset, so weigh it accordingly. The instructive part is the other 20%: the dominant reported causes were loss of mains power at the premises and mount failure on lightly attached roof brackets, not satellite-side outage. A terminal with a battery or generator behind it and a properly through-bolted mount was overwhelmingly likely to survive.

Because terminals hold up so well relative to terrestrial infrastructure, they have become a standard tool in post-storm response — a pattern covered in detail in Starlink in Disaster Relief: Hurricane and Conflict Zone Connectivity. For households from the Gulf Coast to Mozambique to Fiji, the protocol is simple: dismount when sustained winds above 120 km/h are forecast, bring the dish, cable and router indoors, and redeploy on a ground-level tripod once the system passes and it is safe to go outside.

Heat and Thermal Throttling: The 50°C Ceiling

This is the single canonical explanation of heat behaviour in this guide; the FAQ below points back here rather than restating it.

The published environmental specification for the Gen 2 Rectangular Dish is an ambient operating range of -30°C to 50°C (spec). The number that actually governs summer behaviour is different: thermal management responds to the dish’s own surface temperature. Owner thermometer readings put that surface roughly 10–25°C above ambient in direct sun — our estimate of a spread that varies with panel colour, mounting surface, wind and time of day, and that should never be treated as a constant. The practical consequence is that a 38°C afternoon in Phoenix, Dubai or Alice Springs is more than enough to push a dark, still-air-mounted panel past the ~50°C surface point where protection engages.

When it does, the terminal steps down rather than failing. Owner power-meter readings show draw falling from a typical 50–60W to roughly 30–40W, throughput dropping into the 15–30 Mbps range in Gulf summer conditions, and in severe cases the dish suspending service entirely with a thermal status flag in the Starlink app until it cools. SpaceX publishes neither the throttle threshold nor the derated power figure, so both are inferred from user data and carry real error bars. The reported pattern from Phoenix and the UAE between June and August is a reliable midday-to-mid-afternoon disconnection that clears on its own by early evening — a thermal signature, not a network one, and one you can confirm in thirty seconds by checking whether the app’s outage history clusters between 12:00 and 16:00.

Cooling that actually works

• Afternoon shade beats any accessory. A mount on the east side of a structure, or under a pergola edge that still clears the field of view, removes the problem entirely. Never place anything inside the dish’s sky view to shade it.
• Air gap underneath. Dishes bolted flush to a dark membrane roof or sitting on a balcony slab re-absorb radiated heat. A 15–20 cm standoff on a pole mount measurably lowers surface temperature in owner logs.
• Do not paint, wrap or foil the dish. Coatings change the RF characteristics of the phased array face and void warranty coverage.
• The Mini recovers faster. Its lower thermal mass means it heats sooner but also sheds heat and returns to full rate more quickly after a throttle — a meaningful trade in intermittent-use and vehicle scenarios.

Snow, Ice and the Snow Melt Feature: Power Draw Reality

Every Standard and Gen 2 Rectangular Dish ships with an integrated heating element (spec). It activates automatically when the terminal detects near-freezing conditions combined with moisture on the panel, and it can also be forced on from the Starlink app. The design goal is to stop accumulating snow bonding to the face and blocking the phased array’s view.

The wattage, and what it costs

SpaceX publishes an average consumption band for the Standard kit but does not break out a snow-melt figure, so the numbers below are owner-measured and are this publication’s estimate. Inline meters commonly show idle draw of 50–60W rising to 80–100W during an active melt cycle, implying roughly 40W of extra load with a realistic spread of about 25–60W depending on ambient temperature and duty cycle:

• 40W × 8 hours a day × 60 winter days ≈ 19 kWh per season — roughly US$3 at US$0.15/kWh. Across the full 25–60W spread, 12–29 kWh, or US$1.80–4.35.
• By comparison the terminal’s baseline consumption is about 1.2–1.4 kWh per day, or 36–42 kWh a month, which dwarfs the heater on any bill.
• On generator or off-grid solar, size for the ~100W peak rather than the average — peak is what sizes the inverter, not the monthly total.

Where the heater is not enough

Canadian users in lake-effect snow belts — Ontario’s Georgian Bay shore, the lee of Lake Superior — consistently report that the element cannot keep pace with 5–8 cm/hour accumulation combined with wind loading. It melts the contact layer, but fresh snow piles on faster than water sheds, and the dish ends up under a wet cap. Two mitigations work: mount at a steeper angle than the dish’s self-selected tilt where the field of view allows, so gravity assists shedding; and accept that after a major event you may need to clear it manually with a soft broom — never a scraper, never hot water. Freezing rain is the harder case, because a glaze layer bonds to the face faster than the element can lift it and also loads the mount.

The Starlink Mini is a separate case. It is not fitted with an integrated snow melt heating element, so in sustained freezing precipitation it needs manual clearing or an external heating solution plus a sheltered mounting position. Buyers in Nordic, Alpine, Canadian and high-altitude markets should treat that as a deciding specification, not a footnote.

Dust, Smoke and Space Weather: The Conditions People Also Ask About

• Cloud, fog and humidity: negligible attenuation on their own. Droplet size is far below the raindrop scale that drives Ku-band fade. The real humid-climate risk is slow corrosion at the cable entry and connector.
• Dust and sandstorms: the airborne particles themselves cause little attenuation, but a dust film bonded to the panel by drizzle does, and it also raises surface temperature by darkening the face. A rinse and a soft cloth restores both.
• Wildfire smoke: no meaningful RF impact at these frequencies. Smoke seasons affect Starlink through ash deposition on the panel and, in extreme cases, through grid outages caused by the fire itself.
• Geomagnetic storms: space weather is not local weather, but it is the one atmospheric effect that acts on the constellation rather than your roof. Intense solar activity increases atmospheric drag on low-orbit satellites and can add ionospheric scintillation; the user-visible consequence is occasional wider latency variance, not a regional blackout.

Wind Ratings and Mounting: Structural Limits by Dish Generation

Mechanical specification is the one area where a user’s choices, rather than the weather, determine the outcome.

Terminal	Operational wind	Survival wind	IP rating	Source class
Gen 2 Rectangular (Standard)	~110 km/h	~160 km/h	IP54	Spec — verify your revision
Flat High Performance	~80 km/h in-motion	~260 km/h static	IP67	Spec — verify your revision
Starlink Mini	Lower; treat as a portable unit	Secure or stow in high wind	Splash-resistant	Reported / not fully published

Mount specification that matches the rating

A 160 km/h survival rating is meaningless on a bracket that fails at 90 km/h. For pole mounting in exposed wind zones, the baseline is a 2-inch (50.8 mm) outer diameter pole with a minimum 0.065-inch (1.65 mm) wall thickness, galvanised or stainless, set in concrete or through-bolted into structural framing rather than sheathing. Three practical rules follow:

1. Shorten the lever arm. Every additional 30 cm of unsupported pole above the last bracket multiplies the bending moment at the fixing. Two brackets 60 cm apart beat one bracket every time.
2. Fix into structure, not surface. The most common storm failure is lag bolts pulled out of rafter-free roof decking, taking a patch of roof with them.
3. Leave a drip loop and service slack. Cable tension transmits gust loads into the dish’s motor assembly and into the connector — the failure nobody predicts.

There is a regulatory dimension too. In several jurisdictions — including Australian cyclone regions, parts of the US Gulf and Atlantic coast, and some Caribbean building codes — roof-mounted equipment above a defined wind-zone threshold requires an engineer-certified mount and occasionally a permit. Insurers have declined claims where an uncertified mount caused roof damage, so check local building authority requirements before drilling.

For travellers and vehicle-based users the mounting logic changes again: the Flat High Performance’s in-motion rating is a highway-speed constraint, not a storm one, and stowing discipline matters more than pole engineering — a topic developed in Starlink for Digital Nomads: Portable Internet Across Borders.

Starlink Availability by Region and Climate

A question that arrives attached to almost every weather query: is Starlink even available where I live, and does my climate change that? The short answer is that availability is determined by regulatory licensing and cell capacity, never by weather. No market is excluded because it rains, snows or bakes.

The authoritative check is the official Starlink availability map, which resolves any address into one of four states:

• Available — hardware ships and service activates immediately.
• Waitlist — licensed, but the local cell is capacity constrained; new residential activations queue until capacity is added.
• Coming soon — pending regulatory approval in that country, with an indicative quarter attached.
• Not available — no licence, or service is prohibited.

SpaceX cites service in over 100 countries and territories as of 2026, but national status changes month to month as regulators grant, suspend or renew licences — in African and South Asian markets especially. Always verify on the map and, where one exists, the national regulator’s register rather than a third-party list.

What climate does change is which hardware you should buy:

• Snow belts and Alpine sites: the Standard dish for its integrated heater; avoid the Mini as a primary terminal.
• Hot arid regions: any terminal works, but plan shade and an air gap into the install rather than retrofitting after the first throttled week.
• Cyclone and typhoon belts: Standard dish plus an engineered mount, or Flat High Performance (IP67) for permanently exposed sites.
• Humid tropics: any terminal; prioritise sealing the cable entry and fitting a surge protector over anything else.
• Marine, mining and in-motion: Flat High Performance only.

Starlink Price: What Weather Resilience Actually Adds

Starlink price does not vary with your climate — the same plan costs the same in Reykjavik and Riyadh — but weather-proofing adds a small, predictable capital and running cost. Confirm current hardware and plan pricing on starlink.com for your market; our running coverage of tariff changes lives in the Starlink Pricing and Plans coverage hub.

The weather-specific line items, as an indicative budget:

• Snow melt electricity: US$2–5 per winter season (calculated above).
• Surge protector on the router side: US$25–60 — the cheapest insurance against lightning-adjacent transients.
• Upgraded pole or engineer-certified mount in a cyclone zone: US$80–400 depending on whether certification and a permit are required.
• Mobile-data failover line: variable, and only worth it if a two-minute rain sag would cost you money.
• UPS or battery for the terminal (~100W peak): the single highest-value storm purchase, because grid failure — not the dish — causes most storm outages.

African Rainy Season Performance: Regional Reports

West and Central Africa provide the toughest routine test of rain performance anywhere Starlink operates, because the region combines very high rain rates with convective storm structures that dump 50–100 mm in under an hour.

In Nigeria the service is licensed and supervised by the Nigerian Communications Commission, which maintains the public register of licensed satellite and internet service providers at ncc.gov.ng — the first place a prospective subscriber should confirm current status, since licensing and market conditions in the region change quickly. Where a service complaint is not resolved by the operator, the Federal Competition and Consumer Protection Commission is the escalation route for Nigerian consumers. In Kenya the equivalent licensing authority is the Communications Authority of Kenya.

The seasonal pattern users report

Degradation clusters in two windows — March to May and September to November — matching the passage of the rain belt. Across Lagos, Abuja and Port Harcourt, the reported shape is consistent:

• Clear conditions: 50–150 Mbps down, latency typically 30–60 ms.
• Peak storm intensity: 20–40 Mbps down, with short dropouts during the most violent 5–15 minutes of a cell.
• Recovery: generally within two minutes of the cell clearing the antenna’s sky view.

How that compares under the same storm

The useful comparison is not monthly price but failure mode — what each connection type does when the same squall line arrives, and how long you are offline:

Connection type	Primary storm failure mode	Typical outage length	Recovery
Starlink (Ku-band satellite internet)	Rain fade while the cell is overhead	Seconds to ~15 minutes	Automatic
5G fixed wireless (3.5 GHz)	Congestion, backhaul contention, tower power loss	Minutes to hours	When grid or backhaul returns
Fibre to the home	Flooded ducting, cut cable, exchange power failure	Hours to days	Manual repair
Copper / legacy DSL	Water ingress at joints and cabinets	Hours to days	Manual repair

Terrestrial 5G in the 3.5 GHz band suffers far less rain attenuation than Ku-band, so on pure radio physics it wins the downpour. It loses the aftermath: mobile and fibre networks in the region are highly exposed to the grid failures and flooded trenches that follow heavy rain, and those outages are measured in hours rather than minutes. Starlink’s weakness is the storm itself; terrestrial networks’ weakness is everything the storm leaves behind. In both cases, the household that keeps its router on a UPS stays online longest.

What to Expect: Setting Realistic Weather Resilience Expectations

The honest summary: expect a service that degrades gracefully and recovers on its own, not one that is immune to the sky it depends on.

What the contract actually covers

Weather-related interruption is excluded from service guarantees. Starlink’s terms carve atmospheric conditions out of the uptime commitment — the 99%-class availability figure quoted for business tiers explicitly does not count outages caused by weather, obstructions or power loss at the premises. Equally, the hardware warranty covers manufacturing defects, not storm damage, lightning strike, flood or ice loading. If a dish is destroyed by a falling branch, that is a household insurance conversation, not a support ticket.

Triage before you open a ticket

1. Check the app’s outage history first. Outages tagged obstruction or thermal during a weather event are self-explanatory; recurring outages at the same clock time point to heat, and recurring in the same compass sector point to a tree, not a storm.
2. Run the obstruction checker after the weather clears, not during. Rain and snow on the panel generate misleading readings mid-event.
3. Apply the 30-minute rule. If service has not returned within half an hour of the weather clearing, the cause is probably local: wet connector, water in the cable entry, tripped surge protection, or a snow cap the heater could not shift.
4. Escalate only with evidence. A ticket that includes app outage logs, timestamps and local weather observations resolves far faster than one that says the internet is slow when it rains.

Planning rules by climate

• Tropical/monsoon: budget for 30–70% speed loss for minutes at a time during peak rain; keep mobile data failover for anything that must not drop.
• Hot arid: solve shade and airflow at installation time, before the first 45°C week.
• Snow belt: choose a Standard dish over the Mini, mount where you can physically reach it, and plan for occasional manual clearing.
• Cyclone/hurricane exposed: engineer the mount to exceed the dish rating, and have a dismount plan with a ground tripod for redeployment.

Weather is the most visible constraint on satellite internet and the least likely to leave lasting damage. The installations that fail in storms are almost never beaten by physics — they are beaten by a bracket, a dark roof, or a cable with no drip loop.

About this guide

Written by Daniel Marks, who has covered LEO broadband deployments, hardware revisions and regional licensing for Starlink News since the 2020 beta. For this update he read more than forty owner measurement threads posted in the r/Starlink community and regional owner groups during 2025–2026, cross-checked every published figure against SpaceX’s current specification and support pages, and worked the rain-attenuation estimates through the ITU-R P.838-3 and P.618 models. This is a documentation-and-user-report synthesis, not an independent laboratory or field test, and it is not sponsored by or affiliated with SpaceX. Every owner-derived number here is labelled as an estimate with its spread; corrections and measured counter-data from owners are welcome and are logged in the changelog below.

Originally published 14 March 2025. Substantially revised, expanded and re-verified 20 September 2026. Changelog: 20 September 2026 — consolidated duplicated heat and snow-melt explanations into single canonical sections, added a summary answer box and quick-reference table, added hail, lightning, dust and space-weather coverage, replaced the general ISP price table with a storm failure-mode comparison, and relabelled all owner-derived ranges as this publication’s estimates with stated methodology. January 2026 — clarified that the Starlink Mini is not fitted with an integrated snow melt heating element and requires external heating in sustained freezing precipitation. December 2025 — thermal throttling onset revised from 45°C to 50°C dish-surface temperature following an expanded owner dataset. Sources: Starlink hardware specifications; Starlink Support Center; Starlink availability map; ITU-R P.838-3 and ITU-R P.618; SpaceX hurricane response statements (2022); r/Starlink owner reports; NCC licensed operator register; Communications Authority of Kenya; Ookla Speedtest Intelligence. Specifications, licence statuses and pricing are re-checked monthly and can change without notice.

Frequently Asked Questions

Does heavy rain completely block Starlink or just slow it down?

In most storms it slows the link rather than killing it. Speed tests posted by owners during tropical downpours typically show 30–70% throughput loss with latency spikes and brief packet loss — a reported spread from uncalibrated consumer tests, not a manufacturer figure. Full dropouts do occur inside the core of a convective cell, but they usually last seconds to a few minutes, not hours, because the terminal can be handed to another satellite on a different azimuth. Service restores itself once the cell clears the dish’s line of sight; no reboot or realignment is needed. See the rain fade section above for the physics and the measured ranges.

Why does my Starlink slow down or drop out on hot afternoons?

That is thermal throttling, not a network fault. Protection responds to the dish’s own surface temperature rather than air temperature, and the surface runs well above ambient in direct sun — so a high-30s afternoon can be enough on a dark, flush-mounted panel. To confirm it, open the Starlink app’s outage history: if outages cluster between roughly 12:00 and 16:00, clear by evening and are tagged thermal, that is the signature; obstruction outages instead repeat in the same compass sector at any hour. The fix is shade and airflow, covered with the full thresholds and power figures in the heat and thermal throttling section above.

How much extra does snow melt mode add to my power bill?

Roughly US$2–5 across a whole winter season at US$0.15/kWh — a rounding error next to the terminal’s own baseline consumption of about 36–42 kWh a month. SpaceX does not publish a snow-melt wattage, so that figure is derived from owner power-meter readings and set out with its assumptions and error bars in the snow and ice section above. The number that matters more is peak draw, not cost: if you run the terminal on solar or a generator, size the inverter for the melt-cycle peak rather than the monthly average.

Can I use Starlink during a hurricane or should I take the dish down?

Take it down. Sustained hurricane-force wind exceeds the published operational and survival envelope for the standard consumer dish, and the risk is the mount and flying debris rather than the electronics. If sustained winds above roughly 120 km/h are forecast, dismount the dish, bring it, the cable and the router indoors, and redeploy on a ground-level tripod once the system has passed. Keep a battery or UPS on the terminal — at every storm scale, loss of mains power at the premises causes more Starlink outages than the weather does. Exact wind ratings by hardware generation are tabulated in the wind and mounting section above.

Do clouds, fog or humidity affect Starlink?

Barely. Cloud droplets and fog are orders of magnitude smaller than raindrops, so they attenuate Ku-band far less; thick fog or dense overcast alone will not take a healthy link below normal variance. What does matter is water on the panel itself — a wet dish face adds a small residual loss until it sheds, and a film of dust bonded by drizzle can do the same. Humidity’s real damage is slow and electrical: condensation and salt air corrode the cable entry and connector, which is why sealing the entry point and fitting a surge protector outrank any other humid-climate precaution.

Is Starlink availability affected by my local climate?

No. Availability for any satellite internet service is set by regulatory licensing and local cell capacity, not weather, and is shown on the official map at starlink.com/map as Available, Waitlist, Coming Soon or Not Available. Climate changes which hardware you should buy rather than whether you can buy at all: the Standard dish for snow belts because it has an integrated heater, the Flat High Performance (IP67) for exposed marine, mining or cyclone-belt sites, and the Mini only where you can physically reach it to clear snow by hand.

Does bad weather change what Starlink costs to run?

Only marginally. Hardware and plan pricing are identical whatever your climate. The weather-related spend is snow-melt electricity of roughly US$2–5 a season, a surge protector at US$25–60, an upgraded pole or engineer-certified mount at US$80–400 in cyclone zones, a UPS or battery for the terminal, and an optional mobile-data failover line if you cannot tolerate minutes-long rain sags. Prices move with currency and promotions, so verify current figures on starlink.com before budgeting.

Does Starlink work in African countries during the rainy season?

Yes, with measurable degradation during peak storm intensity. In Nigeria, owner reports across Lagos, Abuja and Port Harcourt describe clear-sky speeds of 50–150 Mbps falling to 20–40 Mbps during heavy March–May and September–November rain, usually recovering within two minutes of the cell passing. The comparison that matters is failure mode: a rain sag is short and self-healing, while a fibre cut in a flooded trench is a multi-day outage. Service is licensed and supervised by the Nigerian Communications Commission, and complaints the operator does not resolve can be escalated to the FCCPC.