模拟悬浮滑板控制器
Analog Hoverboard Controller

原始链接: https://github.com/skrubis/analog-hoverboard

该项目详细描述了一个完全由继电器驱动的控制器设计,用于构建一种“站立马车”(本质上是悬浮滑板),采用1884年左右的技术——不使用半导体,而是依赖继电器、汞和黄铜。其目标是仅使用同期组件复制现代BLDC悬浮滑板控制器。 该系统采用48V电池为三相BLDC电机供电,转子位置通过霍尔传感器或簧片开关检测。一个六步继电器换向器控制电机方向(前进/后退)。倾斜由汞倾斜开关管理,提供缓和或全力扭矩的倾斜。安全问题通过脚踏断路开关来解决。基于继电器的DC-DC转换器为指示器提供5V。 **至关重要的是,该项目明确*不安全***,涉及高电流和潜在危险材料。 警告建造者自行承担风险,并鼓励他们通过公共存储库贡献改进,该存储库采用MIT/CERN开源硬件许可的组合——戏称为“最宁静的电流修士团执照(1884)”。

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原文

Standing Carriage Controller (Victorian Hoverboard, Relay Edition)

Galvanic monks on foot-boards For further particulars, consult the full electrical plan in Diagram of the galvanic arrangements. Welcome, curious electrician and itinerant mechanician!
This repository contains the designs for a fully relay-driven controller for a small standing carriage (hoverboard) executed in the idiom of the year 1884: no semiconductors, much brass, a quantity of quicksilver, and a modest disregard for personal safety.

Modern folk may call it a BLDC hoverboard controller.
We prefer polyphase electro-magnetic standing carriage, governed by relays.


Principal Curiosities (Features)

  • Polyphase electro-magnetic motor
    • ~48 V nominal galvanic pile
    • 3-phase BLDC, 30 poles (15 pairs)
    • Star-formed connexion of the windings
  • Two manners of “sight” for rotor position
    • Minute magnetic contact-springs (reed switches)
    • The motor’s own Hall instruments, poetically described as thinking sand
    • A three-pole, double-throw Selector of Indicating Apparatus
      chooses between Reeds and Sand.
  • Six-step commutation gear (Ahead & Astern)
    • Implemented entirely with relays
    • Provides advance and retrograde motion for the standing carriage.
  • Inclination & Safety governance
    • Four mercury keys per side:
      • two for gentle inclination (current through a limiting resistor)
      • two for deep inclination (bypassing said resistor for greater torque)
      • pairs provided for both advance and retrograde lean.
    • Foot Cut-out beneath each standing board:
      a spring-tongued safety switch that opens the circuit the moment the rider’s foot departs.
  • Synchronous DC–DC Converter
    • Converts ~48 V from the pile to ~5 V for delicate contrivances
    • Works by two double-contact relays cavorting with a small transformer.

Short Mechanical & Electrical Overview

In plainer speech:

  1. A 48 V battery (voltaic pile) feeds:

    • the motor power stage (three phases via relay switching),
    • the converter that produces 5 V for logic and indicators.
  2. Mercury tilt switches and Foot Cut-outs decide whether any power is to be granted at all, and at what level of enthusiasm.

  3. The position sensors (either Hall elements or reed switches) inform the six-step relay commutator, which energises the phases in due order for forward or backward motion.

  4. A series resistor is included for gentle starting; additional mercury keys short this resistor at greater lean, giving a “full-zeal” torque mode.


Strong Warning: this project concerns high currents, rotating machinery, sharp edges, and occasionally boiling electrolyte. It is, by design, not safe. You proceed entirely at your own risk.

  • A 3-phase BLDC hub motor with Hall sensors
  • A ~48 V battery of your favourite persuasion
  • A collection of relays (DPDT / 3PDT as per schematics)
  • Mercury tilt switches (or mechanical equivalents if you prefer fewer environmental sins)
  • Reed switches & small magnets (for the “minute contact-springs”)
  • Miscellaneous brass, wire, and courage.
  1. Study the engravings in hardware/
    Begin with the motor drawing and commutation diagrams, then proceed to the Foot Cut-out and mercury keys.

  2. Construct the power stage

    • Follow the six-step relay arrangement for the three motor phases.
    • Provide fuses (fusible safety wires) rated sensibly for your currents.
  3. Install inclination & Foot Cut-outs

    • Mount four mercury keys per side as indicated.
    • Fit the Foot Cut-out beneath each standing board.
  4. Wire the selector of indicating apparatus

    • Bring the three sensor lines either from the Hall elements
      or from the reed switches, through the selector to the commutator.
  5. Perform cautious trials

    • Lift the wheels clear of the ground.
    • Verify advance and retrograde motion at small battery voltage
      before entrusting any part of your anatomy to the device.

If you wish to join the Order:

  1. Fork this repository.
  2. Commit your improvements, engravings, or errata.
  3. Open a Pull Request, briefly explaining:
    • what you changed, and
    • whether you tested it on a live standing carriage or merely in the theatre of your imagination.

Bug reports and tales of narrowly-avoided disaster are also gratefully received.


This work is released under the curious charter in LICENSE.md, which wraps:

  • MIT License – for all software and textual incantations, and
  • CERN Open Hardware Licence – for all hardware designs and layouts,

all presented as the “Licence of the Most Serene Order of Galvanic Monks (1884)”.

In legal disputes, the sober MIT/CERN-OHL texts prevail; in tavern disputes, the one with fewer burns and bruises is presumed to be in the right.


May your coils remain cool, your relays chatter cheerfully,
and your standing carriage bear you neither into the ditch
nor into the annals of coroners’ reports.

skrubis, 1884 (and somewhat later)

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