Mobile Laser Denial Platform for Fast Small-Target Tracking
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Solution Overview
Problem
Existing protective equipment struggles with slow response speed and inefficiency in identifying and interfering with small threat targets, particularly due to inconvenient operation, limiting the effectiveness of threat denial.
Innovation Solution
A mobile laser denial defense system comprising a mobile base vehicle, pan/tilt head, camera, image processing device, laser, cooling system, control device, and automatic cruise and obstacle avoidance system, equipped with omnidirectional movement and advanced sensors, enabling real-time target identification, flexible deployment, and efficient laser interference.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If traditional protective equipment is used to detect and interfere with threat targets, then large threat targets can be identified, but the response speed is slow and operation is inconvenient for small threat targets
Solution Approach 1:
The system enables automatic target detection, tracking, and laser interference without manual operation. The control device automatically processes images from the camera, identifies threat targets, controls the pan-tilt head to track targets, and triggers laser interference, eliminating the need for manual operation while achieving fast response to small threat targets
Solution Approach 2:
The patent replaces traditional mechanical protective equipment with an automated optical-laser system. The camera captures images, the control device processes them electronically, and the laser delivers interference automatically, substituting manual mechanical operations with automated optical and electronic systems to achieve both fast response and ease of operation
2Measurement precision
If radar detection is used to identify threat targets, then large targets can be detected, but small threat targets have slow response speed
Solution Approach 1:
The patent replaces radar detection with a camera-based optical detection system. The camera captures high-resolution images of threat targets, the control device processes these images to identify small targets with high precision, and the system responds rapidly by controlling the pan-tilt head and laser, achieving both precise detection of small targets and fast response speed
Solution Approach 2:
The system uses real-time image feedback from the camera to continuously track and identify threat targets. The control device processes incoming image data, updates target position and identification, and adjusts the pan-tilt head and laser accordingly, creating a closed-loop feedback system that maintains high precision and fast response for small threat targets
3Power
If high power laser is used for effective target denial, then interference effectiveness is improved, but heat generation increases requiring advanced cooling
Solution Approach 1:
The patent introduces a cooling system as an intermediary between the high-power laser and its environment. The cooling system absorbs and dissipates heat generated by the high-power laser, enabling the laser to operate at high power levels for effective target denial while maintaining acceptable operating temperatures through thermal management
Solution Approach 2:
The system manages the temperature parameter of the high-power laser through active cooling. By controlling the cooling system, the laser can operate at high power levels with effective heat dissipation, maintaining optimal operating temperature despite high heat generation, thus achieving both high power output and temperature control
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system provides efficient area monitoring, timely threat detection and response, adaptable to various terrains, with high precision lasers for effective denial or destruction of targets, ensuring long-term operation through advanced energy management and heat dissipation.
Implementation Method 1
the laser is configured to emit high-energy laser beams for denying or destroying threat targets
Implementation Method 2
the cooling system is connected to the laser by a coolant pipeline, and coolant in the coolant pipeline circulates between the laser and the cooling system
Implementation Method 3
coolant in the coolant pipeline circulates between the laser and the cooling system
Implementation Method 4
the camera is configured to perform real-time monitoring and target identification and transmit captured image data to the image processing device for image detection
Implementation Method 5
the laser is connected to a laser source by a telescopic optical fiber
Data Source
AI summary
A mobile laser denial defense system is provided. A camera is in communication connection with an image processing device and a control device, and is configured for real-time monitoring and target identification; a laser is fixed on a pan/tilt head and is connected to a laser host by a telescopic optical fiber, where the laser is in communication connection with the control device; a cooling system is connected to the laser and is configured to cool and dissipate heat from the laser; a control device is connected to a camera and the laser and configured to identify a target and control the laser to perform laser strikes, where the control device is also connected to the cooling system to monitor a temperature state of the cooling system in real time; and an automatic cruise and obstacle avoidance system is integrated in a mobile base.