Microscope Rotary Feedthrough for Component Identification
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Solution Overview
Problem
Existing microscope systems require a complete or almost complete revolution of the turret to read and identify interchangeable components, limiting flexibility and requiring user-initiated recognition processes. Additionally, motorized components face risks of external wiring being torn due to turret rotation.
Innovation Solution
The implementation of an electrical rotary feedthrough with a stator and rotor connection allows for continuous electrical contact between the stator and rotor, enabling the identification and operation of microscope components without turret movement. This solution eliminates the need for external wiring, reducing the risk of connection issues during turret rotation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If a complete or almost complete revolution of the turret is required to read components, then all components can be identified, but the recognition process can only be carried out after user request and takes significant time
Solution Approach 1:
The patent applies preliminary action by implementing an automatic component recognition system that reads component information from storage media during turret rotation without waiting for user initiation. The control unit automatically detects and reads data from all components as they pass the reading position, storing this information for immediate access, thereby eliminating the time delay associated with user-requested recognition processes.
Solution Approach 2:
The patent implements continuity of useful action by performing component identification continuously during normal turret operation. Instead of pausing operations to conduct a complete revolution for reading, the system continuously reads component data as the turret rotates, integrating the identification process into the ongoing operational cycle without interrupting or slowing down microscope usage.
2Adaptability or versatility
If external wiring is used for motorized components on the turret, then components can be powered and controlled, but the wiring may be torn away during turret rotation
Solution Approach 1:
The patent applies the extraction principle by removing the vulnerable external wiring from the system. Instead of connecting motorized components through external lines that extend outward from the turret, the system integrates power and control connections directly into the turret structure, with electrical contacts positioned to engage with corresponding terminals on the components as they are mounted, thereby eliminating the risk of external wiring being torn during rotation.
Solution Approach 2:
The patent uses an intermediary approach by introducing a set of fixed electrical contacts on the turret that serve as intermediaries between the power source and the motorized components. These contacts remain stationary on the turret while the components are rotated into position, allowing electrical connection to be made through the intermediary contact points rather than through flexible external wiring that would be subjected to mechanical stress during rotation.
3Reliability
If the turret rotation is limited to avoid wiring damage, then connection reliability is improved, but the freedom of operator control is restricted
Solution Approach 1:
By removing external wiring entirely and using integrated electrical contacts on the turret, the patent eliminates the need for rotation limits. The system allows full freedom of turret rotation because the electrical connections are made through fixed contacts that engage with component terminals when the components are mounted, without any flexible wiring that would be damaged by excessive rotation.
Data Source
AI summary
The invention relates to a device for incorporation into a microscope comprising a stator for connecting to a static component of a microscope and a rotor arranged rotatably relative to the stator. The rotor has mounting locations for receiving microscope components. An electrical rotary feedthrough is present comprising a first part, which is connected to the stator, and a second part, which is connected to the rotor. At least one electrical connection is formed via the electrical rotary feedthrough between the stator and the rotor and an electrical connection is formed on the rotor from the second part of the rotary feedthrough to at least one of the mounting locations for the purpose of electrically contacting a microscope component. The invention also relates to a microscope and a method for contacting microscope components on a rotor of a microscope.


