mhurhangee/patent-ind-claim-en huggingface dataset:
A circuit for handling unprocessed data comprising: a data stream divider unit (DSDU) , comprising: an array comprising plurality of first-in-first-out (FIFO) registers, configured to receive a stream of data and to divide it into portions of data and to pass each of the portions of data through one of the plurality of FIFO registers; and a first advanced extensible interface (AXI) unit configured to receive the data portions; and a graphics processing unit (GPU) comprising: a second advanced extensible interface (AXI) unit configured to receive data portions from the first AXI unit; and a plurality of streaming multiprocessors (SM) configured to receive each data portion from a respective FIFO register, and to process the received data portion. a data stream divider unit (DSDU) , comprising: an array comprising plurality of first-in-first-out (FIFO) registers, configured to receive a stream of data and to divide it into portions of data and to pass each of the portions of data through one of the plurality of FIFO registers; and a first advanced extensible interface (AXI) unit configured to receive the data portions; and an array comprising plurality of first-in-first-out (FIFO) registers, configured to receive a stream of data and to divide it into portions of data and to pass each of the portions of data through one of the plurality of FIFO registers; and a first advanced extensible interface (AXI) unit configured to receive the data portions; and a graphics processing unit (GPU) comprising: a second advanced extensible interface (AXI) unit configured to receive data portions from the first AXI unit; and a plurality of streaming multiprocessors (SM) configured to receive each data portion from a respective FIFO register, and to process the received data portion. a second advanced extensible interface (AXI) unit configured to receive data portions from the first AXI unit; and a plurality of streaming multiprocessors (SM) configured to receive each data portion from a respective FIFO register, and to process the received data portion.
A compensation method for an organic light emitting display device, the display device comprising an active area (AA) including a plurality of sub-pixels; and a peripheral area (PA) configured to surround the active area (AA), the plurality of sub-pixels including each an anode and a cathode ; an anode line disposed from a first edge of the peripheral area (PA) and extended towards a second edge of the peripheral area (PA), the second edge opposing the first edge, and configured to supply an anode voltage to the anodes of the plurality of sub-pixels; and a cathode line disposed from the second edge of the peripheral area (PA) and extended towards the first edge of the peripheral area (PA) and configured to supply a cathode voltage to the cathodes of the plurality of sub-pixels; wherein in each of the plurality of sub-pixels, the direction of the anode voltage input of the anode line is from the first edge to the second edge and the direction of the cathode voltage input of the cathode line is from the second edge to the first edge, such that the directions of the anode voltage and of the cathode voltage are different from each other and face each other; and the method comprising the step of: compensating a deviation in a potential difference between the anode and the cathode in the plurality of sub-pixels by offsetting an increased cathode voltage in the cathode line along the direction of the cathode voltage input by a decreased anode voltage in the anode line along the direction of the anode voltage input. an anode line disposed from a first edge of the peripheral area (PA) and extended towards a second edge of the peripheral area (PA), the second edge opposing the first edge, and configured to supply an anode voltage to the anodes of the plurality of sub-pixels; and a cathode line disposed from the second edge of the peripheral area (PA) and extended towards the first edge of the peripheral area (PA) and configured to supply a cathode voltage to the cathodes of the plurality of sub-pixels; wherein in each of the plurality of sub-pixels, the direction of the anode voltage input of the anode line is from the first edge to the second edge and the direction of the cathode voltage input of the cathode line is from the second edge to the first edge, such that the directions of the anode voltage and of the cathode voltage are different from each other and face each other; and the method comprising the step of: compensating a deviation in a potential difference between the anode and the cathode in the plurality of sub-pixels by offsetting an increased cathode voltage in the cathode line along the direction of the cathode voltage input by a decreased anode voltage in the anode line along the direction of the anode voltage input.
Hob having at least one heating zone , a temperature sensor for detecting the temperature of a cookware element placed on the heating zone , and a control unit for operating the heating zone , wherein the control unit is designed so that in at least one operating mode it will heat up the cookware element during a heating-up phase and regulate the temperature of the cookware element to a target temperature (TS) during a holding phase , characterised in that the control unit is designed to detect a boiling point (TB) of the liquid in the cookware element during the heating-up phase and determine the target temperature (TS) as a function of the boiling point (TB), wherein the control unit records a temperature curve of the cookware element during the heating-up phase , detects a substantially constant section along the temperature curve, and detects the boiling point (TB) as an averaged temperature within the constant section .
Inspection station for crimped sheet material, the station comprising: a light source arranged to illuminate crimped sheet material in an inspection location; a vibrating device adapted to vibrate crimped sheet material in the inspection location for dislodging loose material on the surface of the sheet material in the inspection location, wherein the vibrating device comprises a vibrating element in the form of a bar, wherein crimped sheet material is guidable along or over the vibrating element for the crimped sheet material to be vibrated by the vibrating element; a detector for detecting light received from the vibrated crimped sheet material, thereby providing images of the crimped sheet material; a controller adapted to determine from images of the crimped sheet material loose material on the crimped surface of the crimped sheet material, and adapted to provide a true status of the crimped surface of the crimped sheet material, the true status representing the surface of the crimped sheet material without loose material. a light source arranged to illuminate crimped sheet material in an inspection location; a vibrating device adapted to vibrate crimped sheet material in the inspection location for dislodging loose material on the surface of the sheet material in the inspection location, wherein the vibrating device comprises a vibrating element in the form of a bar, wherein crimped sheet material is guidable along or over the vibrating element for the crimped sheet material to be vibrated by the vibrating element; a detector for detecting light received from the vibrated crimped sheet material, thereby providing images of the crimped sheet material; a controller adapted to determine from images of the crimped sheet material loose material on the crimped surface of the crimped sheet material, and adapted to provide a true status of the crimped surface of the crimped sheet material, the true status representing the surface of the crimped sheet material without loose material.
Method for measuring counting rates (ZR1, ZR2, ZR3, ZR4) or measured variables dependent on the counting rates for determining a density profile (DP) of at least two substances (ST) with different densities (DE) arranged within a container by means of a plurality of detectors , the method comprising the steps of: a) in each case recording respective gamma rays (GR) which have in each case penetrated at least partially through at least one of the substances (ST), by means of the detectors , and b) in each case generating a respective counting rate (ZR1, ZR2, ZR3, ZR4) or a respective measured variable dependent on the counting rate only on the basis of respectively recorded gamma rays (GR) of which the respective gamma energy (GE) is greater than or equal to an energy threshold value (ETh2), the energy threshold value (ETh2) being a minimum of 0.5 times a Compton energy value (CE) of a Compton gap (CG) of the gamma rays (GR), - the method comprising the step of: in each case emitting respective gamma rays (GR) with a discrete isotope gamma energy (IGE) into at least one of the substances (ST) by means of a plurality of radiation sources , the Compton energy value (CE) being less than the isotope gamma energy (IGE). a) in each case recording respective gamma rays (GR) which have in each case penetrated at least partially through at least one of the substances (ST), by means of the detectors , and b) in each case generating a respective counting rate (ZR1, ZR2, ZR3, ZR4) or a respective measured variable dependent on the counting rate only on the basis of respectively recorded gamma rays (GR) of which the respective gamma energy (GE) is greater than or equal to an energy threshold value (ETh2), the energy threshold value (ETh2) being a minimum of 0.5 times a Compton energy value (CE) of a Compton gap (CG) of the gamma rays (GR), - the method comprising the step of: in each case emitting respective gamma rays (GR) with a discrete isotope gamma energy (IGE) into at least one of the substances (ST) by means of a plurality of radiation sources , the Compton energy value (CE) being less than the isotope gamma energy (IGE). - the method comprising the step of: in each case emitting respective gamma rays (GR) with a discrete isotope gamma energy (IGE) into at least one of the substances (ST) by means of a plurality of radiation sources , the Compton energy value (CE) being less than the isotope gamma energy (IGE).
A musical signal processing apparatus comprising: a demultiplexing unit that demultiplexes input encoded data into data including information on a plurality of segments including frames in each of which the same coefficient as a coefficient used in producing a high band signal is selected in a section to be processed including a plurality of frames, number information indicating the number of segments, and coefficient information for obtaining the coefficient selected in the frames of the segments, and low band encoded data; a low band decoding unit that decodes the low band encoded data to produce a low band signal; a selection unit that selects a coefficient of a frame to be processed based on the coefficient information, the number information and the segment information; a high band sub-band power calculation unit that calculates a high band sub-band power of a high band sub-band signal of each sub-band constituting the high band signal of the frame to be processed based on a low band sub-band power of a low band sub-band signal of a plurality of sub-bands constituting the low band signal of the frame to be processed and the selected coefficient; and a high band signal production unit that produces the high band signal of the frame to be processed based on the high band sub-band power and the low band sub-band signal; wherein: the number information includes an indication of a number of segments and the segment information includes an indication of a length of each segment. a demultiplexing unit that demultiplexes input encoded data into data including information on a plurality of segments including frames in each of which the same coefficient as a coefficient used in producing a high band signal is selected in a section to be processed including a plurality of frames, number information indicating the number of segments, and coefficient information for obtaining the coefficient selected in the frames of the segments, and low band encoded data; a low band decoding unit that decodes the low band encoded data to produce a low band signal; a selection unit that selects a coefficient of a frame to be processed based on the coefficient information, the number information and the segment information; a high band sub-band power calculation unit that calculates a high band sub-band power of a high band sub-band signal of each sub-band constituting the high band signal of the frame to be processed based on a low band sub-band power of a low band sub-band signal of a plurality of sub-bands constituting the low band signal of the frame to be processed and the selected coefficient; and a high band signal production unit that produces the high band signal of the frame to be processed based on the high band sub-band power and the low band sub-band signal; wherein: the number information includes an indication of a number of segments and the segment information includes an indication of a length of each segment.
A computing device-based method of contrast cloud detection in a set of angiography image frames, a contrast-cloud being an amorphic time-varying region formed during contrast agent injection from a contrast agent leading catheter tip, the method comprising: storing, in an electronic memory device, a set of angiography image frames obtained during a first time period that comprises one or more time periods during which contrast solution is in a blood vessel; detecting a plurality of candidate contrast cloud regions in one or more angiography image frames; combining the plurality of candidate contrast cloud regions to generate a fused contrast cloud region, the fused contrast cloud region having a cloud boundary; defining an exclusion zone as the cloud boundary; and reducing one or more errors in one or more subsequent software-based image data processing methods applied to a plurality of angiography image frames from the set of angiography image frames by excluding angiography image data located within the exclusion zone from being used by such one or more methods. storing, in an electronic memory device, a set of angiography image frames obtained during a first time period that comprises one or more time periods during which contrast solution is in a blood vessel; detecting a plurality of candidate contrast cloud regions in one or more angiography image frames; combining the plurality of candidate contrast cloud regions to generate a fused contrast cloud region, the fused contrast cloud region having a cloud boundary; defining an exclusion zone as the cloud boundary; and reducing one or more errors in one or more subsequent software-based image data processing methods applied to a plurality of angiography image frames from the set of angiography image frames by excluding angiography image data located within the exclusion zone from being used by such one or more methods.
A lens structure, comprising: a lens tube ; a first lens located on a first end-face of the lens tube and outside the lens tube as well as disposed on an outer side of the lens tube , wherein the first lens comprises a light converging region and an edge region located at an edge around the light converging region; a light shielding structure covering the edge region of the first lens ; and at least one second lens located inside the lens tube , wherein the first lens is fixedly bonded with the lens tube , and wherein the first lens is fixedly bonded with the light shielding structure . a lens tube ; a first lens located on a first end-face of the lens tube and outside the lens tube as well as disposed on an outer side of the lens tube , wherein the first lens comprises a light converging region and an edge region located at an edge around the light converging region; a light shielding structure covering the edge region of the first lens ; and at least one second lens located inside the lens tube , wherein the first lens is fixedly bonded with the lens tube , and wherein the first lens is fixedly bonded with the light shielding structure .
A method for producing a nut that is connected to a flat part connecting section of a cable shoe in a freely rotatable manner, wherein the flat part connecting section has a passage opening , the nut has a seating face , which is at the bottom in the connected state, and a holder section extends further downward from the seating face on the nut , wherein a tapered portion of the passage opening is formed by a holder material section , which is pre-curved into the passage opening by deformation, and wherein the holder material section is formed by a recess , which is produced in the flat part connecting section so as to surround the passage opening on a top side of the flat part connecting section that is associated with the seating face , characterized in that the holder material section is initially formed and the nut is attached to the top side , wherein the holder section protrudes downward beyond a narrowest cross section (x) of the passage opening , which is formed by the holder material section , and that the holder section is subsequently widened underneath the narrowest cross section (x) in order to hold the nut on the cable shoe in a freely rotatable and interlocking manner.
A transducer cover for use in an ultrasonic medical instrument having a transducer , said cover comprising: a chemical blocking layer of a generally cylindrical form made of a synthetic resin which is impermeable to water and chemicals, characterized in that said cover further comprising a vibration absorbing layer of a generally cylindrical form made of a synthetic resin having a vibration absorbing property, wherein said vibration absorbing layer and said chemical blocking layer are coaxially laminated, and capable of sealing arrangement over and around the transducer , wherein said vibration absorbing layer is an inner layer and said chemical blocking layer is an outer layer, with said chemical blocking layer sealingly attached to said vibration absorbing layer and said vibration absorbing layer capable of being sealingly attached to the transducer . a chemical blocking layer of a generally cylindrical form made of a synthetic resin which is impermeable to water and chemicals, characterized in that said cover further comprising a vibration absorbing layer of a generally cylindrical form made of a synthetic resin having a vibration absorbing property, wherein said vibration absorbing layer and said chemical blocking layer are coaxially laminated, and capable of sealing arrangement over and around the transducer , wherein said vibration absorbing layer is an inner layer and said chemical blocking layer is an outer layer, with said chemical blocking layer sealingly attached to said vibration absorbing layer and said vibration absorbing layer capable of being sealingly attached to the transducer .
A tank for storage of hydrocarbon liquids on the seabed, comprising: an outer sidewall and an inner side wall defining a hollow wall ; an upper plate and a lower plate ; vertical and horizontal bulkheads extending between the inner side wall and outer side wall to provide structural integrity to the hollow wall , wherein the hollow wall is compartmentalized to form a plurality of compartments , the compartments 18 being controllable to flood and evacuate a void space located between the outer side wall and inner side walls during sinking and recovery of the tank , the inner side wall surrounding a storage area , characterized in that an internal bottom and sides of the tank comprise two complete layers of watertight hull surface: one outer layer forming the normal hull of the tank, and a second inner hull which is some distance inboard, which forms a redundant barrier. an outer sidewall and an inner side wall defining a hollow wall ; an upper plate and a lower plate ; vertical and horizontal bulkheads extending between the inner side wall and outer side wall to provide structural integrity to the hollow wall , wherein the hollow wall is compartmentalized to form a plurality of compartments , the compartments 18 being controllable to flood and evacuate a void space located between the outer side wall and inner side walls during sinking and recovery of the tank , the inner side wall surrounding a storage area , characterized in that an internal bottom and sides of the tank comprise two complete layers of watertight hull surface: one outer layer forming the normal hull of the tank, and a second inner hull which is some distance inboard, which forms a redundant barrier.
A polarization plate comprising: a sapphire plate having a first main surface ; and a thin metal wire disposed in a stripe pattern on the first main surface of the sapphire plate , wherein an angle between a c-axis of the sapphire plate and a longitudinal direction of the thin metal wire is 5° or less, and wherein the c-axis of the sapphire plate deviates from the first main surface of the sapphire plate , wherein an angle between the first main surface of the sapphire plate and the c-axis of the sapphire plate is 0.1° or more. a sapphire plate having a first main surface ; and a thin metal wire disposed in a stripe pattern on the first main surface of the sapphire plate , wherein an angle between a c-axis of the sapphire plate and a longitudinal direction of the thin metal wire is 5° or less, and wherein the c-axis of the sapphire plate deviates from the first main surface of the sapphire plate , wherein an angle between the first main surface of the sapphire plate and the c-axis of the sapphire plate is 0.1° or more.
An assembly for applying therapy by pressure to a patient as a function of a patient condition, the assembly comprising: a pressure apparatus configured to be applied to a surface of the body of a patient; means for securing the pressure apparatus to the surface of the patient's body; a patient condition sensor including at least one of an accelerometer , magnetometer, gyroscope, inclination sensor, tilt sensor, goniometer, or flex sensor configured to be placed on the patient's body for providing information for a condition of the patient's body; and an input element configured to receive the information from the patient condition sensor about the condition of the patient; characterized by : comprising a controller configured to evaluate a change in an estimated internal hydrostatic pressure arising from a change in the condition of the patient and to apply and/or change a pressure or compression therapy as a function of a patient's internal hydrostatic pressure. a pressure apparatus configured to be applied to a surface of the body of a patient; means for securing the pressure apparatus to the surface of the patient's body; a patient condition sensor including at least one of an accelerometer , magnetometer, gyroscope, inclination sensor, tilt sensor, goniometer, or flex sensor configured to be placed on the patient's body for providing information for a condition of the patient's body; and an input element configured to receive the information from the patient condition sensor about the condition of the patient; characterized by : comprising a controller configured to evaluate a change in an estimated internal hydrostatic pressure arising from a change in the condition of the patient and to apply and/or change a pressure or compression therapy as a function of a patient's internal hydrostatic pressure.