805 results about "Test target" patented technology

A quality assurance benchmark system tests a target executable application under load stress conditions over an extended period of time. The system has user-controlled parameters to benchmark performance, scalability, and regression testing before deploying the application to customers. The system includes a display processor and a test unit. The display processor generates data representing a display image enabling a user to select: input parameters to be provided to the target executable application, and output data items to be received from the target executable application and associated expected range values of the data items. The test unit provides multiple concurrently operating executable procedures for interfacing with the target executable application to provide the input parameters to the target executable application, and to determine whether data items received from the target executable application are within corresponding associated expected range values of the data items.

A method and system for color calibration or color output device spectrophotoically measures at test target including a preselected test color value. A multi-dimensional LUT of the device is generated representative of the color information including the at least one preselected color. Producing a second image width device including the at least one preselected color located at a plurality of spatial locations in the second image. A second sensor measures the second image and a plurality of spatial locations having the preselected color for generating reflectance information for the preselected color at the plurality of spatial locations. An error is determined between the measured color of the one preselected color and the reflectance information at the other pixel locations. A multi-dimensional LUT is adjusted to minimize spatial uniformity errors at the other pixel locations, thus calibrating device color output spatially.

A test target is written in a non image zone at set time intervals. The test target is sensed. At least one of frequency, amplitude and phase of banding, which is inherent in a printing device, is determined based on the sensed test target. At least one banding compensation parameter based at least on one of the determined frequency, amplitude and phase of banding is determined. Characteristics of producing an image based on the determined banding compensation parameter are adjusted to compensate the banding inherent in the printing device.

A method for detecting one or more target bacteria in a raw sample where: 1) bacteriophage(s) specific to each target bacterium are added to the raw sample, 2) the test sample is incubated, and 3) the test sample is tested for the presence of each phage in sufficient numbers to indicate the presence of the associated target bacteria in the raw sample. In one embodiment, each phage is initially added to the raw sample in concentrations below the detection limit of the final phage detection process. In another embodiment, the parent phages are tagged in such a way that they can be separated from the progeny phage prior to the detection process. Preferred phage detection processes are immunoassay methods utilizing antibodies that bind specifically to each phage. Antibodies can be used that bind to the protein capsid of the phage. Alternatively, the phage can by dissociated after the incubation process and the sample tested for the presence of individual capsid proteins or phage nucleic acids. The invention can be used to test target bacteria for antibiotic resistance.

A probe card has first contact terminals electrically connected to the fine-pitch electrodes of a test target; wirings drawn from the first contact terminals; and second contact terminals electrically connected to the wirings, wherein the first contact terminals are formed each using an anisotropically etched hole in a crystalline substrate, and a semiconductor device test method (fabrication method) using the probe card.

The invention relates to a movement tracking device for man-machine interaction and a tracking method thereof. The invention comprises a movement tracking device and a target information processing device. The tracking method comprises the following steps of: (1) binding a micro inertial measurement unit and a specified-wavelength light source with a tested target; (2) transmitting target movement parameters to a target information processing system by the movement tracking device; (3) processing the acquired target movement information by the target information processing system; and (4) outputting accurate target movement information to a man-machine interaction interface through a target space coordinate and a movement posture information output interface. The invention provides the device and the tracking method thereof which can be applied to man-machine interaction, virtual reality, and enhancement of a real system and can effectively expand the movement tracking range.

A tool is provided for facilitating determining a proper location for an implantable device or medication, and for then delivering the implant to the precise location determined with the tool. To determine the target location, the tool may include a component for testing target locations, such as a stimulating probe for simulating a miniature implantable stimulator. In one embodiment, the tool is used to test a miniature implantable stimulator prior to depositing the implant precisely at the target location. The components of the tool are configured to maintain the implant at the target location while the tool is withdrawn. In one embodiment, a push rod assembly of the tool keeps the implant in position while it retracts the implant holder from around the implant. The ergonomic and light-weight tool leads to reduced surgical time, number and size of incisions, risk of infection, and likelihood of error.

A test circuit including a TAP controller specified in IEEE (Institute of Electrical and Electronics Engineers) 1149 and a test access port includes a first controller including a selecting circuit and a first TAP controller, the selecting circuit generating an internal TMS signal in accordance with TMS signal and selecting an output destination of the internal TMS signal in accordance with a selection signal, and the first TAP controller changing internal state based on the internal TMS signal, testing corresponding test target block in accordance with instruction code for test, and generating the selection signal in accordance with instruction code for selection, and a second controller including a second TAP controller changing internal state based on the internal TMS signal and testing corresponding test target block in accordance with the instruction code for test.

The present invention is directed to a system and method for test target selection in conjunction with dynamic test pattern generation. In the invention, a test pattern page(s) is composed using an optimal set of test targets, which can be accommodated or adjusted to fit within size constraints of the test pattern. The method of the present invention makes use of layout optimization to ensure that related and optimized test targets are accommodated on a single test pattern. For example, it may be preferable to “squeeze in” a smaller-than-normal uniform area target, rather than not to print it at all during a test.

Aberrations in an optical system can be detected and measured using a method comprised of a test target in the object plane of a projection system and imaging a photoresist film with the system. The test target comprises at least one open figure which comprises a multiple component array of phase zones, where the multiple zones are arranged within the open figure so that their response to lens aberration is interrelated and the zones respond uniquely to specific aberrations depending on their location within the figure. The method detects aberration types including coma, spherical, astigmatism, and three-point through the exposure of a photoresist material placed in the image plane of the system and the evaluation of these images.

A VPN (Virtual Private Network) communication detecting apparatus connecting to an internal network for detecting a VPN node on an external network which connects to the internal network through a relay apparatus, transmits response request packet to test target node, receives response packet from the test target node in response to the response request packet, measures response time which is from first time point when the response request packet is transmitted to second time point when the response packet is received, and determines whether the test target node is the VPN node, based on correlation between the response time and delay time inserted by the relay apparatus when test target packet pass through the relay apparatus, the test target packet, if the test target node is the other of the VPN nodes, including the response request packet or the response packet.

A virtual tech rep system that can assist in reducing service call visits and customer complaints by readily analyzing image quality of an output image device, such as a copier or printer. The system generates a hardcopy test pattern output from the copier or printer and then scans the test pattern using either the platen of the digital copier or an external scanner to form a digital raster image. Test targets in the digital raster image are then determined using pattern recognition software and image quality analysis is then performed on the test targets based on the sensitivity of the human visual system. It is preferable that the image quality analysis is based on human vision systems rather than a direct comparison between original and printed images as many differences may go unnoticed by a human viewer whereas other types of differences may be readily noticed, even if only slight. The system optionally sends the test results and possibly part or all of the scanned test pattern to a service or diagnostic facility (remote or local) for further analysis when potential defects are identified. This process may be performed at start-up or automatically initiated after a predetermined number of operating cycles or hours of use have been attained.

The invention relates to a satellite automation test platform, comprising an automation scheduling module, an instruction transmission module, a data acquisition module, a data analysis module as well as a test rule database. The automation scheduling module automatically reads out and analyzes the test rule in the test rule database. The analyzed test logic transmits an excitation instruction to a satellite tested target through the instruction transmission module. The data acquisition module receives the satellite state data transmitted back by the satellite tested target, manages the satellite state data and at the same time forwards to the data analysis module. The data analysis module in accordance with the test rule criterion analyzes the satellite state data and transmits the analyzed result to the automation scheduling module, thus judging whether the next test rule is carried out or not until the finish of the test. The invention automatically executes the test rule, automatically transmits the excitation instruction, and automatically completes data interpretation, thereby enhancing the test quality and the test efficiency, decreasing the maloperation probability and shortening the test time.

The present invention provides a target positioning method and device based on a convolution neural network. The method comprises a step of extracting the CNN feature of a training sample, a step of using the CNN feature to train an SVM classifier to obtain a first-class classifier, a step of training the SVM classifier by using the first-class classifier and the CNN features of the image zoomed in different scales by the training sample to obtain a second-class classifier, a step of extracting the CNN feature of the training sample, carrying out detection by using the first-class classifier, and obtaining multiple test target frames and corresponding first-class scores, a step of using the second-class classifier to grade remaining target testing frames with maxima suppression, and obtaining the second-class score of each remaining target test frame, and a step of carrying out weighted processing on the first-class score and the second-class score of each remaining target test frame, and sorting each remaining target test frame. The application of the target positioning method to carry out target positioning is not limited by a scene, and the accuracy of the target positioning is high.

The invention relates to an ammunition overload detection device, and in particular relates to an overload test and detection device of a gas gun, wherein the device provided by the invention can be used for solving the technical problems such as inconvenience in operation and use and the like of the existing air gun penetration test device. The overload test and detection device of the gas gun comprises a frame body which is provided with an overload test air gun launching device, a charging overload test bomb, an overload test protective box and an overload test target plate replacement device. Comprehensively, compared with the prior art, in the technical scheme provided by the invention, the target plate replacement device for an overload test, the overload test protective box and a small-size penetration test bomb are designed specially for the small-size charging and priming system air gun overload performance test, principles and methods relevant to the mechanical design are utilized, the design scheme has the characteristics of being vigorous, practicable, convenient and the like, and the overload test and detection device has the advantages of favorable practical value, reliable operability and accurate experiment result.

The invention supplies software line up using program mapping method and its program line up system. The method includes the following steps: supplying testing agent by the tested target machine; the testing agent according to the testing data base to generate tested program symbol table and type list; it according to the preset script to map the variable and function in the symbol table and type list to variable container, generate script language mapping variable and function. The invention maps variable read-write and function call of the tested system into connate grammar of the script language which can increase software line up ability and line up script exploiting efficiency.

The invention discloses an industrial control protocol vulnerability mining system based on a fuzzy test. The system comprises a protocol analyzing module, a data construction module, a genetic variation module, a session management module, an agent module, a drive module and an auxiliary tool module; the genetic variation module, the session management module and the agent module are connected with the drive module; the protocol analyzing module is connected with the data construction module and then is connected with the genetic variation module; and the drive module is used for connecting a test target. According to the system, the conditions of the tested target can be learned and analyzed; related data such as test scripts and a test case are specifically constructed according to the analyzed information; the hit rate of the test case is increased through analyzing the tested target; in a test process, the generation method or variation direction of the test case is adjusted specifically according to the information such as the current state of the tested target and the feedback of the test case; the vulnerability mining efficiency is improved through an efficient adjusting algorithm; and moreover, the system adaptation is increased.

There is provided an on-chip test circuit that is capable of measuring validity of an output signal within a chip without any external measuring device. The on-chip self test circuit implemented on the same chip as a test semiconductor device includes: a test load block for receiving a test target signal; and a self test block for receiving a test target signal passing through the test load block and a test target signal inputted to an output driver together, and determining whether a change of the test target signal is within an allowable range. Accordingly, the validity of the signal outputted from the device can be measured without any expensive external measuring device. Also, when the test must be done before the packaging stage, the test can be simply performed, thereby reducing the test cost greatly.

The method includes steps: parsing object to be tested, picking up tested information from the object tested; displaying the picked test information, receiving test information input from user; generating test case based on the picked test information and the inputted test information; combining the test case and object to be tested creates testing target codes; running the testing target codes implements test for robustness of software product. The invention also related to device for testing robustness of software product. The invention can realizes automatic generation and automatic extraction for test information of tested object.

A method for measuring video quality includes: receiving subjective video quality measuring data from a plurality of video quality measurers; photographing or capturing a test-target video image and receiving image data; calculating video quality measurement factor values with respect to the received image data, item by item; reflecting the video quality measurement factor values to the subjective video quality measuring data through video quality modeling; mapping results of the reflecting into scores; weighting the video quality measurement factor values according to their correlations with the subjective video quality measuring data; and outputting objective video quality measuring data on a screen. An associated video quality measuring system includes: a subjective video quality measurement input; an objective video quality measuring; a video quality modeling; and a video quality measuring algorithm unit.

The invention discloses a diffusion magnetic resonance imaging and reconstruction method. The method includes the steps of S1, using multiple channel coils and adopting a multi-excitation diffusion imaging mode to carry out signal acquisition on tested targets to obtain k spatial data; S2, calculating a coil sensitivity figure and carrying out iterative initialization; S3, conducting iterative reconstruction on needed diffusion images on the basis of the POCS algorithm according to the collected k spatial data, the coil sensitivity figure obtained through calculation and initialization parameters. According to the method, not only is acquisition efficiency of signals improved, but also fuzzy artifacts and motion artifacts of the images are reduced, and image resolution is improved.

Separation of a color into values for colorants in colorant space can be done easily when color correction and color separation are done in a separate step. To perform color separation the color can be defined as a set of values in a trajectory space wherein trajectories are defined comprising points for which ink behavior during color separation is known. Colorant values for the color can be determined using simple interpolation techniques based upon values of the color located in trajectory space, known values and corresponding colorant values of the trajectory points. Trajectories are preferably color axes dividing the trajectory space into tetrahedra. Obtained colorant values may be further corrected using techniques such as colorant replacement or colorant splitting. A color correction step can be done previous to the color separation step. The combined process can be calibrated using a test target.