Abstract: The hexagonal heatsink system introduces a novel approach to efficient electronic device cooling. It includes heatsink devices, each with an electronic circuit board and heatsink elements for heat transfer, all attached via a hexagonal base plate with fins for enhanced cooling. Temperature sensors are placed near processors strategically to monitor temperature values. The system employs a feedback circuit that collects sensor data, calculates an effective temperature, and regulates a fan based on the comparison with a threshold temperature. It can control additional fan parameters, such as speed. This system offers an effective solution for maintaining optimal operating temperatures in electronic devices, particularly those with hexagonal base plates, improving overall device reliability and preventing overheating even in server racks.

Abstract: The present invention relates to a compact multi-channel optical transceiver system configured for high-speed, bidirectional optical communication in a surface-mountable form factor. The system comprises a compact optical transceiver module having a substrate embedded with a driver integrated circuit, a transimpedance amplifier, a plurality of transmitter engines, a first plurality of receiver engines, and a microcontroller. High-speed electrical connectivity is achieved through embedded high-speed lanes and wire bonds. A Mechanical Optical Interface (MOI) is positioned above the substrate for precise optical alignment. A ferrule holds a plurality of optical fibers in alignment with the MOI, and a clip secures the ferrule to maintain stable optical coupling. The first end of the optical fibers interfaces with the MOI, while the second end connects to an external optical connector, enabling seamless integration with external optical systems.

Abstract: The hexagonal heatsink system introduces a novel approach to efficient electronic device cooling. It includes heatsink devices, each with an electronic circuit board and heatsink elements for heat transfer, all attached via a hexagonal base plate with fins for enhanced cooling. Temperature sensors are placed near processors strategically to monitor temperature values. The system employs a feedback circuit that collects sensor data, calculates an effective temperature, and regulates a fan based on the comparison with a threshold temperature. It can control additional fan parameters, such as speed. This system offers an effective solution for maintaining optimal operating temperatures in electronic devices, particularly those with hexagonal base plates, improving overall device reliability and preventing overheating even in server racks.