Electrode Transporter with Flipside and Transitional Supports
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing electrode processing technologies face challenges in minimizing contact and reducing handling steps during cleaning and processing of silicon electrodes, particularly for inner disc-shaped and outer ring-shaped electrodes, which affects efficiency and processing time.
Innovation Solution
The use of an electrode transporter with transitional and flipside support elements that immobilize electrodes along gravitational and opposing force vectors, allowing for secure handling and transition between secured and unsecured states, supported by a tripod and facilitated by an electrode removal puck and lifting fork for efficient processing.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional handling methods are used to process electrodes, then handling steps can be completed, but processing time increases and electrode damage risk increases due to excessive contact
Solution Approach 1:
The handling system is segmented into multiple specialized fixtures (transporter with flipside support elements, removal puck, lifting fork) that can be used in sequence for different operations. Each fixture is designed for a specific function, allowing electrodes to be handled with minimal contact at each stage while reducing overall processing time.
2Reliability
If multiple handling steps are used to process electrodes, then thorough processing is achieved, but processing time increases and complexity increases
Solution Approach 1:
Multiple handling functions are merged into integrated fixture systems. The transporter combines support elements for different orientations, the removal puck integrates with the lifting fork, and the tripod support system accommodates various electrode configurations. This consolidation reduces the number of separate handling steps while maintaining thorough processing.
3Device complexity
If fixed handling fixtures are used, then simple design is achieved, but adaptability to different electrode sizes and shapes is limited
Solution Approach 1:
The fixtures incorporate dynamic and adjustable elements. The tripod support system can be configured for different electrode sizes and shapes. The transporter's support elements can be positioned to accommodate various electrode geometries. This dynamic adaptability allows a single fixture design to handle multiple electrode types without requiring completely different fixtures for each size or shape.
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
This solution minimizes electrode contact and reduces processing time by enabling secure handling and efficient transition of electrodes during processing, allowing for reduced handling steps and improved exposure to processing fluids.
Implementation Method 1
The flipside support elements are configured to immobilize an electrode along a gravitational force vector normal to a major face of an electrode
Implementation Method 2
The transitional support elements are configured to transition back and forth from a secured state, where the electrode is further immobilized along an opposing force vector opposite the gravitational force vector
Data Source
AI summary
An electrode transporter is provided comprising a transporter frame, a plurality of transitional support elements, and a plurality of flipside support elements. The flipside support elements are configured to immobilize an electrode along a gravitational force vector normal to a major face of an electrode positioned in an electrode accommodating space defined by the transitional support elements and the flipside support elements. The transitional support elements are configured to transition back and forth from a secured state, where the electrode is further immobilized along an opposing force vector opposite the gravitational force vector, to an unsecured state where the electrode is relatively mobile along the opposing force vector. Additional embodiments relate to the use of a transporter tripod and an electrode removal puck and lifting fork to remove an electrode from the transporter frame.


