2004 results about "Diagnostic system" patented technology

An X-ray tomosynthesis system as an X-ray diagnostic system is provided. The system comprises an X-ray generator irradiating an X-ray toward a subject, and a planar-type X-ray detector detecting the X-ray passing through the subject and outputting two dimensional imaging signals based on the detected X-ray. The system comprises a supporting/moving mechanism supporting at least one of the X-ray generator and the X-ray detector so that the at least one is moved relatively to the subject. The system also comprises an element setting a ROI position of the subject, an element for obtaining a plurality of three dimensional coordinates of pixels included in the ROI, a calculating element obtaining two dimensional coordinates of data in the two dimensional imaging signals for each of the two dimensional imaging signals detected by the X-ray detector, the data being necessary for obtaining pixel values of the three dimensional coordinates; and an element for obtaining the pixel value of each of the three dimensional coordinates by extracting the corresponding data of the two dimensional coordinates from the detected two dimensional imaging signals and adding the extracting data.

Exception event recorders and analysis systems include: vehicle mounted sensors arranged as a vehicle event recorder to capture both discrete and non-discrete data; a discretization facility; a database; and an analysis server all coupled together as a computer network. Motor vehicles with video cameras and onboard diagnostic systems capture data when the vehicle is involved in a crash or other anomaly (an ‘event’). In station where interpretation of non-discrete data is rendered, i.e. a discretization facility, captured data is used as a basis for production of supplemental discrete data to further characterize the event. Such interpreted data is joined to captured data and inserted into a database in a structure which is searchable and which supports logical or mathematical analysis by automated machines. A coupled analysis server is arranged to test stored data for prescribed conditions and upon finding such, to initiate further actions appropriate for the detected condition.

A system for condition monitoring and fault diagnosis includes a data collection function that acquires time histories of selected variables for one or more of the components, a pre-processing function that calculates specified characteristics of the time histories, an analysis function for evaluating the characteristics to produce one or more hypotheses of a condition of the one or more components, and a reasoning function for determining the condition of the one or more components from the one or more hypotheses.

Exception event recorders and analysis systems include: vehicle mounted sensors arranged as a vehicle event recorder to capture both discrete and non-discrete data; a discretization facility; a database; and an analysis server all coupled together as a computer network. Motor vehicles with video cameras and onboard diagnostic systems capture data when the vehicle is involved in a crash or other anomaly (an ‘event’). In station where interpretation of non-discrete data is rendered, i.e. a discretization facility, captured data is used as a basis for production of supplemental discrete data to further characterize the event. Such interpreted data is joined to captured data and inserted into a database in a structure which is searchable and which supports logical or mathematical analysis by automated machines. A coupled analysis server is arranged to test stored data for prescribed conditions and upon finding such, to initiate further actions appropriate for the detected condition.

Therapeutic and diagnostic systems and methods help an individual with a sleep disordered breathing condition, such as habitual snoring or obstructive sleep apnea (OSA), achieve deep, restorative sleep. The systems and methods include component that serve complementary sensing, monitoring, and corrective or diagnostic functions.

By using monitoring data, feedback data, and pooling of failure data from a plurality of electronic devices, real-time failure prediction and diagnoses of electronic systems operating in a network environment can be achieved. First, the diagnostic system requests data on the state of a machine and/or its components and collections thereof as part of the machine's normal operation. Secondly, real-time processing of the data either at the machine site or elsewhere in the distributed network allows for predicting or diagnosing system failures. Having determined and/or predicted a system failure, a communication to one or more remote observers in the network allows the remote observers to view the diagnostic information and/or required action to repair the failure. Furthermore, interrogation of either the particular electronic system, or a database containing data on similar electronic systems by the diagnostic server allows the diagnostic server to refine original diagnoses based on this population data to achieve a comprehensive failure predication/diagnosing system.

A health diagnostic system capable for monitoring the health condition of computing device on a network is disclosed. According to one aspect of the present invention, a computing device is installed a module that can provoke the monitoring process that periodically samples values representing the health condition of the computing device. The sampled values are then sent back to the monitoring server for analysis. Meanwhile a monitoring server receives the sampled values and performs data analysis to determine if the computing device is in a good/poor condition based on historic data that are further used to predicate what the remaining time is for the computing device to actually break down so that necessary measures may be taken to prevent an actual breakdown.

Systems and methods are disclosed for controlling and diagnosing the health of a motorized system. The systems may comprise a diagnostics system and a controller, wherein the diagnostics system employs a neural network, an expert system, and/or a data fusion component in order to assess the health of the motorized system according to one or more attributes associated therewith. The controller may operate the motorized system in accordance with a setpoint and/or a diagnostics signal from the diagnostics system. Also disclosed are methodologies for controlling and diagnosing the health of a motorized system, comprising operating a motor in the motorized system in a controlled fashion, and diagnosing the health of the motorized system according to a measured attribute associated with the motorized system, wherein the motor may be operated according to a setpoint and/or the diagnostics signal.

Exception event recorders and analysis systems include: vehicle mounted sensors arranged as a vehicle event recorder to capture both discrete and non-discrete data; a discretization facility; a database; and an analysis server all coupled together as a computer network. Motor vehicles with video cameras and onboard diagnostic systems capture data when the vehicle is involved in a crash or other anomaly (an ‘event’). In station where interpretation of non-discrete data is rendered, i.e. a discretization facility, captured data is used as a basis for production of supplemental discrete data to further characterize the event. Such interpreted data is joined to captured data and inserted into a database in a structure which is searchable and which supports logical or mathematical analysis by automated machines. A coupled analysis server is arranged to test stored data for prescribed conditions and upon finding such, to initiate further actions appropriate for the detected condition.

Provided are an envelope processor 103, for obtaining an envelope for a detected signal; a FFT unit 104, for converting the envelope into a frequency spectrum; a peak detector 105, for smoothing the frequency spectrum by calculating a moving average, for further performing smoothing and differentiation for the spectrum, and detecting, as peaks, frequency points at which a sign of a differential coefficient is changed from positive to negative, for extracting peaks having a predetermined threshold value or greater, and for sorting the extracted peaks and detecting upper peaks; and a diagnosis processor T, for diagnosing an abnormality based on the detected peaks.

The present invention provides a novel technique designed to provide a front-end graphical user interface for voice interaction, displaying a list of voice commands that can be used within a control scope of a medical system and that change depending on where the user is in the system. The user is presented with a quick reference guide to available commands without being overwhelmed. “Contextual voice cues” (CVC) provide a non-intrusive dynamic list of available commands to the user which automatically pop-up and change depending on the screen or mode the user is in. An indicator, such as a feedback light, may show whether a voice command is accepted. The technique may be utilized with medical information and diagnostic systems such as picture archival communication systems (PACS), ultrasound modalities, and so forth. Implementation of the technique should increase clinician adoption rates of voice recognition control and thus advance improvements in clinician workflow.

A system and method are provided for automatically developing and implementing, a comprehensive customized care plan for a patient, to address all of the patient medical and non-medical (e.g., social, quality-of-life, personal) needs, utilizing a wide variety of information: both gathered both personally from a patient by a medical professional and also collected automatically by one or more telemedicine systems. The system and method of the present invention also continually re-assess and dynamically modify the comprehensive care plan, and additionally enable a wide variety of services and benefits to be made available to the patients in a manner automatically customized for their specific needs, with the offered services and benefits being dynamically adjusted as the patient needs change or evolve. In addition, the inventive system provides platform-independent capabilities so that diagnostic systems and devices from various vendors may be freely mixed to provide patients with customized diagnostic monitoring at the lowest possible cost.

A wireless capsule as a disease diagnosis tool in vivo can be introduced into a biological body by a native and/or artificial open, or endoscope, or an injection. The information obtained from a micro-spectrometer, and/or an imaging system, or a micro-biosensor, all of which are built-in a wireless capsule, can be transmitted to the outside of the biological body for medical diagnoses. In addition, a real-time specimen collection device is integrated with the diagnostic system for the in-depth in vitro analysis

A vehicle monitoring system and method has a vehicle unit which is mounted in each vehicle and a remote monitoring and diagnostic server or system which receives periodic status information in messages from the vehicle units of all active vehicles and displays the data in a user interface on one or more user devices. The vehicle unit is configured to send periodic first messages containing a first, partial set of vehicle operation status information and periodic second messages containing a second, larger set of status information, and may be switched to send second messages at faster time intervals depending on various conditions. The user interface displays at least part of the second set of vehicle information for a selected vehicle while displaying at least part of the first set of vehicle information for at least some active vehicles sending messages to the remote server.

A diagnostic system for collecting, processing, recording and analyzing sounds associated with the physiologic activities of various human organs. The system includes a plurality of transducers placed on the body surface at the operator's discretion. The microphones are coupled to analogue/digital signal processing circuitry for enhancement of the desired signal and exclusion of ambient noise. An A/D converter digitizes the incoming data and transmits data, which is divided into a multitude of discrete blocks, received over very finite intervals of time, to a computer workstation and moved through an analysis program sequentially. The program is displayed as a series of icons which depict operations that the program performs and which allow the operator to reprogram the system at any time. The data is finally displayed in graphical format and stored in memory as the program processes each block sequentially.

A health monitoring system, and methods of use and manufacture thereof are disclosed. The health monitoring system may include a computing system and a diagnostic test coupled to a diaper. The diagnostic test may include one or more sensors configured to produce a visual indication of one or more analytes contained in a sample produced by a subject. The diagnostic test may include a machine-readable code. The computing system may be configured to read the machine-readable code to allow an application running on the computing system to automatically perform at least one task related to a production of a data point based on the visual indication. The health monitoring system may aid in identifying a potential abnormal health condition of the subject by providing automatic longitudinal analysis of analytes contained in samples produced by the subject over a period of time.

Systems and methods are disclosed for controlling, diagnosing and prognosing the health of a motorized system. The systems may comprise a diagnostics system, a prognostic system and a controller, wherein the diagnostics system and/or prognostic system employs a neural network, an expert system, and/or a data fusion component in order to assess and/or prognose the health of the motorized system according to one or more attributes associated therewith. The controller may operate the motorized system in accordance with a setpoint and/or a diagnostics signal from the diagnostics system and/or prognostic information. Also disclosed are methodologies for controlling, diagnosing and prognosing the health of a motorized system, comprising operating a motor in the motorized system in a controlled fashion, diagnosing and/or prognosing the health of the motorized system according to a measured attribute associated with the motorized system, wherein the motor may be operated according to a setpoint and/or the diagnostics signal and/or prognosis.

An embodiment provides a wiring harness that connects a telematics device to a host vehicle. One embodiment of the wiring harness may include: 1) a cable featuring a plurality of wires; 2) a first connector featuring a snap-on adaptor that attaches to a connector core with a pin configuration that mates with a diagnostic scan tool; 3) a second connector that connects to an in-vehicle diagnostic system; and 4) a third connector that connects to the telematics device. A wiring kit embodiment and method embodiments for coupling a telematics device to a host vehicle are also disclosed.

A battery pack for self-diagnosis and a system using the same, which can read a data value from a body fluid sensor (referred to as a biosensor) reacting with body fluid such as urine, and indicate a measurement value of a test item such as a blood glucose level, a cholesterol level or etc. The battery pack includes: a power supply for supplying electric power to a working electrode of the body fluid sensor; a current detector for detecting the amount of electric current flowing into the working electrode; a battery pack controller for controlling an electric power supply operation for the working electrode, reading, from a memory, the test item-based measurement value corresponding to the detected current amount, and outputting the read measurement value; and an interface for carrying out an interface function so that the test item-based measurement value outputted from the battery pack controller can be sent to the main body of the mobile communication terminal.

This invention provides a system and method for runtime determination (self-diagnosis) of camera miscalibration (accuracy), typically related to camera extrinsics, based on historical statistics of runtime alignment scores for objects acquired in the scene, which are defined based on matching of observed and expected image data of trained object models. This arrangement avoids a need to cease runtime operation of the vision system and/or stop the production line that is served by the vision system to diagnose if the system's camera(s) remain calibrated. Under the assumption that objects or features inspected by the vision system over time are substantially the same, the vision system accumulates statistics of part alignment results and stores intermediate results to be used as indicator of current system accuracy. For multi-camera vision systems, cross validation is illustratively employed to identify individual problematic cameras. The system and method allows for faster, less-expensive and more-straightforward diagnosis of vision system failures related to deteriorating camera calibration.

An imaging and diagnostic system and method are used for differentiating between malignant and non-malignant tissue of a prostate and surrounding region. The imaging device of the system acquires imaging data from the prostate and surrounding proximal region, processes the data to differentiate areas of tissue malignancy from non-malignant tissue. A sectioning device or ablative device is provided. The ablative device is operable by automation for receiving the imaging output coordinates and defining the trajectory and quantity of energy or power to be delivered into the malignant tissue of the prostate region. A control system determines calculated energy or power to be deposited into the malignant tissue during ablation, to minimize destruction of the non-malignant tissue within the prostate and surrounding tissue. The system operates on generated ablative device output data. In a second embodiment of the invention, the energy device output data guides the position or orientation of the delivery device or guides the delivery of energy or power from the ablative device into the malignant prostate tissue under active surveillance of the imaging device of the system. Destruction of the target tumor is thus monitored and controlled by active imaging.

Electronic self-test and/or self-diagnostic systems particularly useful with emergency lighting fixtures, including exit signage having light emitting diodes as light sources and unit emergency fixtures powered with lead-acid batteries, the systems perform testing and diagnostic functions on the circuitry, power supply, charger and lamping of such fixtures either by manual or automatic initiation. Testing functions are provided through use of a programmable microprocessor, the diagnostic circuitry not only monitoring operation of charger/transfer circuitry but also controlling the charger/transfer circuitry to enable alternate strategies for alleviation of a given failure. In emergency mode of a light emitting diode exit sign, a microprocessor-controlled two-stage inverter is employed not only to power the LED light source, but also to efficiently power the microprocessor. Power to the microprocessor is controlled by the microprocessor itself and can therefore be discontinued after appropriate operation until mains power is restored, thereby effectively reducing power consumption to zero. System operation can be flexibly configured through use of a two-wire serial link between modular elements of the system. Incandescent emergency unit fixtures due to high drain rates and output loads require emergency mode operation through use of lead-acid batteries, thereby requiring voltage controlled charging and relay transfer, the self-test and/or self-diagnostic circuitry of the invention used with emergency unit fixtures thus differing in various respects from the circuitry employed for the LED exit signage fixtures and primarily in the need to measure both charge and discharge currents, the circuitry having a larger dynamic range in addition to a capability of measuring both positive and negative currents.

A data logging unit configured for installation in a hybrid vehicle communicates with a user device configured to receive data from the data logging unit and to display selected portions of the data to a user for identification of potential vehicle faults associated with vehicle events reported by the vehicle's driver. The data logging unit has a data logger which communicates with hybrid drive system and other vehicle components to receive hybrid drive system data, and with a vehicle position sensor which detects location to receive vehicle location data. A data log processing module correlates location data with the corresponding vehicle data, and creates a correlated log of drive system data and associated vehicle location information, to allow identification of vehicle data within an event window based on vehicle location at the time of a reported event. Accordingly, a user may make a geographical request and the system will report vehicle data corresponding to the geographical request.

Force sensing methods, systems, and computer-program products may be used to sense pressure at a plurality of points of a user's foot, including its bones, joints, muscles, tendons, and ligaments. Such systems, methods, and computer-program products sense pressure along the bottom of a user's foot during sports training and monitoring applications, electronic games, and diagnostic systems. In particular, the system generally comprises a transducer having a plurality of points of interest, an insole node for collecting and transmitting data sensed at the plurality of points of interest, first means for coupling that data across a network, by way of second means for coupling same to a collector node, and then to a computer.

A vehicle diagnostic system monitors user-selected analog diagnostic data that is received from a vehicle to determine whether it meets a user-specified trigger characteristic and records user-selected digital diagnostic data that is received from the vehicle in response to a determination that the trigger characteristic has been met. The user-selected monitored diagnostic data may instead be digital and the user-selected recorded diagnostic data may instead be analog. The user may make both selections from a set of analog and digital diagnostic data types. Other features, objects, benefits, components, methods and variations are also disclosed.

A system for empirically diagnosing a condition of a monitored system. Estimates of monitored parameters from a model of the system provide residual values that can be analyzed for failure mode signature recognition. Residual values can also be tested for alert (non-zero) conditions, and patterns of alerts thus generated are analyzed for failure mode signature patterns. The system employs a similarity operator for signature recognition and also for parameter estimation. Failure modes are empirically determined, and precursor data is automatically analyzed to determine differentiable signatures for failure modes.

A vehicular diagnostic communications system, and components thereof, are provided for an apparatus and technique for communicating vehicular diagnostic information over a cellphone network. The system includes a code reader having a vehicle diagnostic port connector for receiving vehicle diagnostic information from the vehicle diagnostic port. The code reader also has a local connectivity network circuit for communicating vehicle diagnostic information between the vehicle diagnostic port connector and a local connectivity circuit. A cellphone is arranged in communication with the local connectivity network for communicating vehicle diagnostic information between the code reader and a cellular telephone network.

The invention provides basket-style catheter probes that are configured to automatically radially expand or contract in response to widening or narrowing of a lumen so that contact with the lumen wall is maintained during probing. Related diagnostic systems and methods are also provided.

Program instructions and/or data used in vehicle computers can be downloaded into the vehicle from a personal computer, which obtains the information from a web server. Different types of programmed modifications can be readily downloaded into a vehicle simply by downloading the appropriate program. Once the program instructions and/or data are downloaded, they can be copied into a vehicle computer using available interfaces, such as the onboard diagnostic system connector (OBD-2) available on many vehicles.

The invention is related to a driver behavior diagnostic method. The method involves sampling event signal values associated with a vehicle and analyzing the event signal values. The sampling of the event signal values includes buffering the values over a limited buffer time. The analyzing of the event signal values includes reconstructing events based on the buffered event signal values. Further, the invention is related to a driver behavior diagnostic system including a sampling device for sampling event signal values associated with a vehicle and an analyzing device for analyzing the event signal values. The sampling device includes a buffer for buffering event signal values for a limited buffer time, and the analyzing device is adapted for reconstructing events based on the buffered event signal values.