mhurhangee/ep-ind-claims huggingface dataset:
An X-ray detecting system, comprising: an X-ray detector comprising a pixel array and readout circuitry for reading out pixel signals of the pixel array, wherein the readout circuitry is configured for acquiring a plurality of frames (300A-300E) related to a single X-ray exposure, each frame (300A-300E) comprising pixel values for the pixels in the pixel array; and a processing unit for processing the pixel signals, wherein the processing unit comprises a frame summing unit and an X-ray image generating unit; wherein the frame summing unit is configured to, for each pixel of the pixel array: compare the pixel values of the acquired frames (300A-300E) that correspond to that pixel for detecting a pixel value in those frames (300A-300E) that was adversely affected by a direct hit of that pixel by an X-ray photon during said single exposure; and generate a pixel value for that pixel in dependence of the pixel values of the acquired frames (300A-300E), discarding the detected adversely affected pixel value for that pixel; wherein the X-ray image generating unit is configured to generate an X-ray image based on the generated pixel values for the pixels of the pixel array; and wherein the X-ray detecting system does not comprise a fiber optic plate. an X-ray detector comprising a pixel array and readout circuitry for reading out pixel signals of the pixel array, wherein the readout circuitry is configured for acquiring a plurality of frames (300A-300E) related to a single X-ray exposure, each frame (300A-300E) comprising pixel values for the pixels in the pixel array; and a processing unit for processing the pixel signals, wherein the processing unit comprises a frame summing unit and an X-ray image generating unit; wherein the frame summing unit is configured to, for each pixel of the pixel array: compare the pixel values of the acquired frames (300A-300E) that correspond to that pixel for detecting a pixel value in those frames (300A-300E) that was adversely affected by a direct hit of that pixel by an X-ray photon during said single exposure; and generate a pixel value for that pixel in dependence of the pixel values of the acquired frames (300A-300E), discarding the detected adversely affected pixel value for that pixel; compare the pixel values of the acquired frames (300A-300E) that correspond to that pixel for detecting a pixel value in those frames (300A-300E) that was adversely affected by a direct hit of that pixel by an X-ray photon during said single exposure; and generate a pixel value for that pixel in dependence of the pixel values of the acquired frames (300A-300E), discarding the detected adversely affected pixel value for that pixel; wherein the X-ray image generating unit is configured to generate an X-ray image based on the generated pixel values for the pixels of the pixel array; and wherein the X-ray detecting system does not comprise a fiber optic plate.
Method for producing free-flowing carbodiimide compounds, comprising the steps of: - preparing a particulate carbodiimide compound, - storing a mass of the particulate carbodiimide compound under a surface pressure of at least 30 g/cm 2 until the mass of the carbodiimide compound has baked, - comminuting the baked mass of the carbodiimide compound into a comminuted particulate carbodiimide compound, - sieving the comminuted particulate carbodiimide compound to remove particles above 4.0 mm in size and particles below 0.1 mm in size from the comminuted particulate carbodiimide compound, whereby a fraction comprising particles of a free-flowing carbodiimide compound having long-term stability is obtained. - preparing a particulate carbodiimide compound, - storing a mass of the particulate carbodiimide compound under a surface pressure of at least 30 g/cm 2 until the mass of the carbodiimide compound has baked, - comminuting the baked mass of the carbodiimide compound into a comminuted particulate carbodiimide compound, - sieving the comminuted particulate carbodiimide compound to remove particles above 4.0 mm in size and particles below 0.1 mm in size from the comminuted particulate carbodiimide compound, whereby a fraction comprising particles of a free-flowing carbodiimide compound having long-term stability is obtained.
A Next Generation Radio Access Network, NG-RAN, node comprising: means for receiving, from an Access-mobility Management Function, AMF, an NGAP OVERLOAD START message, wherein the NGAP OVERLOAD START message includes one or more first Single Network Slicing Selection Assistance Information, S-NSSAIs, identifying one or more overloaded network slices; means for receiving, from a User Equipment, UE, a Radio Resource Control, RRC, Setup Complete message, wherein the RRC Setup Complete message includes a list of one or more second S-NSSAIs; and means for transmitting, to the UE, an RRC Release message in a case where the list only includes the one or more first S-NSSAIs, wherein the RRC Release message includes a value of a timer, and wherein the timer limits further RRC connection request by the UE until the timer expires. means for receiving, from an Access-mobility Management Function, AMF, an NGAP OVERLOAD START message, wherein the NGAP OVERLOAD START message includes one or more first Single Network Slicing Selection Assistance Information, S-NSSAIs, identifying one or more overloaded network slices; means for receiving, from a User Equipment, UE, a Radio Resource Control, RRC, Setup Complete message, wherein the RRC Setup Complete message includes a list of one or more second S-NSSAIs; and means for transmitting, to the UE, an RRC Release message in a case where the list only includes the one or more first S-NSSAIs, wherein the RRC Release message includes a value of a timer, and wherein the timer limits further RRC connection request by the UE until the timer expires. wherein the RRC Release message includes a value of a timer, and wherein the timer limits further RRC connection request by the UE until the timer expires.
A method of maneuvering a vehicle, the method comprising: receiving, by one or more processors from a perception system of the vehicle, sensor information identifying a set of objects as well as a set of characteristics for each object of the set of objects; filtering, by the one or more processors, the set of objects to remove objects corresponding to vehicles, bicycles, and pedestrians; selecting, by the one or more processors, from the filtered set of objects, an object within an expected future path of the vehicle; classifying, by the one or more processors, from classifications of drivable and not drivable, the selected object as drivable based on the set of characteristics for the selected object, wherein drivable indicates that the vehicle can drive over the selected object without causing damage to the vehicle and wherein not drivable indicates that the vehicle should stop or maneuver around the selected object; and maneuvering, by the one or more processors, the vehicle based on the classification of the selected object as drivable, wherein maneuvering the vehicle includes driving the vehicle over the selected object by not altering the expected future path of the vehicle. receiving, by one or more processors from a perception system of the vehicle, sensor information identifying a set of objects as well as a set of characteristics for each object of the set of objects; filtering, by the one or more processors, the set of objects to remove objects corresponding to vehicles, bicycles, and pedestrians; selecting, by the one or more processors, from the filtered set of objects, an object within an expected future path of the vehicle; classifying, by the one or more processors, from classifications of drivable and not drivable, the selected object as drivable based on the set of characteristics for the selected object, wherein drivable indicates that the vehicle can drive over the selected object without causing damage to the vehicle and wherein not drivable indicates that the vehicle should stop or maneuver around the selected object; and maneuvering, by the one or more processors, the vehicle based on the classification of the selected object as drivable, wherein maneuvering the vehicle includes driving the vehicle over the selected object by not altering the expected future path of the vehicle.
A dual camera module comprising: a first camera including a first lens module; a second camera including a second lens module, arranged to adjoin the first camera; and a controller for controlling the first camera and the second camera, wherein the controller identifies whether the first camera includes a first sensing module for sensing movement of the first lens module if a camera execution command is received, identifies whether the second camera includes a second sensing module for sensing movement of the second lens module if the first camera includes the first sensing module, identifies whether the first sensing module of the first camera and the second sensing module of the second camera have the same type as each other if the second camera includes the second sensing module, and controls the first camera and the second camera at different time zones if the first sensing module and the second sensing module have the same types as each other. a first camera including a first lens module; a second camera including a second lens module, arranged to adjoin the first camera; and a controller for controlling the first camera and the second camera, wherein the controller identifies whether the first camera includes a first sensing module for sensing movement of the first lens module if a camera execution command is received, identifies whether the second camera includes a second sensing module for sensing movement of the second lens module if the first camera includes the first sensing module, identifies whether the first sensing module of the first camera and the second sensing module of the second camera have the same type as each other if the second camera includes the second sensing module, and controls the first camera and the second camera at different time zones if the first sensing module and the second sensing module have the same types as each other.
A stent, comprising: a stent body having: a circumference; struts disposed helically about said circumference in turns and defining an outer circumferential cylinder of the stent body in both a non-expanded state and an expanded state of the stent body, said turns defining a helical gap therebetween; circumferentially oriented bridges connecting adjacent ones of said turns across said helical gap; and characterised in that said bridges are circumferentially oriented in both said non-expanded state and said expanded state of the stent body, such that the circumferential bridges extend radially away from the outer circumferential cylinder of the stent body in said expanded state. a stent body having: a circumference; struts disposed helically about said circumference in turns and defining an outer circumferential cylinder of the stent body in both a non-expanded state and an expanded state of the stent body, said turns defining a helical gap therebetween; circumferentially oriented bridges connecting adjacent ones of said turns across said helical gap; and characterised in that said bridges are circumferentially oriented in both said non-expanded state and said expanded state of the stent body, such that the circumferential bridges extend radially away from the outer circumferential cylinder of the stent body in said expanded state. a circumference; struts disposed helically about said circumference in turns and defining an outer circumferential cylinder of the stent body in both a non-expanded state and an expanded state of the stent body, said turns defining a helical gap therebetween; circumferentially oriented bridges connecting adjacent ones of said turns across said helical gap; and characterised in that
An integrated circuit for a packaged device, the circuit comprising: a circuit having first (50 1) and second (50 2) electromagnetic radiating elements; a package substrate comprising an upper surface and a lower surface; and a grounding layer provided on the lower surface of the package substrate, the grounding layer being adapted to connect to a grounding plane of a printed circuit board, PCB, wherein a die is mounted on the upper surface of the package substrate; characterised by: the grounding layer comprising a void, at least a portion of the void being positioned so as to at least partially electromagnetically isolate the first electromagnetic radiating element from the second electromagnetic radiating element, and further characterized in that the first and second electromagnetic radiating elements are fabricated on the die. a circuit having first (50 1) and second (50 2) electromagnetic radiating elements; a package substrate comprising an upper surface and a lower surface; and a grounding layer provided on the lower surface of the package substrate, the grounding layer being adapted to connect to a grounding plane of a printed circuit board, PCB, wherein a die is mounted on the upper surface of the package substrate; characterised by: the grounding layer comprising a void, at least a portion of the void being positioned so as to at least partially electromagnetically isolate the first electromagnetic radiating element from the second electromagnetic radiating element, and further characterized in that the first and second electromagnetic radiating elements are fabricated on the die.
A polymer blend comprising: 1 to 40 wt.% of a crystalline block composite comprising an EP-iPP diblock polymer, iPP, and EP, wherein iPP is isotactic polypropylene homopolymer and EP is a copolymer of ethylene and propylene, and wherein the crystalline block composite comprises greater than 50 wt.% iPP; and from 60 wt.% to 99 wt.% of an ionomer formed from a partially neutralized precursor acid copolymer, wherein the precursor acid copolymer (a) comprises copolymerized units of ethylene and 5 wt.% to 30 wt.%, based on the total weight of the precursor acid copolymer, of copolymerized units of an α,β-ethylenically unsaturated carboxylic acid having 3 to 8 carbon atoms, and wherein about 25% to about 65% of the acid groups derived from the α,β-ethylenically unsaturated carboxylic acid of the precursor acid copolymer are neutralized. 1 to 40 wt.% of a crystalline block composite comprising an EP-iPP diblock polymer, iPP, and EP, wherein iPP is isotactic polypropylene homopolymer and EP is a copolymer of ethylene and propylene, and wherein the crystalline block composite comprises greater than 50 wt.% iPP; and from 60 wt.% to 99 wt.% of an ionomer formed from a partially neutralized precursor acid copolymer, wherein the precursor acid copolymer (a) comprises copolymerized units of ethylene and 5 wt.% to 30 wt.%, based on the total weight of the precursor acid copolymer, of copolymerized units of an α,β-ethylenically unsaturated carboxylic acid having 3 to 8 carbon atoms, and wherein about 25% to about 65% of the acid groups derived from the α,β-ethylenically unsaturated carboxylic acid of the precursor acid copolymer are neutralized.
Sheathed-element glow plug for an internal combustion engine, comprising a housing, a connection part, which is arranged on the housing, for the electric current and also a tube with an embedded heating element, wherein the connection part and the heating element are electrically coupled by means of a connection bolt and a contact element, and wherein the connection bolt and the contact element are at least partially surrounded by an electrically insulating clamping sleeve within the housing, wherein the contact element has a cylindrical shape, characterized in that the casing of the contact element is completely surrounded by a plastic sleeve, and in that the plastic sleeve has elastic properties and, as a clamping sleeve, rests against the inner wall of the housing.
Method for receiving a vehicle cab in a reversible manner on an agricultural base vehicle having a supporting structure which is configured such that the vehicle cab is selectively received in a receiving region of the supporting structure or removed from the receiving region of the supporting structure as a function of a predetermined operation (S_BE) of the base vehicle, in order to operate the base vehicle without a vehicle cab, wherein a movable lifting device for receiving and/or removing the vehicle cab is arranged on the supporting structure.
A method of controlling a heat pump hot water supply system of a type which is provided with a water heat exchanger for producing hot water by heating water with a refrigerant gas discharged from a heat pump or with a heat medium undergoing heat exchange with the refrigerant gas and circulating inside a closed cycle, and which controls a rotation speed of a water pump and thereby an amount of water so that a hot water outlet temperature becomes equal to a target temperature, wherein the water heat exchanger is divided into a high temperature-side water heat exchanger and a low temperature-side water heat exchanger, and a hot water outlet temperature sensor is provided on a hot water outlet side of the high temperature-side water heat exchanger, and a hot water temperature sensor is provided on an outlet side of the low temperature-side water heat exchanger, characterized in that, if a detection value of the outlet hot water temperature sensor of the low temperature-side water heat exchanger exceeds a set value when performance of the high temperature-side water heat exchanger is degraded due to scale buildup, a control part controls the heat pump capacity so that the hot water outlet temperature of the low temperature-side water heat exchanger is kept equal to or lower than the set value, and outputs information on decrease in the hot water outlet temperature and information on maintenance of the high temperature-side water heat exchanger.
A display mechanism for displaying a lunar date for a clock movement, comprising a date wheel carrying a display hand arranged to move opposite an indication scale indicating the lunar date, said date wheel being intended to be driven by a drive wheel of the clock movement in such a way that said display hand is able to travel along said indication scale in a maximum of thirty days, characterised in that it is arranged in such a way that said date wheel has a retrograde movement, said indication scale being open, in that it comprises a coloured band extending substantially from one end of said indication scale to the other, being substantially parallel to said indication scale, said coloured band having a light portion intended to illustrate at least part of the Moon, and a complementary dark portion, the proportion between said light and dark portions varying along said indication scale to take account of the changing appearance of the Moon according to the lunar date, and in that said display hand has a substantially circular window arranged to move opposite said coloured band and delimit a display portion thereof, at each moment, to display the phases of the Moon. characterised in that it is arranged in such a way that said date wheel has a retrograde movement, said indication scale being open, in that it comprises a coloured band extending substantially from one end of said indication scale to the other, being substantially parallel to said indication scale, said coloured band having a light portion intended to illustrate at least part of the Moon, and a complementary dark portion, the proportion between said light and dark portions varying along said indication scale to take account of the changing appearance of the Moon according to the lunar date, and in that said display hand has a substantially circular window arranged to move opposite said coloured band and delimit a display portion thereof, at each moment, to display the phases of the Moon.
A transverse carpal ligament cutting device comprising: (a) a shaft having a top surface, two side surfaces (240a, 240b) and a bottom surface; (b) a shaft opening that extends for a distance along the top surface; (c) a blade having a blade working end, wherein the blade working end includes a cutting edge that faces the proximal end of the device; (d) a blade guideway within the shaft, wherein the blade working end moves along the blade guideway, wherein the blade guideway includes a distal guideway end, a distal incline, a plateau, a proximal incline and a proximal guideway end, wherein the blade working end is configured to move up the distal incline, backward along the plateau, and down the proximal incline; and, (e) one or more balloons (234a, 234b) coupled to the shaft that expand radially outwardly from the shaft. (a) a shaft having a top surface, two side surfaces (240a, 240b) and a bottom surface; (b) a shaft opening that extends for a distance along the top surface; (c) a blade having a blade working end, wherein the blade working end includes a cutting edge that faces the proximal end of the device; (d) a blade guideway within the shaft, wherein the blade working end moves along the blade guideway, wherein the blade guideway includes a distal guideway end, a distal incline, a plateau, a proximal incline and a proximal guideway end, wherein the blade working end is configured to move up the distal incline, backward along the plateau, and down the proximal incline; and, (e) one or more balloons (234a, 234b) coupled to the shaft that expand radially outwardly from the shaft.