Abstract: A display device for ultrasound energy includes a focused ultrasound emitting and receiving device, a processing device and a display. The processing device generates a first electrical signal and transmits it to the focused ultrasound emitting and receiving device to control the focused ultrasound emitting and receiving device to emit at least one first ultrasound signal to a target position of an organism. The target position reflects the first ultrasound signal to form at least one second ultrasound signal. After generating the first electrical signal, the processing device drives the focused ultrasound emitting and receiving device to start to receive the second ultrasound signal only during a preset period after the estimation period. The processing device uses the display to display an image of the target position according to the second ultrasound signal, and brightness of the image is directly proportional to energy intensity of the first ultrasound signal.

Abstract: A chip is provided, where the chip is formed by packaging at least two dies, and the at least two dies form at least one die group. The die group includes a first die and a second die. A first processing unit and n groups of ports are disposed on the first die, and a second processing unit and m groups of ports are disposed on the second die. The first processing unit is configured to: switch at least one group of first type ports in the n groups of ports from input to output and switch a second type port that is in the m groups of ports and that is coupled to each group of the first type ports from output to input.

Abstract: A cache memory system is provided. The cache memory system includes multiple upper level caches and a current level cache. Each upper level cache includes multiple cache lines. The current level cache includes an exclusive tag random access memory (Exclusive Tag RAM) and an inclusive tag random access memory (Inclusive Tag RAM). The Exclusive Tag RAM is configured to preferentially store an index address of a cache line that is in each upper level cache and whose status is unique dirty (UD). The Inclusive Tag RAM is configured to store an index address of a cache line that is in each upper level cache and whose status is unique clean (UC), shared clean (SC), or shared dirty (SD).

Abstract: A panoramic camera device includes: a first substrate having a first surface and an opposite second surface, a first camera module being disposed on the first surface, a first connection port being disposed on the second surface; and a second substrate having a third surface and a fourth surface opposite to the third surface. The fourth surface faces the second surface. A second camera module and a signal output port are disposed on the third surface. A second connection port is disposed on the fourth surface. The first connection port is connected with the second connection port. The first camera module on the first surface and the second camera module on the third surface are back-to-back arranged. The first and second camera modules are positioned in the same optical axis. The signal output port serves to output the image signals generated by the first and second camera modules.

Abstract: A network-on-chip and a corresponding method are provided. The network-on-chip includes at least one bufferless ring network in at least one dimension of the network-on-chip. At least one bufferless ring network includes multiple routing nodes, and at least one of the multiple routing nodes is a switching node. Two bufferless ring networks in different dimensions may intersect. The two bufferless ring networks exchange data by using switching nodes. A dedicated slot and a public slot are configured in each bufferless ring network. Only one switching node has permission to use a dedicated slot at a same moment in each bufferless ring network, the permission to use the dedicated slot is transferred successively between switching nodes in each bufferless ring network. The permission to use the dedicated slot is transferred after transmission of data in the dedicated slot is completed.

Abstract: A bufferless ring network including at least two nodes and at least two timeslots, the at least two timeslots include a dedicated timeslot, and a first node in the bufferless ring network has use permission for the dedicated timeslot. The first node is configured to, in a state of having the use permission for the dedicated timeslot, detect whether all dedicated timeslots that pass through the first node are available, set a permission switch signal, and cancel the use permission for the dedicated timeslot according to the permission switch signal after detecting that all the dedicated timeslots that pass through the first node are available. A remaining node in the bufferless ring network is configured to obtain the use permission for the dedicated timeslot according to the permission switch signal. The remaining node is a node that needs to use the dedicated timeslot.

Abstract: A camera module includes a first and a second photographing member, and a circuit substrate. The circuit substrate has a first lateral side and an opposite second lateral side, and a plurality of circuits. The first and the second photographing member is provided on the first and the second lateral side of the circuit substrate respectively and electrically connected to the circuit substrate. With these arrangements, the camera module can have overall reduced volume and is able to photographing a 360-degree panoramic image and lower the manufacturing cost.

Abstract: A wind power generator and stator iron core thereof, and stator iron core module; the iron core module (4) has an overall dimension consistent with a principle of the number of slots per pole per phase q=1; the iron core module (4) is provided with two three-phase winding units therein, an electrical angle formed by the two three-phase winding units is 30 degrees. The method of arranging winding in the stator iron core module (4) is changed to effectively reduce fifth and seventh winding harmonic magnetomotive forces.

Abstract: A chip is provided, where the chip is formed by packaging at least two dies, and the at least two dies form at least one die group. The die group includes a first die and a second die. A first processing unit and n groups of ports are disposed on the first die, and a second processing unit and m groups of ports are disposed on the second die. The first processing unit is configured to: switch at least one group of first type ports in the n groups of ports from input to output and switch a second type port that is in the m groups of ports and that is coupled to each group of the first type ports from output to input.

Abstract: A cache memory system is provided. The cache memory system includes multiple upper level caches and a current level cache. Each upper level cache includes multiple cache lines. The current level cache includes an exclusive tag random access memory (Exclusive Tag RAM) and an inclusive tag random access memory (Inclusive Tag RAM). The Exclusive Tag RAM is configured to preferentially store an index address of a cache line that is in each upper level cache and whose status is unique dirty (UD). The Inclusive Tag RAM is configured to store an index address of a cache line that is in each upper level cache and whose status is unique clean (UC), shared clean (SC), or shared dirty (SD).

Abstract: A display device for ultrasound energy includes a focused ultrasound emitting and receiving device, a processing device and a display. The processing device generates a first electrical signal and transmits it to the focused ultrasound emitting and receiving device to control the focused ultrasound emitting and receiving device to emit at least one first ultrasound signal to a target position of an organism. The target position reflects the first ultrasound signal to form at least one second ultrasound signal. After generating the first electrical signal, the processing device drives the focused ultrasound emitting and receiving device to start to receive the second ultrasound signal only during a preset period after the estimation period. The processing device uses the display to display an image of the target position according to the second ultrasound signal, and brightness of the image is directly proportional to energy intensity of the first ultrasound signal.

Abstract: Provided is a wearable device, including: a parameter acquisition module, used to obtain a real-time status parameter of the wearable device; a scenario determining module, used to determine, according to the real-time status parameter, a scenario in which the wearable device currently locates; and a body capacitive coupling transmission module, used to send data to other electronic devices and/or receive data from other electronic devices when the wearable device locates in a preset data interaction scenario. Further provided is a data transmission method. With the technical solutions of the present invention, by scenario detection, the wearable device can perform data transmission and interaction with other electronic devices by means of the body capacitive coupling technology, so that the characteristics of the wearable device can be fully utilized, and the data transmission process gets more intelligent and humanized.

Abstract: The present invention provides an evaluation method and an evaluation device for water breakthrough risk of gas wells in gas reservoirs with aquifers, the method comprising the following steps: building evaluation factors that influence water breakthrough risk of gas wells in gas reservoirs with aquifers; acquiring weight vectors of the evaluation factors based on an analytic hierarchy process; building a fuzzy relationship matrix between the water breakthrough risk of gas wells in gas reservoirs with aquifers and its evaluation factors; and synthesizing the fuzzy relationship matrix and the weight vectors according to a weighted average fuzzy synthesis operator, to acquire a comprehensive evaluation result of water breakthrough risk of gas wells in gas reservoirs with aquifers.

Abstract: A hearing assistance system includes a pair of hearing aids performing dynamic range compression while preserving spatial cue to provide a hearing aid wearer with satisfactory listening experience in complex listening environments. In various embodiments, the dynamic range compression is binaurally coordinated based on number and distribution of sound source(s). In various embodiments, in addition to preserving spatial cue, the dynamic range compression is controlled to optimize audibility and comfortable loudness of target signals.

Abstract: A method for replacing data in a system cache includes obtaining, by the system cache, an access statistics value corresponding to each piece of header data in the system cache, wherein the access statistics value corresponding to the header data represents a difference of the predetermined number of access times of the header data minus the number of times that the header data has been accessed by central processing units (CPUs); obtaining, by the system cache according to the access statistics value corresponding to each piece of header data, header data to be transferred; and transferring, by the system cache, the header data, which is to be transferred, to an external memory.

Abstract: A hearing assistance system includes a pair of hearing aids performing dynamic range compression while preserving spatial cue to provide a hearing aid wearer with satisfactory listening experience in complex listening environments. In various embodiments, the dynamic range compression is binaurally coordinated based on number and distribution of sound source(s). In various embodiments, in addition to preserving spatial cue, the dynamic range compression is controlled to optimize audibility and comfortable loudness of target signals.

Abstract: An advanced extensible interface (AXI) bus is disclosed. 2×2 AXI crossbars are used as basic units; each including two slave interfaces and two master interfaces; an N2 full Mesh fabric is built by using the basic units, so that each slave interface on one basic unit is connected to a master interface on another basic unit to form a first path. A data transmission method includes: receiving, through a master interface of a basic unit, a data packet sent by a master device; sending, through a slave interface of the basic unit, the data packet to a destination slave device by using an AXI bus; receiving, through the slave interface of the basic unit, a response packet returned by the destination slave device, where the basic units are 2×2 AXI crossbars and the AXI bus is based on an N2 full mesh fabric built by using the basic units.

Abstract: A hearing assistance system includes a pair of hearing aids performing dynamic range compression while preserving spatial cue to provide a hearing aid wearer with satisfactory listening experience in complex listening environments. In various embodiments, the dynamic range compression is binaurally coordinated based on number and distribution of sound source(s). In various embodiments, in addition to preserving spatial cue, the dynamic range compression is controlled to optimize audibility and comfortable loudness of target signals.

Abstract: A system on chip (soc) and A transmission method under Advanced eXtensible Interface (AXI) bus are disclosed. The system includes a master device, a first extending module, a first interconnection structure, a first subtracting module, a second interconnection structure, and a slave device. The first extending module is configured to add N bits into an identifier (ID) carried in a transmission request, where N is equal to a sum of bits added by all interconnection structures in a longest loop of a system into the ID carried in the transmission request that passes through the interconnection structures.

Abstract: A hearing assistance system includes a pair of hearing aids performing dynamic range compression while preserving spatial cue to provide a hearing aid wearer with satisfactory listening experience in complex listening environments. In various embodiments, the dynamic range compression is binaurally coordinated based on number and distribution of sound source(s). In various embodiments, in addition to preserving spatial cue, the dynamic range compression is controlled to optimize audibility and comfortable loudness of target signals.