Abstract: The present invention discloses a game screen display method and apparatus, a storage medium, and an electronic device. The method includes: acquiring a current first position of a target virtual character in a game; acquiring a first background image from a pre-rendered background image that corresponds to the first position and a first foreground image that corresponds to the first position, respectively; generating a first game screen corresponding to the first position according to the first background image and the first foreground image; and causing a display of the first game screen by a target client of the game.

Abstract: Embodiments of this application disclose a live streaming interaction system including: a server, an anchor terminal and at least one viewer terminal that have a first communication connection to the server, and intelligent hardware having a second communication connection to the anchor terminal. The server receives a first control request from the viewer terminal, generate a corresponding second control request, and sends the second control request to the anchor terminal. The anchor terminal forwards the second control request to the intelligent hardware. The intelligent hardware then performs a corresponding operation according to the second control request and returns live streaming data to the viewer terminal through the server. As such, the intelligent hardware can support a live streaming process between a user at the anchor terminal and a user at the viewer terminal that can remotely control the intelligent hardware by using the viewer terminal.

Abstract: Embodiments of this application disclose a live streaming interaction system including: a server, an anchor terminal and at least one viewer terminal that have a first communication connection to the server, and intelligent hardware having a second communication connection to the anchor terminal. The server receives a first control request from the viewer terminal, generate a corresponding second control request, and sends the second control request to the anchor terminal. The anchor terminal forwards the second control request to the intelligent hardware. The intelligent hardware then performs a corresponding operation according to the second control request and returns live streaming data to the viewer terminal through the server. As such, the intelligent hardware can support a live streaming process between a user at the anchor terminal and a user at the viewer terminal that can remotely control the intelligent hardware by using the viewer terminal.

Abstract: The invention is aimed to analyze the characteristics of a transmission line only by inputting the specific distributed parameters without mesh dividing the transmission line to be analyzed into minimal unit required for the analysis. An arithmetic operation section 12 solves a differential equation regarding electromagnetic interaction of each line segment based on the predetermined distributed parameters, including a distributed self-inductance Li, a distributed resistance Ri, and a distributed capacitance ci and a distributed conductance gi in relation to a reference potential plane in the transmission line, and a distributed mutual inductance Mij, a distributed capacitance Cij, and a distributed conductance Gij between the transmission line and another transmission line, which are input from an input section 11, and calculates the characteristic data of the transmission line.

Abstract: A filter element includes a coil part formed in an overall tubular shape by layering a pair of signal transmitting belt-shaped conductors and a grounding belt-shaped conductor with a belt-shaped insulator in between and winding so that the grounding belt-shaped conductor is outside a pair of signal transmitting belt-shaped conductors, a magnetic body attached to a center of the coil part; a pair of input terminals that are connected to respective outermost circumferential parts of the pair of signal transmitting belt-shaped conductors and are respectively led from outer circumferential positions of the coil part; a pair of output terminals that are connected to respective innermost circumferential parts of the pair of signal transmitting belt-shaped conductors and are respectively led from central positions of the coil part located on an opposite side to leading positions of the pair of input terminals with the magnetic body in between; and a grounding terminal that is connected to an outermost circumferentia

Abstract: A filter element includes a coil part formed in an overall tubular shape by layering a pair of signal transmitting belt-shaped conductors and a grounding belt-shaped conductor with a belt-shaped insulator in between and winding so that the grounding belt-shaped conductor is outside a pair of signal transmitting belt-shaped conductors, a magnetic body attached to a center of the coil part; a pair of input terminals that are connected to respective outermost circumferential parts of the pair of signal transmitting belt-shaped conductors and are respectively led from outer circumferential positions of the coil part; a pair of output terminals that are connected to respective innermost circumferential parts of the pair of signal transmitting belt-shaped conductors and are respectively led from central positions of the coil part located on an opposite side to leading positions of the pair of input terminals with the magnetic body in between; and a grounding terminal that is connected to an outermost circumferentia

Abstract: A filter element includes a coil part formed in an overall tubular shape by layering a pair of signal transmitting belt-shaped conductors and a grounding belt-shaped conductor with a belt-shaped insulator in between and winding so that the grounding belt-shaped conductor is outside a pair of signal transmitting belt-shaped conductors, a magnetic body attached to a center of the coil part; a pair of input terminals that are connected to respective outermost circumferential parts of the pair of signal transmitting belt-shaped conductors and are respectively led from outer circumferential positions of the coil part; a pair of output terminals that are connected to respective innermost circumferential parts of the pair of signal transmitting belt-shaped conductors and are respectively led from central positions of the coil part located on an opposite side to leading positions of the pair of input terminals with the magnetic body in between; and a grounding terminal that is connected to an outermost circumferentia

Abstract: A filter element includes a coil part formed in an overall tube-like shape by layering a signal transmitting belt-like conductor and a grounding belt-like conductor with a belt-like insulator in between and winding so that the grounding belt-like conductor is outside the signal transmitting belt-like conductor, a magnetic body being attached to a center of the coil part; an input terminal that is connected to an outermost circumferential part of the signal transmitting belt-like conductor and is led from an outer circumferential position of the coil part; an output terminal that is connected to an innermost circumferential part of the signal transmitting belt-like conductor and is led from a central position of the coil part located on an opposite side to a leading position of the input terminal with the magnetic body in between; and a grounding terminal that is connected to an outermost circumferential part of the grounding belt-like conductor and is led from an outer circumferential position of the coil par

Abstract: A filter element includes a coil part formed in an overall tube-like shape by layering a signal transmitting belt-like conductor and a grounding belt-like conductor with a belt-like insulator in between and winding so that the grounding belt-like conductor is outside the signal transmitting belt-like conductor, a magnetic body being attached to a center of the coil part; an input terminal that is connected to an outermost circumferential part of the signal transmitting belt-like conductor and is led from an outer circumferential position of the coil part; an output terminal that is connected to an innermost circumferential part of the signal transmitting belt-like conductor and is led from a central position of the coil part located on an opposite side to a leading position of the input terminal with the magnetic body in between; and a grounding terminal that is connected to an outermost circumferential part of the grounding belt-like conductor and is led from an outer circumferential position of the coil par

Abstract: The invention is aimed to analyze the characteristics of a transmission line only by inputting the specific distributed parameters without mesh dividing the transmission line to be analyzed into minimal unit required for the analysis. An arithmetic operation section 12 solves a differential equation regarding electromagnetic interaction of each line segment based on the predetermined distributed parameters, including a distributed self-inductance Li, a distributed resistance Ri, and a distributed capacitance ci and a distributed conductance gi in relation to a reference potential plane in the transmission line, and a distributed mutual inductance Mij, a distributed capacitance Cij, and a distributed conductance Gij between the transmission line and another transmission line, which are input from an input section 11, and calculates the characteristic data of the transmission line.