Abstract: A modular pneumatic somatosensory device comprises a main body, a plurality of airbags, a plurality of inflating modules and a control module. The airbags are detachably disposed at different positions of the main body, and at least a part of the airbags have different sizes. The inflating modules are detachably disposed on the main body, and each inflating module is correspondingly connected with at least one of the airbags. The control module is detachably disposed on the main body and is electrically connected with the inflating modules. The control module controls the inflating modules to inflate the corresponding airbags according to a control signal.

Abstract: Systems, methods, and other embodiments relate to autonomous clinical screening and assessment of a patient using a reinforcement learning framework. In at least one approach, a method includes determining, using a control model, a focus point for acquiring imaging data about the patient. The method includes controlling an imaging device according to the focus point to acquire the imaging data. The method includes analyzing the imaging data using a recognition model that outputs a result about a condition of the patient. The method includes providing the result.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive multiple reference signals (RSs). The UE may measure the multiple RSs to generate measurements for the multiple RSs. The UE may encode the measurements using a machine learning model to generate codewords representing a quantized version of the measurements. The UE may transmit the codewords. Numerous other aspects are described.

Abstract: Methods of storing and accessing data using a header portion of a file are disclosed. In an embodiment, a method of storing content in a non-volatile memory is disclosed. The method includes reading a content file including media content and including a trailer, storing information related to the trailer together with secure data in a header portion of a file, and storing the file to a storage element of the non-volatile memory or a memory area of a host device coupled to the non-volatile memory device.

Abstract: A computer readable media storing operational instructions is disclosed. The instructions includes at least one instruction to store data of an encrypted computer readable file that includes a header portion and associated content data into a storage area of a non-volatile memory. The storage area includes a secure memory area to store data from the header portion including at least one encryption ID. The storage area further includes a memory area to store the content data. The header portion further includes trailer data derived from a portion of the content data. The instructions also include at least one instruction to provide data read access to the header portion and to the content data with respect to a host device.

Abstract: Methods of storing and accessing data using a header portion of a file are disclosed. In an embodiment, a method of storing content in a non-volatile memory is disclosed. The method includes reading a content file including media content and including a trailer, storing information related to the trailer together with secure data in a header portion of a file, and storing the file to a storage element of the non-volatile memory or a memory area of a host device coupled to the non-volatile memory device.

Abstract: A heat dissipation assembly for dissipating heat from a CPU (60) mounted to a PCB (70) includes a heat sink (40), two wire clips (30), a fixing frame (20) secured to the heat sink, and a fan (10) attached to the fixing frame. Two grooves (402) are defined in the heat sink. Each clip has a central portion (302) received in a corresponding groove, and two arms (304) extending from the central portion. A hook (306) is formed at an end of each arm. An offset part is formed at the central portion, for limiting rotation of the clip in the groove. The fixing frame includes a top wall (212) and two side walls (202). Two cutouts (206) are defined in each side wall, corresponding to the grooves of the heat sink. Opposite ends of the central portion of each clip protrude out through corresponding cutouts of the fixing frame.

Abstract: A heat dissipation assembly for dissipating heat from a CPU (60) mounted to a PCB (70) includes a heat sink (40), two wire clips (30), a fixing frame (20) secured to the heat sink, and a fan (10) attached to the fixing frame. Two grooves (402) are defined in the heat sink. Each clip has a central portion (302) received in a corresponding groove, and two arms (304) extending from the central portion. A hook (306) is formed at an end of each arm. An offset part is formed at the central portion, for limiting rotation of the clip in the groove. The fixing frame includes a top wall (212) and two side walls (202). Two cutouts (206) are defined in each side wall, corresponding to the grooves of the heat sink. Opposite ends of the central portion of each clip protrude out through corresponding cutouts of the fixing frame.