Abstract: The present invention provides a heat-conducting flame-retardant material, wherein the heat-conducting flame-retardant material is a liquid state, colloidal state, or a semisolid state, and comprises: silicon dioxide, which accounts for 10-85% of the entire weight; a reactant, which has crosslinking properties and foaming reactivity, and is mixed with the silicon dioxide; and a catalyst, which is a temperature active or photoactive catalyst, and when mixed with the reactant triggers a foaming reaction of the reactant. Before a foaming reaction of the reactant occurs, the heat-conducting flame-retardant material has heat conductivity properties, and is provided with flame retardant characteristics after a foaming reaction of the reactant occurs.

Abstract: The present invention provides thermal interface materials for the interior, center, and exterior of an electronic component, wherein the interior thereof is a first contact interface between an electronic chip and an integrated heat spreader; the center thereof is a second contact interface between the electronic chip and a heatsink; and the exterior thereof is a third contact interface between the integrated heat spreader and the heatsink. The thermal interface material consists of: a first, a second, a third thermal conductive adhesive layer, along with a thin electrically conductive functional layer. The thin electrically conductive functional layer is at least a conductive foil, a conductive foil with a ceramic and/or graphene heat dissipation layer on one side thereof, and a conductive foil with a ceramic and/or graphene heat dissipation layer on two sides thereof; and is laminated between the first and the second thermal conductive adhesive layer.

Abstract: A semiconductor power device having an active region, the active region of the device including at least two split-gate trench regions, and the two laterally adjacent split-gate trench regions are separated by a mesa region, and two or more contact regions of a first conductivity type located in the mesa region. The contact regions of a first conductivity type are in contact with the two adjacent split-gate trench regions so that, in use, a channel is formed along a side of each split-gate trench region. The device further includes at least two insulating spacer regions located over and aligned with the two or more contact regions of a first conductivity type, and a source contact extending from an upper surface of the device within the mesa region and between the at least two insulating spacer regions.

Abstract: Methods for extracting one or more compounds from a plant or fungal material feedstock include immersing the plant or fungal material feedstock in a liquid, subjecting the immersed plant or fungal material and/or the liquid to ultrasonic vibrations, and subsequently extracting one or more compounds from the plant or fungal material. Also disclosed are methods for treating one or more compounds extracted from a plant or fungal material feedstock. Such methods include providing the extracted compounds and a liquid to an emulsification vessel, subjecting the extracted compounds and the liquid to ultrasonic vibrations using a circulating agitator to create an emulsion of the extracted compounds and the liquid. The methods for extracting one or more compounds from a plant or fungal material feedstock and the methods for treating one or more compounds extracted from a plant or fungal material feedstock may be used separately or in conjunction with each other.

Abstract: The present invention provides thermal interface materials for the interior, center, and exterior of an electronic component, wherein the interior thereof is a first contact interface between an electronic chip and an integrated heat spreader; the center thereof is a second contact interface between the electronic chip and a heatsink; and the exterior thereof is a third contact interface between the integrated heat spreader and the heatsink. The thermal interface material consists of: a first, a second, a third thermal conductive adhesive layer, along with a thin electrically conductive functional layer. The thin electrically conductive functional layer is at least a conductive foil, a conductive foil with a ceramic and/or graphene heat dissipation layer on one side thereof, and a conductive foil with a ceramic and/or graphene heat dissipation layer on two sides thereof; and is laminated between the first and the second thermal conductive adhesive layer.

Abstract: The present invention provides a heat dissipation conductive flexible board, which is assembled from: at least a single layer thin board, the structure of which includes a first conductive thin layer and a first functional thin layer, and at least a double layer thin board, the structure of which includes a second conductive thin layer, a second functional thin layer, and a third functional thin layer. A spraying, coating, or printing method is used to manufacture the single layer thin board and the double layer thin board; after which the single layer thin board and the double layer thin board are laminated together to form the heat dissipation conductive flexible board having a multi-layer conductive structure.

Abstract: The present invention discloses a method for preparing a PEGylated biomolecule with controllable binding sites, comprising: (1) PEGylating a biomolecule; (2) binding a barrier to at least one binding site in the PEGylated biomolecule; (3) separating the PEGylated biomolecule not bound to the barrier; and (4) separating the barrier and the PEGylated biomolecule bound thereto. In another aspect, the present invention discloses a method for preparing a PEGylated IL-2 with controllable binding sites, comprising: (1) PEGylating to couple a PEG with IL-2; (2) binding the PEGylated IL-2 to an IL-2? receptor; (3) separating the PEGylated IL-2 not bound to the IL-2? receptor; and (4) separating the IL-2? receptor and the PEGylated IL-2 bound thereto. By regulating the binding sites of IL-2, only 1 or 2 PEGs are added during PEGylation.

Abstract: A hydrate of dimethylaminomicheliolide fumarate has a crystal form D, is high in crystallinity, smooth in particle surface, free of coalescence, high in bulk density and good in flowability, and has good stability and good reproducibility. Its preparation method includes: under a stirring action, adding dimethylamine micheliolide and fumaric acid into a mixed solvent system having a constant temperature of 30° C.-70° C. for reaction crystallization; and filtering after the reaction is finished, and drying filtered solid at normal pressure to obtain the crystal form D of the dimethylaminomicheliolide fumarate.

Abstract: A client device obtains and records inbound station information. The client device sends first electronic credential information to an inbound charging apparatus, where the first electronic credential information comprises authentication information generated by a payment system based on a user identity in the client device. The client device sends second electronic credential information and the inbound station information to an outbound charging apparatus, where the second electronic credential information comprises authentication information generated by the payment system based on the user identity in the client device.

Abstract: The present invention discloses a preparation method for a disubstituted PEGylated interleukin 2, which comprises the steps of: (1) PEGylating IL-2 to obtain a crude product of a PEGylated interleukin; (2) performing gel chromatography filtration to remove free interleukin 2 from the crude product; (3) performing affinity chromatography on the product in the step (2) by means of an ? receptor column, and collecting a flow-through peak component and an elution peak component; (4) performing ion exchange separation on the flow-through peak component and the elution peak component in the step (3); and (5) collecting components of the disubstituted PEGylated interleukin 2.

Abstract: Embodiments relate to a system for predicting thermodynamic phase of a material. The system includes a phase diagram image scanning processing module configured to scan a binary phase diagram for each material to be used as a component of a high-entropy alloy (HEA). The system includes a feature computation processing module configured to generate a primary feature and an adaptive feature. The primary feature is representative of a probability that the HEA will exhibit a solid solution phase and/or an intermetallic phase. The adaptive feature is representative of a factor favoring formation of a desired intermetallic HEA phase. The system includes a prediction module configured to encode the primary feature and/or the adaptive feature with thermodynamic data associated with formation of HEA alloy phases to provide an output representation of the HEA alloy phases for a material under analysis.

Abstract: This invention provides a distributed energy transaction matching method based on energy network constraints and multiple knapsack model. First, it considers the matching between financial market transactions and actual energy network scheduling, then generates security constraints on the results of distributed transactions. Next, it designs a multiple knapsack model for peer-to-peer distributed transactions, which can meet the common quotation needs of users or producers who issue transactions and achieve efficient matching under energy network security checks. Finally, the model is verified based on the blockchain Ethereum smart contract test verification. This method provides new ideas for the connection between distributed energy trading and actual physical dispatch, proposes an inclusive and efficient matching model for the point-to-point distributed trading market, which has great reference value for the connection between distributed energy trading and actual conditions.

Abstract: A thin encapsulating attachment structure, consisting of a first thin film portion, which is provided with two surfaces, wherein one of the surfaces is partially or completely contiguously attached to an attachment portion; and a second thin film portion, which is provided with two surfaces, wherein one of the surfaces is partially or completely contiguously attached to the attachment portion. The attachment portion, which is positioned between the first thin film portion and the second thin film portion, and is a binding agent composed of at least an epoxy resin, a silicone resin, polyester, polyurethane, nano silicate, or a nano titanium, the thickness range of the attachment portion is 0.5˜100 micrometers. The first thin film portion, the attachment portion, and the second thin film portion are assembled to form the thin encapsulating attachment structure, the thickness of which is less than or equal to 200 micrometers.

Abstract: In order for a terminal to play a video, a first video file is obtained. The first video file is sliced to generate a plurality of first slice files. A play index is generated to include entries respectively corresponding to the first slice files. An entry corresponding to a second video file is inserted into the index between an entry corresponding to one first slice file and an entry corresponding to another first slice file in the play index. The first slice files are played in sequence according to the play index, and the second vide file is played after the one of the first slice files and before the other of the first slice files according to the play index.

Abstract: A client device obtains and records inbound station information. The client device sends first electronic credential information to an inbound charging apparatus, where the first electronic credential information comprises authentication information generated by a payment system based on a user identity in the client device. The client device sends second electronic credential information and the inbound station information to an outbound charging apparatus, where the second electronic credential information comprises authentication information generated by the payment system based on the user identity in the client device.

Abstract: The present invention provides a heat dissipation conductive flexible board, which is assembled from: at least a single layer thin board, the structure of which includes a first conductive thin layer and a first functional thin layer, and at least a double layer thin board, the structure of which includes a second conductive thin layer, a second functional thin layer, and a third functional thin layer. A spraying, coating, or printing method is used to manufacture the single layer thin board and the double layer thin board; after which the single layer thin board and the double layer thin board are laminated together to form the heat dissipation conductive flexible board having a multi-layer conductive structure.

Abstract: The present invention discloses a method of preparing PEGylated biomolecules having controllable binding sites, including the following steps: (1) binding a blocker to a biomolecule; (2) PEGylating the biomolecule; and (3) separating the blocker from the biomolecule. In another aspect, the present invention discloses a method for preparing PEGylated IL-2 having controllable binding sites, including the following steps: (1) binding IL-2 to an IL-2? receptor, closing the a binding site of the IL-2; (2) PEGylating, coupling PEG with the IL-2; and (3) separating the IL-2 from the IL-2? receptor. By regulating IL-2 binding sites and a PEGylation process only adding one or two polyethylene glycols, the IL-2 is caused to selectively bind to an IL-2R ??-type receptor.

Abstract: This invention provides a method for building a multi-energy trading and management platform based on blockchain. Based on the attributes of different functions to be implemented in the energy trading and management platform, the platform is built by combining different advantages of blockchain technology and database technology. Deploy the functions of issuing transactions, matching transactions, and querying transaction information in Ethereum smart contract, store user registration information in a traditional database, and establish a mapping relationship between real information and lengthy blockchain accounts to make information of transactions on the market be displayed with real names. This method not only meets the needs of energy distributed transactions but also avoids the problem of incompatible string type data in Ethereum smart contracts which affects system performance. At the same time, the transaction data displayed with real names ensures the openness and legality of the transaction system.

Abstract: This invention provides a distributed energy transaction matching method based on energy network constraints and multiple knapsack model. First, it considers the matching between financial market transactions and actual energy network scheduling, then generates security constraints on the results of distributed transactions. Next, it designs a multiple knapsack model for peer-to-peer distributed transactions, which can meet the common quotation needs of users or producers who issue transactions and achieve efficient matching under energy network security checks. Finally, the model is verified based on the blockchain Ethereum smart contract test verification. This method provides new ideas for the connection between distributed energy trading and actual physical dispatch, proposes an inclusive and efficient matching model for the point-to-point distributed trading market, which has great reference value for the connection between distributed energy trading and actual conditions.

Abstract: This invention involves a multi-energy distributed transaction and smart contract design method based on the Ethereum private chain. This method includes the following steps: 1) Setting the genesis node of the smart contract as an administrator node, while other nodes as user nodes; 2) Distinguishing system functions and account permissions between administrator nodes and user nodes. Only administrator nodes can add or delete the types of tradable energy in the blockchain through the energy switch function; 3) The user realizes multiple energy transactions at the same time, and the smart contract matches the information released by users based on the market supply and demand situation. This invention can effectively solve the problems of the centralization of the current energy trading system and insufficient security protection. At the same time, it provides an effective solution to the current limited development of blockchain technology in the field of multi-energy trading.