MF-33 vs EVRYjourney Range and Power Comparison: What the Numbers Really Mean
Specification sheets for passenger electric trikes can be confusing. A shopper may see 750W on two different models and assume the motors are equivalent. Another shopper may see a larger battery and assume that model must travel farther. The MaxFoot MF-33 and sixthreezero EVRYjourney 750W front-hub Rickshaw are a useful example of why both assumptions can be misleading.
EVRYjourney carries the slightly larger battery at 48V 21Ah, or 1,008Wh. MF-33 uses a 48V 20Ah Samsung pack, or 960Wh. Yet MaxFoot publishes an 85+ mile PAS 1 range claim while sixthreezero lists up to 50 miles. MF-33 also publishes 1,400W peak output, 85Nm of torque, and a 25A controller, whereas the current EVRYjourney front-hub page lists its Bafang motor as 750W but does not publish corresponding peak or torque figures.
Power and Range Specs at a Glance
|
Power / range metric |
EVRYjourney 750W Front Hub |
|
|
Nominal motor |
750W |
750W Bafang |
|
Peak power |
1,400W |
Not published |
|
Torque |
85Nm |
Not published |
|
Controller |
25A |
Not published |
|
Drive location |
Rear |
Front wheel |
|
Battery voltage |
48V |
48V |
|
Battery capacity |
20Ah |
21Ah |
|
Battery energy |
960Wh |
1,008Wh |
|
Advertised range |
85+ miles at PAS 1 |
Up to 50 miles |
|
Rear differential |
Yes |
Not listed |
|
Total payload |
500 lb |
500 lb |
Nominal Watts vs Peak Watts
A 750W nominal rating describes the motor's continuous power class, but it does not explain how much short-duration output the complete electrical system can provide. Peak power is typically used during acceleration, starts under load, and moments when the controller asks the motor for more output.
For SEO comparisons, this distinction should be stated carefully. It is fair to say MF-33 publishes more complete motor specifications. It is not fair to invent a peak number for EVRYjourney or claim its motor is weak merely because sixthreezero does not list one.
Torque and Loaded Starts
The EVRYjourney uses a front hub motor, which places the electric drive at the front wheel. The MF-33 places its drive at the rear. On a loaded passenger trike, much of the extra weight is located over or near the rear wheels. That is why the MF-33's rear-drive layout is a meaningful part of its power story.
Actual hill-climbing ability cannot be calculated from torque alone. Total weight, tire diameter, motor winding, controller current, battery voltage, grade, temperature, traction, and speed all affect performance. A rider should never interpret 85Nm as a guarantee of a certain grade or climbing speed. Still, the published torque figure makes MF-33 easier to evaluate than a model whose torque is not disclosed.
Battery Capacity: EVRYjourney Wins by About Five Percent
Battery math is straightforward. Watt-hours are approximately voltage multiplied by amp-hours.
EVRYjourney: 48V x 21Ah = 1,008Wh.
MF-33: 48V x 20Ah = 960Wh.
The difference is 48Wh, or about five percent. On battery capacity alone, EVRYjourney has the advantage. Both brands identify Samsung cells in these packs.
A five-percent capacity advantage is useful but not decisive. Two trikes with different motors, controllers, tires, software tuning, rider weights, and riding conditions can consume energy at very different rates. That is why range has to be examined separately.
Why a Smaller Battery Can Have a Higher Advertised Range
MaxFoot publishes up to 85+ miles for MF-33 at PAS 1. sixthreezero publishes up to 50 miles for EVRYjourney. It may seem contradictory that the trike with the 960Wh battery has the higher range claim than the trike with the 1,008Wh battery.
The explanation is that range figures depend on test conditions and calibration, not battery capacity alone. Low pedal-assist settings can allow the rider to contribute a significant share of propulsion. Speed also matters because aerodynamic drag rises quickly as speed increases. Heavy throttle use can consume energy much faster than low-level pedal assist.
Passenger load is another major factor. A 500 lb-capable trike carrying two adults will use more energy during acceleration and hill climbing than the same trike ridden solo. Tire pressure, road surface, stop frequency, wind, and temperature further change consumption.
Because the manufacturers do not publish one shared test protocol, the claims cannot be treated like results from the same laboratory. The responsible wording is simple: MF-33 has the higher manufacturer-stated maximum range, while EVRYjourney has the slightly larger nominal battery.
Controller Current and Acceleration
MF-33's published 25A controller is another useful piece of the power puzzle. At a nominal 48V, controller current helps indicate how much electrical power the system can deliver under demand, although actual battery voltage and controller programming vary.
For a heavy passenger trike, transparent controller information can be valuable because the controller influences acceleration feel and how strongly the motor can respond under load. Riders who value technical transparency may appreciate that MaxFoot provides this number alongside nominal watts, peak watts, and torque.
Efficiency Is More Than the Motor
The EVRYjourney uses 24 x 4-inch front and 20 x 4-inch rear tires. MF-33 uses the same basic tire sizing strategy. Fat tires improve comfort and traction but usually create more rolling resistance than narrow high-pressure bicycle tires. That makes tire pressure especially important for range.
Both models also carry large passenger benches and wide rear tracks, which means they are not lightweight aerodynamic commuters. Real-world range should therefore be judged in the context of what these machines are designed to do: move people comfortably and steadily, not set efficiency records.
The Differential and Power Delivery
MF-33's rear differential is another part of the drivetrain story. When turning, the left and right rear wheels can rotate at different speeds. This reduces the need for the tires to scrub against the pavement in a corner.
For a rear-driven passenger trike, that is a logical way to combine propulsion and turning behavior. EVRYjourney's motor is at the front, so its power is delivered through a different path and the current page does not list a rear differential.
This should not be oversold as a range advantage, because the manufacturers do not provide controlled data showing how much energy a differential saves. It is better described as a handling and drivetrain-design feature that complements the MF-33's rear-drive architecture.
Which Numbers Matter Most?
If a buyer wants the largest battery on paper, EVRYjourney's 1,008Wh beats MF-33's 960Wh. If the buyer wants the higher advertised maximum range, MF-33's 85+ mile PAS 1 claim is much higher than EVRYjourney's up-to-50-mile figure.
If the buyer wants published power detail, MF-33 is more transparent: 750W nominal, 1,400W peak, 85Nm, and a 25A controller. EVRYjourney publishes 750W for the Bafang front hub motor but does not provide the same supporting numbers on its current page.
For real use, none of those figures should be read in isolation. The most relevant question is how the trike will be loaded and ridden. A solo rider using low PAS on flat pavement may see dramatically different efficiency from a rider carrying two adults and using throttle on hills.
Final Verdict on Power and Range
The EVRYjourney has a genuine battery-capacity advantage and deserves credit for it. Its 21Ah Samsung pack is larger than MF-33's 20Ah pack. But MF-33 counters with a more detailed published power system and a much higher manufacturer range claim.
For buyers who want to compare only one number, EVRYjourney wins battery watt-hours. For buyers who want a complete powertrain story, MF-33 offers more information and more passenger-focused drivetrain hardware. Its rear drive, 1,400W peak, 85Nm rating, 25A controller, rear differential, and 85+ mile PAS 1 claim make it especially easy to position as a long-range, load-oriented passenger e-trike.
The most honest conclusion is that published specifications show different strengths, while actual range and performance will always depend on the rider, passengers, terrain, weather, speed, and assist level.