Magnetic Latch Connector for Quick Plasma Array Replacement
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Solution Overview
Problem
Existing non-thermal plasma systems are cumbersome, require large gas sources, have limited contact points, and struggle with uniform treatment of larger areas, posing challenges for efficient and controlled application in medical and cosmetic therapies.
Innovation Solution
A magnetic latch connector assembly facilitates a quick-connect system for non-thermal plasma arrays, enabling efficient attachment to a power supply and controller, ensuring proper array orientation, and allowing for controlled plasma emission parameters through an identification chip for authorized use and treatment protocols.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If a magnetic latch connector assembly is implemented, then array replacement efficiency is improved, but device complexity increases
Solution Approach 1:
The connector assembly is divided into separate functional components: a connector housing with magnetic latch mechanism, an array with identification chip, and a controller. This segmentation allows independent optimization of each component while enabling quick replacement of the array module without affecting the connector or controller.
Solution Approach 2:
The magnetic latch mechanism replaces traditional mechanical fastening systems (screws, clips, or latches) with a magnetic field-based attachment system. The magnet in the connector housing provides automatic attraction and securing of the array, enabling tool-free replacement and improving operational efficiency.
2Reliability
If identification chip and magnetic latch are integrated, then authorized use control is improved, but manufacturing complexity increases
Solution Approach 1:
The identification chip is integrated into the array component, merging the authentication function with the plasma emission function. This single integrated component is then attached to the magnetic latch connector, combining multiple functions (identification, authentication, and plasma generation) into a unified replaceable module.
Solution Approach 2:
The identification chip autonomously provides authentication functionality without requiring external verification mechanisms. The chip contains stored identification data that automatically verifies authorized use when read by the controller, eliminating the need for manual verification or complex authentication hardware.
3Power
If non-thermal plasma systems use traditional gas sources, then plasma generation capability is maintained, but system portability deteriorates
Solution Approach 1:
The system extracts and eliminates the heavy gas tank component from the plasma generation system. By using a magnetic latch connector assembly that enables quick replacement of the array module, the system can operate without requiring large, cumbersome gas storage containers, thereby improving portability while maintaining plasma generation capability through the identifier chip verification system.
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
Enhances the efficiency and uniformity of non-thermal plasma treatment by allowing seamless array replacement, ensuring compliance with prescribed protocols, and facilitating controlled plasma emission for effective therapeutic outcomes.
Implementation Method 1
A magnetic latch connector assembly facilitates a quick-connect system for non-thermal plasma arrays
Data Source
AI summary
A connector is configured to electrically connect a plasma emitter array with an identification chip to a power supply controller, and to further mechanically support the emitter device supporting the array during use. Cooperating components of the connector and emitter device form a magnetic latch assembly: the connector includes one or more magnets flush with a top receiving surface of the connector, and one or more alignment pegs extending outward from the receiving surface; the emitter device includes a steel plate attached to a substrate, and one or more holes disposed through the plate and the substrate. The holes align with the alignment pegs and the magnets attract the plate and secure the emitter device against the top receiving surface. Electrical contacts of the connector establish electrical communication with the identification chip, providing power to the emitter device and enabling the controller to read data stored in the identification chip.