Processor Retainer for Server Module Protection
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Solution Overview
Problem
The force applied when plugging and unplugging connectors from processor modules in server racks can damage the processor module and/or the processor socket, leading to potential damage during installation and removal processes.
Innovation Solution
A processor retainer apparatus is introduced, comprising a load frame connected to the motherboard adjacent to the processor socket and a rotatable processor retainer that can be positioned in closed, opened, and installation positions, providing a secure retention mechanism for the processor module by exerting a controlled force to prevent bending or damage.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If connectors are plugged and unplugged from processor module communication connections, then communication connectivity is improved, but detrimental force is applied to the processor module causing potential damage
Solution Approach 1:
The processor retainer acts as an intermediary component between the processor module and the external environment. It absorbs and distributes the forces applied during connector plugging and unplugging operations, preventing these forces from being directly transmitted to the processor module and socket. The retainer's flexible material and structural design allow it to deform elastically under applied forces, thereby protecting the delicate processor module while still permitting necessary maintenance operations.
2Reliability
If a retention mechanism is added to protect the processor module, then reliability is improved, but device complexity increases
Solution Approach 1:
The processor retainer is constructed from a flexible material that forms a thin protective shell around the processor module. This flexible structure provides protection without requiring complex mechanical assemblies, multiple fasteners, or rigid components. The retainer can deform elastically to accommodate the processor module and absorb external forces, while maintaining a simple single-piece or minimal-component design that integrates easily with the existing processor socket architecture.
3Stability of the object's composition
If the processor retainer is securely locked to protect the module, then stability is improved, but ease of operation for installation and removal decreases
Solution Approach 1:
The processor retainer employs a dynamic locking mechanism that transitions between locked and unlocked states. The retainer can be easily released by applying a simple release force (such as pressing a release tab or moving a release lever), which causes the retainer to deform elastically and disengage from its locked position. Once released, the retainer can be quickly removed from the processor module. This dynamic design allows the retainer to provide strong retention during normal operation while enabling rapid installation and removal by end users without requiring tools or complex procedures.
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 processor retainer effectively secures the processor module to the motherboard, preventing damage from applied forces during connector removal or dust cover handling, ensuring the module's stability and integrity while allowing for easy installation and maintenance without compromising heat transfer paths.
Implementation Method 1
The processor retainer is positionable in a closed position, an opened position, and an installation position... locking the processor retainer such that the processor retainer urges the processor module towards the motherboard
Data Source
AI summary
An apparatus includes a motherboard with a processor socket, a load frame connected to the motherboard adjacent to at least two sides of the processor socket, and a processor retainer rotatably connected to the load frame, the processor retainer being positionable in a closed position, an opened position, and an installation position. The processor retainer extends over the processor socket when the processor retainer is in the closed position.


