Abstract: A method and system for calibrating nuclear instrumentation of a reactor is disclosed. The system comprises a reactor configured to operate at a low power level and an external heater configured to heat the reactor to its operating temperature and maintain the reactor in a critical state. The reactor maintains its temperature at a steady state by repeating steps of reducing the heater's power and increasing the reactor's power by changing one or more reactivity settings, wherein the reduced heater's power is compensated by using the increased power generated by the reactor itself. The nuclear instrumentation is configured to measure the reactor's output power and compare it with the calculated reactor's power. Based on the discrepancy between the calculated power and the measured power exceeds a threshold; and the nuclear instrumentation is appropriately calibrated by adjusting one or more settings.

Abstract: A system for providing an augmented reality experience, including: a processor with a network connection; a display; and a camera, wherein the processor is configured to: read a first QR code from a user device using the camera; send a session identifier extracted from the QR code to a server; receive user input from a user device selecting individuals; select media content from a media library based on the received user input; combine live content of the user from the camera with the media content; display the combined content on the display; capture an image of the combined medial content and live content on the display; and output the captured image.

Abstract: Flow cytometry investigation and flow cytometry result analysis to determine an optimized dilution factor range for flow cytometry investigation of a target sample fluid stock using a flow cytometer. The optimized dilution factor range may be determined using a screening assay module of a flow cytometry system to analyze flow cytometry results determined to fall within a dynamic range of a flow cytometer to determine the optimized dilution factor range for a given flow cytometer to investigate a given target sample fluid stock. In turn, a titer assay module may be executed to prepare particle titer results based on optimized target fluid samples provided within the optimized dilution factor range. The screening assay module and/or the titer assay module may provide automated data processing with data notifications and confirmations to provide robust data analysis.

Abstract: A system for providing an augmented reality experience, including: a processor with a network connection; a display; and a camera, wherein the processor is configured to: read a first QR code from a user device using the camera; send a session identifier extracted from the QR code to a server; receive user input from a user device selecting individuals; select media content from a media library based on the received user input; combine live content of the user from the camera with the media content; display the combined content on the display; capture an image of the combined medial content and live content on the display; and output the captured image.

Abstract: Flow cytometry investigation and flow cytometry result analysis to determine an optimized dilution factor range for flow cytometry investigation of a target sample fluid stock using a flow cytometer. The optimized dilution factor range may be determined using a screening assay module of a flow cytometry system to analyze flow cytometry results determined to fall within a dynamic range of a flow cytometer to determine the optimized dilution factor range for a given flow cytometer to investigate a given target sample fluid stock. In turn, a titer assay module may be executed to prepare particle titer results based on optimized target fluid samples provided within the optimized dilution factor range. The screening assay module and/or the titer assay module may provide automated data processing with data notifications and confirmations to provide robust data analysis.