Batch Polymer Coating for Uniform Optical Sensor Components
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Current methods for producing optical sensors with immobilized luminescent compounds are inefficient, labor-intensive, and result in non-uniformity, leading to high wastage and the need for individual calibration of each sensor, making them uneconomical and prone to errors.
Innovation Solution
A process involving the chemical attachment of a polymeric layer to an optically transmissive substrate, allowing for the immobilization of luminescent compounds, which can be easily manipulated and applied to optical sensors, enabling the production of uniform optical components that can be tested and calibrated in batches.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If the polymer matrix is coated individually on each optical waveguide in situ, then the luminescent compound can be immobilized in the sensing region, but the process becomes slow, labor-intensive, and error-prone, reducing productivity and reliability
Solution Approach 1:
The invention separates the polymer coating process from the optical waveguide, instead coating multiple substrates simultaneously in a batch process. This segmentation allows parallel processing of multiple sensors, dramatically increasing productivity while maintaining reliable luminescent compound immobilization through the standardized coating procedure
Solution Approach 2:
The polymer matrix with immobilized luminescent compound is pre-coated onto substrates before assembly with the optical waveguide. This preliminary action allows the coating to be performed under controlled conditions in a batch process, ensuring consistent quality and eliminating the need for individual in situ coating of each assembled sensor
2Ease of manufacture
If the polymer is coated individually on each optical waveguide, then the sensing region can be formed, but uniformity of the sensing region cannot be guaranteed, requiring individual calibration of each sensor
Solution Approach 1:
Multiple substrates are coated simultaneously in a single batch process rather than individually. This merging of coating operations ensures that all substrates receive identical coating conditions, resulting in uniform polymer matrix thickness and luminescent compound distribution across all sensing regions, thereby improving manufacturing precision without complicating the process
3Reliability
If individual coating of optical waveguides is performed, then the luminescent compound can be immobilized, but excess polymer solution must be prepared, causing wastage of expensive luminescent compounds
Solution Approach 1:
Instead of preparing excess polymer solution for each individual coating, the invention uses a controlled batch coating process where the polymer solution is applied to multiple substrates simultaneously. This approach eliminates the need for excessive preparation while ensuring complete coverage of all substrates, thereby reducing wastage of expensive luminescent compounds while maintaining reliable immobilization
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 approach enhances efficiency, reduces wastage, and allows for the production of scalable, uniform optical components that can be easily integrated into sensors, improving the manufacturing process and reducing the need for individual calibration.
Implementation Method 1
a polymeric layer which has been chemically attached to said optically transmissive substrate
Data Source
AI summary
The invention is concerned with methods for producing a useful and highly uniform optical component which is useful in the construction of an optical sensor. Also discussed are the optical component itself, an optical sensor comprising the optical component, a process for producing the optical sensor and a process for detecting and/or quantifying the amount of an analyte in a sample using the optical sensor.