433/915MHZ 100MW A :
F450+4 PCS BLHELI 30A +4 pairs 1045 Propellers +4 PCS 2212 920KV motor
PIXHAWK PRO(white or black shell)+ 4G TF Card + Safety Button + Buzzer + PPM Encoder + I2C Expansion Board+ 3 Line(4Pin 1.25 ,6Pin 1.25 ,3Pin 2.5.4) + M9N GPS+ GPS Holder+ 3DR Power Module+ Shock Absorber+433/915MHZ 100MW Radio telemetry
433/915MHZ 500MW B:
F450+4 PCS BLHELI 30A +4 pairs 1045 Propellers +4 PCS 2212 920KV motor
PIXHAWK PRO(white or black shell)+ 4G TF Card + Safety Button + Buzzer + PPM Encoder + I2C Expansion Board+ RGB LED + OLED Screen+ 3 Line(4Pin 1.25 ,6Pin 1.25 ,3Pin 2.5.4) + M9N GPS+ GPS Holder+ 3DR Power Module+Shock Absorber+433/915MHZ 500MW Radio telemetry
433/915MHZ 1000MW C:
F450+4 PCS BLHELI 30A +4 pairs 1045 Propellers +4 PCS 2212 920KV motor
PIXHAWK PRO(white or black shell)+ 4G TF Card + Safety Button + Buzzer + PPM Encoder + I2C Expansion Board+ RGB LED + OLED Screen+ 3 Line(4Pin 1.25 ,6Pin 1.25 ,3Pin 2.5.4) + M9N GPS+ GPS Holder+ 3DR Power Module+Shock Absorber+433/915MHZ 1000MW Radio telemetry
M9N is a GPS module commonly used in unmanned aerial vehicles, with the following characteristics and applications:
High precision positioning: The M9N adopts advanced GNSS technology, supports multiple satellite navigation systems, and can provide high-precision position positioning information. For unmanned aerial vehicles, it can achieve accurate positioning and navigation.
Multi system support: The M9N supports multiple satellite navigation systems, including GPS, GLONASS, Galileo, BeiDou, etc. This allows drones to receive multiple satellite signals simultaneously, improving positioning accuracy and reliability.
Quick positioning: M9N has fast cold start and hot start times, which can quickly obtain satellite signals and perform positioning, making it crucial for the rapid takeoff and task execution of unmanned aerial vehicles.
Strong anti-interference ability: M9N has excellent anti-interference performance, which can work stably in complex electromagnetic environments and is not susceptible to interference from other electronic devices.
In drone applications, M9N can be used in the following aspects:
Positioning and Navigation: The M9N provides accurate position and speed information to help drones achieve precise navigation and flight control.
Waypoint navigation: By inputting pre-set waypoint information into M9N, unmanned aerial vehicles can automatically fly according to the route, achieving autonomous waypoint navigation tasks.
Multi aircraft collaboration: Multiple drones can use the M9N module for positioning and synchronization to achieve applications such as team collaborative flight and formation flight.
Return to return: The M9N can provide accurate return positioning information, enabling the drone to safely return to the takeoff point or preset return point.
M9N can search for more satellites outdoors with higher accuracy, faster search speed, and better stability.(The specific number of star searches is determined by the environment at that time.)
Introduction
This manual provides instructions on how to assemble your new drone frame and recommends compatible components such as motors, electronic speed controllers (ESCs), and propellers.
Package Contents
Carbon fiber drone frame (300/350/380/450mm arm span)
Landing gear
Mounting screws and accessories
Assembly Instructions
- Motor Mounting
Attach the motors to each corner of the drone frame using the mounting screws provided.
Ensure that the motor direction is correct: front-left, back-left, front-right, and back-right.
- Electronic Speed Controller (ESC) Mounting
Mount the ESCs near the motors, ensuring they are securely attached to the drone frame.
- Battery Mounting
Securely attach the battery to the bottom of the drone frame using the designated mounting points.
- Flight Controller Mounting
Mount the flight controller in the center of the drone frame, making sure it is level and secure.
- Landing Gear Installation
Install the landing gear onto the drone frame according to the manufacturer's instructions.
- Propeller Mounting
Attach the recommended propellers to the motors, following the proper direction: CW for front motors and CCW for rear motors.
Recommended Components List
Motors: 2212 (e.g., T-Motor, EMAX, or similar)
Electronic Speed Controllers (ESCs): 30A (e.g., Simonk firmware)
Propellers: 6/7/810-inch (e.g., HQProp, Gemfan, or similar)
Safety Precaution
Always wear protective goggles when working with drones and their components. Keep fingers and other body parts away from spinning propellers during assembly and operation.
Assembly Tips
Make sure all connections are secure and tight before testing the drone.
Balance the weight distribution by placing heavier components closer to the center of the drone.
Calibrate your ESCs and flight controller according to the respective manuals.
Flight Test
After completing the assembly, perform a series of tests to ensure everything works correctly:
Power up the drone without props to check for any issues.
Perform a bench test with props installed but no throttle applied to verify motor directions.
Gradually increase throttle while holding the drone down to confirm motor rotation and stability.
Once satisfied with the results, proceed to hover and fly the drone outdoors.
Remember to always follow local regulations and guidelines for drone flying.
Conclusion
Congratulations! You have successfully assembled your drone frame and equipped it with recommended components. Enjoy your aerial adventures responsibly and safely!
A.Features
A1: Use authentic electronic components to ensure high quality and enhance the current endurance ability of the ESC.
A2: Based on BLHeli firmware, optimized for high performance with great linearity and much quicker throttle response.
A3: Special designed for multirotors, and compatible with fixed-wing aircrafts and helicopters.
A4: Multiple protection features including Low-voltage cut-off protection / over-heat protection / throttle signal loss protection.
A5: Throttle range can be configured and is fully compatible with all receivers, providing smooth, linear and precise throttle response.
A6: All parameters can be programmed via using a transmitter, including default settings.
B. Productspecification
1045 Propellers
Radio telemetry can be used for wireless communication between pixhawk and computer or mobile phone.
This article explains how to connect the ESCs, motors and propellers to a autopilot. The Pixhawk is used as an example but other autopilots are connected in a similar way.
Connect the power (+), ground (-), and signal (s) wires for each ESC to the autopilot’s main output pins by motor number. Find your frame type below to determine the assigned order of the motors.
Pixhawk Outputpins (numbered). First 4 pins are colour-coded for connecting a Quadframe
Motor order diagrams
The diagrams below show motor order for each frame type. The numbers indicate which output pin from the autopilot shoould be connected to each motor/propeller. The propeller direction is shown in green (clockwise, CW) or blue (counter-clockwise, CCW)
Legend for motor-order diagrams
Quadcopte
Recognizing clockwise and counterclockwise propellers
The diagrams above show two types of propellers: clockwise (called pushers) and counterclockwise (called pullers). The most reliable to recognize the correct propeller type by its shape as shown below. The thicker edge is the leading edge which moves in the direction of rotation. The trailing edge is more radical scalloped and usually thinner.
How to install Motor?
