Stereoscopic Beam Splitter for Microscope Imaging
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Current microscope systems face challenges in efficiently splitting and combining light beams for stereoscopic imaging, which limits their ability to provide simultaneous viewing and recording capabilities while overlaying informational images with target images.
Innovation Solution
A system comprising aligned first and second beamsplitter modules that split and recombine light beams, allowing for the transmission of beams along parallel and perpendicular paths to enable stereoscopic imaging and informational overlays.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a single beamsplitter module is used to split light beams, then the device complexity is reduced, but the functionality is limited and cannot provide simultaneous viewing and recording capabilities with informational overlays
Solution Approach 1:
The system divides the beam splitting function into multiple specialized modules: a first beamsplitter module for separating viewing and recording beams, and a second beamsplitter module for creating informational overlays. Each module performs a specific function, allowing the system to achieve complex stereoscopic imaging and overlay capabilities while maintaining manageable complexity through functional decomposition
Solution Approach 2:
The aligned beamsplitter modules are designed to work together in an integrated optical path that simultaneously supports multiple functions: stereoscopic viewing, recording, and informational overlays. The modules process different beam paths concurrently, enabling the system to perform multiple operations with a unified structure rather than requiring separate systems for each function
2Productivity
If multiple beamsplitter modules are aligned to provide simultaneous viewing and recording, then the functionality is enhanced, but the device complexity increases
Solution Approach 1:
The system merges multiple beam paths and processing functions into a single integrated optical train. The first and second beamsplitter modules are aligned to work in sequence, combining stereoscopic viewing, recording, and overlay functions into one unified device. This consolidation allows simultaneous operations without requiring separate microscope systems for each function
Solution Approach 2:
The aligned beamsplitter modules create distinct spatial dimensions for different beam paths within the optical system. By separating beams into different spatial trajectories (viewing path, recording path, overlay path) while maintaining temporal simultaneity, the system achieves multi-functionality without requiring sequential operations that would increase time complexity
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
Enables efficient light beam splitting and combining, facilitating simultaneous viewing and recording, as well as informational overlays in microscope systems, enhancing the functionality of stereoscopic imaging.
Implementation Method 1
The first beamsplitter module splits the first beam into a first output beam transmitted along the first optical path and a first split beam transmitted to the second beamsplitter module along a reflected beam path
Implementation Method 2
The second beamsplitter module splits the first split beam into a second output beam transmitted substantially parallel to the reflected beam path and a second split beam transmitted substantially perpendicular to the reflected beam path
Data Source
AI summary
According to certain embodiments, a system includes beamsplitter sets, where each beamsplitter set comprises a first beamsplitter module and a second beamsplitter module aligned with the first beamsplitter module. The first beamsplitter module receives a first beam traveling along a first optical path. The first beamsplitter module splits the first beam into a first output beam transmitted along the first optical path and a first split beam transmitted to the second beamsplitter module along a reflected beam path. The second beamsplitter module receives the first split beam. The second beamsplitter module splits the first split beam into a second output beam transmitted substantially parallel to the reflected beam path and a second split beam transmitted substantially perpendicular to the reflected beam path.