Passive Wireless Ionic Sensing in Small Vials

The patent employs disposable pH sensor strips that are inexpensive and single-use, replacing expensive glass dual junction sensors. Each strip is discarded after one measurement, eliminating the need for complex calibration, maintenance, and sterilization procedures associated with reusable glass sensors, thus reducing device complexity while maintaining measurement precision.

The patent extracts the sensing function from complex glass sensor assemblies and implements it through simple optical pH indicator strips. The chemical sensing mechanism is separated from the mechanical and electronic complexity of traditional sensors, allowing for a streamlined system that achieves accurate pH measurement without the cumbersome dual junction Ag/AgCl sensor structure.

The patent replaces expensive glass sensors with inexpensive disposable pH strips for each sample container. The low cost of individual strips makes it economically feasible to equip every sample container with its own sensor, eliminating the prohibitive expense of individual glass sensor installation while maintaining measurement precision through dedicated per-container monitoring.

The patent changes the material parameter from expensive glass/Ag/AgCl construction to affordable pH indicator paper or plastic-based strips. This material substitution dramatically reduces the unit cost of sensors, enabling widespread deployment across multiple sample containers without exceeding budget constraints while preserving accurate pH measurement capability.

The patent implements self-service through automated pH monitoring systems where disposable strips are automatically inserted into sample containers and readings are taken autonomously. The system performs measurements without requiring researcher intervention for each sample, eliminating manual operation while maintaining measurement precision through standardized automated procedures.

The patent replaces manual mechanical measurement operations with automated systems. Instead of researchers physically handling and measuring each sample container by hand, automated mechanisms perform the insertion, measurement, and data collection processes, thereby maintaining measurement precision while dramatically increasing productivity and sampling throughput.

The patent employs inert or controlled atmosphere conditions within sealed sample containers during pH measurement. By maintaining a stable, controlled internal environment that isolates samples from ambient oxygen fluctuations and other environmental variables, the system ensures reliable and consistent measurements while keeping the measurement process accessible and easy to operate through standardized sealed container protocols.

The patent extracts the sample from the variable ambient environment and places it in a controlled measurement environment. By separating the sample from external environmental influences such as oxygen fluctuations and humidity changes, the system maintains sample condition stability and measurement reliability while preserving ease of operation through straightforward container-based measurement procedures.