Abstract: Disclosed are a method and a device for balancing crankshaft deformation e, a crankshaft with counterweights determined according to the method, and a scroll compressor using the crankshaft. The method includes: determining a component centrifugal force required by a counterweight to overcome the crankshaft deformation caused by both an orbiting scroll centrifugal force and a gas force; and determining the counterweight according to the component centrifugal force. The counterweight is arranged on the crankshaft.

Abstract: A miniature combined multi-axis force sensor structure includes a sensor body, a first shell and a second shell, two horizontal main beams and two vertical main beams are arranged on the periphery of an inner round platform in a cross shape, tail ends of the horizontal main beams and the vertical main beams are each connected to a vertical floating beam, and the horizontal floating beams consist of two thin-walled cambered beams; two ends of the horizontal floating beam are each connected to an outer round platform by means of an annular platform; the sensor body is arranged between the first shell and the second shell; strain gauges are stuck on the horizontal main beams and the vertical main beams to form two Wheatstone bridges; and when force/torque acts on the cross beam, the sensor deforms, and the resistance value of strain gauge at corresponding position changes.

Abstract: A miniature combined multi-axis force sensor structure includes a sensor body, a first shell and a second shell, two horizontal main beams and two vertical main beams are arranged on the periphery of an inner round platform in a cross shape, tail ends of the horizontal main beams and the vertical main beams are each connected to a vertical floating beam, and the horizontal floating beams consist of two thin-walled cambered beams; two ends of the horizontal floating beam are each connected to an outer round platform by means of an annular platform; the sensor body is arranged between the first shell and the second shell; strain gauges are stuck on the horizontal main beams and the vertical main beams to form two Wheatstone bridges; and when force/torque acts on the cross beam, the sensor deforms, and the resistance value of strain gauge at corresponding position changes.

Abstract: A polypeptide monolayer with a high surface potential and super-hydrophilicity, and a preparation method and application thereof. The polypeptide is composed of polypeptide molecules with a molecular weight of (1.48±0.2)×105 g/mol, a height of the monolayer is 13.8-14.9 nm, the exposure of primary amino groups on the surface of the monolayer is 12-14%, a Zeta potential of the polypeptide monolayer is (?1)-5 mV; a contact angle of the monolayer is 10±1°. The monolayer serving as a surface coating material of a cardiovascular stent can be applied to treatment of cardiovascular diseases; and its super-hydrophilicity can allow a layer of hydration film to be formed on the surface of the material so as to effectively prevent protein adsorption.

Abstract: A polypeptide monolayer with a high surface potential and hydrophobicity, and a preparation method and application thereof. The polypeptide is composed of polypeptide molecules with a molecular weight of (1.48±0.2)×105 g/mol, a thickness of the monolayer is 17.3-18.5 nm, the exposure of primary amino groups on the surface of the monolayer is 11-11.8%, a Zeta potential of the polypeptide monolayer is (-3)-(-2) mV, and a contact angle of the monolayer is 84±1°. A micro-nano structure on the surface of the polypeptide monolayer allows the polypeptide monolayer to have certain hydrophobicity, which is beneficial to water proofing of the surface of biomimetic skin. Furthermore, the surface of the polypeptide monolayer has a relatively high potential, which can improve biocompatibility, hemocompatibility, and cell adhesion, proliferation, and differentiation abilities.

Abstract: A polypeptide monolayer with a low surface potential and hydrophobicity. The polypeptide is composed of polypeptide molecules with a molecular weight of (1.48±0.2)×105 g/mol, a thickness of the monolayer is 6.2-9.0 nm, the exposure of primary amino groups on the surface of the monolayer is 9.5-15%, a Zeta potential of the polypeptide monolayer is (?3)?(?9) mV, and a contact angle of the monolayer is (61±1°)-(84±1°). The monolayer can be ultrathin, with a minimum thickness of only about 6.6 nm. The polypeptide monolayer can also be applied to the preparation of a biosensor, which is conductive to increase in limit of detection. The content of primary amino groups on the surface of polypeptide monolayer is conductive to controllability of further chemical modification and laying the foundation for achieving controllable grafting of polysiloxane and biological preparations in the later stage.

Abstract: An optical parameter measurement device and a corresponding method are provided. A light beam from a to-be-tested display panel is split by a beam-splitting assembly into at least two testing light beams. A voltage value corresponding to a first testing light beam is measured by a trans-impedance amplification circuit corresponding to a first optical sensor. Next, an integration time period is determined by a control circuit according to voltage values from the trans-impedance amplification circuit and a predetermined relational model between voltage values corresponding to the light intensities and integration time periods. A voltage value corresponding to a second testing light beam is finely measured by the integration circuit corresponding to a second optical sensor within the integration time period. Finally, the display brightness value of the to-be-tested display panel is determined by the control circuit according to a voltage value from the integration circuit within the integration time period.

Abstract: The embodiments of the present disclosure provide an equipment control method, apparatus, electronic device and storage medium. The method includes determining one or more equipment control sub-processes involved in control process of equipment to be controlled and execution logic between each equipment control sub-process; obtaining code corresponding to the equipment control sub-process; generating an encoding configuration file corresponding to the control process according to the code corresponding to each equipment control sub-process and the execution logic between each equipment control sub-process; and controlling the equipment according to the encoding configuration file. By applying the solutions provided by the embodiments of the present disclosure, repetitive hard-coding are avoided, the debugging and development at a later stage are simplified, and the development efficiency is improved.

Abstract: A color parameter measurement device and a color parameter measurement method are provided. A display light beam from a to-be-tested display panel is split by a beam-splitting assembly into at least testing light beams corresponding to a light-beam-in-first-color filter, a light-beam-in-second-color filter and a light-beam-in-third-color filter respectively. Next, a light-beam-in-first-color component, a light-beam-in-second-color component and a light-beam-in-third-color component of the corresponding testing light beams are transmitted to corresponding receivers through the corresponding filters. Then, the light-beam-in-first-color component, the light-beam-in-second-color component and the light-beam-in-third-color component are converted into electric signals by the corresponding receivers, and then outputted to a processor for color parameter analysis.

Abstract: An optical parameter measurement device and a corresponding method are provided. A light beam from a to-be-tested display panel is split by a beam-splitting assembly into at least two testing light beams. A voltage value corresponding to a first testing light beam is measured by a trans-impedance amplification circuit corresponding to a first optical sensor. Next, an integration time period is determined by a control circuit according to voltage values from the trans-impedance amplification circuit and a predetermined relational model between voltage values corresponding to the light intensities and integration time periods. A voltage value corresponding to a second testing light beam is finely measured by the integration circuit corresponding to a second optical sensor within the integration time period. Finally, the display brightness value of the to-be-tested display panel is determined by the control circuit according to a voltage value from the integration circuit within the integration time period.