Abstract: There is provided a system for generating a motion performance metric of a moving human subject. The system includes a single stationarily supported motion capture device in the form of a smartphone having a camera configured to capture from a predetermined capture position, visual data of the subject as the subject moves (for example, by walking, jogging and/or running) between two distance calibration markers that are disposed at a predetermined distance apart from each other and in a field of vision of the camera. The system further includes a central data processing server in communication with the smartphone. The server is configured to initially recognise, from the captured visual data, a plurality of human pose points on the subject. The server then is able to extract kinematic data of the subject based on the recognised human pose points and then subsequently construct, based on the extracted kinematic data, a biomechanical model of the motion of the subject.

Abstract: There is provided a system for generating a motion performance metric of a moving human subject. The system includes a single stationarily supported motion capture device in the form of a smartphone having a camera configured to capture from a predetermined capture position, visual data of the subject as the subject moves (for example, by walking, jogging and/or running) between two distance calibration markers that are disposed at a predetermined distance apart from each other and in a field of vision of the camera. The system further includes a central data processing server in communication with the smartphone. The server is configured to initially recognise, from the captured visual data, a plurality of human pose points on the subject. The server then is able to extract kinematic data of the subject based on the recognised human pose points and then subsequently construct, based on the extracted kinematic data, a biomechanical model of the motion of the subject.

Abstract: A liquid handling system of a PCR system is instructed to obtain a matrix of samples and reagents for a PCR experiment. A fluid pumping system of the PCR system is instructed to maintain a continuous flow of a transport fluid through a plurality of micro-channels that allows the mixture of the samples and the reagents producing a plurality of mixed sample droplets. One or more post-bridge detection values are received from a post-bridge detection system of the PCR system for each mixed sample droplet to determine if the mixed sample droplet is mixed correctly. A thermocycler of the PCR system is instructed to maintain one or more temperatures for cycling the temperature of the plurality of mixed sample droplets. One or more endpoint detection values are received from an endpoint detection system of the PCR system for each mixed sample droplet to analyze the PCR experiment.

Abstract: A liquid handling system of a PCR system is instructed to obtain a matrix of samples and reagents for a PCR experiment. A fluid pumping system of the PCR system is instructed to maintain a continuous flow of a transport fluid through a plurality of micro-channels that allows the mixture of the samples and the reagents producing a plurality of mixed sample droplets. One or more post-bridge detection values are received from a post-bridge detection system of the PCR system for each mixed sample droplet to determine if the mixed sample droplet is mixed correctly. A thermocycler of the PCR system is instructed to maintain one or more temperatures for cycling the temperature of the plurality of mixed sample droplets. One or more endpoint detection values are received from an endpoint detection system of the PCR system for each mixed sample droplet to analyze the PCR experiment.

Abstract: Software, methods, and systems for calibrating photometric devices are provided. These involve using a non-uniform test illumination field to approximate a photon transfer curve by calculating stable pixel values and statistical dispersions on a pixel-by-pixel basis.

Abstract: Software, methods, and systems for calibrating photometric devices are provided. These involve using a non-uniform test illumination field to approximate a photon transfer curve by calculating stable pixel values and statistical dispersions on a pixel-by-pixel basis.