Abstract: The present disclosure relates to the technical field of loading test devices, relating to a test device for arbitrarily directional combined loading and a method for using the loading test device. The device includes a test bench base assembly and a loading assembly. The loading assembly is arranged above the test bench base assembly. The loading assembly includes a loading oil cylinder and a swing base. The swing base can rotate with respect to the loading base, such that a direction of the loading oil cylinder can be adjusted to meet requirements of different loading angles. The test bench base assembly includes a first chute, and the loading base is connected to the first chute via a sliding fastening bolt.

Abstract: A method for simulating an integrated circuit design is provided. The method includes executing a characterization tool over a first portion of a parameter space of a circuit design to form a netlist associated with the first portion of the parameter space. The method also includes forming a first sub-netlist from the netlist, selecting, for the first sub-netlist, a condition from at least one of a process, a voltage, or a temperature condition, and at least one parameter from the first portion of the parameter space. The method further includes executing a simulation of the first sub-netlist in a selected solver mode using the condition and the at least one parameter, and incorporating a result of the simulation in a circuit performance report, wherein the result is associated with the condition, with the at least one parameter, and with the first sub-netlist.

Abstract: A method for simulating an integrated circuit design is provided. The method includes forming a partition of an IC netlist into blocks based on a performance value from at least a portion of a parameter space and forming a table with parameter values including multiple instances of at least one block of the partition. The computer-implemented method also includes analyzing a direct-current (DC) solution of at least one block by combining at least a first instance of a first block with a second instance of a second block based on the performance value from the portion of the parameter space, and performing a transient analysis where signals change over time for the at least one block.

Abstract: A method for simulating an integrated circuit (IC) is provided. The method includes parsing an IC and loading the IC into memory and forming a table model including parameter values for at least one circuit component in the IC, the parameter values selected from a portion of a parameter space, storing a data value associated with the parsing of the IC and the table model in a database accessible through a cloud computing environment, the data value comprising a metadata associated with the data value, loading, to a processor, at least one of the data value or the metadata from the database, modifying the data value or the metadata that is loaded in the processor, according to the portion of the parameter space, and performing an analysis on at least one block of the IC according to the data value or the metadata that is loaded in the processor.

Abstract: A method for obtaining error code information is provided The method includes: a mobile terminal receives a first message, wherein the first message is sent to the mobile terminal from a network side after the mobile terminal fails to access a network, and the first message includes error code information used for identifying the reason why the mobile terminal failed to access the network; the mobile terminal obtains and displays the cause of the network access failure, thereby being able to quickly and accurately obtain the reason why the mobile terminal failed to access the network, and provide a response prompt to a user, and thereby being able to intelligently and quickly assist the user to interact well with the mobile terminal, and the user experiences are improved.

Abstract: The present embodiments disclose a device including a module for sampling, separating and enriching a detected object, an exhaled breath condensates (EBCs) detection module and a combined volatile organic compounds (VOCs) detection module. The sampling module is connected with the EBCs detection module via a syringe pump for sample injection and is connected with the combined VOCs detection module by a capillary separation column. EBCs and VOCs in human exhaled breath are simultaneously sampled, separated and condensed; the heavy metal ions, cell factors, etc. in the collected EBCs are detected with a light addressable potentiometric sensor (LAPS); the condensed VOCs can be quantitatively detected by the combined VOCs detection module with a high sensitivity; and a heating rod and a platinum resistor can be conveniently replaced because a separated outlet heating piece is designed in the combined VOCs detection module.

Abstract: A method for obtaining error code information is provided The method includes: a mobile terminal receives a first message, wherein the first message is sent to the mobile terminal from a network side after the mobile terminal fails to access a network, and the first message includes error code information used for identifying the reason why the mobile terminal failed to access the network; the mobile terminal obtains and displays the cause of the network access failure, thereby being able to quickly and accurately obtain the reason why the mobile terminal failed to access the network, and provide a response prompt to a user, and thereby being able to intelligently and quickly assist the user to interact well with the mobile terminal, and the user experiences are improved.

Abstract: The present invention discloses an integrated analysis device for simultaneously detecting exhaled breath condensates (EBCs) and volatile organic compounds (VOCs) in human exhaled breath. The device comprises a module for sampling, separating and enriching a detected object, an EBCs detection module and a combined VOCs detection module. The module for sampling, separating and enriching a detected object is connected with the EBCs detection module via a syringe pump for sample injection. The module for sampling, separating and enriching a detected object is connected with the combined VOCs detection module by a capillary separation column. In the present invention, it is achieved that EBCs and VOCs in human exhaled breath are simultaneously sampled, separated and condensed; the heavy metal ions, cell factors, etc.

Abstract: A container inspection equipment with cobalt-60 ?-ray source and cesium iodide or cadmium tungstate detector includes a cobalt-60 ?-ray source, a cask, a front collimator, a rear collimator, a cesium iodide or cadmium tungstate detector, signal and image processing systems, container trailer system, and automatic control system. The cask of the cobalt-60 ?-ray source, the beam shutter, and the front collimator are fixed on the same chassis to form an integration and placed in the source room. The rear collimator, cesium iodide or cadmium tungstate array detector and the radiation catcher are fixed on the same chassis to form an integration and placed in the detector room. A container inspection tunnel is formed between the source room and the detector room. The equipment is mainly used for inspecting smuggling goods and contrabands etc., in large containers, container trucks, train carriage and air containers.

Abstract: A container inspection equipment with cobalt-60 &ggr;-ray source and cesium iodide or cadmium tungstate detector includes a cobalt-60 &ggr;-ray source, a cask, a front collimator, a rear collimator, a cesium iodide or cadmium tungstate detector, signal and image processing systems, container trailer system, and automatic control system. The cask of the cobalt-60 &ggr;-ray source, the beam shutter, and the front collimator are fixed on the same chassis to form an integration and placed in the source room. The rear collimator, cesium iodide or cadmium tungstate array detector and the radiation catcher are fixed on the same chassis to form an integration and placed in the detector room. A container inspection tunnel is formed between the source room and the detector room. The equipment is mainly used for inspecting smuggling goods and contrabands etc., in large containers, container trucks, train carriage and air containers.