Abstract: User-specified GPU kernel functions and input data sets are sent over a Web service to a remote computer equipped with a programmable GPU (Graphics Processing Unit) for execution. The Web service then returns resulting data to a client, which uses the same Web service. This is accomplished by incorporating a serialized request formed from the GPU kernel function code and input data set by using JavaScript® Object Notation (JSON) serialization. The request is then sent to the remote computer and programmable GPU, where the request is deserialized, kernel code is compiled, and input data copied to the GPU memory on the remote computer. The GPU kernel function is then executed, and output data is copied from the GPU memory on the remote computer and reserialized using JSON to form a serialized response. The serialized response is then returned to the client via the web service.

Abstract: User-specified GPU kernel functions and input data sets are sent over a Web service to a remote computer equipped with a programmable GPU (Graphics Processing Unit) for execution. The Web service then returns resulting data to a client, which uses the same Web service. This is accomplished by incorporating a serialized request formed from the GPU kernel function code and input data set by using JavaScript® Object Notation (JSON) serialization. The request is then sent to the remote computer and programmable GPU, where the request is deserialized, kernel code is compiled, and input data copied to the GPU memory on the remote computer. The GPU kernel function is then executed, and output data is copied from the GPU memory on the remote computer and reserialized using JSON to form a serialized response. The serialized response is then returned to the client via the web service.

Abstract: A pinch grip dynamometer field testing calibration stand for a pinch or finger grip dynamometer having a base defined by a platform and a vertical post, a dynamometer holder attached to the platform, and upper and lower calibration plates slidable on the post. The dynamometer is supported by the holder with its load application point (a concave groove in the case of a mechanical dynamometer, or the concave face of a button in the case of a hydraulic dynamometer) in proximity to the post. The bottom surface of the lower calibration plate has a convex protrusion which applies a load to the dynamometer. The load is supplied by calibrated weights of known mass supported in a groove on the top surface of the lower calibration plate, and by a groove in the bottom surface of the upper calibration plate when the weight needs support for its upper portion.

Abstract: A pinch grip dynamometer field testing calibration stand for a pinch or finger grip dynamometer having a base defined by a platform and a vertical post, a dynamometer holder attached to the platform, and upper and lower calibration plates slidable on the post. The dynamometer is supported by the holder with its load application point (a concave groove in the case of a mechanical dynamometer, or the concave face of a button in the case of a hydraulic dynamometer) in proximity to the post. The bottom surface of the lower calibration plate has a convex protrusion which applies a load to the dynamometer. The load is supplied by calibrated weights of known mass supported in a groove on the top surface of the lower calibration plate, and by a groove in the bottom surface of the upper calibration plate when the weight needs support for its upper portion.