Roam Air · the honest report

Built for the job,
not the brochure.

A roughly $1,500 electric motorcycle designed in Nairobi for Africa's boda-boda riders, decoded with real physics: where the per-battery range actually goes under load, what it truly costs to run, and where the swap network reaches. Sources on everything.

Start with what matters
The 10-second answer

One of the clearest fit-for-purpose stories in the category: a cheap, durable, locally built work bike that is genuinely cheaper to run than petrol. Plan for ~50 km real per battery (not 75 to 80) under a working load, ~90 km/h flat out, and roughly $2,250 net to own over 5 years of heavy commercial use. The honest catch is reach, not the bike.

Range
75 to 80 km per battery
0km real, loaded mixed use
drops under payload
Price
premium EV pricing
$0single-battery bike
built to be affordable
Top speed
up to 90 km/h claimed
0mph (~90 km/h) ideal
less when loaded
5-yr cost
fuel bill of a petrol boda
$0net to own (heavy use)
true cost in §10
Range reality · straight-line
claim 75 km, real, per battery:
0km
loaded use, single pack
Roam Air · boda-boda duty, one battery
Start city, or drag the pin
Claimed (per battery)Real (loaded)
Rings are straight-line distance from your pin, real routes are shorter still. Per battery, roughly double for the dual-pack version. Figures from this model's sourced specs.
What it really costs

Cheap to buy,
cheaper to run.

$0net to own · 5 years of heavy commercial use (≈ $450 / yr)
Purchase $1,500
Maintenance $400
Insurance/reg $300
Electricity $250
Gear $200
Buy, maintain, insure, charge and gear, minus an uncertain resale. No battery replacement assumed in five years given the rated cycle life. The running cost is the real story: riders report saving up to roughly 70 percent versus petrol.

Assumptions: single-battery bike, heavy commercial use (~10,000 km/yr), local electricity rates approximated, batteries rated ~2,000 cycles so no replacement assumed in 5 yr, minimal local registration, resale uncertain in an emerging market. USD converted from KES. Full table in §10.

The full report

Every module behind the headlines: who it is for, claims vs. physics, true cost, reliability, parts, and the standard scorecard. All sourced.

The 10-second honest answer

A purpose-built commercial EV, co-designed in Nairobi with the riders who use it. Around $1,500 for a single-battery bike (near $2,050 with two packs), a 3.24 kWh swappable pack, a top speed near 90 km/h, and a real per-battery range closer to 50 km under load than the 75 to 80 km rating. Cheap to run, durable, and strong inside Kenya. The honest limit is that the service and swap network is young and concentrated in Nairobi. Here is exactly how we get there.

A

Is this bike for me?

Start here, the right answer depends entirely on who is asking, and where.

01

Who it is actually for

This is a working tool, not a lifestyle EV. The right answer depends almost entirely on whether Roam's network reaches you.

🚚Boda-boda riders and fleets in Kenya

The sweet spot, and the reason this bike exists. Low running cost (riders report up to ~70 percent cheaper than petrol), real payload capacity, and local service. Co-designed with these riders for exactly this duty.

Verdict, strong buy in its market
🌎East African commercial users near hubs

If you can reach a Roam service center or swap hub, the value holds: cheap energy, a 100,000 km battery guarantee, and a frame built for rough roads. Confirm coverage in your city first.

Verdict, good if supported
🛒Personal commuters

It works fine for personal use and is genuinely cheap to run, but it is engineered around commercial duty and heavy payloads. A capable, no-frills commuter rather than a refined lifestyle machine.

Verdict, fine, but a work bike at heart
Riders outside Roam's footprint

Outside East Africa the parts, service and swap network effectively disappear. This is a regional answer to a regional need, and buying it where Roam does not reach removes most of its value.

Verdict, wrong place, wrong tool
02

At a glance: claimed vs. real

The struck-through line is what the spec sheet tells you; the big number is what to actually expect under a working load. The "why" is in Part C.

Range
75 to 80 km per battery
~50km loaded, mixed
drops under payload
Dual battery
up to 180 km headline
~150km, light use
two packs, gentle
Top speed
up to 90 km/h
0mph (~90 km/h) ideal
honest ideal-case
Price
typical EV premium
$0single-battery bike
built affordable
B

Innovations

What is genuinely clever, and which "innovations" are really table-stakes. The part a spec sheet never tells you.

03

What makes it special

The Air's real strengths, rated honestly. Each badge tells you whether it is a genuine edge, a solid feature, or just normal for the class.

🌏Locally designed for African roads

Co-designed with boda-boda riders for durability, heavy payloads and local conditions, with the Gen 2 frame supporting around 240 kg. A genuine market-fit advantage, not a marketing line.

★ Genuine edge
🔋Owned or swappable dual batteries

Riders can own their 3.24 kWh packs and charge anywhere from a standard outlet, or use Roam Hub swap and rental. That flexibility is deliberately matched to a patchy grid and long working days.

✓ Solid
🔄Battery durability and cycle life

Packs rated for roughly 2,000 charge cycles with a 100,000 km guarantee. That directly answers a commercial rider's biggest worry: total cost of ownership over years of hard daily use.

✓ Solid
🏭Growing local manufacture and service

Roam reports a meaningful and growing share of components produced in Kenya, and opened Kenya's first ride-in, ride-out service center in late 2025. Good for cost and repairs, but still young.

✓ Solid
Why this beats a plain spec sheet: the headline is "affordable electric motorcycle." We tell you the local design and the cheap, durable battery story are the real magic, the swap option is a solid, flexible answer to local charging, and the service network, while genuine, is still scaling, so you know exactly what you are buying into.
C

Keeping them honest

Marketing specs vs. the physics. The math is simple, battery capacity and a few formulas, so let us run it.

04

The power numbers, in units you feel

Roam rates the Air around 5 kW. Converted to horsepower, that is a modest, sensible figure for a work bike, exactly what the job needs, no more.

There is no inflated "peak" headline war here. The honest read is that this is a torquey, low-output urban motor built for payload and durability rather than speed. Convert the rated figure to the unit everyone feels:

# Horsepower = Watts ÷ 746
Rated:     5000 W ÷ 746 = ~6.7 hp  (roughly the 7 hp Roam lists)
What this means on the road: the Air reaches roughly 90 km/h in ideal conditions, with 0 to 60 km/h in under 7 seconds, per Roam. Heavy passenger or cargo loads trim both. This is enough power to do urban taxi and delivery work all day, and not designed to do more.
05

Where "75 to 80 km per battery" comes from

The gap here is honest physics, not deception. A boda carrying a heavy fare on rough roads simply uses more energy than a light test rider on smooth tarmac.

Step 1, real energy in the pack. Roam quotes a 3.24 kWh battery. Roam does not publish the exact voltage and amp-hour split, so we use the stated capacity directly rather than inventing a V and Ah figure.

# Energy in one pack
Roam-stated capacity = 3,240 Wh (3.24 kWh nominal)
# Cannot safely use 100%. BMS reserve + taper ≈ 88% usable:
3,240 × 0.88 = ~2,850 Wh usable

Step 2, how much you spend per kilometer. Consumption is the whole game. A light rider on flat tarmac sips energy; a loaded boda on rough roads spends far more, because rolling resistance and the work of moving a heavy load rise with weight.

# Range (km) = Usable Wh ÷ Consumption (Wh/km)

MARKETING (light, smooth, gentle):
3,240 ÷ ~41 = ~80 km  ← the per-battery rating

REAL, loaded boda duty on mixed roads:
2,850 ÷ ~57 = ~50 km
Claimed (per pack)
~75 to 80 km
Loaded real
~50 km
The takeaway: plan your routes around the loaded figure (~50 km per pack), not the rating. Run two packs for roughly 150 km of working range, and treat the dual-battery "up to 180 km" headline as a light-use ceiling, not a daily number.
06

Charging: read the charger, not the adjective

Charge time is just battery size ÷ charger power, so any "fast charge" claim means nothing without the charger's wattage. Roam actually publishes its numbers.

# Charge time (hr) ≈ Battery Wh ÷ Charger W × 1.1 (losses + taper)
Included ~600 W charger:  3,240 ÷ 600 × 1.1 = ~5.9 hr (0→100%)
# Roam quotes ~4 hr per battery on the bundled charger; our formula with losses lands a little higher.
The genuinely useful trick is the removable pack. Charge one at home or work from any standard outlet overnight while you ride on the other, or swap at a Roam Hub. Roam also quotes a 20 to 80 percent top-up in under ~40 minutes at higher-power hub charging. That swap-and-go model matters far more for a working rider than any single charge-time number.
07

Spec decoder: how to read the numbers

Shopping for an Air, you will see single and dual figures mixed together. Here is how to read them so you compare like with like.

You will seeWhat it really isTrust it?
"up to 180 km"The two-battery figure under light, gentle use. Per battery is ~75 to 80 km rated.dual, light use
3.24 kWhOne pack's stated energy. Roam does not publish the V and Ah split, so do not assume one.real, per pack
"90 km/h"Ideal-condition top speed. Loaded with a passenger or cargo it is lower.ideal case
~7 hp / 5 kWA modest, honest work-bike output. No inflated peak headline here.real
$1,500 vs $2,050Single-battery vs dual-battery versions. Confirm which you are quoted.check the version
2,000 cycles / 100,000 kmBattery durability claim and guarantee, central to the total-cost story.maker claim
D

What it costs

The sticker is the smallest number in the story. Here is the whole bill, and why running it is the real win.

09

True cost to buy

The Air is sold to be affordable on purpose. Local pricing started around KES 180,000 at launch, roughly $1,500 for the single-battery bike, with the dual-battery version near $2,050.

Line itemTypicalNotes
Bike (single battery)~$1,500From KES; dual-battery version ~$2,050
Helmet, basic gear$50–$200Often already owned by working riders
Local registrationlowVaries by county; minimal for this class
Financing (if used)variesRoam offers rider financing packages
Realistic to get riding≈ $1,550–$2,250Depending on single vs dual battery
A regional product, priced regionally Pricing here is converted from Kenyan shillings and reflects the Kenyan market, where the Air is sold and supported. It is not a globally distributed bike, and figures outside East Africa are not meaningful. We date this note (May 2026) and recommend confirming current local pricing and any financing terms before you buy.
10

The 5-year cost to own

The number that matters most for a working bike. We itemize it under heavy commercial use, show the math, and state every assumption so you can adjust it to your own riding.

5-year net cost to own
$0
≈ $450 / year · buy, maintain, insure, charge, minus an uncertain resale
The running-cost win
~70 %
Reported saving on running cost versus a petrol boda. Charging is cheap; there is no fuel tank to feed.
PurchaseMaintenanceInsurance/regElectricityGear
Purchase $1,500
Maint. $400
Ins/reg
Gear
Cost over 5 years (heavy use)EstimateWhat drives it
Purchase (single battery)$1,500USD from KES; excludes financing
Maintenance and consumables$400Tires, brakes, service; no oil or chain
Insurance and registration$300Approximate local figures
Electricity (charging)$250~10,000 km/yr, local rates
Gear (one-time)$200Helmet, basics
Battery (replace)$0Rated ~2,000 cycles; none expected in 5 yr
5-year total (before resale)≈ $2,650
Resale value (yr 5)− $400Uncertain in an emerging market
Net true cost to own≈ $2,250≈ $450 / year
The honest framing: these are estimates under heavy commercial use (~10,000 km/yr), with local electricity, insurance and resale all approximated because reliable long-term local data is still thin. The headline is real even if the exact total moves: against a petrol boda's daily fuel bill, the Air's running cost is dramatically lower, which is the entire reason it exists.
E

Living with it

What owners report, who fixes it, and whether you can get parts where you ride.

11

Service & reliability, from coverage and owners

We summarize the recurring themes from the coverage and owner reports, not cherry-picked raves. The product is young, so we are clear about what is still unproven.

✓ What riders praise

  • Engineered specifically for African road conditions and heavy payloads.
  • Low running cost versus petrol, reported up to roughly 70 percent cheaper.
  • Long battery cycle life with a 100,000 km guarantee.
  • A flexible owned-or-swap battery model suited to local realities.

✕ What riders flag

  • Range drops notably under typical boda passenger and cargo loads.
  • Service and swap infrastructure is still scaling, concentrated in Nairobi.
  • Limited independent long-term durability data given the product's youth.
  • Value collapses outside Roam's network, where parts and support disappear.
Our read: coverage (Electrek, New Atlas, CleanTechnica, local Kenyan press) frames the Air as a credible, locally tailored commercial EV. Roam opened Kenya's first ride-in, ride-out service center in late 2025 to support a growing fleet, but the network is young and regionally limited, and real-world range under load is below the headline figures. As a fit-for-purpose work bike in its market, it earns its reputation; the track record is simply still being written.
12

Parts & service availability

A work bike is only as ownable as its parts and swap network. Here the Air is strong inside Kenya and thin outside it.

Roam operates direct service centers and swap hubs in Nairobi, including a dedicated ride-in, ride-out facility, with a growing local supply chain and a meaningful share of components made in Kenya. Coverage is solid within Kenya and expanding across East Africa, but minimal outside the region. Confirm that a service point or swap hub reaches your routes before buying.

Part / serviceAvailabilityWhere
Batteries (owned or swap)goodRoam hubs, Nairobi area
Service and repairgood in KenyaDirect service centers
Tires, brakes, consumablesfair to goodLocal supply chain
Anything outside East AfricaminimalNo network
F

The verdict

One scorecard, identical axes on every bike.

13

The standard scorecard

Every e-moto on the site is scored on these same eight axes, by the same rules, so a 7 here means the same thing as a 7 anywhere. Scored within its intended market.

Value for money
grin per dollar
0
Real-world range
vs. claim, under load
0
Reliability
core mechanicals
0
Support & warranty
network-dependent
0
Parts & aftermarket
availability
0
Cost to own
5-yr, higher=cheaper
0
Street-legal ease
as shipped
0
Family-friendliness
general purpose use
0
Bottom line: one of the most honest fit-for-purpose EVs around, cheap to buy, durable, built with its riders, and genuinely cheap to run. It loses points only where it was never trying to win: long real range under load, and a service network that is young and regional. Judge range under load, and only buy where Roam's network actually reaches, and the math is excellent.

The math toolkit

Our standing methodology, run identically on every e-moto, including bikes we would otherwise have reason to flatter.

5 formulas, every bike
1Real energy in the battery
Energy (Wh) = Voltage (V) × Capacity (Ah)

The only honest way to compare two batteries. Where a maker only publishes kWh, as Roam does here, we use that directly rather than invent a V and Ah split.

2Usable energy
Usable Wh ≈ Nominal Wh × 0.85–0.90

You never use 0 to 100%. The BMS holds a reserve and voltage tapers at the bottom. We assume ~88%.

3Real range
Range = Usable Wh ÷ Consumption (Wh/km or Wh/mi)

Consumption is the lever. On a work bike, payload and rough roads push it up sharply, which is the whole range story here.

4Power you can feel
hp = Watts ÷ 746  |  Continuous = cruise · Peak = launch

Always ask which number a spec quotes. The Air keeps it honest: a modest rated output with no inflated peak headline.

5Charge time
Time (hr) ≈ Battery Wh ÷ Charger W × 1.1

"Fast charging" is meaningless without the charger's wattage. The ×1.1 covers losses and taper.

Cost assumptionWe usedChange it if…
Annual mileage~10,000 km/yr (heavy use)You ride less → running cost falls
Electricity rateLocal rate (approximated)Your tariff differs
RegistrationMinimal, localYour county / country differs
Battery lifeNo replacement in 5 yrVery hard use → sooner
ResaleUncertain, emerging marketCondition & demand vary

Sources & references

✓ Every figure on this page traces to a source below

We cite everything and date it, because specs, prices and networks change. Manufacturer figures are labeled as claims; real-world numbers are our estimates from the methodology above. Spot an error? Our corrections policy means we fix it in public.

Specs & performance
Price, network & service
Reliability & running cost (coverage)

Sources retrieved May 2026. Manufacturer pages state claimed specs; treat them as marketing figures, not independent tests. Prices are converted from Kenyan shillings and reflect the Kenyan market. We re-check pricing and network coverage periodically because they move quickly.