mhurhangee/ep-ind-claims huggingface dataset:
A catheter device, comprising: a catheter sized and shaped for vascular access and including an elongate body extending between a proximal end and a distal end and having at least one inner fluid lumen, and an electrode tip positioned proximate to the distal end of the catheter body, the tip including an outer wall, a thermal mass positioned within the tip, the thermal mass having at least one fluid passageway therethrough, a cooling chamber in fluid communication with the inner fluid lumen of the elongate body and positioned proximally to the thermal mass and adapted to cool a proximal portion of the electrode tip including the thermal mass, the tip further comprising multiple irrigation apertures in fluid communication with the fluid passageway in the thermal mass characterized in that the catheter device comprises a second cooling chamber positioned distally from the thermal mass. a catheter sized and shaped for vascular access and including an elongate body extending between a proximal end and a distal end and having at least one inner fluid lumen, and an electrode tip positioned proximate to the distal end of the catheter body, the tip including an outer wall, a thermal mass positioned within the tip, the thermal mass having at least one fluid passageway therethrough, a cooling chamber in fluid communication with the inner fluid lumen of the elongate body and positioned proximally to the thermal mass and adapted to cool a proximal portion of the electrode tip including the thermal mass, the tip further comprising multiple irrigation apertures in fluid communication with the fluid passageway in the thermal mass characterized in that the catheter device comprises a second cooling chamber positioned distally from the thermal mass.
An oil-filled transformer assembly comprising electrical conductor coils comprising a magnet wire which is insulated with an aliphatic polyamide insulation tape in a linear or spiral wrap, which tape includes stabilizing compounds that function as means for providing increased thermal and chemical stability.
An aqueous composition comprising (i) an 131 I-labeled anti-CD45 IgG monoclonal antibody, and (ii) excipients comprising 0.5% to 5.0% (w/v) of ascorbic acid and 0.5% to 4.0% (w/v) of polyvinylpyrrolidone, and optionally 0.5% to 5.0% (w/v) of human serum albumin or a water-soluble salt of HSA.
An apparatus for training a medical procedure comprising: an outer flexible membrane that simulates skin having a palpation region to be palpated; a cam palpator (135, 535, 635) having a set of lifters (334, 534, 634) operably contacting a set of cams (336, 536) that are rotated by a cam shaft, wherein the lifters (334, 534, 634) are disposed under the palpation region of the outer membrane and are used to create a raised feature in the palpation region to be touched by a user; a motor having a drive shaft operably coupled to the cam shaft; characterized in that the apparatus further comprises a position sensor operably coupled to the motor and configured to send a signal based on a rotational position of the drive shaft, wherein in response to the signal haptic feedback is provided to the user at the raised feature; wherein the haptic feedback includes a gradual flattening of the raised feature by the user that simulates pushing an injected substance under the simulated skin. an outer flexible membrane that simulates skin having a palpation region to be palpated; a cam palpator (135, 535, 635) having a set of lifters (334, 534, 634) operably contacting a set of cams (336, 536) that are rotated by a cam shaft, wherein the lifters (334, 534, 634) are disposed under the palpation region of the outer membrane and are used to create a raised feature in the palpation region to be touched by a user; a motor having a drive shaft operably coupled to the cam shaft; characterized in that the apparatus further comprises a position sensor operably coupled to the motor and configured to send a signal based on a rotational position of the drive shaft, wherein in response to the signal haptic feedback is provided to the user at the raised feature; wherein the haptic feedback includes a gradual flattening of the raised feature by the user that simulates pushing an injected substance under the simulated skin.
A method performed by an end-to-end machine-learning controller in a wireless communications network, the method comprising: obtaining, by the end-to-end machine-learning controller, machine-learning capabilities of at least two devices involved in an end-to-end communication; determining, based on the machine-learning capabilities of the at least two devices (110, 120), an end-to-end machine-learning configuration to process information exchanged through the end-to-end communication; and directing the at least two devices (110, 120) to process the information exchanged through the end-to-end communication by forming a deep neural network based on the end-to-end machine-learning configuration. obtaining, by the end-to-end machine-learning controller, machine-learning capabilities of at least two devices involved in an end-to-end communication; determining, based on the machine-learning capabilities of the at least two devices (110, 120), an end-to-end machine-learning configuration to process information exchanged through the end-to-end communication; and directing the at least two devices (110, 120) to process the information exchanged through the end-to-end communication by forming a deep neural network based on the end-to-end machine-learning configuration.
A warming device (12,40), comprising a clinical garment (13,42) and a convective device attached to the inside surface of the clinical garment, characterized in that: the convective device is a thermal blanket (51, 80, 90, 101) adapted for separate deployment for perioperative use to provide therapeutic warming to prevent or treat hypothermia; and, a mechanism or means (52,60) acting between the clinical garment and the thermal blanket is adapted to detach the thermal blanket from the clinical garment; and wherein the thermal blanket is an upper body thermal blanket that is adapted to lie upon and extend transversely across the upper body of a person in order to cover the person's chest and extended arms, wherein the clinical garment includes opposed vertical hems and opposed flaps formed in the opposed vertical hems; the upper body thermal blanket extending from one flap to the other flap; the flaps adapted to be folded into the inside of the clinical garment over the upper body thermal blanket; and means for releasably retaining the opposed flaps against the inside of the clinical garment. the convective device is a thermal blanket (51, 80, 90, 101) adapted for separate deployment for perioperative use to provide therapeutic warming to prevent or treat hypothermia; and, a mechanism or means (52,60) acting between the clinical garment and the thermal blanket is adapted to detach the thermal blanket from the clinical garment; and wherein the thermal blanket is an upper body thermal blanket that is adapted to lie upon and extend transversely across the upper body of a person in order to cover the person's chest and extended arms, wherein the clinical garment includes opposed vertical hems and opposed flaps formed in the opposed vertical hems; the upper body thermal blanket extending from one flap to the other flap; the flaps adapted to be folded into the inside of the clinical garment over the upper body thermal blanket; and means for releasably retaining the opposed flaps against the inside of the clinical garment.
Method of testing a weapon system for acting on a target by means of a device for aligning and testing the weapon system, the device comprising: a positioning unit for moving the weapon system, a control unit for activating the positioning unit, the control unit being designed to use the positioning unit as a means for damping and also in particular simulating accelerations and resultant velocities and movements of a carrier platform on which the device can be mounted under actual conditions, and the method having the following steps: operating a first program on the control unit for simulating movements of the carrier platform, operating a second program on the control unit for stabilizing movements of the carrier platform, operating a third program on the control unit for detecting and tracking the target, and operating a fourth program on the control unit for aligning the weapon system with the target. a positioning unit for moving the weapon system, a control unit for activating the positioning unit, the control unit being designed to use the positioning unit as a means for damping and also in particular simulating accelerations and resultant velocities and movements of a carrier platform on which the device can be mounted under actual conditions, and the method having the following steps: operating a first program on the control unit for simulating movements of the carrier platform, operating a second program on the control unit for stabilizing movements of the carrier platform, operating a third program on the control unit for detecting and tracking the target, and operating a fourth program on the control unit for aligning the weapon system with the target. operating a first program on the control unit for simulating movements of the carrier platform, operating a second program on the control unit for stabilizing movements of the carrier platform, operating a third program on the control unit for detecting and tracking the target, and operating a fourth program on the control unit for aligning the weapon system with the target.
An accessory for a microscope arranged to carry out ATR measurements, said accessory including a support which can be mounted on the movable stage of the microscope, a mounting member carried on said support for mounting an ATR crystal, a sample supporting member disposed below the location of the ATR crystal, said sample supporting member having a surface upon which a sample can be received, and pressure applying means disposed below said sample supporting member for applying a pressure to said sample supporting member in the direction of said crystal, characterised in that the position of the supporting member is adjustable relative to the pressure applying means.
A vehicle control device comprising: a plurality of information acquisition units (7, 8) that are provided at front and rear of a vehicle and acquire information of an external world; a travel distance calculation unit that calculates a travel distance of the vehicle during traveling of the vehicle in a predetermined driving state based on information of an identical characteristic object acquired by a front information acquisition unit and a rear information acquisition unit, the rear information acquisition unit acquiring the information of the identical characteristic object after the front information acquisition unit out of the plurality of information acquisition units (7, 8) acquires information of the identical characteristic object; and characterized by a travel state detection unit that detects a travel state of the vehicle, wherein the travel distance of the vehicle calculated by the travel distance calculation unit is corrected based on a result detected by the travel state detection unit between the acquisition of the information of the identical characteristic object by the front information acquisition unit and the acquisition of the information by the rear information acquisition unit, wherein the travel state detection unit is a wheel speed sensor that acquires wheel speed pulses of left and right wheels, wherein the predetermined driving state is a state where the wheel speed pulses of the left and right wheels coincide with each other. a plurality of information acquisition units (7, 8) that are provided at front and rear of a vehicle and acquire information of an external world; a travel distance calculation unit that calculates a travel distance of the vehicle during traveling of the vehicle in a predetermined driving state based on information of an identical characteristic object acquired by a front information acquisition unit and a rear information acquisition unit, the rear information acquisition unit acquiring the information of the identical characteristic object after the front information acquisition unit out of the plurality of information acquisition units (7, 8) acquires information of the identical characteristic object; and characterized by a travel state detection unit that detects a travel state of the vehicle, wherein the travel distance of the vehicle calculated by the travel distance calculation unit is corrected based on a result detected by the travel state detection unit between the acquisition of the information of the identical characteristic object by the front information acquisition unit and the acquisition of the information by the rear information acquisition unit, wherein the travel state detection unit is a wheel speed sensor that acquires wheel speed pulses of left and right wheels, wherein the predetermined driving state is a state where the wheel speed pulses of the left and right wheels coincide with each other.
A microelectromechanical microphone comprising: a supporting substrate (2; 402; 502; 602; 702), having a first face (2a; 402a) and a second face (2b; 502b); a sensor chip (5; 305; 505), bonded to the first face (2a; 402a) of the supporting substrate (2; 402; 502; 602; 702) and integrating a microelectromechanical electroacoustic transducer; and a control chip (6; 106; 206; 306; 406; 506; 606), having at least one portion between the first face (2a; 402a) and the second face (2b; 502b) of the supporting substrate (2; 402; 702), wherein the control chip houses an integrated control circuit and is operatively coupled to the sensor chip (5; 305; 505); wherein the sensor chip (5; 105) is at least partially arranged on top of the control chip (6; 106); wherein the supporting substrate (2; 402; 502; 602; 702) has a through seat (12; 512; 612) between the first face (2a; 402a) and the second face (2b; 502b), and the control chip (6; 106; 206; 306; 406; 506; 606) is housed at least partially in the through seat (12; 512; 612), wherein the through seat (12; 512; 612) is defined by a through hole in the supporting substrate and extends throughout the thickness of the supporting substrate. a supporting substrate (2; 402; 502; 602; 702), having a first face (2a; 402a) and a second face (2b; 502b); a sensor chip (5; 305; 505), bonded to the first face (2a; 402a) of the supporting substrate (2; 402; 502; 602; 702) and integrating a microelectromechanical electroacoustic transducer; and a control chip (6; 106; 206; 306; 406; 506; 606), having at least one portion between the first face (2a; 402a) and the second face (2b; 502b) of the supporting substrate (2; 402; 702), wherein the control chip houses an integrated control circuit and is operatively coupled to the sensor chip (5; 305; 505); wherein the sensor chip (5; 105) is at least partially arranged on top of the control chip (6; 106); wherein the supporting substrate (2; 402; 502; 602; 702) has a through seat (12; 512; 612) between the first face (2a; 402a) and the second face (2b; 502b), and the control chip (6; 106; 206; 306; 406; 506; 606) is housed at least partially in the through seat (12; 512; 612), wherein the through seat (12; 512; 612) is defined by a through hole in the supporting substrate and extends throughout the thickness of the supporting substrate.
A detection layer of a radiation detector, comprising: a porous silicon membrane, including: a first side and a second opposing side; a plurality of pores extending entirely through the porous silicon membrane from the first side to the second opposing side, each including wall; at least one protrusion of silicon protruding out and extending from the wall on the first side a distance (504, 604, 704); a plurality of radiation sensitive quantum dots in the pores; the detection layer being characterized in further comprising a quantum dot layer disposed on the first side and having a surface and a thickness (506, 606, 706), wherein the thickness is greater than the distance. a porous silicon membrane, including: a first side and a second opposing side; a plurality of pores extending entirely through the porous silicon membrane from the first side to the second opposing side, each including wall; at least one protrusion of silicon protruding out and extending from the wall on the first side a distance (504, 604, 704); a first side and a second opposing side; a plurality of pores extending entirely through the porous silicon membrane from the first side to the second opposing side, each including wall; at least one protrusion of silicon protruding out and extending from the wall on the first side a distance (504, 604, 704); a plurality of radiation sensitive quantum dots in the pores; the detection layer being characterized in further comprising a quantum dot layer disposed on the first side and having a surface and a thickness (506, 606, 706), wherein the thickness is greater than the distance.
A computing system comprising: an overlay engine to generate a static overlay of radio frequency, RF, information of a wireless network for a given time period; a storage engine to store a plurality of static overlays generated by the overlay engine, corresponding to a plurality of time periods; and a visualization engine to visualize dynamic characteristics of the RF information based on generating an animated visualization showing progression of the RF information over time to illustrate historical trending of the dynamic characteristics of the wireless quality of service; and a behavioral footprint engine to identify a behavioral pattern based on at least one of i) movement of a service coverage over time as indicated by the visualization, and ii) transition of service coverage over time as indicated by the visualization. an overlay engine to generate a static overlay of radio frequency, RF, information of a wireless network for a given time period; a storage engine to store a plurality of static overlays generated by the overlay engine, corresponding to a plurality of time periods; and a visualization engine to visualize dynamic characteristics of the RF information based on generating an animated visualization showing progression of the RF information over time to illustrate historical trending of the dynamic characteristics of the wireless quality of service; and a behavioral footprint engine to identify a behavioral pattern based on at least one of i) movement of a service coverage over time as indicated by the visualization, and ii) transition of service coverage over time as indicated by the visualization.
A method for controlling wind turbines of a wind farm comprising a plurality of wind turbines, the wind farm being positioned at a site which includes one or more turbulence generating structures (3, 6, 7, 8, 9), where the turbulence generated by the one or more turbulence generating structures (3, 6, 7, 8, 9) has the effect that variations in a wind pattern of the incoming wind reach a wind turbine at a downstream position before reaching a wind turbine at an upstream position, as seen in a direction of the incoming wind, the method comprising the steps of: - detecting a wind direction at the site of the wind farm, - identifying one or more upstream wind turbines and one or more downstream wind turbines, based on the detected wind direction, where each of the upstream wind turbines is arranged in front of one or more of the downstream wind turbines, as seen in the wind direction, - detecting that turbulent wind conditions, generated by the one or more turbulence generating structures (3, 6, 7, 8, 9) are occurring, based on measurements performed by the wind turbines of the wind farm, and - in response to determining that turbulent wind conditions are occurring, controlling at least one of the upstream wind turbines based on measurements performed by at least one wind turbine which is a downstream wind turbine relative to the upstream wind turbine. - detecting a wind direction at the site of the wind farm, - identifying one or more upstream wind turbines and one or more downstream wind turbines, based on the detected wind direction, where each of the upstream wind turbines is arranged in front of one or more of the downstream wind turbines, as seen in the wind direction, - detecting that turbulent wind conditions, generated by the one or more turbulence generating structures (3, 6, 7, 8, 9) are occurring, based on measurements performed by the wind turbines of the wind farm, and - in response to determining that turbulent wind conditions are occurring, controlling at least one of the upstream wind turbines based on measurements performed by at least one wind turbine which is a downstream wind turbine relative to the upstream wind turbine.
Compound having the following formula: wherein: - m is an integer from 0 to 3, preferably from 0 to 2; - n is an integer from 0 to 3, preferably from 0 to 2; - m + n ≥ 1 - EAG is an electro-attractive group chosen independently from among a halogen atom, an NO 2, CF 3, CCl 3, CN, CO 2 H, (C=O)NR 2, CH=NR, (C=S) OR, (C=O)SR, CS 2 R, SO 2 R, SO 2 NR 2, SO 3 R, P 2, P 2, B 2 group, where R is an alkyl (C 1 -C 6) radical, a phenyl group or a hydrogen atom; - A is a saturated or unsaturated, linear or branched hydrocarbon chain including 1 to 10 atoms of carbon; and - R 1 and R 2 each represent, independently from one another, a hydrogen atom, a CO-(C 1 -C 6)-alkyl, (C 1 -C 6) alkyl, phenyl or phenyl-(C 1 -C 6)-alkyl group, or R 1 and R 2 form, together with the nitrogen atom bearing same, a 5- to 15-member heterocycle, optionally substituted by a (C 1 -C 6) alkyl group; including the stereoisomers and the mixtures thereof, or a pharmaceutically acceptable acid salt thereof. - m is an integer from 0 to 3, preferably from 0 to 2; - n is an integer from 0 to 3, preferably from 0 to 2; - m + n ≥ 1 - EAG is an electro-attractive group chosen independently from among a halogen atom, an NO 2, CF 3, CCl 3, CN, CO 2 H, (C=O)NR 2, CH=NR, (C=S) OR, (C=O)SR, CS 2 R, SO 2 R, SO 2 NR 2, SO 3 R, P 2, P 2, B 2 group, where R is an alkyl (C 1 -C 6) radical, a phenyl group or a hydrogen atom; - A is a saturated or unsaturated, linear or branched hydrocarbon chain including 1 to 10 atoms of carbon; and - R 1 and R 2 each represent, independently from one another, a hydrogen atom, a CO-(C 1 -C 6)-alkyl, (C 1 -C 6) alkyl, phenyl or phenyl-(C 1 -C 6)-alkyl group, or R 1 and R 2 form, together with the nitrogen atom bearing same, a 5- to 15-member heterocycle, optionally substituted by a (C 1 -C 6) alkyl group;