18results about How to "Reduce circuit size" patented technology

An X-ray image acquisition device includes a pixel unit having M pixel arrays each including N pixel portions (N and M are integers of 2 or more), M circuit units, and a control unit. Each circuit unit includes T (T is an integer of N or more) adding sections that sequentially add electrical signals corresponding to output signals from the N pixel portions and a switch section for switching connection states between the N pixel portions and the T adding sections. The control unit switches the connection states in synchronization with the transportation of an object along a first direction so that the electrical signals corresponding to the output signals output from the pixel portions by detecting X-rays transmitted through the same region of the object are added by the same adding sections.

The invention discloses a driving device, a control method thereof and electronic equipment, and belongs to the technical field of electronic equipment. The driving device comprises a charge pump circuit, the input end of the charge pump circuit is used for receiving a voltage signal, the first output end of the charge pump circuit is used for outputting a positive voltage signal, and the second output end of the charge pump circuit is used for outputting a negative voltage signal; the first input end of the switching circuit is connected with the first output end of the charge pump circuit, and the second input end of the switching circuit is connected with the second output end of the charge pump circuit; the input end of the buffer circuit is connected with the output end of the switching circuit, and the output end of the buffer circuit is connected with the piezoelectric ultrasonic transducer; wherein the switching circuit alternately transmits a positive pressure signal and a negative pressure signal to the buffer circuit so as to transmit a driving signal to the piezoelectric ultrasonic transducer through the buffer circuit.

The encoding device (100) has a circuit and a memory connected to the circuit, and the circuit performs, in operation, a process of deciding a boundary strength (S311) for controlling whether or not to perform deblocking filter processing for a block boundary of a generated reconstructed image. The decided process includes a process of setting the boundary strength to a second value in a case where encoding modes of one of a current block and a neighboring block of the current block and an encoding mode of the other are different from each other, the encoding modes of the one and the other being one of an intra block copy mode, a palette mode, and an inter mode, the setting process being performed in a case where the current block is a luma block, and not being performed in a case where the current block is a chroma block.

The invention relates to a coding and decoding device, a coding and decoding method, a bit stream transmission device and a storage medium. This encoding device is provided with: a circuit that, during operation, designs each of a plurality of sub-pictures included in a picture, encodes configuration information indicating the configuration of each of the plurality of sub-pictures included in the picture, and stores the encoded configuration information; the circuit encodes each of the plurality of sub-pictures, the circuit, in action, designs each of the plurality of sub-pictures such that at least one pixel contained in each sub-picture is contained in the same consistent cropping window in the picture, conditions for designing the plurality of sub-pictures include that an upper end of each of the plurality of sub-pictures is located above a lower end of the consistent clipping window.

The present invention provides a multi-mode dimming circuit, comprising: a rectifier filter module, a dimming mode control module, a PWM dimming module, and a PWM dimming module power supply module. The present invention uses the dimming mode control module to receive a PWM dimming signal or a thyristor dimming signal; when the PWM dimming signal is received, the current value of the LED lamp board is adjusted according to the PWM dimming signal to perform PWM dimming; when the thyristor dimming signal is received, the current value of the LED lamp board is adjusted according to the thyristor dimming signal to perform thyristor dimming, thereby realizing a drive control that is compatible with PWM dimming and thyristor dimming at the same time, integrating multiple modes of dimming, effectively simplifying the circuit structure, and greatly reducing the drive cost and circuit size of the LED dimming circuit.

The invention provides an encoding device, a decoding device and a non-transitory computer readable medium. In both first-type residual encoding in which orthogonal transformation is applied to a current block and second-type residual encoding in which orthogonal transformation is skipped to the current block, when the number of times of CABAC encoding processing is within a range, a plurality of coefficient information flags are encoded by CABAC, each of the plurality of coefficient information flags being related to a coefficient included in the current block, and each of the plurality of coefficient information flags being related to a coefficient included in the current block. When the number of CABAC encoding processes is not within a range, encoding of the plurality of coefficient information flags is skipped, when the plurality of coefficient information flags are encoded, a residual value of the coefficient is encoded by Golomb encoding, the residual value is used to reconstruct a value of the coefficient using the plurality of coefficient information flags, and when not encoded, the residual value is used to reconstruct a value of the coefficient using the plurality of coefficient information flags. The value of the coefficient is encoded by Golomb encoding, syntax for the first and second type residual encoding differs, and a portion of the plurality of coefficient information flags differs between the first and second type residual encoding.

An encoding method of generating a first bitstream to be merged with a second bitstream. The encoding method includes: determining a first adaptive loop filter (ALF) setting that is a setting of an ALF for a first subpicture to be encoded into the first bitstream (S1061); encoding first ALF setting information indicating the first ALF setting into the first bitstream (S1062); and encoding the first subpicture into the first bitstream according to the first ALF setting (S1063), in which, in the determining of the first ALF setting, an ALF setting that does not refer to an adaption parameter set (APS) index referred to in the second bitstream is determined as the first ALF setting.

The invention provides an encoding device, a decoding device and a non-transitory computer readable medium. In both first-type residual encoding in which orthogonal transformation is applied to a current block and second-type residual encoding in which orthogonal transformation is skipped to the current block, when the number of times of CABAC encoding processing is within a range, a plurality of coefficient information flags are encoded by CABAC, each of the plurality of coefficient information flags being related to a coefficient included in the current block, and each of the plurality of coefficient information flags being related to a coefficient included in the current block. The plurality of coefficient information flags include flags indicating whether the coefficients are odd or even, when the number of times of CABAC encoding processing is not within a range, the encoding of the plurality of coefficient information flags is skipped, when the plurality of coefficient information flags are encoded, a residual value of the coefficients is encoded by Golomb encoding, and when the plurality of coefficient information flags are not encoded, the residual value of the coefficients is encoded by Golomb encoding. The value of the coefficient is encoded by Golomb encoding in which syntax for the first and second type residual encoding differs, and a portion of the plurality of coefficient information flags differ between the first and second type residual encoding.

The invention provides an encoding device, a decoding device and a non-transitory computer readable medium. In both first-type residual encoding in which orthogonal transformation is applied to a current block and second-type residual encoding in which orthogonal transformation is skipped to the current block, when the number of times of CABAC encoding processing is within a range, a plurality of coefficient information flags are encoded by CABAC, each of the plurality of coefficient information flags being related to a coefficient included in the current block, and each of the plurality of coefficient information flags being related to a coefficient included in the current block. Wherein, when the number of CABAC encoding processes is not within the range, the encoding of the plurality of coefficient information flags is skipped, when the plurality of coefficient information flags are encoded, the residual value of the coefficient is encoded by Golomb encoding, and when the plurality of coefficient information flags are not encoded, the value of the coefficient is encoded by Golomb encoding, the syntax for the first and second types of residual encoding is different, a portion of the plurality of coefficient information flags differ between the first and second types of residual encoding, and the plurality of coefficient information flags include a flag indicating whether the coefficient has a positive value or a negative value in the second type of residual encoding.

The coding device (100) comprises a circuit and a memory connected to the circuit, wherein the circuit encodes a block of an image while limiting the number of times of processing of context adaptive coding in operation, and in the coding of the block, in both cases of applying an orthogonal transform to the block and not applying an orthogonal transform to the block, a sub-block flag encoding process is performed without including it in the number of times of processing, wherein the sub-block flag encoding process encodes a sub-block flag indicating whether a sub-block included in the block includes a non-zero coefficient by context adaptive coding.

The invention provides a decoding device and a non-transitory computer readable medium. In both first type residual encoding in which orthogonal transformation is applied to a current block and second type residual encoding in which orthogonal transformation is skipped to the current block, when the number of times of CABAC decoding processing is within a range, a plurality of coefficient information flags are decoded by CABAC decoding, each of the plurality of coefficient information flags being related to a coefficient included in the current block, and each of the plurality of coefficient information flags being related to a coefficient included in the current block. When the number of CABAC decoding processes is not within a range, decoding of the plurality of coefficient information flags is skipped, when the plurality of coefficient information flags are decoded, a residual value of the coefficient is decoded by Golomb decoding, and when the plurality of coefficient information flags are not decoded, a value of the coefficient is decoded by Golomb decoding, the syntax for the first and second types of residual encoding is different, and a portion of the plurality of coefficient information flags is different between the first and second types of residual decoding.

The coding device (100) comprises a circuit (a1) and a memory (a2) connected to the circuit (a1). When the circuit (a1) is in operation, it performs LMCS (Luma Mapping with Chroma Scaling) mapping processing by using a plurality of line segments constituting a transformation curve, wherein the plurality of line segments respectively correspond to a plurality of intervals obtained by dividing a first pixel value space. The LMCS mapping processing transforms a first pixel value space of a display image signal applied to brightness into a second pixel value space of a coding processing signal applied to brightness, thereby encoding an image. When performing LMCS, the circuit determines the transformation curve in the following manner: for a plurality of boundary values ​​in the second pixel value space located at the boundaries of the plurality of line segments, a first value obtained by dividing the boundary value by a reference width is not equal to a second value obtained by dividing other boundary values ​​by the reference width, wherein the reference width is determined according to the bit depth of the image.

An X-ray image acquisition device includes a pixel unit having M pixel arrays each including N pixel portions (N and M are integers of 2 or more), M circuit units, and a control unit. Each circuit unit includes T (T is an integer of N or more) adding sections that sequentially add electrical signals corresponding to output signals from the N pixel portions and a switch section for switching connection states between the N pixel portions and the T adding sections. The control unit switches the connection states in synchronization with the transportation of an object along a first direction so that the electrical signals corresponding to the output signals output from the pixel portions by detecting X-rays transmitted through the same region of the object are added by the same adding sections.

A decoding device (200) is provided with: a circuit that, during operation, decodes a plurality of neural network information sets each specifying a neural network filter (S601), decodes, from one access unit, two or more activation information sets each specifying one neural network information set among the plurality of neural network information sets (S602), and decodes, from one access unit, two or more activation information sets each specifying one neural network information set among the plurality of neural network information sets (S603); two or more neural network filters specified by two or more neural network information sets specified by two or more activation information sets are applied to one picture (S603).

An X-ray image acquisition device includes a pixel unit having M pixel arrays each including N pixel portions (N and M are integers of 2 or more), M circuit units, and a control unit. Each circuit unit includes T (T is an integer of N or more) adding sections that sequentially add electrical signals corresponding to output signals from the N pixel portions and a switch section for switching connection states between the N pixel portions and the T adding sections. The control unit switches the connection states in synchronization with the transportation of an object along a first direction so that the electrical signals corresponding to the output signals output from the pixel portions by detecting X-rays transmitted through the same region of the object are added by the same adding sections.

The invention discloses a terahertz broadband amplifier monolithic circuit which comprises an input matching network, the signal input end of the input matching network is the signal input end of the monolithic circuit, and the output end of the input matching network is connected with one input end of a first driving stage power amplification transistor. One output end of the first driving stage power amplification transistor is connected with the input end of the output stage power amplification transistor through the first inter-stage matching network, and the output end of the output stage power amplification transistor is connected with the input end of the output matching network. The output end of the output matching network is the signal output end of the single-chip circuit; and the input matching network, the output matching network and the inter-stage matching network comprise broadband tuning capacitors and are used for reducing the loss of the terahertz broadband amplifier and improving the gain and the output power of the broadband amplifier. According to the monolithic circuit, the complexity of a THz broadband amplifier monolithic integrated circuit can be reduced, the circuit design period is shortened, and the size of the monolithic circuit is reduced.

The encoding device (100) includes a circuit and a memory connected to the circuit. When the circuit is in operation, if the video parameter set is used for encoding an image, it writes a first parameter to the video parameter set, the first parameter representing the maximum number of one or more temporal sub-layers in a layer set unit, where the layer set unit is a unit corresponding to a stream and is composed of one or more layers. It also writes a second parameter to the sequence parameter set, the second parameter representing the maximum number of one or more temporal sub-layers in a sequence unit, where the sequence unit is a unit corresponding to at least a part of a stream and is a unit referencing the sequence parameter set. If the video parameter set is used for encoding an image, the second parameter is limited to a value less than or equal to the first parameter. If the video parameter set is not used for encoding an image, the second parameter is limited to a fixed value or less.