Abstract: Disclosed is a carbon-dioxide-responsive self-thickening intelligent fluid based on supramolecular self-assembly, which comprises a Gemini surfactant, a single-chain amide molecule having a tertiary amine head group and water, wherein the Gemini surfactant and the single-chain amide molecule are self-assembled to form a vesicle structure dispersed in water, with a hydrophilic head group being located outside and a hydrophobic tail group located inside. The method for preparing the carbon-dioxide-responsive self-thickening intelligent fluid of the present invention is simple, the injection viscosity is low, and the fluid is converted into a gel when encountering carbon dioxide, so that the viscosity is greatly increased.

Abstract: Provided is a support assembly. The support assembly includes at least one bending region, and a first surface and a second surface opposite to the first surface; wherein the at least one bending region is provided with a plurality of blind holes, wherein the plurality of blind holes are disposed in the second surface, the plurality of blind holes are arranged in an array, and a lengthwise direction of each of the plurality of blind holes is consistent with a bending direction of the bending region.

Abstract: This application relates to a method and an apparatus for controlling a sound receiving device based on a dual-mode audio three-dimensional code and a method and an apparatus for parsing a control signal of a sound receiving device based on a dual-mode audio three-dimensional code. The method includes: receiving an operation instruction and encoding the operation instruction as a digital vector; obtaining a first audio three-dimensional code corresponding to a preset speech signal, and encoding the digital vector into the first audio three-dimensional code to obtain a second audio three-dimensional code; and converting the second audio three-dimensional code into a speech signal and sending the speech signal to a sound receiving device. In the method, operation convenience can be improved, and an instruction operation can be performed without arrangement of any additional module.

Abstract: A negotiation method used in a high definition multimedia interface (HDMI) is provided. The negotiation method includes: transmitting a first negotiation signal from a first side to a second side during a first specific time period for enabling negotiation of an HDMI Ethernet Channel (HEC); and checking whether any negotiation signal sent from the second side is received by the first side for determining a result of the negotiation. The first negotiation signal includes parameters of Energy Efficient Ethernet (EEE) or parameters of flow control at least. Any packet of the negotiation signal excludes a data field of Start Frame Delimiter (SFD), and therefore the packet can be applied for point-to-point transmission and compatible with the Physical layer.

Abstract: A negotiation method used in a high definition multimedia interface (HDMI) is provided. The negotiation method includes: transmitting a first negotiation signal from a first side to a second side during a first specific time period for enabling negotiation of an HDMI Ethernet Channel (HEC); and checking whether any negotiation signal sent from the second side is received by the first side for determining a result of the negotiation. The first negotiation signal includes parameters of Energy Efficient Ethernet (EEE) or parameters of flow control at least. Any packet of the negotiation signal excludes a data field of Start Frame Delimiter (SFD), and therefore the packet can be applied for point-to-point transmission and compatible with the Physical layer.