Xiaomi M365 and the canonization of the consumer electric scooter (2016–2026)

Scootify 13 min read

In the article on the 2010–2020 chronology we described the M365 as the ‘hardware platform of the decade’: on 15 December 2016, Xiaomi’s Mijia platform yielded a folding scooter with a 250-watt motor, a 30-kilometer range and a 12.5 kg weight that three months later became the foundation of Bird’s first dockless fleet in Santa Monica. In the article on Bird Inc. we explained why Travis VanderZanden, in launching the service in autumn 2017 on ~10 adapted M365 units, faced negative unit economics from day one — in the article on Lime we noted that the Lime-S launched on the Segway-Ninebot ES2 platform, not the M365, but both machines come engineering-wise from the same manufacturing company that built both. This section is a standalone profile of the model itself and the company that produced it: how a single hardware unit became, over ten years, the reference platform for the entire consumer industry, and why every modern specification (IP54+ casing, ~12 kg weight, ~30 km range, single-stroke stem, regenerative + disc brake) is not ‘an average scooter’ but specifically the formalization of the M365.

Understanding this history matters for two reasons. First, the M365 is not the ‘first’ electric scooter: before it there were the Go-Ped ESR750 (2001), various Chinese semi-artisanal models of the 2010s, and the Inokim Light from 2014, described in the article on the early period. The M365 is the canonization device, which did not invent the category but formalized it so clearly that every subsequent design works back from its ergonomics. In this sense its role in the consumer segment is analogous to that of the iPhone among smartphones in 2007 or the Tesla Model S among electric cars in 2012: not the first, but the reference. Second, the M365 is the hardware base of dockless sharing: Bird in Santa Monica and Lyft in its 2018 pilot launches built their service on the same consumer units that could be bought retail for $400. This created the paradoxical situation in which the consumer reference scooter and the sharing reference scooter were one and the same machine, giving the industry a starting vector from which it later diverged (Bird Zero in 2018, Lime Gen2 and Gen3 in 2018, Spin S-200 in 2019).

Xiaomi + Ninebot: the partnership that made the M365 possible (2015)

To understand the M365 we have to start in April 2015 — twenty months before the launch of the device itself. On 15 April 2015 the Beijing startup Ninebot Inc. (founded in 2012 by Wang Ye and Lu Feng Gao as a manufacturer of Segway-style self-balancing models — more detail in the Segway-Ninebot profile) announced its acquisition of the American Segway Inc. The deal was financed by a joint $80 million round from the investors Xiaomi, Sequoia Capital, Shunwei Capital and WestSummit Capital. (TechCrunch — Beijing-based Ninebot Acquires Segway, Raises $80M From Xiaomi And Sequoia, Time — Ninebot Acquires Segway to Overcome ‘Copycat China’ Culture, South China Morning Post — Xiaomi-backed Ninebot buys US rival Segway, China Money Network — Xiaomi, Shunwei, Sequoia, WestSummit Invest $80M In Ninebot)

There are two notable details to this deal:

  1. A legal paradox. In September 2014 Segway filed a complaint with the U.S. International Trade Commission (USITC) against several Chinese manufacturers, Ninebot among them, for infringement of self-balancing patents. Seven months later Ninebot not only avoided an import ban in the United States — it bought the plaintiff itself. This is one of the most striking examples of ‘Chinese catch-up’ in the history of a Western hardware startup.
  2. ‘Building a device ecosystem.’ At the press conference, Xiaomi CEO Lei Jun explicitly articulated the goal of the investment: Ninebot becomes part of a broader ecosystem of Xiaomi-linked brands (Mijia, Yeelight, Roborock, 70mai) producing physical products controlled from a Mi smartphone through the Mi Home app. (Time — Segway-Ninebot) An electric scooter fits this model by definition: BLE connection to a smartphone, GPS localization, OTA firmware updates.

After April 2015 Ninebot and Segway formally remained separate brands (Ninebot — the mass Asian one, Segway — the premium Western one for self-balancing), but their R&D and manufacturing merged into a single company — Ninebot (Changzhou) Tech Co., Ltd., with a plant in Changzhou (Jiangsu province, China). It is this company that would become the OEM manufacturer for the first M365 in December 2016 and would keep that role for the following ten years. (Levy Electric — Xiaomi Electric Scooter Complete Guide, Notebookcheck — Xiaomi Electric Scooter 4 Pro to be manufactured by Segway-Ninebot)

Two key engineering points of this partnership that would later surface in the M365:

  • A hub BLDC motor with regeneration. Ninebot had spent years building self-balancing models (mini-Pro, KickScooter E-series) with hub motors and inertial sensors; transferring that module into a kick scooter was a minimal change.
  • A BMS architecture built on 18650 cells. The self-balancers of the same years already used cylindrical lithium-ion cells with capacity balancing; the M365 inherits that design, described in the article on electronic systems and in the article on batteries.

15 December 2016: the launch of the M365 on the Mijia platform

On 15 December 2016 Xiaomi unveiled the Mijia Electric Scooter (in Chinese, 米家电动滑板车) — or M365 by internal code, which became the public brand at the global release of 2017. The announcement was made on Xiaomi’s Mijia crowdfunding platform (米家众筹), which at that point was the Xiaomi-ecosystem equivalent of Kickstarter. The first batches went only to the Chinese market; the global release through the official Mi Home channel started in March–April 2017. (Wikipedia — Xiaomi M365, Rider Guide — Xiaomi Mi M365 Review)

The official M365 specification from the first release:

  • Motor: 250 W brushless DC hub in the front wheel, peak 500 W, torque 16 N·m. 36 V controller rated at 350 W.
  • Battery: 30 LG 18650 cells in a 10S3P configuration, 36 V nominal, 7.8 Ah, ~280 Wh. (This is a load-bearing detail: later cloned versions with Samsung cells and cheaper third-party suppliers often delivered 8–12% less real capacity.)
  • Maximum speed: 25 km/h (15.5 mph).
  • Real range: up to 30 km in ECO mode with a 70-kg rider; realistically 18–22 km in Sport mode.
  • Weight: 12.5 kg dry.
  • Tyres: 8.5″ pneumatic on both wheels. Pressure 50 psi.
  • Brakes: front regenerative (KERS) + rear mechanical disc with a handlebar-mounted lever on the left grip.
  • IP rating: IP54 — protection against dust and splashes from all directions (not for submersion).
  • Display: minimal — 4 LEDs for charge level + a power / mode-change button.
  • Folding stem: a single-stroke ‘hook + dual-lock’ mechanism — press the foot pedal at the base of the stem, the handlebar drops and is fixed to the rear blinker by a metal hook.
  • BLE: Mi Home app via Bluetooth 4.0.
  • Lighting: a 1.1 W front headlight + a rear brake light that brightens when the brake is squeezed.
  • Dimensions: 108 × 43 × 114 cm unfolded, 108 × 43 × 49 cm folded.

The manufacturer is Ninebot (Changzhou) Tech Co., Ltd. This is not a marketing nuance: the M365 physically comes off the same Changzhou lines as the Ninebot ES1/ES2/ES4 of late 2017. The Xiaomi brand on the casing is an OEM contract under which Xiaomi supplies the industrial design (the typical Mijia aesthetic of white/black plastic and a minimalist silhouette), marketing through mi.com and the Mi Home ecosystem, and Ninebot supplies the engineering core and the production lines. (Levy Electric — Xiaomi Electric Scooter Complete Guide, Scootered — Xiaomi M365 vs Ninebot-Segway ES2)

Two historical points about the M365 in its first year:

  • Red Dot Design Award 2017. The scooter won the prestigious German Red Dot Design Award in the Product Design category — a rare event for a Chinese consumer-hardware startup at that moment. This produced a legitimization signal for Western consumers: ‘this is not a no-name Chinese clone, it is a device with a recognized design.’ (Levy Electric — Xiaomi Electric Scooter Complete Guide)
  • The European price tag. At the 2017 global release the M365 cost €349–399 in Europe and $499 in North America through official Mi channels. This is categorically lower than the contemporary alternatives from Inokim (€800–1,200) and Micro Eagle (CHF 1,500+) described in the Micro Mobility AG profile. The price is the main point that made the M365 a mass product: for the first time an ‘adult’ electric commuting scooter entered the price range of a mid-premium smartphone rather than that of a ‘specialized hobby device.’ (Tech Advisor — Xiaomi Mi Scooter Pro 2 Review, Wikipedia — Xiaomi M365)

September 2017: Bird adapts the M365 as the first dockless sharing fleet

Nine months after the M365 launch in China, on 1 September 2017 Travis VanderZanden launched the Bird service in Santa Monica on a fleet of ~10 devices that, as he later admitted in an interview with Inc., were ‘bought on Alibaba in retail quantities’ — that is, these were commercially purchased Mijia M365 units with no hardware partnership with Xiaomi whatsoever. (Wikipedia — Xiaomi M365, Inc. — This $118M Electric Scooter Company Created a Phenomenon in Los Angeles, Levy Electric — Discover the Electric Scooter Models Used by Bird)

The hardware modifications Bird immediately made to a retail M365 for shared use:

  • A welded folding mechanism. The single-stroke hook-and-lock folder was replaced with a rigid welded joint, because in daily rough use (forced grabs, vandalism, tipping over) the factory mechanism failed after 2–4 weeks. This detail is laid out at length in the extended Bird profile: it was one of the components of the negative unit economics of the first year (lifecycle ~30 days against the projected 6 months).
  • An internal GPS/cellular module. Instead of BLE communication via Mi Home, a separate 2G/3G IoT module was added for real-time localization — without it the dockless service could not find a device after parking. The architecture of IoT modules is described in more detail in the article on electronic systems.
  • A branded deck sticker. The black plastic casing of the M365 was overlaid with a sticker bearing the Bird bird-logo, without changing the casing itself. This is a defining visual marker of 2017–2018: ‘Bird in Santa Monica’ is a black M365 with a bird sticker, not some separate device.

Two important historical clarifications:

  1. Bird did not buy M365s from Xiaomi in bulk. Adaptations were done on the fly, by Los Angeles–based subcontractors — Xiaomi gave no specifications or support for these processes. This underscores the heterogeneity of Bird’s first year: individual units from different batches, with different microfirmware, with no unified fleet management.
  2. Lyft also used the M365 in early 2018 pilots. Unlike Bird, Lyft did not scale its electric-scooter service (it absorbed Motivate with bike-sharing and did not invest in its own dockless rollout). But in early pilots in Denver and Santa Monica in 2018, Lyft-stickered M365s ran on sidewalks — the same machine, a different brand. This confirms that the M365 in 2017–2018 was an industry starter kit on which any company could launch a dockless service in weeks, not months.

Lime in those same months chose a different platform — the Segway-Ninebot ES2, which came out in late 2017. Engineering-wise the ES2 is a sister device to the M365 from the same Ninebot Changzhou line, but with substantive differences: a rear motor (rather than front), a handlebar-based folding mechanism (rather than a pedal), a higher price. The full context of Lime’s choice is in the company profile and in the article on sharing devices.

February 2019: Zimperium and CVE-2019-7367

On 12 February 2019 the Israeli research-security firm Zimperium published a proof-of-concept of a vulnerability that allowed a person remotely over Bluetooth at a distance of up to 100 metres to take over an M365 without any password: trigger sudden braking, sudden acceleration, lock the scooter, install malicious firmware. The vulnerability was assigned the identifier CVE-2019-7367. (Zimperium — Don’t Give Me a Brake, Threatpost — Xiaomi M365 Electric Scooter Hacked and Remotely Controlled, The Hacker News — Xiaomi Electric Scooters Vulnerable to Life-Threatening Remote Hacks, Engadget — Hackers can stop or speed up Xiaomi’s M365 electric scooter)

The nature of the defect: the password was checked only on the Mi Home app side, not on the scooter side. Any BLE client that knew the protocol (and it was reverse-engineered and published in open repositories as early as 2018) could send commands directly to the scooter’s MCU, and the MCU would execute them without authentication. Xiaomi publicly acknowledged the issue but did not release an OTA fix straight away — the company cited the fact that the BLE module was licensed from a third-party manufacturer and that it had no access of its own to the module’s firmware.

Why this story matters for a scooter handbook:

  • This is the first widely documented security vulnerability in a consumer electric scooter. Up to 2019 the industry discussed only physical risks (injuries, falls, sidewalk conflicts). After Zimperium, a separate class of risk entered the picture — remote control of a scooter by an outside attacker.
  • It became a turning point in firmware architecture. Most successor manufacturers (Segway-Ninebot, Apollo, Inokim, Kaabo) moved authentication checking onto the scooter side, with cryptographically signed firmware. This is described in more detail in the article on electronic systems as ‘BLE with MCU-side authentication’ — a specific engineering standard that emerged as a reaction to the M365 of 2019.
  • It highlighted the limits of the OEM model. Xiaomi as the brand is responsible for the product, but not for all of its modules — BLE was taken from a third party. In a stress situation, the absence of full control over firmware delays the response. Many modern manufacturers (Segway-Ninebot, Apollo) deliberately keep BLE in-house out of precisely this history.

ScooterHacking and the parallel custom-firmware ecosystem (2018+)

Almost simultaneously with the M365 launch in 2017, a parallel phenomenon arose — a community of custom-firmware developers that began to reverse-engineer the scooter’s firmware and offer modifications. As of 2026 the principal actors are:

Typical modifications custom firmware offers:

  • Unlocking maximum speed from 25 to 27–30 km/h in Normal mode (higher values come in Turbo).
  • Reshaping ESC curves: a sharper throttle response, smoother regeneration, customization of braking at the peaks of power.
  • Unlocking Turbo with the brake squeezed: pressing the brake lever + the power button puts the scooter into Turbo mode. This is the proprietary ‘easter egg’ function described in numerous YouTube tutorials.
  • Removing speed restrictions from model series intended for the European market. In Europe, through Germany’s eKFV and corresponding French regulations, devices are sold with a factory limit of 20–25 km/h; CFW makes it possible to raise the ceiling to 30+ km/h.

A legal nuance: this voids the warranty, potentially renders the device illegal in jurisdictions with speed ceilings (Germany’s eKFV, France with up to a €1,500 fine for exceeding 25 km/h on an apparatus type 1, described in the article on 2010–2020 regulations). Most official sellers explicitly warn that a CFW-modified device is not covered by insurance and will not pass technical inspection. (mp365.es — Hack Tool M365)

Why this community matters for understanding the M365’s history:

  • It created a feedback loop between Xiaomi and users. For years Xiaomi has received detailed reports on weak spots in the ESC firmware and the device’s response under various conditions — more than from its own QA. Many of the later updates to the official versions (1S, Pro 2, 4 Ultra) explicitly address points that the hacker community had already patched on its own.
  • It defined the market culture of scooters as ‘modder-friendly.’ Unlike smartphones (where root and custom ROMs are a niche phenomenon) or electric cars (where firmware modification is essentially impossible because service replacement boards use controlled cryptography), in consumer electric scooters the M365 was the precedent in which firmware openness became a market norm. That norm was then inherited by Segway-Ninebot, Apollo, Inokim.

Evolution of the M365 line: from Pro 2019 to 5 Pro 2025

Over six generations (2016–2025) Xiaomi successively pushed up the characteristics, but the architectural core — the single-stroke folding stem, the BLDC hub motor, the IP54+ casing, the LG/Samsung 18650 cells — remained unchanged. Everything that changed is the numbers inside the same skeleton.

M365 Pro (July 2019)

The first major upgrade. (Wikipedia — Xiaomi M365, Tech Advisor — Xiaomi M365 Pro Review, Scooter Guide — Xiaomi M365 Pro Review)

  • Battery: 474 Wh (+69% from the M365’s 280 Wh).
  • Range: up to 45 km (+50% from 30 km).
  • Motor: 300 W rated / 600 W peak.
  • Display: stem-mounted OLED instead of 4 LEDs — speed, mileage, charge level, mode.
  • Weight: 14.2 kg (+1.7 kg).
  • Deck: 50 mm longer.
  • Stem: 40 mm higher (solving the ergonomics for tall riders).
  • Brake: an enlarged 120 mm rear disc (from ~100 mm on the M365).

Mi Electric Scooter Essential and 1S (July 2020)

On 15 July 2020 Xiaomi released two younger models at the same time against the COVID surge in demand. (elProducente — Xiaomi Scooter Lite (Essential), Scooter Guide — Xiaomi 1S Electric Scooter Review, elProducente — Xiaomi Electric Scooter 1S)

  • Mi Electric Scooter 1S — the direct successor to the M365: the same 280 Wh, 25 km/h, 30 km range, 250 W motor, but with a stem-mounted OLED display as on the Pro and an improved BMS. This is ‘the M365 with a normal display’ — the device Xiaomi itself positioned as the replacement.
  • Mi Electric Scooter Essential (also known as Lite) — the budget model: a 183 Wh battery (−35%), 20 km of range, a 20 km/h maximum speed, no stem-mounted display. This is a device for European markets with the 20 km/h regulatory ceiling (Germany, France from 2019), into which the M365/1S at 25 km/h did not fit without additional software limiting.

This two-branch strategy — ‘1S as the M365 upgrade + Essential as the regulation-compliant budget’ — anchored the Mi Electric Scooter line as broad, not flagship.

Mi Electric Scooter Pro 2 (July 2020)

In parallel with the 1S and Essential, Xiaomi released the Pro 2 as the successor to the M365 Pro. (Xiaomi — Mi Electric Scooter Pro 2 specs, Tech Advisor — Xiaomi Mi Scooter Pro 2 Review)

  • Battery: 474 Wh / 12,800 mAh (as on the Pro).
  • Range: up to 45 km.
  • Motor: 300 W rated / 600 W peak.
  • Weight: 14.2 kg.
  • Brake: 120 mm vented rear disc + regenerative eABS front.
  • IP rating: IP54 (the line’s standard since 2016).
  • Frame: aerospace-grade aluminum alloy.
  • Special version: Mercedes-AMG Petronas F1 Team Edition — a limited run with team branding.

The Pro 2 is the mature version of what the M365 wanted to be in 2016: the same parameters (25 km/h, 8.5″ tyres, 14 kg), but without the compromises of the first generation (a proper display, a proper disc, a proper rear blinker, an IP54-certified casing).

Mi Electric Scooter 3 Lite (June–September 2022)

Announced in China in June 2022 and launched in Europe on 1 September 2022 with an RRP of €449. (Gizmochina — Xiaomi Electric Scooter 3 Lite launched in Europe, Notebookcheck — Xiaomi Electric Scooter 3 Lite launches in Europe)

  • Range: 20 km.
  • Speed: 25 km/h.
  • Motor: 250 W.
  • Brake: front eABS + mechanical drum rear — this is the switch from disc to drum in the budget line. A drum brake is engineering-wise simpler, cheaper to manufacture and more tolerant of contamination, but with substantially higher inertia and a lower feel of control. Both approaches are detailed in the article on brakes.
  • Frame: 10 mm thinner than the 1S, lighter — the model’s main accent.

The 3 Lite is the budget bottom shelf of the line with choices of ‘lighter, simpler, cheaper.’

Mi Electric Scooter 4 Ultra (November 2022)

The line’s first flagship to break out of the basic M365 architecture and for the first time make the device not a ‘light commuter’ but a ‘premium everyday.’ (Xiaomi — Electric Scooter 4 Ultra specs, Notebookcheck — Xiaomi Electric Scooter 4 Ultra new model with 70 km range unveiled)

  • Range: 70 km (+133% from M365).
  • Battery: 561.5 Wh.
  • Motor: 500 W rated / 940 W peak.
  • Speed: 25 km/h (factory-set, for the global market).
  • Tyres: 10″ DuraGel — a self-healing structure that automatically seals punctures up to 3.5 mm.
  • Suspension: dual (front and rear) — for the first time in the Mi line.
  • Weight: 24.5 kg (+96% from M365).
  • Deck: 800 cm², 170 mm longer.
  • Handlebar: 550 mm wider and higher.
  • Brake: E-ABS + drum (the same as on the 3 Lite).
  • Charging: 6.5 hours with a 124 W adapter.

The 4 Ultra is a device for a different audience: not a ‘folding light companion to the metro’ but a full-time daily vehicle with the weight of a folding bicycle and characteristics close to those of a commuter motorcycle.

Mi Electric Scooter 4 Pro (2023)

Fills the niche between the 4 Ultra and the Pro 2. (Notebookcheck — Xiaomi Electric Scooter 4 Pro to be manufactured by Segway-Ninebot) It has been officially confirmed that the OEM partner is Segway-Ninebot — the same partnership that began in 2015.

Mi Electric Scooter 5 Pro (January 2025)

The current (as of May 2026) flagship of the mid-segment. (Gizmochina — Xiaomi Electric Scooter 5 Pro unveiled with 60KM range, 1,000W Motor & 10-Inch Tires, Xiaomi — Electric Scooter 5 Pro specs)

  • Range: up to 60 km.
  • Motor: 1,000 W peak (400 W nominal).
  • Battery: 477 Wh.
  • Tyres: 10″ tubeless.
  • Suspension: dual coil-spring.
  • Weight: 22.4 kg.
  • Brake: front drum + rear E-ABS.
  • IP rating: IPX5.
  • Smart: Xiaomi Home connect, OTA, motor-lock, location tracking.

The 5 Pro is the intermediate version between the 4 Ultra and the Pro 2: lighter than the Ultra, more powerful than the Pro 2. As of 2026 the Mi line has spread into three branches:

  • ‘The M365 successor’ — Essential / 1S / 3 Lite (12–14 kg, ~30 km range, 250 W).
  • ‘The Pro branch’ — Pro 2 / 4 Pro / 5 Pro (14–22 kg, 45–60 km, 300–400 W rated).
  • ‘The 10″-tyre flagship’ — 4 Ultra (24+ kg, 70 km, 500 W rated).

All three branches sit on the same engineering core that came with the M365 of 2016, and all three are manufactured by the same Ninebot Changzhou.

The split between the Mi and Ninebot Kickscooter brands (2017+)

The paradox of the long Xiaomi–Ninebot partnership: both brands became direct competitors in the market.

  • Ninebot KickScooter ES1/ES2/ES4 came out in late 2017 – early 2018 as Segway-Ninebot’s in-house line with proprietary branding, sold separately from the M365 through Segway-Ninebot channels. These devices are engineering-wise sister products to the M365 (the same production line, the same engineering team), but with key differences: a rear hub motor (rather than front), a handlebar-based folding mechanism (rather than a pedal), a higher price. Lime — as we described in the company profile — chose specifically the ES2 (rather than the M365) for its first sharing fleet in February 2018, because at otherwise similar key characteristics the rear-drive architecture gave better tractive control in the city cycle.
  • Ninebot KickScooter MAX G30 (2019) — a mass sharing device with an IPX5 casing and an IPX7 motor that became the de facto standard for Lime, Voi, Tier, Spin after 2020. Described in the article on the 2020–2026 chronology and in the article on sharing devices.
  • Ninebot KickScooter F-series (2021) and G-series (2022+) — premium consumer devices with Segway-Ninebot’s own branding, direct competitors to the Mi Electric Scooter 4 Pro and 5 Pro.

As of May 2026 this competition has stabilized into two parallel lines with different positioning:

  • Mi Electric Scooter — the mass budget–mid-segment through Xiaomi channels (mi.com, authorized resellers, Amazon), with an emphasis on ‘smart connectivity’ through Mi Home and a noticeable price advantage.
  • Segway-Ninebot KickScooter — the engineering-premium segment through Segway-Ninebot channels (segway.com, specialized retailers, mobility distributors), with an emphasis on ‘hardware quality’ with better IP certification and a more aggressive feature package.

Both come out of the factory at the same Changzhou lines. This is a unique precedent in consumer electronics: a single manufacturer, two brands, a competitive strategy, with a continuous ten-year partnership.

Why the M365 is the canonization device, not just the first

A summarizing formulation that shows the M365’s role in the handbook.

The M365 did not invent the consumer electric scooter. Before it there were:

  • The Go-Ped ESR750 (2001) as the first commercial electric standing device for adults with an SLA battery — described in the article on the early period.
  • The Inokim Light (2014) as the first premium light folding device on Li-ion from Israel — in the same article.
  • The Micro Eagle (2018) as the Swiss line from Wim Ouboter’s Micro Mobility AG, described in the company profile.
  • The Razor E-Series as the North American children’s class, described in the Razor profile.

The M365 formalized the category — so clearly that everything that follows is computed relative to it. Concrete points of canonization:

  1. The weight formula. ~12.5 kg dry is not ‘an average weight’ but the reference. Anything heavier needs separate explanation (the Pro 2 at 14 kg is an upgrade, the 4 Ultra at 24 kg is a flagship). Anything lighter needs explanation of the compromises (the Inokim Light at 13 kg is a premium choice; Chinese no-names at 9 kg are a cheapening of the casing and battery).
  2. The range formula. ~30 km in the actual cycle is the reference. Anything less (Essential at 20 km) is positioned as budget; anything more (Pro at 45 km, 4 Ultra at 70 km) is positioned as upgrade.
  3. The speed formula. 25 km/h is the European and Latin American regulatory ceiling, which the M365 hit precisely. Anything slower (20 km/h — Essential, the spec for Germany’s eKFV) needs separate explanation; anything faster (the Pro 2 with custom firmware up to 30 km/h) needs a mention of illegality.
  4. The tyre formula. 8.5″ pneumatic is the mainstream standard. Anything smaller (6.5″ — children’s devices from Razor) is positioned as a toy; anything larger (10″ — 4 Ultra, sharing Lime Gen4) is positioned as an upgrade in comfort and roadability.
  5. The IP-rating formula. IP54 is the baseline ceiling. Anything below (IP44) needs a ‘not for rain’ warning; anything above (IP67 — Lime Gen3, IP68 — Bird Three) is positioned as sharing-grade. The IP-rating standard and the specific nuance of IP54 ↔ IPX5 ↔ IP67 are detailed in the article on suspension, wheels and IP rating.
  6. The braking formula. Regenerative (KERS) at the front + mechanical disc at the rear is the mainstream standard. Drum at the rear (3 Lite, 4 Ultra) is a budget or practical choice; hydraulic disc (Apollo, Inokim OXO) is premium. All these variants are detailed in the article on brakes.
  7. The folding formula. The single-stroke ‘pedal-lock-hook’ mechanism is the mainstream standard. Anything more complex (Inokim’s three-point folder, or no folder at all — on seated devices) is positioned as specialization.

All modern models — Pure Air, Apollo Air, Segway-Ninebot E22, GoTrax, Hiboy — in their marketing materials are compared against the M365 by these seven formulas, not against an abstract ‘average scooter.’ This means the M365 served as the reference point, not just as a product.

Why this story matters for the handbook

The M365 in profile is not ‘another device’ but the engineering benchmark against which the reader can quickly position any other. If the article on motors explains what a hub BLDC is — the M365 with its 250 W front hub is the typical example of this technology. If the article on batteries explains the difference between 280 Wh and 474 Wh — these are two points of the Mi line that the reader can orient in time and price. If the article on IP rating reveals why IP54 ≠ IPX5 ≠ IP67 — the M365 at IP54 and the Lime Gen3 at IP67 are two reference models from different engineering tiers.

Separately, several nuance points are important:

  • The ‘first’ distinction. The M365 is not the first electric scooter by date and not the first in specific components (a hub motor in a scooter was used earlier by the Inokim Light, and 18650 Li-ion cells were already used in scooters from 2014 on). The M365 is the first by combination: a decent range + moderate weight + a consumer price tag + a recognizable brand + a smart ecosystem + a design that won a Red Dot.
  • The OEM distinction. Xiaomi does not manufacture the M365 itself — everything is done by Ninebot Changzhou. This is the typical Mijia model: Xiaomi provides industrial design, marketing and integration into Mi Home, and the manufacturing partner provides the engineering core. This does not diminish Xiaomi’s role (the brand + distribution network weigh more than the factory lines), but it matters for understanding that the Mi Electric Scooter and the Segway-Ninebot KickScooter are engineering-wise the same family, not two different products.
  • The ‘satisfaction through CFW’ distinction. The fact that m365.botox.bz and ScooterHacking.org have actively modified the M365 firmware for ten years does not mean that Xiaomi is not offering competitive power in its factory models. The CFW community exists predominantly to bypass regulatory restrictions (speed, braking), not to fix engineering shortcomings. In 2026 the factory 5 Pro at 1,000 W peak is more powerful than any previously CFW-modified M365.
  • The ‘canonization’ distinction. The article’s title is ‘canonization,’ not ‘creation.’ This stresses: the M365 formalized the category but did not invent it. In the terms of philosopher of science Thomas Kuhn this is the ‘normal science’ of the consumer electric scooter, not its revolution. The revolution happened in the 1990s (Wim Ouboter’s Swiss prototype), in 2000 (Razor as the mass retail channel), in 2017 (Bird as the dockless service). The M365 in December 2016 is the normalization that made all three preceding revolutions engineering-compatible.

Conclusion: the fifth profile of the quartet

If the Razor USA profile is the history of the mass consumer channel, the Micro Mobility AG profile — of a niche premium brand, the Bird Inc. profile — of the ‘pioneer’s trap’ of the sharing class, the Lime profile — of the ‘discipline of survival’ in the same category — then the Xiaomi M365 is the canonization episode: a product that did not invent the category but formalized it so thoroughly that every subsequent work (consumer, sharing, regulatory) builds back from its ergonomics.

This formula — ‘the canonization product as the reference point for the entire category’ — is not unique to scooters. The same type of role was played by:

  • The Sony Walkman TPS-L2 (1979) for portable audio players.
  • The iPhone (2007) for smartphones.
  • The Tesla Model S (2012) for electric cars.
  • The DJI Phantom (2013) for consumer quadcopters.

Each of these products is not the ‘first,’ but the reference against which all the others are computed later. The M365 places the electric scooter in this same conceptual category: a device that became the engineering basis of the industry, not only as a technical product but as the formula of mass perception.

And this is the final point of the M365 handbook: when you read the specifications of any modern consumer electric scooter, you are reading them in the M365 coordinate system, even if the model’s name is Apollo, Inokim, Pure Air or Segway-Ninebot. That is what canonization is.