95results about How to "Small data amount" patented technology

A method is described for navigating in the interior of the body using three-dimensionally visualized structures. In a first step of the method, at least two two-dimensional images of the same anatomical object are provided from different perspectives, and also items of information that make it possible to draw conclusions about the respective spatial position of an imaging system relative to the anatomical object. The projections of a geometrical structure to be visualized are then created in every two-dimensional image, wherein a geometrical structure to be visualized is created in each two-dimensional image, wherein the geometrical structure to be visualized is different from the anatomical object. A cone surface is then generated in space for each image wherein the spatial positions of the cone vertex and cone directrix are determined from the respective spatial position of the imaging system and the shape of the cone directrix is determined from the shape of the projection of the geometrical structure to be visualized on the image. Finally, a spatial intersection of the individual cone surfaces is formed to determine the geometrical structure and the geometrical structure determined and / or an intersection of a plurality of geometrical structures determined are / is represented and the representation is used for navigation.

An object of the present invention is to provide a charging system which carries out position confirmation of a moving body at a place where there is a radio wave blocked facility, and which carries out automatic detection of GPS antenna blockage for avoiding charging. In a charging system including a GPS positioning device 921 for recognizing a vehicle position, a vehicle speed pulse measuring device 920 for dead reckoning navigating, a monitor device 920, 927, 928 which generates information expressing a current position by using these, and a charging processing 902 which judges whether or not a recognized current position is within a charge area and which carries out data processing for charging, the monitor 920 includes a simple map database 928 which includes positions of facilities or geographical features at which GPS positioning is impossible, and when GPS positioning is impossible, the facility or geographical feature corresponding to the current position is detected, and that position is made to be a current position.

An encoding device (100) includes (i) a first encoding unit (132) that encodes spectral data in the lower frequency band represented by a plularity of parameters, out of the spectral data obtained by transforming an audio signal inputted for a fixed time length, (ii) a second quantizing unit (133) that generates sub information representing characteristics of the spectral data in the higher frequency by fewer parameters than those for the lower frequency band, out of the spectral data obtained by the transformation, (iii) a second encoding unit (134) that encodes the generated sub information, and (iv) a stream output unit (140) that outputs the data encoded by the first encoding unit (132) and the data encoded by the second encoding unit (134).

A method for remote scenes classification comprising the steps of (a) preparing a reference template for classification of the remote scenes via (i) classifying a set of reference scenes via a conventional classification technique for obtaining a set of preclassified reference scenes; (ii) using a first spectral imager for measuring a spectral cube of the preclassified reference scenes; (iii) employing a principal component analysis for extracting the spectral cube for decorrelated spectral data characterizing the reference scenes; and (vi) using at least a part of the decorrelated spectral data for the preparation of the reference template for remote scenes classification; (b) using a second spectral imager for measuring a spectral cube of analyzed remote scenes, such that a spectrum of each pixel in the remote scenes is obtained; (c) employing a decorrelation statistical method for extracting decorrelated spectral data characterizing the pixels; and (d) comparing at least a part of the decorrelated spectral data extracted from the pixels of the remote scenes with the reference template.

Methods and systems are disclosed herein for synchronizing network time in a mobile ad-hoc network (MANET). Each node in the MANET may be synchronized with all of its neighbors for effective communications. More specifically, a local timing reference may be adjusted according to measured errors in incoming control packets so that time slotted transmissions can be scheduled without collisions with other nodes. The method and system is a low overhead protocol that only requires a small amount of data attached to each scheduled transmission avoiding the requirement for separate messaging. This may reduce the overhead of maintaining the MANET providing additional efficiency and robustness.

An input video signal is encoded at a plurality of coding layers exhibiting different spatial resolutions. Decoded is a given signal coded at a lower coding layer lower than a specific coding layer among the plurality of coding layers to generate a decoded signal of the lower coding layer. Spatial interpolation is applied to the decoded signal of the lower coding layer to generate an upscaled decoded video signal. The spatial interpolation is an upscaling procedure to upscale the decoded signal of the lower coding layer into a spatial resolution of the specific coding layer. A spatial high-frequency components estimation and scale up procedure is applied to the decoded signal of the lower coding layer to generate a high-frequency components signal. The upscaled decoded video signal and the high-frequency components signal are subtracted from the input video signal exhibiting a spatial resolution of the specific coding layer to produce a predictive-error signal. Then, the predictive-error signal is encoded at the specific coding layer to generate an output bitstream. The decoding, spatial interpolating, spatial high-frequency components estimating and upscaling, and encoding procedures are executed at, at least, the specific coding layer among the plurality of coding layers except the lowest coding layer exhibiting the lowest spatial resolution thereamong.

An inspection system incorporated in a printing apparatus provides a detailed inspection in which an amount of data taken as an object of inspection in unit region of printing paper is relatively large, and a simple inspection in which the amount of the data is relatively small. A region of printing paper, which becomes an object of processing when a mode signal is “H”, is taken as an object of inspection in the detailed inspection. A region of the printing paper, which becomes an object of processing when the mode signal is “L”, is taken as an object of inspection in the simple inspection. Thereby, the entire printing paper can be inspected without any large drop in the accuracy of inspection, and the amount of data handled in the inspection can be reduced considerably.

Multi-resolution images of a reference image and a target image are generated. Then, whole-range matching is performed on an image of a lower resolution to detect a two-dimensional displacement between the images. Block matching is performed on an image of a higher resolution to detect a displacement at each feature point. The accuracy of motion data is increased by correcting the motion data with an image of a higher resolution by using the previously calculated motion data of the lowest resolution through higher resolutions as an initial value.

The invention purposes to provide a position information transmission method for accurately transmitting a position and a shape on a digital map with a small amount of data.In a position information transmission method of the invention, the transmitting side transmits road shape information to specify the target road section on a digital map and event information to specify an event position by using a relative position in the target road section and the receiving side performs map matching based on the road shape information to identify the target road section and identifies the event position in the target road section based on the event information is characterized in that the transmitting side intermittently selects nodes included in the target road section to include the coordinate data of the nodes in the road shape information for transmission, and that the receiving side performs map matching to determine the positions of the nodes included in the road shape information and obtains the road connecting the nodes by way of a route search to identify the target road section. It is thus possible to efficiently and accurately transmit an event position on a digital map.

Embodiments of the invention provide a video communication system, device and method on the basis of feedback reference frame. The method includes: receiving, by a video encoding end, video frame information fed back by a video decoding end, determining a reference frame for encoding current video image according to the video frame information; encoding the current video image according to determined reference frame, and sending a video frame formed after the encoding; decoding, by the video decoding end, received video frame, and feeding back the video frame information to the video encoding end through a network and according to decoding result. By adopting embodiments of the invention, network data flow may be reduced. Meanwhile, phenomenon which may cause greater impact on the network, when it is necessary to send larger data amount since frame-loss or failed-decoding, may be avoided.

A memory tester tests a random access memory device under test (DUT) comprising addressable rows and columns of memory cells, and provides a computer with enough information to determine how to efficiently allocate spare rows and columns for replacing rows and columns containing defective memory cells. During a test the memory tester writes a “fail” bit into each address of an error capture memory (ECM) to indicate whether a correspondingly addressed memory cell of the DUT is defective. The tester also includes a set of programmable area fail counters, each for counting of the number of memory cells within a separately selected area of the memory's address space. After the test, the computer processes the counts to determine whether it needs to allocate the spare rows and columns and, in some cases, to determine how to allocate the spare rows and columns. When it cannot allocate spare rows and columns on the basis of the counts alone, the computer commands the tester to read the fail bits in selected areas of the ECM's address space to determine the addresses of the defective memory cells and to supply those addresses to the computer to enable it to determine how to allocate spare rows and columns.

Methods and systems are disclosed herein for synchronizing network time in a mobile ad-hoc network (MANET). Each node in the MANET may be synchronized with all of its neighbors for effective communications. More specifically, a local timing reference may be adjusted according to measured errors in incoming control packets so that time slotted transmissions can be scheduled without collisions with other nodes. The method and system is a low overhead protocol that only requires a small amount of data attached to each scheduled transmission avoiding the requirement for separate messaging. This may reduce the overhead of maintaining the MANET providing additional efficiency and robustness.

A conversion method includes: obtaining two R's, two G's and two B's sub-pixel values having interleaved positions from four pixels of the RGB format; obtaining four Y-luminance value, one U-chrominance value and one V-chrominance value of the YUV format according to the obtained sub-pixel values. The Y-luminance values of the first, second, third and fourth pixels in the YUV format are calculated from R's of the first pixel, G's of the second pixel, G's of the third pixel and B's sub-pixel value of the fourth pixel respectively. The U-chrominance value of the first pixel is calculated from B's of the first pixel, R's of the first pixel and the G's sub-pixel value of the third pixel. The V-chrominance value of the first pixel is calculated from the R of the fourth pixel, G of the second pixel and B of the fourth pixel.

The invention discloses a SDR (software defined radio) device and its configuration method. The SDR device has at least one memory for storing a plurality of configurable generic software modules to be configured based on predefined configuration parameters, so that the plurality of configurable generic software modules are adapted to a communication standard corresponding to the configuration parameters; and a plurality of generic hardware modules, for performing instructions in the plurality of configured generic software modules, to accomplish a corresponding function, so as to make the software defined radio device as a communication device complying with the communication standard.

The invention relates to a method comprising receiving at least one set of data on satellite signals from at least one first GNSS receiver 22, each received set of data being associated to a particular instant of time. The method further comprises estimating data for at least one additional set of data associated to a respective additional instant of time based on the at least one received set of data. The method further comprises providing data from the at least one additional set of data in addition to data from the at least one received set of data for a determination of a position of at least one second GNSS receiver 12 relative to a position of the at least one first GNSS receiver 22.

The invention relates to a method for evaluating electronic impacts or shots of fired shots in a shooting range for sportsmen and for hunter training. The target to be shot at is provided as a light spot and is projected onto a target wall (1) via a light source in such a way that said target can move in all directions. An infrared camera (7) records the shooting image on the target wall (1) for evaluating the impact. The aim of the invention is to increase accuracy and reduce the evaluation time. Target co-ordinates arm detected while the target is being provided. Said target coordinates arm compared to the impact co-ordinates obtained by means of the impact evaluation. An impact is signalled when an impact falls short of a given divergence.

Some embodiments limit the changes to a buffer occupancy accumulator with respect to a target number of bits of the current frame. Limiting the change of the buffer occupancy accumulator will prevent one odd significantly different frame from significantly changing the quantization. Some embodiments improve upon the quantizer adjustment by making more accurate estimates of the amount of information needed to encode each macroblock. Specifically, some embodiments estimate the bits per macroblock in a manner that varies from frame type to frame type. Specifically, for frame types with motion compensation, some embodiments exploit the correlation between the complexity of the macroblock and the number of bits needed. In the case of frame types without motion compensation, some embodiments impose a model that biases bit allocation towards smaller activity macro blocks.

The present invention provides a dot data processing apparatus for generating data of dots to be formed on a printing medium. The apparatus includes: a decoding preparation unit that prepares a decoding table for pixel groups, each of the pixel groups grouping together a plurality of pixels that constitute a unit of dot formation, the table containing output dot arrangements and code values in a number of identifiers assigned to the pixel groups, the output dot arrangements and code values being associated, the output dot arrangements representing the dot on-off states for the pixels in the pixel groups, the code values assuming a prescribed range of values; a code value receiving unit that receives code values derived as a result of encoding of image data representing an image with a prescribed tone number, the encoding being performed for the each pixel group as an encoding unit; a decoding unit that acquires the output dot arrangement based on the received code value and the identifier assigned to the pixel group, by means of lookup in the decoding table; and a dot data output unit that outputs dot data which represents an arrangement of dots to be formed on a printing medium, in accordance with the acquired output dot arrangement.

The objective is to obtain a charged particle accelerator where the amount of pattern data for operating an acceleration cavity and electromagnets based on time clocks is reduced and the pattern data communication time is shortened. An accelerator control apparatus provided in a charged particle accelerator of the present invention is characterized by including a clock generation unit that generates an acceleration cavity clock and an electromagnet clock that is synchronized with the acceleration cavity clock and has a frequency lower than that of the acceleration cavity clock; a high-frequency control unit that controls an acceleration cavity, based on an acceleration cavity pattern stored in a first pattern memory and the acceleration cavity clock; and a deflection electromagnet control unit that controls a deflection electromagnet, based on a deflection electromagnet pattern stored in a second pattern memory and the electromagnet clock.

An optical measurement apparatus 10 primarily includes: a photon detection unit 12 for detecting incident photons, a time signal output unit 14 for outputting a time signal, and a storage unit 16 for storing the time signal outputted from the time signal output unit 14 when the photon detection unit 12 detects photons. The photon detection unit 12 includes a HPD 24 having a photocathode 24a and an APD 24b, a TZ amplifier 26, a peak holding circuit 28, and an A / D converter 30. The time signal output unit 14 includes a timer 32 and a counter 34. The storage unit 16 includes a comparator 36 and a memory 38. When photons impinge on the HPD 24, a trigger signal is outputted from the comparator 36, causing the photon-number outputted from the A / D converter 30 and the time data outputted from the counter 34 to be stored in the memory 38.

A system, method and tool for monitoring switching events in a network with at least two nodes, and a corresponding network, the system, method and tool including means for representing the events originated from different nodes as data in a uniform format, and means for counting the occurrence of events in a node of the network wherein switching events being represented as the same data are counted as the same event.

The invention purposes to provide a position information transmission method for accurately transmitting a position and a shape on a digital map with a small amount of data.In a position information transmission method of the invention, the transmitting side transmits road shape information to specify the target road section on a digital map and event information to specify an event position by using a relative position in the target road section and the receiving side performs map matching based on the road shape information to identify the target road section and identifies the event position in the target road section based on the event information is characterized in that the transmitting side intermittently selects nodes included in the target road section to include the coordinate data of the nodes in the road shape information for transmission, and that the receiving side performs map matching to determine the positions of the nodes included in the road shape information and obtains the road connecting the nodes by way of a route search to identify the target road section. It is thus possible to efficiently and accurately transmit an event position on a digital map.

The present disclosure provides a method for obtaining a mura compensation value, a device for obtaining a mura compensation value and a display panel. The method includes: obtaining an image of a detection picture displayed on a display panel, extracting display data matrices of three primary colors, obtaining first correction matrices of the three primary colors, obtaining position coordinates of extreme points of the first correction matrices of the three primary colors, obtaining second correction matrices and a third correction matrix group of the three primary colors, obtaining compensation matrices from the third correction matrices as mura compensation values of the display panel.

A method for providing a prediction, includes generating first prediction data on a start time of a new event to be registered in a calendar of a target user, by sequentially learning calendar data including information on a start time of at least one event existing in a calendar of at least one user, in order of time at which the at least one event is registered in the calendar of the at least one user, generating second prediction data on the start time of the new event with reference to text information on the new event, and generating third prediction data on the start time of the new event with reference to preference information of the target user; and predicting the start time of the new event by calculating a likelihood of the start time of the new event with reference to the first, second, and third prediction data.

In a method of testing a cellular network system in which setting up a communication link between two subscribers starts with a negotiation phase comprising the two steps of one of the subscribers sending a request (21) for a connection with the other subscriber to a network management and of the network management sending back an answer (23) to the subscriber, wherein the link can be established if the network management's answer (23) satisfies certain conditions, for testing the cellular network system the subscriber's request (21) and the network management's answer (23) are monitored and analyzed. Preferably, the set up process is actively terminated after the negotiation phase, before an actual link is established. Thereby, it is ensured that the use of network capacity is minimized for test links. A device for testing a cellular network system comprises a transmitter for communicating with the cellular network system, a controller for generating dedicated test requests (21) for communication links on the cellular network system and a memory for storing information about generated test requests (21) and corresponding answers (23) from a network management.

An encoding apparatus is configured to encode input image data including a plurality of frames. The encoding apparatus includes a prediction coefficient generator adapted to generate a prediction coefficient for use in prediction of a second frame from a first frame, an image predictor adapted to generate a predicted image from a third frame by using the prediction coefficient, a residual generator adapted to determine a residual component between a current frame to be encoded and the predicted image, and an output unit adapted to output the residual component in the form of encoded data, wherein the first to third frames are frames which occurred as frames to be encoded, before the occurrence of the current frame.

The purpose of the present invention is, in a horse race or a motorboat race, to display the progress of the race (trail) of each horse, by obtaining analysis data of a plural number of patrol images provided around the race course, by acquiring position information of each horse at the moment and by tracking the specific horse through judging similarity between consecutive pictures of said patrol image. The position information analyzing and displaying method for each horse or boat or the like of the present invention, for continuously captured race images, identifies each horse or boat or the like by similarity analysis and tracks continuously the trail of each horse or boat or the like in said racing images, and also analyzes said position information of each horse or boat or the like by using the positional relationship with the fixed position information in said images, in order to display the trail of each horse or boat or the like. A template of which size matches the image size of each horse or boat is used for said identification, and each horse or boat or the like is identified within said template. Here, said template is hexagonal and the size of said template is variable according to the size of each horse or boat on the picture.