Abstract: The present disclosure relates to a method and a device for predicting ability of a temporary plugging agent to plug cracks and a storage medium, and includes the following steps: calculating a plane elastic modulus of a core through experiments, acquiring a maximum force load of a specimen, calculating rock fracture toughness through the maximum force load, manufacturing an artificial crack model and placing it in a core holder, preparing temporary plugging deflection fluid by selecting a temporary plugging agent, injecting the temporary plugging deflection fluid into the artificial crack so as to calculate apparent fracture toughness of the temporarily plugged crack, and finally calculating a fracture pressure of the temporarily plugged crack based on the calculated rock fracture toughness and the plane elastic modulus of the core. Through the above method, the present disclosure provides a standard fracture pressure calculation method.

Abstract: A data access method includes obtaining a data access request for M storage devices, M being an integer greater than or equal to 2, determining a target access mode for the M storage devices based on the data access request, and performing data access on the storage devices based on access control signals matching the target access mode for the storage devices. The target access mode includes a first access mode and a second access mode. Access security and/or access speed generated when the data access is performed on the storage devices in the first access mode is different from access security and/or access speed generated in the second access mode.

Abstract: A multi-chip interconnection system includes a plurality of chips. A chip of the plurality of chips includes an extend serial peripheral interface (XSPI) master terminal, a data transmission terminal, an XSPI slave terminal, and a data reception terminal. The XSPI master terminal includes an advanced extensible interface (AXI) slave interface. The data transmission terminal accesses the AXI slave interface via an AXI bus. The XSPI slave terminal includes an AXI master interface. The data reception terminal accesses the AXI master interface via the AXI bus. An XSPI master terminal of a chip is connected to an XSPI slave terminal of another chip via an XSPI bus. The XSPI master terminal of the chip performs encoding on AXI information of the data transmission terminal of the chip received via the AXI bus and transmits encoded AXI information to the XSPI slave terminal of the another chip via the XSPI bus.

Abstract: A nano-emulsion composition having a small particle size and ultra-low concentration and a preparation method thereof is disclosed. The raw materials of the composition comprise, in terms of percentage by weight, 0.002% to 0.2% of a polymer-containing homogeneous microemulsion, water, and 99.998% to 99.8% of an organic salt solution or inorganic salt solution. The composition is prepared by diluting a polymer-containing homogeneous microemulsion with water or a salt solution. The polymer-containing homogeneous microemulsion is formed by mixing the following raw materials, in terms of percentage by weight: 8% to 40% of a surfactant, 0.5% to 10% of a polymer, 10% to 30% of an alcohol, 3% to 30% of an oil, 0% to 20% of a salt, and balance of water. The composition of the invention is low in concentration, low in cost, narrow in particle size distribution, good in stability, simple in preparation, and convenient for storage and use.

Abstract: A nano-emulsion composition having a small particle size and ultra-low concentration and a preparation method thereof is disclosed. The raw materials of the composition comprise, in terms of percentage by weight, 0.002% to 0.2% of a polymer-containing homogeneous microemulsion, water, and 99.998% to 99.8% of an organic salt solution or inorganic salt solution. The composition is prepared by diluting a polymer-containing homogeneous microemulsion with water or a salt solution. The polymer-containing homogeneous microemulsion is formed by mixing the following raw materials, in terms of percentage by weight: 8% to 40% of a surfactant, 0.5% to 10% of a polymer, 10% to 30% of an alcohol, 3% to 30% of an oil, 0% to 20% of a salt, and balance of water. The composition of the invention is low in concentration, low in cost, narrow in particle size distribution, good in stability, simple in preparation, and convenient for storage and use.