Abstract: A multiplexed display panel includes sub-pixels, gate line, data lines, and a demultiplexer. The demultiplexer includes input channels each provided with switching transistors and fanout lines. Each fanout line is correspondingly connected to one data line by one switching transistor to provide one data signal to the one data line. The one switching transistor corresponding to each input channel is controlled by a same control signal. While each gate line scans one row of the sub-pixels, when a rising edge of the control signal reaches an amplitude, and at a moment when the one switching transistor is controlled by the control signal to be on, the demultiplexer is configured to make a difference between a potential reached by a rising edge of one fanout line correspondingly connected to the one data line and a potential of the one data line to be less than a preset threshold.

Abstract: Disclosed are a magnetic resonance temperature correction method based on k-space energy spectrum analysis and a system. The method includes: filling a k-space data matrix of magnetic resonance with zeros row by row, and performing an inverse Fourier transform on the k-space data matrix after filling each row of zeros, to obtain a reconstructed image; drawing a pixel intensity variation curve according to a pixel intensity of each pixel in all reconstructed images and a number of rows filled with zeros, and obtaining echo error according to the pixel intensity variation curve, calculation an actual echo time, and calculating a corresponding temperature variation value based on the TE of each pixel.

Abstract: A multiplexed display panel and device and a driving method for the multiplexed display panel are provided. At the moment when a switching switch is turned on, a potential of a fanout line corresponding to a data line connected to sub-pixels, into which an data signal is input, is adjusted to the same level as a potential of the data line as much as possible, and a potential difference between each fanout line and the corresponding data line is relatively small at the moment when the switching switch is turned on, so that an instantaneous current at this moment is greatly reduced without causing relatively large jump of the potential of the data line, a common electrode and back-plated indium tin oxide (ITO) greatly fluctuate, and then the surface noise generated by the display panel is turned on is greatly reduced.

Abstract: Provided are a continuous post-treatment method and device for a penem compound. The method includes the following steps: S1, performing continuous extraction on a reaction crude product of a penem compound, to obtain an extraction heavy phase and an extraction light phase; S2, performing continuous solid-liquid separation on the extraction heavy phase, to obtain a liquid phase separation product; S3, performing continuous pH adjustment on the liquid phase separation product until a pH value thereof is 6.1-6.3, to obtain pH-adjusted solution; and S4, performing continuous crystallization treatment on the pH-adjusted solution by a first crystallization solvent, to obtain a penem compound product. The use of the method for the post-treatment of the reaction crude product of the penem compound has the advantages of high treatment speed and high efficiency, and stable material properties and a low deterioration rate during the treatment, and has better control over the yield and purity of a target product.

Abstract: A multiplexed display panel and device and a driving method for the multiplexed display panel are provided. At the moment when a switching switch is turned on, a potential of a fanout line corresponding to a data line connected to sub-pixels, into which an data signal is input, is adjusted to the same level as a potential of the data line as much as possible, and a potential difference between each fanout line and the corresponding data line is relatively small at the moment when the switching switch is turned on, so that an instantaneous current at this moment is greatly reduced without causing relatively large jump of the potential of the data line, a common electrode and back-plated indium tin oxide (ITO) greatly fluctuate, and then the surface noise generated by the display panel is turned on is greatly reduced.

Abstract: The present application sets forth an array substrate and a display terminal. The array substrate includes an underlay, a light shielding layer disposed on the underlay, an active layer disposed on the light shielding layer, and a connection element disposed on the active layer. The light shielding layer includes light shielding portions spaced from one another. The active layer includes active portions spaced from one another. The active portions correspond to the light shielding portions. Furthermore, adjacent two active portions are electrically connected through a bridge element. A toughness of the bridge element is greater than a toughness of the active portion.

Abstract: A display device is provided. The display device includes a display panel and a plurality of driving chips. A detection circuit of each of the driving chips includes a plurality of sub-detection circuits. Each of the sub-detection circuits is correspondingly coupled to one data line through a control switch corresponding to each of the sub-detection circuits. The display panel further has a plurality of detection pads. A plurality of detection signals received by the detection pads are transmitted to the data lines through the sub-detection circuits. A portion of the data lines correspondingly coupled to each of the driving chips is grouped into a data line group. Resistance of the sub-detection circuits correspondingly coupled to the portion of the data lines in the data line group is caused to continuously gradually vary.

Abstract: The present disclosure provides techniques for rate adaptation under congestion and latency constraints. The approaches described herein focus on aspects of latency, reliability, and power consumption instead of the traditional aspect of throughput. In an example, a method for rate adaptation is disclosed. The method may include determining whether to transmit a new packet or a retry packet. The method may also include reducing a maximum rate for a rate search in response to determining to transmit the retry packet. The method may further include transmitting the retry packet based on the reduced maximum rate.

Abstract: A gate driver on array (GOA) circuit and a display panel are provided. The GOA circuit provides a pull-up maintaining module including transistors T11, T12, and T13. In a pre-charge sub-phase t1 and an output sub-phase t2, a node Qb is at a high level to pull down a node P and turn off the transistor T13. A node K changes to the high level under control of the transistor T11. The transistor T12 is turned on, and the node Qb is keeping at the high level. A node Qa is keeping at the high level in the pre-charge sub-phase, and keeping at a bootstrap electrical level in the output sub-phase.

Abstract: A gate driver on array (GOA) circuit and a display panel are provided. The GOA circuit includes multi-stage cascaded GOA units, and each GOA unit includes a bootstrap module. The bootstrap effect of the bootstrap module is utilized to increase the gate voltage of the output transistor, which can effectively reduce the rise time and fall time of the scan signal output by each GOA unit, thereby improving the charging capability of the display panel.

Abstract: A GOA circuit and a display panel are provided. The GOA circuit includes a first pull-down module for pulling down a voltage level of a current-stage gate driving signal, a second pull-down module for pulling down a voltage level of the first node, a third pull-down module for pulling down a voltage level of the second node, and a fourth pull-down module for pulling down the voltage level of the current-stage gate driving signal. The GOA circuit raises the effect of pulling down the current-stage gate driving signal.

Abstract: Disclosed are a magnetic resonance temperature correction method based on k-space energy spectrum analysis and a system. The method includes: filling a k-space data matrix of magnetic resonance with zeros row by row, and performing an inverse Fourier transform on the k-space data matrix after filling each row of zeros, to obtain a reconstructed image; drawing a pixel intensity variation curve according to a pixel intensity of each pixel in all reconstructed images and a number of rows filled with zeros, and obtaining echo error according to the pixel intensity variation curve, calculation an actual echo time, and calculating a corresponding temperature variation value based on the TE of each pixel.

Abstract: In a GOA circuit and a display panel provided by embodiments of the present application, a reset module is provided in each level of GOA units, so that each level of the GOA units can output a high potential before an end of a frame, all gates in a display area are turned on, and a charge of all pixels in the display area is discharged; after that, each level of the GOA units outputs a low potential, and all of the gates in the display area are set to the low potential.

Abstract: A gate driver on array (GOA) circuit and a display panel are provided. The GOA circuit includes multi-stage cascaded GOA units, and each GOA unit includes a bootstrap module. The bootstrap effect of the bootstrap module is utilized to increase the gate voltage of the output transistor, which can effectively reduce the rise time and fall time of the scan signal output by each GOA unit, thereby improving the charging capability of the display panel.

Abstract: A gate driver on array (GOA) circuit and a display panel are provided. The GOA circuit provides a pull-up maintaining module including transistors T11, T12, and T13. In a pre-charge sub-phase t1 and an output sub-phase t2, a node Qb is at a high level to pull down a node P and turn off the transistor T13. A node K changes to the high level under control of the transistor T11. The transistor T12 is turned on, and the node Qb is keeping at the high level. A node Qa is keeping at the high level in the pre-charge sub-phase, and keeping at a bootstrap electrical level in the output sub-phase.

Abstract: In a GOA circuit and a display panel provided by embodiments of the present application, a reset module is provided in each level of GOA units, so that each level of the GOA units can output a high potential before an end of a frame, all gates in a display area are turned on, and a charge of all pixels in the display area is discharged; after that, each level of the GOA units outputs a low potential, and all of the gates in the display area are set to the low potential.

Abstract: A display panel and an electronic apparatus are provided. The display panel includes a substrate comprising a display section, a binding section, and a fan-out section disposed between the display section and the binding section. By disposing a first detecting module on the binding section, and a second detecting module on a side of the fan-out section adjacent to the display section to test whether the signal wires is normal, waste of back-end materials caused by broken signal wires is prevented, and product yields are increased.

Abstract: The present disclosure provides a gate driver on array (GOA) circuit and a display panel. The GOA circuit includes multi-level cascaded GOA units. Each of the GOA units includes a pull-up control module, a pull-up module, a pull-down module, a pull-down maintenance module and a bootstrap capacitor. By sharing part of the circuit, each of the GOA units can realize multi-level scanning signal outputting, which simplifies the structure of the GOA circuit and further realizes a narrow frame design of display panels.

Abstract: A GOA circuit and a display panel are provided. The GOA circuit includes a first pull-down module for pulling down a voltage level of a current-stage gate driving signal, a second pull-down module for pulling down a voltage level of the first node, a third pull-down module for pulling down a voltage level of the second node, and a fourth pull-down module for pulling down the voltage level of the current-stage gate driving signal. The GOA circuit raises the effect of pulling down the current-stage gate driving signal.

Abstract: A display device is provided. The display device includes a display panel and a plurality of driving chips. A detection circuit of each of the driving chips includes a plurality of sub-detection circuits. Each of the sub-detection circuits is correspondingly coupled to one data line through a control switch corresponding to each of the sub-detection circuits. The display panel further has a plurality of detection pads. A plurality of detection signals received by the detection pads are transmitted to the data lines through the sub-detection circuits. A portion of the data lines correspondingly coupled to each of the driving chips is grouped into a data line group. Resistance of the sub-detection circuits correspondingly coupled to the portion of the data lines in the data line group is caused to continuously gradually vary.