Abstract: A fitness mat having an intrinsic strap with two ends, each end is connected to a junction of a first and second fastening strap, respectively, by way of an anchor point, thereby defining an H-shape. Opposing distal ends of each fastening strap have complementary first and second connectors facing in opposite direction relative to the other fastening strap so that when the fitness mat is rolled to a furled condition, each pair of the first and second fastening straps can wrap about the rolled mat to secure it in the furled condition by way of the first and second connectors. The intrinsic strap is just inward of an edge of the fitness mat so that in the secured furled condition, the intrinsic strap can be used as a shoulder strap.

Abstract: A fitness mat having an intrinsic strap with two ends, each end is connected to a junction of a first and second fastening strap, respectively, by way of an anchor point, thereby defining an H-shape. Opposing distal ends of each fastening strap have complementary first and second connectors facing in opposite direction relative to the other fastening strap so that when the fitness mat is rolled to a furled condition, each pair of the first and second fastening straps can wrap about the rolled mat to secure it in the furled condition by way of the first and second connectors. The intrinsic strap is just inward of an edge of the fitness mat so that in the secured furled condition, the intrinsic strap can be used as a shoulder strap.

Abstract: A system may configure a sensing system implemented by an embedded device. The system may configure a sensing system to generate an image from a point cloud including data points in three dimensions. The data points may be associated with at least three values. The image may be generated by mapping first and second values of data points to first and second coordinates of pixels of the image and third values of data points to intensities of the pixels. The system may configure a sensing system to invoke a machine learning model to process the image. The machine learning model may be trained for image processing. In some implementations, the mapping may include quantizing the first and second values into ranges of the first and second coordinates and quantizing the third values into a range of the intensities.

Abstract: A method for a dynamic adapter design pattern is described. The method comprises receiving an object comprising object data, wherein the object is associated with an application context. A first type of the object is determined, and the object data is depicted in a first manner determined by the first type. A target type is determined based on the application context. A conversion mechanism is selected from a plurality of conversion mechanisms based on the first type and the target type. The conversion mechanism is applied to the object of the first type to create a new object of the target type. To apply the conversion mechanism, the object is converted from the first type to the target type, wherein the object data is depicted in a second manner determined by the target type, and a field of object data is modified based on the target type.

Abstract: A method includes monitoring, using a system resource monitor in a system, a plurality of system resource metrics. The system includes a ring buffer with consecutive slots, each slot corresponding to a different location in the memory. The method further includes receiving a system resource metric from the system resource monitor. The method also includes determining a first slot that is flagged as acceptable to be overwritten. If no slot is flagged as acceptable to be overwritten, the method further includes dropping the system resource metric, and the method ends. Otherwise, the method further includes storing the system resource metric in the slot and flagging that the slot is not acceptable to be overwritten. The method further includes detecting that the system resource metric was stored in the first slot, reading the system resource metric from the first slot, and flagging that the first slot is acceptable to be overwritten.

Abstract: A method for a dynamic adapter design pattern is described. The method comprises receiving an object comprising object data, wherein the object is associated with an application context. A first type of the object is determined, and the object data is depicted in a first manner determined by the first type. A target type is determined based on the application context. A conversion mechanism is selected from a plurality of conversion mechanisms based on the first type and the target type. The conversion mechanism is applied to the object of the first type to create a new object of the target type. To apply the conversion mechanism, the object is converted from the first type to the target type, wherein the object data is depicted in a second manner determined by the target type, and a field of object data is modified based on the target type.