Abstract: The application includes a display panel, display panel driving method and display apparatus. The display panel includes a demultiplexing circuit, of which, an input end is connected to a data signal fan-out line, two output ends are respectively connected to two data signal lines, and two control ends are connected to a first and second strobe signal line respectively. In an nth line scanning stage, a first strobe signal is switched from a disable signal to an enable signal at a first time node, and a second strobe signal is switched from the enable signal to the disable signal at a second time node. In an (n+1)th line scanning stage, the first strobe signal is switched from the enable signal to the disable signal at a third time node, and the second strobe signal is switched from the disable signal to the enable signal at a fourth time node.

Abstract: Provided are a carbon dioxide decomposition step of generating magnetite that has a surface to which carbon adheres, a carbon separation step of generating carbon and iron chloride, a hydrogen production step of generating magnetite, hydrogen, and a hydrogen chloride gas, and a reducing agent regeneration step of generating the reducing agent used in the carbon dioxide decomposition step, in which the reducing agent is an oxygen-deficient iron oxide represented by Fe3O4-? (where, ? is 1 or more and less than 4) obtained by reducing magnetite while maintaining a magnetite crystal structure, an oxygen-completely deficient iron (?=4) obtained by completely reducing magnetite, an oxygen-deficient iron oxide obtained by reducing hematite or a used disposable warmer, or an oxygen-completely deficient iron obtained by completely reducing hematite or a used disposable warmer.

Abstract: Provided are a method for transmitting data, an electronic device, and a non-transitory computer-readable medium. The method includes determining whether a serial number of a data line corresponding to the current channel datum is a staring serial number of a first predetermined serial number range, when yes, mapping a staring serial number or an ending serial number of a first mapping range as the serial number of the data line corresponding to the current channel datum, and resetting a counting value; and determining whether the serial number of the data line corresponding to the current channel datum is not the starting serial number of the first predetermined serial number range, and when yes, increasing a current counting value by 1 within a first counting range, determining a current serial number step, and mapping a sum of the current serial number step and another serial number as the serial number.

Abstract: The application includes a display panel, display panel driving method and display apparatus. The display panel includes a demultiplexing circuit, of which, an input end is connected to a data signal fan-out line, two output ends are respectively connected to two data signal lines, and two control ends are connected to a first and second strobe signal line respectively. In an nth line scanning stage, a first strobe signal is switched from a disable signal to an enable signal at a first time node, and a second strobe signal is switched from the enable signal to the disable signal at a second time node. In an (n+1)th line scanning stage, the first strobe signal is switched from the enable signal to the disable signal at a third time node, and the second strobe signal is switched from the disable signal to the enable signal at a fourth time node.

Abstract: The present application discloses a method, apparatus and apparatus device for performing brightness attenuation compensation of a display panel. The method includes: acquiring a first light-emitting count value corresponding to a first light-emitting block and count offset values corresponding to the light-emitting blocks; determining a brightness difference between each of the light-emitting blocks and the first light-emitting block based on the first light-emitting count value, the count offset values corresponding to the light-emitting blocks and a first correspondence; and performing brightness attenuation compensation of each of the light-emitting blocks based on the brightness difference between each of the light-emitting blocks and the first light-emitting block.

Abstract: There is provided a method for producing a carbon material, including a carbon generation step of causing carbon dioxide to react with a reducing agent to generate carbon, in which, as the reducing agent, an oxygen-deficient iron oxide represented by Fe3O4-? (where ? is 1 or more and less than 4), which is obtained by reducing magnetite while maintaining a crystal structure, or an oxygen-completely deficient iron (?=4) which is obtained by completely reducing magnetite is used.

Abstract: Provided are a method for transmitting data, an electronic device, and a non-transitory computer-readable medium. The method includes determining whether a serial number of a data line corresponding to the current channel datum is a staring serial number of a first predetermined serial number range, when yes, mapping a staring serial number or an ending serial number of a first mapping range as the serial number of the data line corresponding to the current channel datum, and resetting a counting value; and determining whether the serial number of the data line corresponding to the current channel datum is not the starting serial number of the first predetermined serial number range, and when yes, increasing a current counting value by 1 within a first counting range, determining a current serial number step, and mapping a sum of the current serial number step and another serial number as the serial number.

Abstract: An apparatus as a suitable embodiment, wherein a reactor (102) has a nozzle (means for supplying a raw material, an oxidizing agent and water) (103), a high temperature and high pressure gas formed by reacting the raw material with oxygen or the like in an oxidizing agent under a water-containing atmosphere is introduced to a heat exchanger (104) which is provided between a pressure vessel (101) and the reactor (102), the pressure vessel (101) has a water inlet (114) connected with a water supply line (106) and an opening (117) for a discharge line (105) for a formed gas which is connected with the heat exchanger (104), and the nozzle (103) has a flow route for supplying water present between the pressure vessel (101) and the reactor (102) to the inside of the reactor(102); and a method for pyrolysis and gasification using the apparatus.