43results about How to "Automated precision" patented technology

A photomask manufacturing method includes a defect information storage step of storing defect information of a mask blank, provided with an identification marker on an end face thereof, into an information storage device in correspondence to the identification marker, a placing orientation determination step of determining a placing orientation of the mask blank with respect to an exposure / writing apparatus, and an orientation correction step of performing rotation control of a rotating apparatus so that an orientation of the mask blank coincides with the determined placing orientation.

The invention provides accurate thread detecting equipment based on mechanical induction. The accurate thread detecting equipment is used for detecting whether threads of materials are qualified or not. The accurate thread detecting equipment includes a feeding mechanism, a material conveying mechanism, a detecting mechanism and a discharging mechanism; the feeding mechanism comprises feeding positions and is used for placing the materials on the feeding positions; the material conveying mechanism is used for conveying the materials; the detecting mechanism is used for detecting the threads ofthe materials; and the discharging mechanism is used for classifying and discharging the detected materials. The accurate thread detecting equipment can realize the automatic detecting operation of the threads of the materials without the need for manual operation, the detection efficiency can be significantly improved, the detection cost is reduced, meanwhile, the detection accuracy can furtherbe improved, in addition, the cooperation of the material conveying mechanism and the discharging mechanism of the detecting equipment realizes the accurate and efficient classification and discharging of qualified products and unqualified products, and the reliability and stability of the overall detecting equipment are high.

A control unit for a climate control system for a vehicle, comprising; a monitoring module arranged to monitor at least one demand representative of an environmental parameter change within the vehicle and / or at least one active user input relating to an environmental parameter within the vehicle; a storage means storing a control policy for configuring at least one climate control element; a feedback module configured to receive the at least one demand from the monitoring module and to receive a simulated control policy from a simulation module; wherein the feedback module is configured to update the control policy, based on the simulated control policy, in response to receiving the at least one demand; and an implementation module for controlling said at least one climate control element in accordance with said control policy.

The present invention provides methods and devices for simple, low power, automated processing of biological samples through multiple sample preparation and analysis steps. The described methods and devices facilitate point-of-care implementation of complex diagnostic assays in an equipment-free, non-laboratory setting.

The invention discloses an automatic assembling line for motors. The automatic assembling line for the motors comprises a frame, an automatic conveying belt, a motor rotor bearing bit synchronization oiling device, an automatic motor rotor bearing press-fitting device, an automatic spring washer distributing and detecting device, a motor end cap press-fitting device, an automatic motor bearing gap detecting device, an automatic motor ageing testing device and an automatic gluing air dryer for the motors, wherein the automatic conveying belt which is electrically connected with a circuit controller is arranged on the frame; and the motor rotor bearing bit synchronization oiling device, the automatic motor rotor bearing press-fitting device, the automatic spring washer distributing and detecting device, the motor end cap press-fitting device, the automatic motor bearing gap detecting device, the automatic motor ageing testing device and the automatic gluing air dryer for the motors are successively connected together by the automatic conveying belt and are electrically connected with the circuit controller. The automatic assembling line for the motors is high in assembling stability and good in assembling quality, and testing automation of components of the motors can be realized.

The invention provides a gain control index testing method of a radio frequency receiver. The gain control index testing method of the radio frequency receiver includes the following steps: sending an instruction from a main control computer to a radio frequency signal tester to inquire radio frequency signal power, recording a power peak value as Pk, recording a power peak value obtained after power is increased step by step as Pk+1, judging whether an absolute error between the PK+1 and the Pk is larger than delta Pmax or not, if the absolute error is smaller than the delta Pmax and a gain attenuation value of a presently tested radio frequency receiving device is smaller than a maximum attenuation value of the tested radio frequency receiving device, repeating the inquiring process, and if the absolute error between the PK+1 and the Pk is larger than the delta Pmax or the gain attenuation value of the presently tested radio frequency receiving device is larger than or equal to the maximum attenuation value of the tested radio frequency receiving device, ending the test. The gain control index testing method of the radio frequency receiver is controlled by a computer, compared with a manual testing method, the gain control index testing method of the radio frequency receiver improves information utilization rate and is automatic in testing process. Testing results are accurately and rapidly output, accumulative errors are avoided, and data recording is complete, detailed and accurate.

The invention provides a mesh generation method for core complex pores. The mesh generation method for the core complex pores comprises a first step of computing a regional laying background mesh aiming at a core target; a second step of cutting the background mesh by use of a mesh cutting algorithm; a third step of deleting the mesh in a skeleton and retaining the mesh in the pores; a fourth step of performing body fitting on the mesh generated by the cutting algorithm; and a fifth step of smoothing the mesh generated by the cutting algorithm. According to the mesh generation method for core complex pores, an accurate and automatic technology capable of cutting any pore structure of mesh is created, so that the complex geometry in the interior of the core is descripted accurately, and a foundation is laid for core microcosmic flow numerical simulation.

An automatic mounting and demounting device and system for a motor testing platform, adapted to enable a control host to control automatic mounting and demounting between an axle of a motor under test and an axle of a testing apparatus, includes a mobile platform and a positional information sensing member. The control host controls the mobile platform according to positional information generated by the positional information sensing member, such that a carrier for carrying the motor under test is automatically driven to a corresponding position to thereby effect alignment and connection or separation of the axle of the motor under test and the axle of the testing apparatus. Therefore, preparation for the motor dynamics testing is automatically carried out effectively and correctly, thereby reducing the time and manpower required for testing-related preparation.

The invention relates to the field of natural medicines, in particular to a method for quickly discovering low-content active ingredients in natural products. The method divides the whole components of natural medicine into high-content components and low-content components through relative quantification, and uses the high-resolution chromatographic peak fraction preparation method to directly establish a high-content fraction library and obtain corresponding mass spectrum information. After knocking out these high-content components, the low-content components were enriched, and the low-content fraction library was obtained after solvent concentration and secondary separation, and the mass spectrum information of the low-content components was obtained at the same time. On this basis, activity screening was carried out on high and low content fractions respectively. This method has the advantages of rapidity, precision, high degree of automation, simple operation, low cost, and strong applicability, and is suitable for the discovery of low-level active ingredients in natural products.