flightmatrixbridge 1.2.0

FlightMatrixBridge is a Python library that facilitates seamless inter-process communication between the Flight Matrix software using shared memory. It handles frames, timestamps, and movement commands for efficient data sharing in robotics applications.

FlightMatrix Bridge • API for Flight Matrix Simulation Software

FlightMatrix Bridge is a Python-based API designed for controlling and fetching information, frames, and other data from Flight Matrix. This library enables efficient and real-time communication between various processes in a system, primarily designed for interfacing flight simulators, UAV systems, or other robotics platforms. It utilizes the multiprocessing.shared_memory module to share data such as frames, sensor data, and movement commands across multiple processes.

Download the software from Flight Matrix.

The project is structured around two primary files:

• bridge.py: Implements the core functionalities of shared memory management, handling frames, sensor data, movement commands, and logging.
• utilities.py: Provides utility functions to handle timestamps and convert them into human-readable formats.

Table of Contents

1. Introduction
2. Features
3. Installation
4. Usage
   1. Initializing the FlightMatrixBridge
   2. Units
   3. Axis System
   4. Logging Functions
   5. Flight Matrix API
      • Getting Frame Data
      • Fetching Sensor Data
      • Sending Movement Commands
   6. Resolution & Noise Configuration
   7. Timestamp Utilities
5. Detailed Functionality
   • Initialization
   • Shared Memory Management
   • Frame Handling
   • Sensor Data Handling
   • Movement Command Management
   • Logging
   • Noise Application
6. Examples
   1. Example 1: Fetching Frames
   2. Example 2: Sending Movement Commands
   3. Example 3: Fetching Sensor Data
   4. Example 4: Drone Controller
7. Documentation
   1. Class: FlightMatrixBridge
      • Attributes
      • Methods
   2. Utilities
      1. timestamp2string
      2. timestamp2datetime
      3. Class: DroneController -Attributes -Methods
8. Credits

Introduction

The FlightMatrixBridge system is designed to bridge multiple processes that need to access shared memory for real-time communication. The typical use cases include flight simulators, robotics platforms, autonomous vehicles, and any application where sharing large datasets like frames or sensor readings between processes is essential.

This package provides:

• An interface to retrieve frames and sensor data from shared memory.
• The ability to send movement commands to be processed by another service.
• Real-time noise application to sensor data.
• Utilities to handle timestamps.

Features

• Frame Management: Retrieve left/right frames, z-depth maps, and segmentation frames in real-time.
• Sensor Data Access: Retrieve real-time sensor data such as location, orientation, velocity, acceleration, magnetometer readings, and more.
• Movement Command Handling: Send movement commands (position and orientation) for external systems to process.
• Noise Simulation: Add configurable levels of noise to sensor data for testing robustness.
• Flexible Resolution Handling: Easily set and adjust resolution for frames.
• Timestamp Management: Convert timestamps into human-readable formats and handle system-wide timing data.

Installation

Download the software from Flight Matrix.

To install the FlightMatrixBridge (API), simply use pip:

pip install flightmatrixbridge

Make sure your system has Python 3.8+ and supports the multiprocessing.shared_memory module.

Usage

Initializing the FlightMatrixBridge

To initialize and start using the FlightMatrixBridge, create an instance of the FlightMatrixBridge class and specify the resolution of the frames you want to handle:

from flightmatrix.bridge import FlightMatrixBridge

bridge = FlightMatrixBridge(resolution=(1226, 370), noise_level=0.01, apply_noise=False)  # Set frame resolution (width, height), noise level, and noise application

Units

The system uses the following units for sensor data:

• Length: centimeters (cm)
• Angular values: degrees (°)
• Angular velocity/ gyroscope readings: degrees per second (°/s)
• Acceleration/ accelerometer readings: centimeters per second squared (cm/s²)
• Magnetometer readings: unit vector
• LiDAR data: centimeters (cm)
• Collision detection: centimeters (cm)
• Timestamp: milliseconds (ms)

Axis System

The system uses the following axis system:

• Y-axis: Forward
• -Y-axis: Backward
• -X-axis: Left
• X-axis: Right
• -Z-axis: Bottom
• Z-axis: Top

Rotation values are in degrees and are labled roll, pitch, and yaw.

• X-axis: Roll
• Y-axis: Pitch
• Z-axis: Yaw

The API and the software system follows this axis system unless otherwise specified.

Logging Functions

You can configure logging based on your needs. The logging system provides flexibility to output logs either to the console or a file, and supports different log levels (DEBUG, INFO, WARNING, ERROR, SUCCESS).

# Set log level to 'DEBUG'
bridge.set_log_level('DEBUG')

# Enable logging to file
bridge.set_write_to_file(True)

Flight Matrix API

The core functionalities include retrieving frames, fetching sensor data, and sending movement commands.

Getting Frame Data

You can retrieve frames from both the left and right cameras. You also have access to depth and segmentation data.

# Retrieve right camera frame
right_frame = bridge.get_right_frame()

# Retrieve left camera frame
left_frame = bridge.get_left_frame()

# Retrieve z-depth for the right camera
right_zdepth = bridge.get_right_zdepth()

# Retrieve segmentation frame for the left camera
left_seg = bridge.get_left_seg()

Fetching Sensor Data

The bridge allows real-time access to sensor data from the shared memory block. This data includes location, orientation, velocity, acceleration, and more.

sensor_data = bridge.get_sensor_data()
print(sensor_data)

Sending Movement Commands

To send movement commands (position and orientation) to a system, use the send_movement_command method.

# Send movement command (x, y, z, roll, pitch, yaw)
bridge.send_movement_command(1.0, 2.0, 3.0, 0.1, 0.2, 0.3)

Resolution & Noise Configuration

You can adjust the frame resolution dynamically and control noise levels applied to sensor data.

# Set a new resolution for frames
bridge.set_resolution(1280, 720)

# Set noise level for sensor data
bridge.set_noise_level(0.05)

# Enable or disable noise application
bridge.set_apply_noise(True)

Timestamp Utilities

The utilities.py file provides functions to convert timestamps from milliseconds into human-readable formats and to datetime objects.

from flightmatrix.utilities import timestamp2string, timestamp2datetime

# Convert timestamp to string
timestamp_string = timestamp2string(1633029600000)
print(timestamp_string)  # Output: '2021-10-01 00:00:00:000'

# Convert timestamp to datetime object
timestamp_dt = timestamp2datetime(1633029600000)
print(timestamp_dt)  # Output: datetime object in UTC

Detailed Functionality

Initialization

Upon initialization, the FlightMatrixBridge class sets up shared memory blocks for frames, sensor data, and movement commands. It also configures the resolution and frame shapes.

Shared Memory Management

The shared memory blocks are initialized using multiprocessing.shared_memory.SharedMemory, providing fast, low-latency access to the data. Each memory block corresponds to specific data types like frames, sensor readings, or movement commands.

The memory block names and their associated data are defined in the memory_names dictionary within the FlightMatrixBridge class:

• right_frame: Stores the right camera frame.
• left_frame: Stores the left camera frame.
• right_zdepth: Z-depth map for the right camera.
• left_zdepth: Z-depth map for the left camera.
• right_seg: Segmentation data for the right camera.
• left_seg: Segmentation data for the left camera.
• sensor_data: Sensor data shared memory.
• movement_command: Memory block for sending movement commands.

Frame Handling

Frames can be retrieved from the shared memory using the _get_frame method. The frames are stored as NumPy arrays and can be either 1-channel (grayscale) or 3-channel (RGB).

Sensor Data Handling

The get_sensor_data method retrieves sensor readings from the shared memory. The sensor data includes:

• Location (x, y, z) in centimeters
• Orientation (roll, pitch, yaw) in degrees
• gyroscope (x, y, z) in degrees per second
• accelerometer (x, y, z) in cm/s^2
• Magnetometer readings (x, y, z) in unit vector
• LiDAR data (LiDARForward, LiDARBackward, LiDARLeft, LiDARRight, LiDARBottom) or (Y, -Y, -X, X, -Z) in centimeters
• Collision detection status (True/False, LocationX, LocationY, LocationZ) in centimeters
• Timestamp in milliseconds

Movement Command Management

Movement commands are written to shared memory using send_movement_command. These commands include the position and orientation of the system and are stored as six floating-point values.

Logging

The logging system is highly configurable and provides essential feedback about the system's operations. You can adjust the verbosity of the logs and decide whether to write them to a file.

Noise Application

To simulate real-world noise in sensor data, noise can be added using Gaussian distribution. This feature is optional and can be enabled/disabled dynamically.

Examples

Example 1: Fetching Frames

import cv2
from flightmatrix.bridge import FlightMatrixBridge
from flightmatrix.utilities import timestamp2string

# Initialize the FlightMatrixBridge
bridge = FlightMatrixBridge()

# Start a loop to continuously fetch and display frames
while True:
    # Fetch the left and right frames
    left_frame_data = bridge.get_left_frame()
    right_frame_data = bridge.get_right_frame()

    # Fetch the z-depth frames for both left and right
    left_zdepth_data = bridge.get_left_zdepth()
    right_zdepth_data = bridge.get_right_zdepth()

    # Retrieve the actual frame arrays and timestamps
    left_frame = left_frame_data['frame']
    right_frame = right_frame_data['frame']

    left_zdepth = left_zdepth_data['frame']
    right_zdepth = right_zdepth_data['frame']
    
    left_timestamp = left_frame_data['timestamp']
    right_timestamp = right_frame_data['timestamp']

    # Convert timestamps to human-readable format
    left_timestamp = timestamp2string(left_timestamp)
    right_timestamp = timestamp2string(right_timestamp)

    # Display the frames in OpenCV windows
    cv2.imshow("Left Frame", left_frame)
    cv2.imshow("Right Frame", right_frame)

    cv2.imshow("Left Z-Depth", left_zdepth_data)
    cv2.imshow("Right Z-Depth", right_zdepth_data)

    # Print timestamps for each frame (optional)
    print(f"Left Frame Timestamp: {left_timestamp}")
    print(f"Right Frame Timestamp: {right_timestamp}")

    # Break the loop when 'q' is pressed
    if cv2.waitKey(1) & 0xFF == ord('q'):
        break

# Release OpenCV windows
cv2.destroyAllWindows()

Example 2: Sending Movement Commands

from flightmatrix.bridge import FlightMatrixBridge

# Initialize the bridge
bridge = FlightMatrixBridge()

# Send a movement command (x, y, z, roll, pitch, yaw)
bridge.send_movement_command(0.5, 1.0, 0.8, 0.0, 0.1, 0.2)

In order to reset/stop the movement, you can send a command with all zeros:

bridge.send_movement_command(0.0, 0.0, 0.0, 0.0, 0.0, 0.0)

Example 3: Fetching Sensor Data

from flightmatrix.bridge import FlightMatrixBridge

# Initialize the bridge
bridge = FlightMatrixBridge(resolution=(1226, 370), noise_level=0.01, apply_noise=False)  # Set frame resolution (width, height), noise level, and noise application

# Fetch sensor data
sensor_data = bridge.get_sensor_data()

# Check for errors
if sensor_data.get('error'):
    print("Error fetching sensor data:", sensor_data['error'])
else:
    # Extract sensor readings
    location = sensor_data['location']
    orientation = sensor_data['orientation']
    gyroscope = sensor_data['gyroscope']
    accelerometer = sensor_data['accelerometer']
    magnetometer = sensor_data['magnetometer']
    lidar = sensor_data['lidar']
    collision = sensor_data['collision']
    timestamp = sensor_data['timestamp']

    # Display sensor data in a readable format
    print("Sensor Data:")
    print("-----------------------")
    print(f"Timestamp: {timestamp} ms")
    print(f"Location (cm): X={location[0]:.2f}, Y={location[1]:.2f}, Z={location[2]:.2f}")
    print(f"Orientation (degrees): Roll={orientation[0]:.2f}, Pitch={orientation[1]:.2f}, Yaw={orientation[2]:.2f}")
    print(f"Gyroscope (deg/s): X={gyroscope[0]:.2f}, Y={gyroscope[1]:.2f}, Z={gyroscope[2]:.2f}")
    print(f"Accelerometer (cm/s²): X={accelerometer[0]:.2f}, Y={accelerometer[1]:.2f}, Z={accelerometer[2]:.2f}")
    print(f"Magnetometer (unit vector): X={magnetometer[0]:.2f}, Y={magnetometer[1]:.2f}, Z={magnetometer[2]:.2f}")
    print(f"LiDAR Data (cm): Forward={lidar[0]:.2f}, Backward={lidar[1]:.2f}, Left={lidar[2]:.2f}, Right={lidar[3]:.2f}, Bottom={lidar[4]:.2f}")
    print(f"Collision Detection: Status={collision[0]}, Location (cm): X={collision[1]:.2f}, Y={collision[2]:.2f}, Z={collision[3]:.2f}")

Example 4: Drone Controller

from flightmatrix.bridge import FlightMatrixBridge
from flightmatrix.utilities import DroneController

# Example Usage
bridge = FlightMatrixBridge()
drone = DroneController(bridge)

# Move forward by 1.0 (positive y-axis)
drone.move_forward(1.0)

# Ascend by 0.5 (positive z-axis)
drone.ascend(0.5)

# Rotate in yaw by 0.3
drone.rotate_yaw(0.3)

# Stop only rotation (keep movement intact)
drone.stop_rotation()

# Stop all movement and rotation
drone.stop()

# Hover in place and rotate at 0.5 speed for 5 seconds
drone.hover_and_rotate(0.5, 5)
  

Documentation

Class: FlightMatrixBridge

This class interfaces with the Flight Matrix system using shared memory for inter-process communication. It manages frames, timestamps, and movement commands, enabling seamless data sharing between processes.

---

Attributes:

• width (int): The width of the frame, initialized by the resolution provided.

• height (int): The height of the frame, initialized by the resolution provided.

• frame_shape (tuple): Tuple representing the shape of the frame as (height, width).

• frame_shape_3ch (tuple): Tuple representing the shape of the frame with 3 channels as (height, width, 3).

• noise_level (float): Specifies the level of noise to be applied. Defaults to 0.01.

• apply_noise (bool): Boolean flag that determines whether noise should be applied. Defaults to False.

• memory_names (dict): Dictionary mapping keys to shared memory block names. Used for storing frame, depth, segmentation, and movement command data.

• log (Logger): A logger instance used for logging events and debugging messages.

• shm (dict): Dictionary storing the shared memory objects for frame data.

• shm_timestamps (dict): Dictionary storing the shared memory objects for timestamps.

• num_floats (int): Number of float values stored in shared memory for movement commands. Defaults to 6. Do not edit this value.

---

Methods:

---

__init__(self, resolution=(1226, 370), noise_level=0.01, apply_noise=False)

Description:
Initializes the FlightMatrixBridge class by setting up shared memory, logging, and configuring noise settings.

Args:

• resolution (tuple, optional): A tuple specifying the frame's width and height. Defaults to (1226, 370).
• noise_level (float, optional): Specifies the level of noise to be applied to sensor data. Defaults to 0.01.
• apply_noise (bool, optional): Boolean flag that determines whether noise should be applied to sensor data. Defaults to False.

Example:

bridge = FlightMatrixBridge(resolution=(800, 600), noise_level=0.05, apply_noise=True)

---

set_log_level(self, log_level='INFO')

Description:
Sets the logging level for the logger instance to control the verbosity of log output.

Args:

• log_level (str): Desired log level ('DEBUG', 'INFO', 'WARNING', 'ERROR'). Default is 'INFO'.

Returns:
None.

Example:

bridge.set_log_level('DEBUG')

---

set_write_to_file(self, write_to_file)

Description:
Sets whether the logging should be written to a file or not.

Args:

• write_to_file (bool): If True, log messages will be written to a file; otherwise, they won't.

Returns:
None.

Example:

bridge.set_write_to_file(True)

---

_initialize_shared_memory(self)

Description:
Initializes shared memory blocks for frames and timestamps based on the keys stored in memory_names. If the shared memory block for a specific key is not available, a warning will be logged.

Raises:

• FileNotFoundError: If the shared memory block for a key does not exist.

Returns:
None.

Example:

bridge._initialize_shared_memory()

---

_initialize_movement_command_memory(self)

Description:
Sets up shared memory for movement commands (x, y, z, roll, pitch, yaw) and an availability flag. If the shared memory block exists, it will attach to it; otherwise, it will create a new block.

Raises:

• FileExistsError: If the shared memory block already exists when trying to create it.

Returns:
None.

Example:

bridge._initialize_movement_command_memory()

---

_get_frame(self, key, channels=3)

Description:
Retrieves a frame from shared memory. Handles both 3-channel and single-channel frame retrieval.

Args:

• key (str): Key identifying the shared memory segment.
• channels (int, optional): Number of channels in the frame, default is 3.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved frame or None if an error occurred.
  • 'timestamp' (any or None): The timestamp associated with the frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Raises:

• Warning: If shared memory is not available or if there is a resolution mismatch.

Example:

frame_data = bridge._get_frame('right_frame', channels=3)

---

_get_timestamp(self, key)

Description:
Retrieves the timestamp associated with the frame stored in shared memory.

Args:

• key (str): Key identifying the shared memory segment for the timestamp.

Returns:

• int or None: The timestamp as an integer, or None if not available.

Example:

timestamp = bridge._get_timestamp('right_frame')

---

add_noise(self, data)

Description:
Adds Gaussian noise to the given data based on the configured noise level.

Args:

• data (np.ndarray): The data (typically a frame) to which noise will be added.

Returns:

• np.ndarray: The noisy data.

Example:

noisy_frame = bridge.add_noise(frame_data)

---

get_sensor_data(self)

Description:
Retrieves sensor data from shared memory and returns it as a dictionary.
If the sensor data is not available in shared memory, a warning is logged,
and a dictionary with all sensor fields set to None and an error message is returned.
The sensor data includes:

• location: 3 floats representing the location coordinates.
• orientation: 3 floats representing the orientation.
• gyroscope: 3 floats representing the gyroscope readings.
• accelerometer: 3 floats representing the accelerometer readings.
• magnetometer: 3 floats representing the magnetometer readings.
• lidar: 5 floats representing the lidar readings.
• collision: 4 floats representing the collision data.
• timestamp: The timestamp of the sensor data.

If noise application is enabled, noise is added to the gyroscope, accelerometer,
magnetometer, and lidar data.

Returns:

• dict: A dictionary containing the sensor data or an error message if the data is not available.

Example:

sensor_data = bridge.get_sensor_data()

---

send_movement_command(self, x, y, z, roll, pitch, yaw)

Description:
Sends movement command values (x, y, z, roll, pitch, yaw) to the shared memory block.

Args:

• x (float): Movement in the X-axis.
• y (float): Movement in the Y-axis.
• z (float): Movement in the Z-axis.
• roll (float): Roll rotation.
• pitch (float): Pitch rotation.
• yaw (float): Yaw rotation.

Returns:
None.

Example:

bridge.send_movement_command(1.0, 0.5, -1.0, 0.2, 0.1, -0.3)

---

_write_movement_command(self, commands)

Description:
Writes the movement commands to shared memory.

Args:

• commands (list of float): List of movement command values ([x, y, z, roll, pitch, yaw]).

Returns:
None.

Example:

bridge._write_movement_command([1.0, 0.5, -1.0, 0.2, 0.1, -0.3])

---

set_resolution(self, width, height)

Description:
Sets the resolution of the frames by updating the width and height attributes and recalculating the frame shapes.

Args:

• width (int): Width of the frames.
• height (int): Height of the frames.

Returns:
None.

Example:

bridge.set_resolution(800, 600)

---

set_noise_level(self, noise_level)

Description:
Sets the noise level for the frames.

Args:

• noise_level (float): The level of noise to apply.

Returns:
None.

Example:

bridge.set_noise_level(0.05)

---

set_apply_noise(self, apply_noise)

Description:
Sets whether noise should be applied to frames.

Args:

• apply_noise (bool): Whether to apply noise (True or False).

Returns:
None.

Example:

bridge.set_apply_noise(True)

---

get_right_frame(self)

Description:
Retrieves the right frame from shared memory.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved right frame or None if an error occurred.
  • 'timestamp' (int or None): The timestamp associated with the right frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Example:

right_frame_data = bridge.get_right_frame()

---

get_left_frame(self)

Description:
Retrieves the left frame from shared memory.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved left frame or None if an error occurred.
  • 'timestamp' (int or None): The timestamp associated with the left frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Example:

left_frame_data = bridge.get_left_frame()

---

get_right_zdepth(self)

Description:
Retrieves the right depth frame from shared memory.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved right depth frame or None if an error occurred.
  • 'timestamp' (int or None): The timestamp associated with the right depth frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Example:

right_zdepth_data = bridge.get_right_zdepth()

---

get_left_zdepth(self)

Description:
Retrieves the left depth frame from shared memory.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved left depth frame or None if an error occurred.
  • 'timestamp' (int or None): The timestamp associated with the left depth frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Example:

left_zdepth_data = bridge.get_left_zdepth()

---

get_right_seg(self)

Description:
Retrieves the right segmentation frame from shared memory.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved right segmentation frame or None if an error occurred.
  • 'timestamp' (int or None): The timestamp associated with the right segmentation frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Example:

right_segmentation_data = bridge.get_right_seg()

---

get_left_seg(self)

Description:
Retrieves the left segmentation frame from shared memory.

Returns:

• dict: A dictionary with:
  • 'frame' (np.ndarray or None): The retrieved left segmentation frame or None if an error occurred.
  • 'timestamp' (int or None): The timestamp associated with the left segmentation frame or None if an error occurred.
  • 'error' (str or None): Error message, if any.

Example:

left_segmentation_data = bridge.get_left_seg()

---

2. Utilities

1. timestamp2string

Description:
Converts a timestamp in milliseconds to a human-readable string format.

Args:

• timestamp (int): The timestamp in milliseconds.

Returns:

• str: Formatted timestamp as a string in the format 'YYYY-MM-DD HH:MM:SS:fff'.

Example:

formatted_time = timestamp2string(1609459200000)
# Output: '2021-01-01 00:00:00:000'

---

2. timestamp2datetime

Description:
Converts a timestamp in milliseconds to a datetime object in UTC.

Args:

• timestamp (int): The timestamp in milliseconds.

Returns:

• datetime: The corresponding datetime object in UTC.

Example:

datetime_obj = timestamp2datetime(1609459200000)
# Output: datetime(2021, 1, 1, 0, 0, 0, tzinfo=timezone.utc)

---

Class: DroneController

This class provides an interface to control the drone's movements by sending commands to the flight matrix system. It allows the drone to move along the x, y, and z axes and rotate around the roll, pitch, and yaw axes.

---

Attributes:

• bridge (FlightMatrixBridge): The bridge object used to communicate with the drone.
• current_x (float): Current x-coordinate position, initialized to 0.0.
• current_y (float): Current y-coordinate position, initialized to 0.0.
• current_z (float): Current z-coordinate position, initialized to 0.0.
• current_roll (float): Current roll angle, initialized to 0.0.
• current_pitch (float): Current pitch angle, initialized to 0.0.
• current_yaw (float): Current yaw angle, initialized to 0.0.

---

Methods:

__init__(self, bridge_object: FlightMatrixBridge)

Description:
Initializes the DroneController class by associating it with a FlightMatrixBridge object and setting initial drone movement parameters to zero.

Args:

• bridge_object (FlightMatrixBridge): An instance of FlightMatrixBridge used to communicate with the flight matrix system.

---

_send_command(self)

Description:
Sends the current positional and rotational state (x, y, z, roll, pitch, yaw) as movement commands to the drone.

Returns:
None

---

move_x(self, value)

Description:
Moves the drone to a specified x-coordinate.

Args:

• value (float): The x-coordinate to move to.

Returns:
None

---

move_y(self, value)

Description:
Moves the drone to a specified y-coordinate (left or right).

Args:

• value (float): The y-coordinate to move to.

Returns:
None

---

move_z(self, value)

Description:
Moves the drone to a specified z-coordinate (up or down).

Args:

• value (float): The z-coordinate to move to.

Returns:
None

---

rotate_roll(self, value)

Description:
Rotates the drone to a specified roll angle.

Args:

• value (float): The roll angle to rotate to.

Returns:
None

---

rotate_pitch(self, value)

Description:
Rotates the drone to a specified pitch angle.

Args:

• value (float): The pitch angle to rotate to.

Returns:
None

---

rotate_yaw(self, value)

Description:
Rotates the drone to a specified yaw angle.

Args:

• value (float): The yaw angle to rotate to, in degrees.

Returns:
None

---

ascend(self, value)

Description:
Ascends the drone by a specified value, increasing the current altitude.

Args:

• value (float): The amount to increase the altitude.

Returns:
None

---

descend(self, value)

Description:
Descends the drone by a specified value, decreasing the current altitude.

Args:

• value (float): The amount to decrease the altitude.

Returns:
None

---

move_forward(self, value)

Description:
Moves the drone forward by a specified value (positive y-axis).

Args:

• value (float): The amount to move forward.

Returns:
None

---

move_backward(self, value)

Description:
Moves the drone backward by a specified value (negative y-axis).

Args:

• value (float): The amount to move backward.

Returns:
None

---

stop_movement(self)

Description:
Stops all drone movements on the x, y, and z axes.

Returns:
None

Credits

This project was developed and maintained by Ranit Bhowmick, a Robotics and Automation engineer with a passion for building innovative solutions in AI, game development, and full-stack projects. Specializing in advanced Python programming, machine learning, and robotics, I’m always open to collaboration and eager to explore new challenges.

I'd like to express my gratitude to the unreal engine community for their support and feedback. I'm always open to suggestions and contributions to improve this project further.