Abstract: Provided are a configuration information determination method and apparatus, an information configuration method and apparatus, a terminal, a base station, and a storage medium. The configuration information determination method includes determining, by a first type terminal, according to physical downlink control channel (PDCCH) configuration signaling corresponding to system information block 1 (SIB1) in a master information block (MIB) sent by a base station, configuration information of a first control resource set zero (CORESET0) corresponding to the first type terminal, where the PDCCH configuration signaling corresponding to the SIB1 in the MIB corresponds to a second CORESET0 corresponding to a second type terminal.

Abstract: There is provided a conductive film, a production method thereof, and a display apparatus. The conductive film comprises: nanometal as a filling material; and oxidized nanocellulose as a matrix material. The nanometal/oxidized nanocellulose composite conductive film may be used in flexible display.

Abstract: Disclosed is a magnetic resonance imaging radio-frequency coil assembly with high time-domain signal stability, mainly including a radio-frequency transmitting coil unit, a plurality of radio-frequency receiving coil units, and a housing structure. A plane area of the radio-frequency transmitting coil unit is larger than a sum of layout plane areas of all of the plurality of radio-frequency receiving coil units. The plurality of radio-frequency receiving coil units are arranged at an internal side of the radio-frequency transmitting coil unit. An overall size of an array formed by the plurality of radio-frequency receiving coil units is larger than a size of an imaging region. A circumference of each radio-frequency receiving coil unit is less than one tenth of a wavelength of a vacuum electromagnetic wave. Thermal noise from the load accounts for a small proportion in the radio-frequency receiving coil units.

Abstract: The present disclosure provides a drawer-type carrying device for an accelerator and an cabin structure for the accelerator, the drawer-type carrying device for the accelerator includes a frame mechanism and a drawing mechanism. The frame mechanism is used for installing the accelerator; the drawing mechanism is connected with the frame mechanism and the frame mechanism is movable relative to the drawing mechanism. The cabin structure for the accelerator includes a cabin, a shielding mechanism and a drawer-type carrying device for the accelerator. The cabin has a working area and a maintenance area. The shielding mechanism is disposed in the working area and has a side opening door facing towards the maintenance area. The frame mechanism is capable of drawn from the shielding mechanism into the maintenance area when the side opening door is opened.

Abstract: There is provided a conductive film, a production method thereof, and a display apparatus. The conductive film comprises: nanometal as a filling material; and oxidized nanocellulose as a matrix material. The nanometal/oxidized nanocellulose composite conductive film may be used in flexible display.

Abstract: The present application discloses an accelerator system for mineral component analysis and system and method for mineral component analysis. The accelerator system includes an electron gun for generating an electron beam; an accelerating tube for accelerating an electron beam emitted by the electron gun to a predetermined energy; a composite target for generating a radioactive ray on the composite target after receiving bombardment of the electron beam; and a shielding mechanism for shielding the radioactive ray.

Abstract: A method for controlling a self-balancing vehicle, includes: acquiring a state of a parameter input from a user through a pedal of the self-balancing vehicle; and when the state of the parameter indicates that a change has occurred in the parameter, controlling operation of the self-balancing vehicle according to the change.

Abstract: The present disclosure provides a drawer-type carrying device for an accelerator and an cabin structure for the accelerator, the drawer-type carrying device for the accelerator includes a frame mechanism and a drawing mechanism. The frame mechanism is used for installing the accelerator; the drawing mechanism is connected with the frame mechanism and the frame mechanism is movable relative to the drawing mechanism. The cabin structure for the accelerator includes a cabin, a shielding mechanism and a drawer-type carrying device for the accelerator. The cabin has a working area and a maintenance area. The shielding mechanism is disposed in the working area and has a side opening door facing towards the maintenance area. The frame mechanism is capable of drawn from the shielding mechanism into the maintenance area when the side opening door is opened.

Abstract: The present application discloses an accelerator system for mineral component analysis and system and method for mineral component analysis. The accelerator system includes an electron gun for generating an electron beam; an accelerating tube for accelerating an electron beam emitted by the electron gun to a predetermined energy; a composite target for generating a radioactive ray on the composite target after receiving bombardment of the electron beam; and a shielding mechanism for shielding the radioactive ray.

Abstract: Systems and methods for producing an image of the electrical properties of an object using magnetic resonance imaging (“MRI”) are provided. The electrical properties are determined based on estimated gradient values of the electrical properties of the object. For instance, electrical property maps are reconstructed using a spatial integration on gradient values that are estimated from the magnitude and relative phase values derived from measurements of multiple transmit and receive B1fields. Specific absorption rate (“SAR”) maps can also be produced based on the estimated electrical properties.

Abstract: A method for controlling a self-balancing vehicle, includes: acquiring a state of a parameter input from a user through a pedal of the self-balancing vehicle; and when the state of the parameter indicates that a change has occurred in the parameter, controlling operation of the self-balancing vehicle according to the change.

Abstract: The disclosure relates to an anti-theft method for a balance vehicle, a device, and a non-transitory computer readable medium. The method includes measuring a first set of physiological characteristics of a first user that is currently occupying the balance vehicle; retrieving a second set of physiological characteristics from storage, wherein the second set of physiological characteristics is associated with at least one second user that is permitted to operate the balance vehicle; comparing the first set of physiological characteristics with the second set of physiological characteristics; determining whether the first user is different from the second user based on the comparison; and generating a prompt that is configured to indicate whether the first user is different from the second user based on the determination.

Abstract: Techniques are provided herein for utilizing a dynamic geo-fence management engine. The techniques include receiving a set of parameters corresponding to a virtual geographic perimeter. A user may be determined based at least in part on a geographical location of the user and the set of parameters corresponding to the virtual geographic perimeter. A notification for the user may be generated, the notification being formatted according to a push notification service protocol the notification including the set of parameters. The notification may be provided to a remote computing device. Receipt of the notification by the remote computing device may cause the remote computing device to provide, to the user, information related to the virtual geographic perimeter.

Abstract: Systems and methods for producing an image of the electrical properties of an object using magnetic resonance imaging (“MRI”) are provided. The electrical properties are determined based on estimated gradient values of the electrical properties of the object. For instance, electrical property maps are reconstructed using a spatial integration on gradient values that are estimated from the magnitude and relative phase values derived from measurements of multiple transmit and receive B1 fields. Specific absorption rate (“SAR”) maps can also be produced based on the estimated electrical properties.