8 Best Electric Scooters for Heavy Adults (250-352 lbs) – All Tested

Test Criteria:

Maximum & Optimal Load

Throughout the guide, you’ll see a lot of references to ‘load’ – that is, how much rider weight a scooter can support. This figure is included in each scooter’s spec sheet as a maximum. However, the specs that go alongside the load rating (i.e. top speed, mileage, etc) are based on tests that the manufacturers have completed with riders that weigh just 165-175 lbs. As a result, these specs can be a little deceptive as they don’t reflect the performance of the scooter at its maximum load.

Even if you fall within the manufacturer-quoted load capacity, you may not achieve the same performance as a lighter rider.

To account for this, I reported on how each scooter performed under my 190 lb weight. I then extrapolated the data to assess the optimal load-bearing capacity – that is, how much rider weight a scooter can support before performance begins to wane. Based on my tests, I found that this typically equates to 85% of the maximum load.

Dimensions

An electric scooter’s suitability for bigger riders is dependent on its dimensions. To address this, I took several measurements.

Firstly, I measured the width of the handlebars. Based on my many years of testing, I’ve found a direct correlation between handlebar width and control (the wider the bars, the greater the control). Importantly, my assessment of width was made in relation to each scooter’s power, as well as the practicality for bigger riders (i.e. do they provide enough space so that you don’t feel cramped).

Secondly, I reported on the size of each scooter’s deck and kickplate to accurately assess the amount of space that’s usable. I also measured ground clearance to make recommendations on how each scooter could be ridden (i.e. in some cases, heavier riders can cause suspension systems to sag thereby reducing clearance and limiting their ability to roll over curbs, forest tracks, etc).

The last measurement that I made was the distance between the deck and the handlebars. This was used to identify the maximum rider height that each scooter could be comfortability ridden at (i.e. if it’s too short, you’re forced to crouch over and have less control).

Ride Quality

Ride quality is an extremely important area of assessment since it’s the key indicator of whether an electric scooter is enjoyable to ride. With this in mind, I garnered insights into how each scooter felt – including their handling and comfort.

Aside from my hands-on tests and reports on each scooter’s dimensions, I also measured the angle at which the steering columns were positioned to a vertical axis through the front axles (otherwise known as the rake angle). The smaller the angle, the less effort required to turn the handlebars, but the less stable the scooter. Conversely, a larger rake angle required more effort to turn but made the scooter more stable. During my assessments, I made sure to select the scooters that hit the sweet spot between the two to maintain both stability and maneuverability.

Then, to assess comfort, I placed particular focus on each scooter’s ability to soak up shocks. The heavier the rider, the more pronounced that bumps and vibrations feel. Consequently, a decent suspension setup is required to ensure the utmost comfort. Now, there’s an element of subjectivity here, but my years of experience give me an accurate feel for what’s good and bad.

Using a shock absorption scale from 1 to 10 – where 1 is extremely stiff and 10 is extremely soft – I assessed the performance of each scooter’s springs, swingarms, and bushings. Through this process, I gauged the amount of travel in the suspension, rebound and compression rates, and whether there was any bottoming out. I also reported on the adjustability of the suspension systems, as well as the ability to add preload (i.e. tightening the springs to prevent them from bottoming out – the more preload added, the greater the force needed to compress the springs).

Motor Power (Acceleration)

The power of a motor is determined by its voltage and watts.

Voltage signifies the intensity at which electricity is being pushed through a motor. Typically, electric scooter motors are rated at either 36V, 48V, 52V, 60V, 72V, or, in rare cases, 84V. The higher the voltage, the greater the torque and acceleration.

Watts, on the other hand, are units of measurement that determine the size of a motor. This indicates the amount of power that the motor can produce. The higher the watts, the greater the top speed.

While the weight of bigger riders doesn’t affect top speed, it can slow your acceleration as a result of the increased rolling and air resistance.

To account for this, I tested each scooter’s acceleration and picked the top-performing models relative to their price.

To establish accurate results, I conducted multiple tests across different intervals (i.e. 0-15 mph, 0-25 mph, etc). For each interval, I conducted 3x two-way directional runs on a flat, dry road, and then averaged the data (in seconds). To ensure consistency across each scooter, zero-start modes were enabled (where possible), the performance settings were dialed up to the max, the tires were pumped up to their recommended PSI, and the batteries were fully charged.

It’s important to note that the results from my tests should be viewed as an indicator of performance since they may differ depending on your profile (i.e. if you’re heavier than me, you’ll accelerate slower). The comparative acceleration data, however, serves as a useful foundation for benchmarking performance.

Battery Power (Range)

The increased weight of heavier riders directly impacts the efficiency of an electric scooter’s battery. The higher the load, the lower the range. For scooters to perform as intended, the batteries have to overcompensate for the extra weight.

Although manufacturers list maximum range figures, these are often based on a 165 lb rider, flat terrain, and riding in the slowest setting. To give a more accurate insight into performance, I reported on how each performs under real-world conditions, taking into account my weight of 190 lbs, periods of fast acceleration, cruising, and multiple stops.

It’s important to note that the results from my tests should be viewed as an indicator of performance since they may differ depending on your profile (i.e. if you’re heavier than me, you’ll get less range). The comparative range data, however, serves as a useful foundation for benchmarking performance.

Aside from these reports, I noted the size and quality of the batteries, since they influence a scooter’s range credentials. I also reported on each scooter’s battery management system by assessing how their protection features ensured healthy and safe operation (i.e. protection against over-voltage, low-voltage, over-discharge, over-current, and over-temperature).

Build Quality

It may sound like a case of stating the obvious, but the build quality of an electric scooter is crucial – especially as bigger riders exert greater pressures and forces that can leave weaknesses ruthlessly exposed.

To assess each scooter I reported on their craftsmanship, durability, and reliability.

To do this, I assessed the materials used (i.e. for the frame and consumables), how the parts were designed (i.e. were they OEM or proprietary, forged or cast, manufactured using one-piece CNC or welded together), and how they were assembled (i.e. did each part fit seamlessly with the next to achieve a desired outcome or did it have a clunky Frankenstein feel).

I also tested the rigidity of each scooter’s folding joint to assess stem wobble. For example, when I tested the Unagi Voyager – a scooter made from carbon fiber and with a one-click folding mechanism – I noticed that after braking and pulling back on the handlebars repeatedly that the stem began to wobble back and forth.

As part of my selection process, I only chose scooters that felt rock-solid.