Abstract: The present disclosure relates to the technical field of landslide hazard model tests, and in particular to a landslide model test method and device for realizing multi-variable synchronous monitoring. In the test device, a soil slope simulation unit is configured to pile up a soil slope and simulate different inclinations of the slope. A rainfall simulation unit is configured to simulate rainfall of different intensities and induce a landslide. A runoff-seepage separation unit is configured to realize separation of runoff from seepage of the slope under the effect of rainfall. A monitoring module is configured to monitor runoff and seepage flow rates of the slope, changes in water content and pore water pressure within the slope, and a morphological change of the slope under the effect of rainfall, to obtain a mechanism of rainfall-induced landslide deformation and damage based on changes in the flow rate.

Abstract: The present disclosure relates to the technical field of landslide hazard model tests, and in particular to a landslide model test method and device for realizing multi-variable synchronous monitoring. In the test device, a soil slope simulation unit is configured to pile up a soil slope and simulate different inclinations of the slope. A rainfall simulation unit is configured to simulate rainfall of different intensities and induce a landslide. A runoff-seepage separation unit is configured to realize separation of runoff from seepage of the slope under the effect of rainfall. A monitoring module is configured to monitor runoff and seepage flow rates of the slope, changes in water content and pore water pressure within the slope, and a morphological change of the slope under the effect of rainfall, to obtain a mechanism of rainfall-induced landslide deformation and damage based on changes in the flow rate.

Abstract: The present disclosure provides a method for predicting carbon consumption and carbon emission of a hydrogen-rich blast furnace (BF) based on a C-rd theory.

Abstract: A synergized pulsing-imaging network is described. A method of optimizing a magnetic resonance imaging (MRI) system includes optimizing, by a synergized pulsing-imaging network (SPIN) circuitry a pulse sequence based, at least in part, on a loss function associated with a reconstruction network. The method further includes optimizing, by the SPIN circuitry, the reconstruction network based, at least in part, on intermediate raw MRI data and based, at least in part, on a ground truth MRI image data. The intermediate raw MRI data is determined based, at least in part on the pulse sequence.

Abstract: A deep neural network for motion artifact reduction includes a transformer neural network, and a synthesis neural network. The transformer neural network is configured to receive input image data comprising a target image, a prior image, and a subsequent image. The transformer neural network is configured to mitigate a temporal aspect of the motion artifact, and to provide a transformer output related to the input data. The synthesis neural network is configured to receive the transformer output, and to provide at least one output image having a reduced motion artifact relative to the input image data.

Abstract: A synergized pulsing-imaging network is described. A method of optimizing a magnetic resonance imaging (MRI) system includes optimizing, by a synergized pulsing-imaging network (SPIN) circuitry a pulse sequence based, at least in part, on a loss function associated with a reconstruction network. The method further includes optimizing, by the SPIN circuitry, the reconstruction network based, at least in part, on intermediate raw MRI data and based, at least in part, on a ground truth MRI image data. The intermediate raw MRI data is determined based, at least in part on the pulse sequence.

Abstract: A mainframe computer with a supporting rack includes: a rack chassis and a supporting rack. The rack chassis has a first rack, and the first rack has a plurality of first positioning members. The supporting rack is arranged on the rack chassis, and the supporting rack has at least one first corresponding positioning member positioned corresponding to any one of at least one first positioning member. Therefore, the rack chassis and the support rack allow various types of objects (such as: solid state disk, cooling liquid tanks for cooling, hard drive or optical drive and so on) to be easily and conveniently installed onto the mainframe computer.

Abstract: A mainframe computer with a supporting rack includes: a rack chassis and a supporting rack. The rack chassis has a first rack, and the first rack has a plurality of first positioning members. The supporting rack is arranged on the rack chassis, and the supporting rack has at least one first corresponding positioning member positioned corresponding to any one of at least one first positioning member. Therefore, the rack chassis and the support rack allow various types of objects (such as: solid state disk, cooling liquid tanks for cooling, hard drive or optical drive and so on) to be easily and conveniently installed onto the mainframe computer.

Abstract: A computer case includes a case body, a carrying structure and a cooler. The case body is with an opening formed thereon. The carrying structure is detachably connected to the case body from the outside and corresponds to the position of the opening. The cooler is fixed to the carrying structure. This way, computer peripherals can be installed without disassembling the case body.

Abstract: A mainframe computer with a supporting rack includes: a rack chassis and a supporting rack. The rack chassis has a first rack, and the first rack has a plurality of first positioning members. The supporting rack is arranged on the rack chassis, and the supporting rack has at least one first corresponding positioning member positioned corresponding to any one of at least one first positioning member. Therefore, the rack chassis and the support rack allow various types of objects (such as: solid state disk, cooling liquid tanks for cooling, hard drive or optical drive and so on) to be easily and conveniently installed onto the mainframe computer.

Abstract: A mainframe computer with a supporting rack includes: a rack chassis and a supporting rack. The rack chassis has a first rack, and the first rack has a plurality of first positioning members. The supporting rack is arranged on the rack chassis, and the supporting rack has at least one first corresponding positioning member positioned corresponding to any one of at least one first positioning member. Therefore, the rack chassis and the support rack allow various types of objects (such as: solid state disk, cooling liquid tanks for cooling, hard drive or optical drive and so on) to be easily and conveniently installed onto the mainframe computer.

Abstract: A computer case includes a case body, a carrying structure and a cooler. The case body is with an opening formed thereon. The carrying structure is detachably connected to the case body from the outside and corresponds to the position of the opening. The cooler is fixed to the carrying structure. This way, computer peripherals can be installed without disassembling the case body.

Abstract: A computer case includes a case body, a carrying structure and a cooler. The case body is with an opening formed thereon. The carrying structure is detachably connected to the case body from the outside and corresponds to the position of the opening. The cooler is fixed to the carrying structure. This way, computer peripherals can be installed without disassembling the case body.

Abstract: A mainframe computer with a supporting rack includes: a rack chassis and a supporting rack. The rack chassis has a first rack, and the first rack has a plurality of first positioning members. The supporting rack is arranged on the rack chassis, and the supporting rack has at least one first corresponding positioning member positioned corresponding to any one of at least one first positioning member. Therefore, the rack chassis and the support rack allow various types of objects (such as: solid state disk, cooling liquid tanks for cooling, hard drive or optical drive and so on) to be easily and conveniently installed onto the mainframe computer.

Abstract: A fixing bracket for a computer accessory and a computer case thereof are discloses. The fixing bracket is for the installation of the computer accessory. The interior of the computer case is used for the assembly of the fixing bracket. The fixing bracket includes a carrier, a clamping part, and a limiting part. The carrier plate has a surface for stacking the computer accessory, and a first side edge and a second side edge opposite to one another. The clamping part is disposed on the first side edge. The limiting part is disposed on the second side edge. The computer accessory is stacked on the carrier plate. The clamping part clamps one end portion of the computer accessory and the limiting part tightly presses against the other end portion of the computer accessory such that the computer accessory is attached against to the carrier plate.

Abstract: A fastening device for securing and protecting an electronic device is provided. The electronic device is provided with at least one assembly hole. The fastening device includes a fastening assembly and a plate. The fastening assembly includes a buffer and a fastening element inserted through the buffer. The fastening element includes a rod portion, a fastening portion at one end of the rod portion, and a head portion at the other end of the rod portion. The fastening portion is fastened in the assembly hole. The plate includes a first positioning hole and a second positioning hole communicating with the first positioning hole. A diameter of the first positioning hole is greater than a diameter of the second positioning hole, and a diameter of the head portion is less than the diameter of the first positioning hole and greater than the diameter of the second positioning hole.

Abstract: A fastening device for securing and protecting an electronic device is provided. The electronic device is provided with at least one assembly hole. The fastening device includes a fastening assembly and a plate. The fastening assembly includes a buffer and a fastening element inserted through the buffer. The fastening element includes a rod portion, a fastening portion at one end of the rod portion, and a head portion at the other end of the rod portion. The fastening portion is fastened in the assembly hole. The plate includes a first positioning hole and a second positioning hole communicating with the first positioning hole. A diameter of the first positioning hole is greater than a diameter of the second positioning hole, and a diameter of the head portion is less than the diameter of the first positioning hole and greater than the diameter of the second positioning hole.

Abstract: A fixing bracket for a computer accessory and a computer case thereof are discloses. The fixing bracket is for the installation of the computer accessory. The interior of the computer case is used for the assembly of the fixing bracket. The fixing bracket includes a carrier, a clamping part, and a limiting part. The carrier plate has a surface for stacking the computer accessory, and a first side edge and a second side edge opposite to one another. The clamping part is disposed on the first side edge. The limiting part is disposed on the second side edge. The computer accessory is stacked on the carrier plate. The clamping part clamps one end portion of the computer accessory and the limiting part tightly presses against the other end portion of the computer accessory such that the computer accessory is attached against to the carrier plate.

Abstract: A computer case includes a case body, a carrying structure and a cooler. The case body is with an opening formed thereon. The carrying structure is detachably connected to the case body from the outside and corresponds to the position of the opening. The cooler is fixed to the carrying structure. This way, computer peripherals can be installed without disassembling the case body.

Abstract: A mainframe computer with a supporting rack includes: a rack chassis and a supporting rack. The rack chassis has a first rack, and the first rack has a plurality of first positioning members. The supporting rack is arranged on the rack chassis, and the supporting rack has at least one first corresponding positioning member positioned corresponding to any one of at least one first positioning member. Therefore, the rack chassis and the support rack allow various types of objects (such as: solid state disk, cooling liquid tanks for cooling, hard drive or optical drive and so on) to be easily and conveniently installed onto the mainframe computer.