Abstract: A wearable monitoring device for soft-tissue Young's modulus includes a pressure application mechanism, a contact radius sensor, a contact force sensor, and a wearable mechanism. The pressure application mechanism includes an indenter with a hemispherical contact surface. The contact radius sensor includes a flexible pressure sensing array disposed on the contact surface and configured to detect a pressure distribution along a height direction of the indenter. The contact radius sensor is configured to output a first electrical signal in response to a contact pressure when the contact surface contacts a measured soft tissue. The contact force sensor is disposed on the pressure application mechanism and configured to output a second electrical signal in response to the contact pressure provided by the pressure application mechanism when the contact surface contacts the measured soft tissue. The monitoring device can achieve accurate, continuous, and dynamic monitoring of the Young's modulus of soft tissues.

Abstract: A wearable device for monitoring soft-tissue Young's modulus includes: a pressure application mechanism, a contact radius sensor, a contact force sensor, and a wearable mechanism, where the wearable mechanism includes a housing and a strap; the pressure application mechanism includes an indenter disposed inside the housing; the contact radius sensor includes at least two flexible pressure sensing arrays; each flexible pressure sensing array includes a plurality of sensing units configured to detect a pressure distribution along a height direction of the indenter; the contact force sensor is disposed on the pressure application mechanism and contacts an inner surface of the housing; the contact radius sensor is configured to output a first electrical signal in response to a contact pressure when the contact surface contacts a measured soft tissue; and the contact force sensor is configured to output a second electrical signal in response to the contact pressure.

Abstract: A resource scheduling method implemented by a device, where the resource scheduling method includes determining a load characteristic of a frame drawing thread, where the frame drawing thread draws an image frame determining a target resource scheduling manner based on the load characteristic, and scheduling a resource for the frame drawing thread in the target resource scheduling manner.

Abstract: A resource scheduling method implemented by a device, where the resource scheduling method includes determining a load characteristic of a frame drawing thread, where the frame drawing thread draws an image frame determining a target resource scheduling manner based on the load characteristic, and scheduling a resource for the frame drawing thread in the target resource scheduling manner.

Abstract: A resource scheduling method implemented by a device, where the resource scheduling method includes determining a load characteristic of a frame drawing thread, where the frame drawing thread draws an image frame determining a target resource scheduling manner based on the load characteristic, and scheduling a resource for the frame drawing thread in the target resource scheduling manner.

Abstract: Various embodiments of this disclosure may describe a two-stage ADC circuit, and a time-interleaved system based on the two-stage ADC circuit. The two-stage ADC circuit may include a SAR converter for the first stage and a charge based TDC for the second stage. The two-stage ADC circuit may be used in high performance serial I/O applications. Other embodiments may be disclosed and claimed.

Abstract: Various embodiments of this disclosure may describe a two-stage ADC circuit, and a time-interleaved system based on the two-stage ADC circuit. The two-stage ADC circuit may include a SAR converter for the first stage and a charge based TDC for the second stage. The two-stage ADC circuit may be used in high performance serial I/O applications. Other embodiments may be disclosed and claimed.