G Force Qelectrotech Tutorial

The first step was always the same: a clean sheet. Alex created a new project in QElectroTech and set the page size to the required print dimensions. On the left, the libraries promised footprints, symbols and connectors. Alex imported a custom symbol for the IMU (inertial measurement unit) and a module symbol for the flight controller. The tutorial began with this: how to set page size, import libraries, and add custom symbols — a gentle orientation for someone opening QElectroTech for the first time.

Key actions illustrated:

G-Force drives often include built-in PID for pumps or fans. Let’s document that in QElectroTech.

QElectroTech is a free, open-source software for creating electrical schematics and wiring diagrams. While it doesn't simulate physics or G-force directly, it excels at drawing circuits for accelerometers (e.g., ADXL335, MPU6050) used in G-force measurement projects. g force qelectrotech tutorial

This tutorial will guide you through creating a professional schematic for a 3-axis accelerometer interface (measuring G-force) using QElectroTech.

Alex adjusted the magnifying visor and blinked at the blinking cursor on the schematic canvas. The assignment was simple in words: design a control panel for the university’s small experimental drone and document it as a tutorial for newcomers. In practice it was a tangle of relays, switches, sensors and the sort of decisions that made veteran engineers sigh. Alex chose a name for the project — G-Force — and opened QElectroTech.

You just built a hardware-in-the-loop (HIL) simulator without spending $10,000. The first step was always the same: a clean sheet

Next level: Route G-Force's video output over your QElectroTech window using OBS. The particles become the "smoke" in your virtual circuit. When a fuse blows (threshold met), the particles explode.

Connect the components using the “Add conductor” tool (shortcut: W).

Connections for ADXL335 (Analog G-force sensor): | Accelerometer Pin | Connect to | |-------------------|----------------------------| | VCC | +5V (and Arduino 5V) | | GND | GND (and Arduino GND) | | Xout | Arduino A0 | | Yout | Arduino A1 | | Zout | Arduino A2 | Next level: Route G-Force's video output over your

Connections for I2C digital accelerometer (e.g., MPU6050): | Accelerometer Pin | Connect to | |-------------------|----------------------------| | VCC | +3.3V or +5V | | GND | GND | | SDA | Arduino A4 (SDA) | | SCL | Arduino A5 (SCL) |

Note for G-force measurement: The ADXL335 outputs analog voltage (0-3.3V) proportional to G-force (±3.6g). The MPU6050 outputs digital G-force values via I2C.

| Parameter | Value | Description | | :--- | :--- | :--- | | P00.00 | 1 | Start/stop via external terminals | | P00.01 | 1 | Frequency reference via analog input AVI | | P01.03 | 2.2 | Motor rated power (kW) | | P01.04 | 380 | Motor rated voltage | | P01.05 | 9.5 | Motor rated current (FLA) | | P02.01 | 2 | Acceleration time (seconds) | | P02.02 | 2 | Deceleration time | | P05.00 | 2 | FOR terminal = Run forward |

Power Tip: Export this table as a CSV from QElectroTech and attach it as a PDF to your project folder.