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The Quadrino Nano Flight Controller with GPS!

The latest Quadrino is 60% smaller yet is a total upgrade of the CPU, sensors, expansion ports and it now comes standard with on-board 50Hz GPS! All this mounted with anti-vibration rubber inside a beautifully designed case for protection.

Available now at the Lynxmotion web site.

Robotshop + Lynxmotion + FlyingEinstein Team Up

We are all very excited to finally tell you that Robotshop & Lynxmotion and Flying Einstein have teamed up to bring you the newest generation of Quadrino - The Quadrino Nano. Although this puppy is small, it packs more power and features than any Quadrino before it!

Read the full press release on PRWeb.

This has been a joint development with the Robotshop and their new Lynxmotion UAV division headed up by none other than Eric Nantel (previously of Dialfonzo-Copter).

"I've known both Lynxmotion and Robotshop from their roots because of my enthusiasm for robotics. Suffice to say I am very excited to work with them and the last few months have been a great experience in designing the Quadrino Nano together. There is much more to come!"

- Colin MacKenzie, CEO FlyingEinstein, LLC

  • ATmega 2560 (256Kb flash @ 16MHz) Processor
  • Compact, six layer PCB design with vibration dampening mounts
  • Invensense MPU9150 sensor chip which includes Gyroscope, Accelerometer & Magnetometer
  • MS5611 Barometer with foam cover
  • Latest Venus838FLPx 50Hz GPS chipset with external antenna (SMA connector)
  • NEMA serial output for OSD (On-screen display)
  • 8 Motor speed controller outputs, 8 Radio inputs and Spektrum port, 5 servo outputs.
  • Two free serial ports (use for SBUS and/or Bluetooth or 3DR radio links), 3x I2C ports
  • 0.96” OLED port on-board

FP Quadrino Quick-Start Guide

See the full Quick Start Guide for step-by-step instructions. The blue boxes below are hyper-linked to the tutorials.

Quadrino-Nano-Damper-AnimationQuadrino-Nano-Rotation-Animation

RC PWM and PPM

RC transmitters and receiver outputs are 1 of two main protocols. A specialized version of Pulse Width Modulation (PWM), or a multiplexed variant of it that reduces the seperate wire per channel down to a single wire for up to 9 channels. There are some other manufacturer specific protocols such as Spectrum Serial as well, but I wont cover that here. So let's begin with the first one.

Pulse Width Modulation (RC Style)

In this mode each RC channel has it's own wire. If we want 9 channels we must wire 9 signal wires, plus the power and ground. The value of each channel is represented as a 1 millisecond (ms) to 2ms "ON" signal and this signal repeats (or updates) every 20 milliseconds. It goes high (5v) for the 1-2ms, then it falls to Low (0v). The length of time it is high is the value for that channel. We see this in the GUI directly as 1000-2000, so we are seeing the raw ON time in microseconds.

Pulse Position Modulation (PPM)

In the RC world we call it PPM, you may also know it as Time Division Multiplexing (TDM). In PPM, the same signaling is used but each channel is sent successively, then a delay, then it loops back to channel 1. So typically channel 1 is sent, then channel 2, ch3, ch4, AUX1, AUX2,AUX3,AUX4 then a long pause, then it loops back around to ch1.

In normal RC PWM there are 50 updates sent per second (50Hz). Do the math, that means each update is spaced 20 milliseconds apart (1000ms/50Hz). So if each channel takes up to 2ms max, then we can do 10 channels within that 20 milliseconds before which we need to loop back to channel1. So we don’t even have a downside to multiplexing all the channels down to 1 wire and yet we have less wiring, and in our case 2 extra AUX channels! If you can do PPM, it's better!

Final thing, above I said we can send 10 channels, but it’s really 9. We need to put a space (blank delay) in there somewhere so the receiving side knows where channel 1 begins. So the receiving side waits for the space, then starts sampling channel1, ch2, ch3, etc.

 So why don’t we always use PPM? Only because many radios don’t support PPM out of the box. It’s just been a legacy thing I think. If you don’t have a PPM TX/RX you can use a little device that converts between regular RC PWM and PPM. The Quadrino/MultiWii supports PPM input. Just define the appropriate option SERIAL_SUM_PPM in config.h of the firmware and wire the PPM signal into the Throttle channel. The rest of the RX inputs like roll, pitch, and yaw are now free for other things.

Tutorials

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  • Start your adventure here! This diagram provides the step-by-step process from receiving your Quadrino to your first flight.
  • The MultiWii Config GUI is where you can do your final flight controller configuration and see the sensors react in real-time. The Firmware Config Tool is the easiest way to get the MultiWii Config GUI. It automatically downloads the correct version matching your Quadrino's firmware
  • Before attempting to fly your multi-rotor copter for the first time you should ensure you have a calibrated ACC sensor. The calibration process is simple and takes only a few seconds.
  • The magnetometer is a digital compass and is used in the MAG and HEADFREE flight features. A properly calibrated MAG will ensure these features work properly. The MAG cannot be calibrated at the factory because the earth magnetic lines vary depending on where you live
  • MultiWii Flight Controllers are capable of many flight modes such as Acrobatic, Auto-level, Altitude Hold and Head Free. By default only Acrobatic mode is activated so unless you are an advanced flyer you will want to start off with a flight mode that is easier
  • Icons are used on the PCB to indicate many features and/or pin signal type or polarity for wiring. These icons make wiring in the field simple even without a manual. Learn these symbols and you will be able to wire a Quadrino in the field
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