Wearable Light Controller Wireless Sync
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Solution Overview
Problem
Existing technologies lack the capability to remotely control wearable light units via Internet protocols, limiting their synchronization with environment and interactive scenarios, and are not designed to accommodate low-power, lightweight lighting elements worn on the body.
Innovation Solution
A wireless lighting system comprising wearable light units with a central control unit that wirelessly communicates with each light unit, using a communication module, memory chip, and software to interpret commands and control lighting elements, allowing for remote control via DMX, SMPTE, or human input, and featuring a rugged connector for easy installation and configuration.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If conventional lighting control systems are used, then lighting control capability is achieved, but the system cannot be worn on the body and restricts movement
Solution Approach 1:
The control system is divided into two separate components: a wearable control unit that can be attached to clothing and a stationary base unit. The wearable unit contains only the essential control interface and communication module, while the base unit houses the power supply and processing electronics. This segmentation allows the wearable portion to be lightweight and non-restrictive while maintaining full control functionality through wireless communication.
Solution Approach 2:
A wireless communication intermediary (radio frequency transmitter/receiver) is introduced between the wearable control unit and the lighting system. This intermediary enables remote control without physical connection, allowing the user to control lighting effects while moving freely without cables or mechanical linkages that would restrict movement.
2Ease of operation
If wearable light units are made lightweight and flexible, then comfort and movement freedom are improved, but durability during intense movements deteriorates
Solution Approach 1:
The control unit is enclosed in a flexible, thin-walled housing that can bend and move with the wearer's body. This flexible shell protects the internal electronics from mechanical stress and impact while allowing the device to conform to the body's movements. The housing material is selected to provide adequate protection against sweat, moisture, and physical impact during intense activities.
Solution Approach 2:
The wearable control unit is designed with shock-absorbing elements and protective framing that anticipate and cushion against impacts during intense movements. The mounting mechanism includes damping features that reduce the transmission of shocks to the electronics, ensuring durability without adding significant weight or rigidity.
3Adaptability or versatility
If remote control capability is added to wearable light units, then synchronization with environment and music is achieved, but device complexity increases
Solution Approach 1:
The wearable control unit is designed as a universal controller that can interface with multiple types of lighting elements (LEDs, EL wires, fluorescent tubes) and multiple input sources (music audio signals, DMX protocols, manual controls). The control system uses standardized communication protocols and a unified user interface that works across different lighting configurations, reducing the need for specialized control mechanisms for each lighting type or input source.
Data Source
AI summary
A system for controlling a plurality of wearable wireless light-bearing units is disclosed. The light-bearing units may comprise lighting elements coupled to garments such as those used in the performing arts and entertainment. The system comprises a control unit wirelessly communicating with light-bearing units. The light-bearing units comprise a control box coupled to a plurality of lights. Operators can control one or more of the light-bearing units in synchrony with each other and with other audio-visual elements using standard protocols. The device also provides a library of preprogrammed effects and can perform self-diagnostic functions.