Abstract: A method includes parsing a transform coefficient of a transform block in a current coding unit to obtain a first transform coefficient matrix. The method also includes obtaining a quantity K of non-zero transform coefficients in a top-left preset region of the first transform coefficient matrix. The method also includes parsing an index value based on the quantity K being greater than a threshold. The method also includes determining a transform matrix based on the index value. The method also includes multiplying N transform coefficients of the first transform coefficient matrix by the transform matrix to obtain M transform coefficients. The method also includes updating the first transform coefficient matrix by using the M transform coefficients to obtain a second transform coefficient matrix. The method also includes performing an inverse transform on the second transform coefficient matrix to obtain residual samples of the current coding unit.

Abstract: The present disclosure relates to the technical field of potential transformer (PT) ferromagnetic resonance elimination, in particular to a PT ferromagnetic resonance elimination method implemented by actively inputting resistance through an electronic load, including the following steps: setting up a PT, and determining a mapping relationship; constructing a resonance elimination control system; and designing the electronic load as an active resonance elimination device. The present disclosure overcomes a contradiction between a magnitude of resonance elimination resistance and winding overload in a PT open delta during single-phase-to-earth fault and fault clearance, and effectively avoids the technical problems of difficult distinguishing between single-phase-to-earth fault characteristics and power frequency resonance characteristics and causing resonance in a single-phase-to-earth fault process.

Abstract: The present disclosure provides an interspinous process device. The interspinous process device may include a main body having a cavity formed therein, the main body being configured to be disposed between the two adjacent spinous processes; and a spacer configured to be arranged in the cavity of the main body. When the main body is disposed between the two adjacent spinous processes and the spacer is arranged in the cavity of the main body, a volume of the cavity may be greater than a volume of the spacer, a height of the cavity may be equal to a height of the spacer, and a width of the cavity may be greater than a width of the spacer.

Abstract: A terminal device is provided including: at least one card slot, configured to set a user identifying module; and a baseband processing chip, connected to the at least one card slot, where the baseband processing chip includes: a controlling module, configured to control selection and switching of at least two network modes; at least two communication protocol processing modules, respectively configured to perform camping on network for their corresponding network modes; a resource managing module, configured to manage resources of the baseband processing module and the radio frequency module used by the at least two network modes; a baseband processing module, configured to process baseband signals respectively corresponding to the at least two network modes; and a radio frequency module, configured to process radio frequency signals respectively corresponding to the at least two network modes.

Abstract: The present disclosure provides a non-contact heart rhythm category monitoring system, which includes steps as follows. Facial images are continuously captured through an image sensor; images of a continuous target area for a predetermined duration are extracted from the facial images; non-contact physiological signal related to heartbeats are captured from the images of the continuous target area; the non-contact physiological signal are classified into a normal heart rhythm, an atrial fibrillation and a non-atrial fibrillation arrhythmia.

Abstract: Disclosed is a process for identifying and extracting pain-related electroencephalogram (EEG) signals. The process comprises receiving, from one or more trials, EEG data for each trial; determining a current density for each signal; estimating the current density for a set of neural activity regions of interest, based on the computed current density; and computing at least one spectrum characteristic for each trial based on the estimated current density. Thus mean and variance of changes in the EEG data between EEG data labeled as being indicative of a pain state and EEG data labeled as being indicative of a non-pain state, for each neural activity region of interest can be calculated, and pain-related EEG signals can be identified based on at least one a region of interest at which the variance is below a predetermined threshold.

Abstract: A method and apparatus for entering a sleep mode, a storage medium and a user equipment are provided. The method includes: monitoring a Physical Downlink Control Channel (PDCCH) and determining whether to enter a sleep mode, wherein entering the sleep mode includes skipping a duration of PDCCH monitoring occasions or modifying PDCCH configuration.

Abstract: A wake-up method and apparatus, a storage medium and a terminal are provided. The method includes: monitoring a wake-up Physical Downlink Control Channel (PDCCH); if detecting the wake-up PDCCH, determining to enter a wake-up mode; or if detecting the wake-up PDCCH, and wake-up indication information in Downlink Control Information (DCI) transmitted by the wake-up PDCCH indicates to enter the wake-up mode, determining to enter the wake-up mode, wherein entering the wake-up mode comprises starting an onDurationTimer and/or starting a drx-InactivityTimer.

Abstract: A carrier includes a body, at least one first positioning structure and at least one second positioning structure. The body has a first side wall, a second side wall and a plurality of inserting grooves, and the inserting grooves are arranged side by side and located between the first side wall and the second side wall. The first positioning structure is disposed at the first side wall, and the second positioning structure is disposed at the second side wall. A geometric profile of the first positioning structure along a direction perpendicular to the first side wall is conformal with a geometric profile of the second positioning structure along a direction perpendicular to the second side wall. A battery assembly is also provided.

Abstract: The present subject matter relates to treating anodized alloy substrates. An anodized alloy substrate is immersed in a titanium salt solution to deposit titanium ions in a surface of the anodized alloy substrate. The immersion results in the formation of a processed substrate. The processed substrate is anodized to form a finished substrate. The anodization oxidizes the titanium ions to titanium dioxide particles.

Abstract: A circuit structure for implementing a multilayer artificial neural network, the circuit comprising: a plurality of memristors implementing a synaptic grid array, the memristors storing weights of the network; and a calculation and control module configured to calculate the value of weight adjustments within the network.

Abstract: A non-contact heartbeat rate measurement system includes an image sensor, a target region selecting module, a heartbeat signal calculating module, a spectrum analyzing module, a vibration detecting module, a heartbeat peak selecting module. When a signal quality indicator is greater than a threshold value, and a first peak with global highest signal intensity in a heartbeat spectrum is similar to a face vibration frequency, the heartbeat peak selecting module selects a second peak with local highest signal intensity from a part frequency band of the heartbeat spectrum as an output heartbeat frequency. A non-contact heartbeat rate measurement method and an apparatus are disclosed herein.

Abstract: Technologies are disclosed for precomputation of reduced deformable models. In such precomputation, a Krylov subspace iteration may be used to construct a series of inertia modes for an input mesh. The inertia modes may be condensed into a mode matrix. A set of cubature points may be sampled from the input mesh, and cubature weights of the set of cubature points may be calculated for each of the inertia modes in the mode matrix. A training dataset may be generated by iteratively adding training samples to the training dataset until a training error metric converges, wherein each training sample is generated from an inertia mode in the mode matrix and corresponding cubature weights. The reduced deformable model may be generated, including inertia modes in the training dataset and corresponding cubature weights.

Abstract: A non-contact heartbeat rate measurement system includes an image sensor, a target region selecting module, a heartbeat signal calculating module, a spectrum analyzing module, a vibration detecting module, a heartbeat peak selecting module. When a signal quality indicator is greater than a threshold value, and a first peak with global highest signal intensity in a heartbeat spectrum is similar to a face vibration frequency, the heartbeat peak selecting module selects a second peak with local highest signal intensity from a part frequency band of the heartbeat spectrum as an output heartbeat frequency. A non-contact heartbeat rate measurement method and an apparatus are disclosed herein.

Abstract: A carrier includes a body, at least one first positioning structure and at least one second positioning structure. The body has a first side wall, a second side wall and a plurality of inserting grooves, and the inserting grooves are arranged side by side and located between the first side wall and the second side wall. The first positioning structure is disposed at the first side wall, and the second positioning structure is disposed at the second side wall. A geometric profile of the first positioning structure along a direction perpendicular to the first side wall is conformal with a geometric profile of the second positioning structure along a direction perpendicular to the second side wall. A battery assembly is also provided.

Abstract: In accordance with the purpose(s) of the present disclosure, as embodied and broadly described herein, embodiments of the present disclosure provide for silver nanowires, methods of making silver nanowires, core-shell nanostructures, methods of making core-shell nanostructures, core-frame nanostructures, methods of making core-frame nanostructures, and the like.

Abstract: Visual aids and associated methods for improving the eye sight of low vision patients are provided. Generally, the devices of the present disclosure address the needs of age-related macular degeneration (AMD) and other low vision patients by providing a magnified retinal image while keeping a large visual field of view. Further, the devices of the present disclosure allow direction of the magnified retinal image away from damaged portions of the retina and towards healthy, or at least healthier, portions of the retina. The devices of the present disclosure are also configured for implantation within the eye using minimally invasive surgical procedures. Methods of utilizing the devices of the present disclosure, including surgical procedures, are also provided.

Abstract: Technologies are disclosed for precomputation of reduced deformable models. In such precomputation, a Krylov subspace iteration may be used to construct a series of inertia modes for an input mesh. The inertia modes may be condensed into a mode matrix. A set of cubature points may be sampled from the input mesh, and cubature weights of the set of cubature points may be calculated for each of the inertia modes in the mode matrix. A training dataset may be generated by iteratively adding training samples to the training dataset until a training error metric converges, wherein each training sample is generated from an inertia mode in the mode matrix and corresponding cubature weights. The reduced deformable model may be generated, including inertia modes in the training dataset and corresponding cubature weights.

Abstract: An accommodating IOL includes a flexible optic membrane, a flexible skirt extending from an outer periphery of the flexible optic membrane and defining an outer periphery of the accommodating IOL, and a capsular contact ring configured to be positioned anterior to the flexible optic membrane and having a diameter less than a diameter at the outer periphery of the accommodating IOL. The accommodating IOL further includes a plurality of strut assemblies connecting the capsular contact ring and flexible skirt. When the capsular bag transitions from an accommodative state to a disaccomadative state, the capsular bag exerts a force on the capsular contact ring, at least a portion of that force being transferred to the flexible skirt by the plurality of strut assemblies. The transferred force causes a flattening of the flexible optic membrane in a manner that reduces the optical power of the accommodating IOL.