mhurhangee/ep-ind-claims huggingface dataset:
An endoscope system comprising: an image acquiring unit configured to acquire a first image and a second image, the first image being obtained by imaging an observation target by using first illumination light, the second image being obtained by imaging the observation target by using second illumination light that is different from the first illumination light at a different timing from the first image; a halation-region detecting unit configured to detect a halation region from at least one of the first image or the second image; a calculated-image generating unit configured to perform calculation by using the first image and the second image and that generates a calculated image; a display-image generating unit configured to generate a display image in which a tone reflects the calculated image; and a tone changing unit configured to change the tone of the halation region in the display image. an image acquiring unit configured to acquire a first image and a second image, the first image being obtained by imaging an observation target by using first illumination light, the second image being obtained by imaging the observation target by using second illumination light that is different from the first illumination light at a different timing from the first image; a halation-region detecting unit configured to detect a halation region from at least one of the first image or the second image; a calculated-image generating unit configured to perform calculation by using the first image and the second image and that generates a calculated image; a display-image generating unit configured to generate a display image in which a tone reflects the calculated image; and a tone changing unit configured to change the tone of the halation region in the display image.
A power transmitter, comprising: a coil configured to carry out noncontact power feeding of a power receiver (2A, 2B); a resistor mounted in series with the coil; a detection section configured to measure a voltage across the resistor; and a control section configured to detect a foreign object within a range from the coil based on the voltage, wherein the detection section is configured to measure the voltage and the control section is configured to carry out detection of the foreign object before the noncontact power feeding of the power receiver is carried out, for noncontact power feeding the coil is configured to transmit an electric power wirelessly to a power reception unit of the power receiver (2A, 2B), the electric power being sufficiently large to allow a load of the power receiver (2A, 2B), which load is configured to perform predetermined operations based on the electric power, to perform said predetermined operations; and the control section is configured to carry out the detection of the foreign object before the electric power to perform operations by the load is wirelessly transmitted to the power receiver by the coil. a coil configured to carry out noncontact power feeding of a power receiver (2A, 2B); a resistor mounted in series with the coil; a detection section configured to measure a voltage across the resistor; and a control section configured to detect a foreign object within a range from the coil based on the voltage, wherein the detection section is configured to measure the voltage and the control section is configured to carry out detection of the foreign object before the noncontact power feeding of the power receiver is carried out, for noncontact power feeding the coil is configured to transmit an electric power wirelessly to a power reception unit of the power receiver (2A, 2B), the electric power being sufficiently large to allow a load of the power receiver (2A, 2B), which load is configured to perform predetermined operations based on the electric power, to perform said predetermined operations; and the control section is configured to carry out the detection of the foreign object before the electric power to perform operations by the load is wirelessly transmitted to the power receiver by the coil.
A reduced pressure treatment system (100, 500) comprising: a compressible bladder positionable beneath a foot of a user, the compressible bladder having a chamber and being movable between an expanded position and a compressed position, a biasing member disposed within the chamber to bias the compressible bladder toward the expanded position; characterised by a pressure regulator having a first variable-volume cavity and a second variable volume cavity, the first variable-volume cavity being fluidly connected to the chamber of the compressible bladder, wherein the first variable-volume cavity is configured to expand as the first variable-volume cavity receives positively pressured air from the chamber, and the second variable-volume cavity is configured to expand and generate a reduced pressure as the first variable-volume cavity expands; and a manifold positionable at a tissue site and in fluid communication with the second variable-volume cavity of the pressure regulator. a compressible bladder positionable beneath a foot of a user, the compressible bladder having a chamber and being movable between an expanded position and a compressed position, a biasing member disposed within the chamber to bias the compressible bladder toward the expanded position; characterised by a pressure regulator having a first variable-volume cavity and a second variable volume cavity, the first variable-volume cavity being fluidly connected to the chamber of the compressible bladder, wherein the first variable-volume cavity is configured to expand as the first variable-volume cavity receives positively pressured air from the chamber, and the second variable-volume cavity is configured to expand and generate a reduced pressure as the first variable-volume cavity expands; and a manifold positionable at a tissue site and in fluid communication with the second variable-volume cavity of the pressure regulator.
Method for operating a driver assistance system, in particular a parking assistance system, in a vehicle, comprising the steps of: - operating the vehicle at an at least partially automated autonomy level by the driver assistance system, - providing at least one acoustic transducer, wherein the at least one acoustic transducer is arranged in an interior of the vehicle, - registering, by means of an evaluation unit, whether a vehicle occupant is present, - transmitting an acoustic signal through the acoustic transducer, wherein the acoustic signal has a sound power, characterized in that the sound power is adjusted by the acoustic transducer, wherein the adjustment of the sound power by the acoustic transducer takes place depending on the presence of a vehicle occupant. - operating the vehicle at an at least partially automated autonomy level by the driver assistance system, - providing at least one acoustic transducer, wherein the at least one acoustic transducer is arranged in an interior of the vehicle, - registering, by means of an evaluation unit, whether a vehicle occupant is present, - transmitting an acoustic signal through the acoustic transducer, wherein the acoustic signal has a sound power, characterized in that the sound power is adjusted by the acoustic transducer, wherein the adjustment of the sound power by the acoustic transducer takes place depending on the presence of a vehicle occupant.
A conveyor belt which comprises an article as an external layer, as an internal layer(s) or as a combination of internal layer(s) and external layer; wherein said article comprises a composite material and wherein the article is selected from the group consisting of sheets, laminates, and films; and wherein the said composite material, comprises: a particle comprising: (i) a core comprising one or more magnetic materials and (ii) a shell comprising silicon dioxide and a polymer component selected from the group consisting of polyolefin homopolymers, polyolefin interpolymers, and combinations thereof, wherein the polymer component is free of free radical initiator. a particle comprising: (i) a core comprising one or more magnetic materials and (ii) a shell comprising silicon dioxide and a polymer component selected from the group consisting of polyolefin homopolymers, polyolefin interpolymers, and combinations thereof, wherein the polymer component is free of free radical initiator.
A system for producing a mine roof bolt comprising: a feed arrangement configured to continuously deliver bars to a conveyor; said conveyor configured to index and transport said bars; a processing station comprising at least one of a header assembly, an extruding assembly, and a threading assembly, wherein the processing station is positioned along the conveyor and configured to receive and process a portion of the bars to form a mine roof bolt, characterized in that the feed arrangement comprises a feed rack and a feed wheel positioned adjacent to the feed rack, the feed wheel configured to receive bars from the feed rack and to deliver the bars to the conveyor, that the conveyor further comprises at least two drive sprockets, and a drive member forming a continuous loop and extending circumferentially around the at least two drive sprockets and that the drive member includes a plurality of indexing clamps, the plurality of indexing clamps being configured to receive the bars and index a lateral position of the bars relative to adjacent bars. a feed arrangement configured to continuously deliver bars to a conveyor; said conveyor configured to index and transport said bars; a processing station comprising at least one of a header assembly, an extruding assembly, and a threading assembly, wherein the processing station is positioned along the conveyor and configured to receive and process a portion of the bars to form a mine roof bolt, characterized in that the feed arrangement comprises a feed rack and a feed wheel positioned adjacent to the feed rack, the feed wheel configured to receive bars from the feed rack and to deliver the bars to the conveyor, that the conveyor further comprises at least two drive sprockets, and a drive member forming a continuous loop and extending circumferentially around the at least two drive sprockets and that the drive member includes a plurality of indexing clamps, the plurality of indexing clamps being configured to receive the bars and index a lateral position of the bars relative to adjacent bars.
A method for combining power of separate directed Laser beams each associated with a separate firing unit (10, 52), on a common spot on at least one target, said method comprising the steps of: • a firing units coordination and synchronization unit, FUSU, tracking at least one target and assigning at least one master firing unit, and assigning slave firing units to said at least one master firing unit for handling at least said at least one target; • said at least one master firing unit sending a guide beam provided by a respective beam generator bearing a specific signature to said at least one target, producing at least one spot of Laser radiation on said at least one target and forming a local coordinate system on said at least one target; • said slave firing units tracking said at least one target using a target tracker; • said slave units tracking the at least one spot of Laser radiation, on said at least one target; • calculating a direction vector for each of said slave firing units, and • said slave firing units sending each a guide beam bearing each a specific signature to said at least one target, and said master unit and slave units firing each a power beam at said at least one target, and • wherein on each one of said firing units, said guide beam generator, said power beam generator and said target tracker are all bore-sighted. • a firing units coordination and synchronization unit, FUSU, tracking at least one target and assigning at least one master firing unit, and assigning slave firing units to said at least one master firing unit for handling at least said at least one target; • said at least one master firing unit sending a guide beam provided by a respective beam generator bearing a specific signature to said at least one target, producing at least one spot of Laser radiation on said at least one target and forming a local coordinate system on said at least one target; • said slave firing units tracking said at least one target using a target tracker; • said slave units tracking the at least one spot of Laser radiation, on said at least one target; • calculating a direction vector for each of said slave firing units, and • said slave firing units sending each a guide beam bearing each a specific signature to said at least one target, and said master unit and slave units firing each a power beam at said at least one target, and • wherein on each one of said firing units, said guide beam generator, said power beam generator and said target tracker are all bore-sighted.
A method performed by a wireless device for handling a conditional mobility procedure, the method comprising: determining information from measurements relating to a trigger condition that triggers the conditional mobility procedure to be performed by the wireless device, wherein the information relates to one or more non-triggered potential target cells, which are potential target cells of the conditional mobility procedure, for which the trigger condition was not triggered; and transmitting the information to a network node; wherein the information is transmitted to the network node based on determining that the wireless device has completed handover to a target cell. determining information from measurements relating to a trigger condition that triggers the conditional mobility procedure to be performed by the wireless device, wherein the information relates to one or more non-triggered potential target cells, which are potential target cells of the conditional mobility procedure, for which the trigger condition was not triggered; and transmitting the information to a network node; wherein the information is transmitted to the network node based on determining that the wireless device has completed handover to a target cell.
An apparatus comprising: a secure subsystem configured to perform one or more secure operations involving one or more secret data objects, wherein the one or more secure operations includes at least one of a random number generation operation, an encryption key generation operation, a signature calculation operation, a symmetric encryption or decryption operation, an asymmetric encryption or decryption operation, a data manipulation operation, or a data movement operation, wherein the one or more secret data objects includes at least one of an encryption key, a decryption key, or a random number, and wherein the secure subsystem comprises: a plurality of secure hardware registers configured to receive instructions to perform the one or more secure operations involving the one or more secret data objects; and a plurality of security assist hardware circuits, each configured to perform the one or more secure operations involving the one or more secret data objects, wherein each of the plurality of secure hardware registers corresponds to a different security assist hardware circuit of the plurality of security assist hardware circuits; and a memory access circuit configured to request that the secure subsystem perform the one or more secure operations. a secure subsystem configured to perform one or more secure operations involving one or more secret data objects, wherein the one or more secure operations includes at least one of a random number generation operation, an encryption key generation operation, a signature calculation operation, a symmetric encryption or decryption operation, an asymmetric encryption or decryption operation, a data manipulation operation, or a data movement operation, wherein the one or more secret data objects includes at least one of an encryption key, a decryption key, or a random number, and wherein the secure subsystem comprises: a plurality of secure hardware registers configured to receive instructions to perform the one or more secure operations involving the one or more secret data objects; and a plurality of security assist hardware circuits, each configured to perform the one or more secure operations involving the one or more secret data objects, wherein each of the plurality of secure hardware registers corresponds to a different security assist hardware circuit of the plurality of security assist hardware circuits; and a plurality of secure hardware registers configured to receive instructions to perform the one or more secure operations involving the one or more secret data objects; and a plurality of security assist hardware circuits, each configured to perform the one or more secure operations involving the one or more secret data objects, wherein each of the plurality of secure hardware registers corresponds to a different security assist hardware circuit of the plurality of security assist hardware circuits; and a memory access circuit configured to request that the secure subsystem perform the one or more secure operations.
Bag opening device for opening a bag containing bagged goods, with: a fixing device (10, 20) for fixing the bag opening device to an associated bagged goods receptacle; and a serrated bridge connected to the fixing device (10, 20), which is curved outwards in the direction of the upper side and whose upper side has one or more points (31, 32, 33, 34) for opening the bag. a fixing device (10, 20) for fixing the bag opening device to an associated bagged goods receptacle; and a serrated bridge connected to the fixing device (10, 20), which is curved outwards in the direction of the upper side and whose upper side has one or more points (31, 32, 33, 34) for opening the bag.
A system comprising a portable terminal and an external device for recognizing the external device by the portable terminal, the system comprising: the portable terminal configured to recognize the external device according to signals input from the external device; and the external device being arranged, when a first signal output from a recognition node of the portable terminal has a high level to recognize a connection with the portable terminal and to output a second signal to the portable terminal during a predetermined time period; wherein the portable terminal comprises an interface unit comprising the recognition node configured to output the first signal with a predetermined form to the external device and receive the second signal during the predetermined time period; a conversion unit configured to convert the second signal into a binary sequence; and a controller configured to recognize a type of the external device based on the number of rising edges and falling edges of the binary sequence input from the conversion unit during the predetermined time period. the portable terminal configured to recognize the external device according to signals input from the external device; and the external device being arranged, when a first signal output from a recognition node of the portable terminal has a high level to recognize a connection with the portable terminal and to output a second signal to the portable terminal during a predetermined time period;
A fluorescence reader, comprising: a base frame having an open part formed at the front thereof so that a diagnostic cartridge is inserted therein and having an inner space therein; an optical module disposed in the inner space of the base frame, and disposed to be positioned above the diagnostic cartridge inserted through the open part to irradiate a light to the diagnostic cartridge and to collect the fluorescent light emitted by the diagnostic cartridge; a driving module for moving the optical module; and a sensor module for sensing the insertion of the diagnostic cartridge and the position of the optical module, wherein the base frame further comprises a plate spring at least a part of which is protruded into a insertion space, wherein the plate spring is configured to put a pressure on at least a part of the diagnostic cartridge to fix the position of the diagnostic cartridge when the diagnostic cartridge is inserted into the insertion space, wherein the diagnostic cartridge comprises a measurement window extended in the direction of the lateral flow of a sample exposing the lateral flow of the sample, and wherein the optical module is configured to detect the start time of the lateral flow of the sample at the start point of the measurement window, to move to the end point of the measurement window after sensing the start time, and to detect the end time of the lateral flow of the sample at the end point of the measurement window, wherein the fluorescence reader is configured to calculate a rate of the lateral flow on the basis of the start time and the end time of the lateral flow. a base frame having an open part formed at the front thereof so that a diagnostic cartridge is inserted therein and having an inner space therein; an optical module disposed in the inner space of the base frame, and disposed to be positioned above the diagnostic cartridge inserted through the open part to irradiate a light to the diagnostic cartridge and to collect the fluorescent light emitted by the diagnostic cartridge; a driving module for moving the optical module; and a sensor module for sensing the insertion of the diagnostic cartridge and the position of the optical module, wherein the base frame further comprises a plate spring at least a part of which is protruded into a insertion space, wherein the plate spring is configured to put a pressure on at least a part of the diagnostic cartridge to fix the position of the diagnostic cartridge when the diagnostic cartridge is inserted into the insertion space, wherein the diagnostic cartridge comprises a measurement window extended in the direction of the lateral flow of a sample exposing the lateral flow of the sample, and wherein the optical module is configured to detect the start time of the lateral flow of the sample at the start point of the measurement window, to move to the end point of the measurement window after sensing the start time, and to detect the end time of the lateral flow of the sample at the end point of the measurement window, wherein the fluorescence reader is configured to calculate a rate of the lateral flow on the basis of the start time and the end time of the lateral flow.
Process for the stabilization of a composition based on PAEK, said process comprising a step of incorporating an agent which stabilizes with regard to phenomena of thermal oxidation, said process being characterized in that the stabilizing agent incorporated is a phosphate salt or a mixture of phosphate salts, characterized in that the phosphate salt or the mixture of phosphate salts is incorporated into the composition in proportions of between 10 ppm and 50 000 ppm.
A method for producing an acrylic polymer, comprising: step for preparing a polymer by polymerizing an acrylic monomer mixture (a); and step for polymerizing an acrylic monomer mixture (b) in a dispersion containing the polymer, wherein a monomer having a hydroxyl group is contained in the acrylic monomer mixture (a), a monomer having an acetoacetyl group or a blocked isocyanate group is contained in the acrylic monomer mixture (b), and the solubility parameter of the polymer is different from the solubility parameter of a polymer obtained by polymerizing the acrylic monomer mixture (b). step for preparing a polymer by polymerizing an acrylic monomer mixture (a); and step for polymerizing an acrylic monomer mixture (b) in a dispersion containing the polymer, wherein a monomer having a hydroxyl group is contained in the acrylic monomer mixture (a), a monomer having an acetoacetyl group or a blocked isocyanate group is contained in the acrylic monomer mixture (b), and the solubility parameter of the polymer is different from the solubility parameter of a polymer obtained by polymerizing the acrylic monomer mixture (b).