mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising the steps according to which a system (110, 150): receives data indicative of a personal position of an end user; receives image data associated with an object at a first angle, captured by a first camera; receives image data associated with the object at a second angle, captured by a second camera; synthesizes a virtual view associated with the object at a selected angle, wherein the system (110, 150) utilizes the image data captured by the first camera and the image data captured by the second camera for synthesizing the virtual view, and wherein the selected angle is based on the data indicative of the personal position of the end user, the method further comprising the system: determining an approximate time interval for the synthesizing of the image data, wherein the time interval is computed based on: a number of pixels associated with the cameras, an amount of memory available for computation, and a processing speed of a processor tasked with the synthesizing of the image data; and delaying audio data based on the time interval, the audio data being associated with one or more participants involved in a video conference with the end user; and transmitting the virtual view over a network. receives data indicative of a personal position of an end user; receives image data associated with an object at a first angle, captured by a first camera; receives image data associated with the object at a second angle, captured by a second camera; synthesizes a virtual view associated with the object at a selected angle, wherein the system (110, 150) utilizes the image data captured by the first camera and the image data captured by the second camera for synthesizing the virtual view, and wherein the selected angle is based on the data indicative of the personal position of the end user, wherein the system (110, 150) utilizes the image data captured by the first camera and the image data captured by the second camera for synthesizing the virtual view, and wherein the selected angle is based on the data indicative of the personal position of the end user, determining an approximate time interval for the synthesizing of the image data, wherein the time interval is computed based on: a number of pixels associated with the cameras, an amount of memory available for computation, and a processing speed of a processor tasked with the synthesizing of the image data; and a number of pixels associated with the cameras, an amount of memory available for computation, and a processing speed of a processor tasked with the synthesizing of the image data; and delaying audio data based on the time interval, the audio data being associated with one or more participants involved in a video conference with the end user; and transmitting the virtual view over a network.
A halogenated resin comprising chlorinated polyvinylchloride (CPVC) and a stabilizing composition comprising disodium adipate in an amount above 0.3 parts by weight per 100 parts of polymer (phr), wherein the halogenated resin does not comprise tin stabilizers and wherein the disodium adipate of the stabilizing composition shows a particle size distribution by volume density showing a D90 value lower than 8.0 micron, a D50 value lower than 1.8 micron and a D10 value lower than 0.6 micron, as measured by a Malvern Metasizer 3000 equipped with Aero S accessory for powder analysis. wherein the halogenated resin does not comprise tin stabilizers and wherein the disodium adipate of the stabilizing composition shows a particle size distribution by volume density showing a D90 value lower than 8.0 micron, a D50 value lower than 1.8 micron and a D10 value lower than 0.6 micron, as measured by a Malvern Metasizer 3000 equipped with Aero S accessory for powder analysis.
A method comprising: defining a desired ultimate geometric shape; machining corresponding slots adjacent to each side face of the ultimate geometric shape defined in both a first piece of non-extrudable material, and in a second piece of non-extrudable material such that said slots align when said first and second pieces are coupled; machining a central bore (110, 210) in each of the first piece (102, 200) and the second piece (104, 200), the central bore (110, 210) extending from what will be an internal face when said first and second pieces are coupled, and terminating internally proximate to a top face and a bottom face respectively; disposing a permanent disc magnet in each slot in said first piece and in each said central bore (110, 210); and coupling the first piece of material to the second piece of material.
An e-vapor device, comprising: a housing shell (120, 220) configured to receive a supply packet (108, 208) containing a pre-vapor formulation; a mouthpiece secured to an end of the housing shell (120, 220), the mouthpiece configured to transition from a protracted position to a retracted position; a puncture device (110, 210) within the housing shell, the puncture device configured to pierce the supply packet (108, 208) to release the pre-vapor formulation when the mouthpiece transitions to the retracted position; and a heater structure within the housing shell (120, 220) and arranged to be in thermal contact with the pre-vapor formulation, the heater structure configured to vaporize the pre-vapor formulation to generate a vapor, wherein the mouthpiece is configured to transition irreversibly to the retracted position. a housing shell (120, 220) configured to receive a supply packet (108, 208) containing a pre-vapor formulation; a mouthpiece secured to an end of the housing shell (120, 220), the mouthpiece configured to transition from a protracted position to a retracted position; a puncture device (110, 210) within the housing shell, the puncture device configured to pierce the supply packet (108, 208) to release the pre-vapor formulation when the mouthpiece transitions to the retracted position; and a heater structure within the housing shell (120, 220) and arranged to be in thermal contact with the pre-vapor formulation, the heater structure configured to vaporize the pre-vapor formulation to generate a vapor, wherein the mouthpiece is configured to transition irreversibly to the retracted position.
A system comprising: a medical instrument (200, 506, 602, 702) including a sensing tool (222, 510, 703); and a processing unit including one or more processors, wherein the processing unit is configured to: receive data related to a patient anatomy from the sensing tool (222, 510, 703) while the medical instrument (200, 506, 602, 702) traverses the patient anatomy; construct an anatomic model of the patient anatomy based on the data received from the sensing tool (222, 510, 703); update the anatomic model based on shape data obtained by the sensing tool (222, 510, 703) while the medical instrument (200, 506, 602, 702) is located in a portion of the patient anatomy not represented by the anatomic model; and correlate a position of the medical instrument (200, 506, 602, 702) with the anatomic model. a medical instrument (200, 506, 602, 702) including a sensing tool (222, 510, 703); and a processing unit including one or more processors, wherein the processing unit is configured to: receive data related to a patient anatomy from the sensing tool (222, 510, 703) while the medical instrument (200, 506, 602, 702) traverses the patient anatomy; construct an anatomic model of the patient anatomy based on the data received from the sensing tool (222, 510, 703); update the anatomic model based on shape data obtained by the sensing tool (222, 510, 703) while the medical instrument (200, 506, 602, 702) is located in a portion of the patient anatomy not represented by the anatomic model; and correlate a position of the medical instrument (200, 506, 602, 702) with the anatomic model. receive data related to a patient anatomy from the sensing tool (222, 510, 703) while the medical instrument (200, 506, 602, 702) traverses the patient anatomy; construct an anatomic model of the patient anatomy based on the data received from the sensing tool (222, 510, 703); update the anatomic model based on shape data obtained by the sensing tool (222, 510, 703) while the medical instrument (200, 506, 602, 702) is located in a portion of the patient anatomy not represented by the anatomic model; and correlate a position of the medical instrument (200, 506, 602, 702) with the anatomic model.
A vehicle accelerator device comprising: a housing mountable on a vehicle body; a pedal-side arm pivotably supported by a support shaft in the housing for undergoing pivotal movement in a front-rear direction of the vehicle body; a depressible pad provided on the pedal-side arm; and a reaction-force-applying mechanism for applying a reaction force to the pedal-side arm against a depressing force applied to the pad, the reaction-force-applying mechanism comprising a drive source for generating the reaction force and a transmitting member for transmitting the reaction force generated by the drive source to the pedal-side arm, characterized in that: the reaction-force-applying mechanism is disposed above and set apart from the housing, and is adapted to be mounted on the vehicle body separately from the housing; the pedal-side arm has an extension part extending to a side opposite the pad, across the support shaft, and from the pedal-side arm toward the transmitting member; the extension part comes into contact with the transmitting member when the reaction force is received from the transmitting member; the pedal-side arm comprises a first arm part pivotably supported in the housing by the support shaft for undergoing pivotal movement in the front-rear direction of the vehicle body and a second arm part positioned outside of the housing and provided on the first arm part; and the pad and the extension part are provided on the second arm part. the reaction-force-applying mechanism is disposed above and set apart from the housing, and is adapted to be mounted on the vehicle body separately from the housing; the pedal-side arm has an extension part extending to a side opposite the pad, across the support shaft, and from the pedal-side arm toward the transmitting member; the extension part comes into contact with the transmitting member when the reaction force is received from the transmitting member; the pedal-side arm comprises a first arm part pivotably supported in the housing by the support shaft for undergoing pivotal movement in the front-rear direction of the vehicle body and a second arm part positioned outside of the housing and provided on the first arm part; and the pad and the extension part are provided on the second arm part.
A superconducting magnetic resonance imaging system for an extremity, comprising a magnetic system, a radio frequency system and a console, wherein the magnetic system comprises a loop-shaped main housing, the radio frequency system comprises loop-shaped radio frequency coils, wherein the radio frequency coils comprise an extremity coil and at least two types of extremity-part coils, the extremity coil is a transmit-receive coil, and each of the extremity-part coils is a receive-only coil configured for only receiving signals; the extremity coil is arranged on an inner loop-shaped surface of the main housing, each of the extremity-part coils is configured to be switchably connected to an inner loop-shaped surface of the extremity coil, and the radio frequency coils are communicatively connected with the console in a detachable manner; wherein the radio frequency coils further comprise a knee coil for imaging of a knee, the knee coil is a transmit-receive coil, the extremity coil and the knee coil are configured to be switchably connected to the inner loop-shaped surface of the main housing, and an inner diameter of the knee coil is smaller than an inner diameter of the extremity coil; and the extremity-part coils comprise a hand coil for imaging of a hand, the hand coil comprises a loop-shaped hand coil main body and a hand coil support board which is arranged at one axial side of the hand coil main body, an inner loop-shaped surface of the hand coil main body is formed by a C-shaped surface and a main body flat surface connected to an opening of the C-shaped surface, and the hand coil support board is a flat surface and is arranged coplanar with the main body flat surface. the radio frequency coils comprise an extremity coil and at least two types of extremity-part coils, the extremity coil is a transmit-receive coil, and each of the extremity-part coils is a receive-only coil configured for only receiving signals; the extremity coil is arranged on an inner loop-shaped surface of the main housing, each of the extremity-part coils is configured to be switchably connected to an inner loop-shaped surface of the extremity coil, and the radio frequency coils are communicatively connected with the console in a detachable manner; wherein the radio frequency coils further comprise a knee coil for imaging of a knee, the knee coil is a transmit-receive coil, the extremity coil and the knee coil are configured to be switchably connected to the inner loop-shaped surface of the main housing, and an inner diameter of the knee coil is smaller than an inner diameter of the extremity coil; and the extremity-part coils comprise a hand coil for imaging of a hand, the hand coil comprises a loop-shaped hand coil main body and a hand coil support board which is arranged at one axial side of the hand coil main body, an inner loop-shaped surface of the hand coil main body is formed by a C-shaped surface and a main body flat surface connected to an opening of the C-shaped surface, and the hand coil support board is a flat surface and is arranged coplanar with the main body flat surface.
A manufacturing method of a display substrate, wherein the display substrate comprises a pixel region, the pixel region comprises a plurality of pixel units arranged in an array, and each of the pixel units comprises an active display region and a peripheral region located around the active display region, characterized in that the manufacturing method comprises: forming a plurality of spacers in the peripheral region through an ink-jet printing process, wherein each of the plurality of spacers comprises an adhesive material and nanoparticles doped in the adhesive material, the spacers are doped with a plurality of kinds of nanoparticles, wherein each of the spacers is doped with one kind of nanoparticles different from the kind of nanoparticles of other spacers of the plurality of spacers, and forming the spacers comprises: using a plurality of nozzles (310, 320, 330) to apply the spacers at a plurality of positions in the peripheral region, wherein the spacers applied by each of the nozzles (310, 320, 330) are doped with one kind of nanoparticles, the spacers applied by different ones of the nozzles (310, 320, 330) are doped with different kinds of nanoparticles. forming a plurality of spacers in the peripheral region through an ink-jet printing process, wherein each of the plurality of spacers comprises an adhesive material and nanoparticles doped in the adhesive material, the spacers are doped with a plurality of kinds of nanoparticles, wherein each of the spacers is doped with one kind of nanoparticles different from the kind of nanoparticles of other spacers of the plurality of spacers, and forming the spacers comprises: using a plurality of nozzles (310, 320, 330) to apply the spacers at a plurality of positions in the peripheral region, wherein the spacers applied by each of the nozzles (310, 320, 330) are doped with one kind of nanoparticles, the spacers applied by different ones of the nozzles (310, 320, 330) are doped with different kinds of nanoparticles. using a plurality of nozzles (310, 320, 330) to apply the spacers at a plurality of positions in the peripheral region, wherein the spacers applied by each of the nozzles (310, 320, 330) are doped with one kind of nanoparticles, the spacers applied by different ones of the nozzles (310, 320, 330) are doped with different kinds of nanoparticles.
A split core including a first laminated body and a second laminated body joined each other using a combination of concave and convex parts of the first laminated body and the second laminated body, wherein the first laminated body includes a first laminated group having a convex part and a second laminated group having a convex part, which are alternately disposed, the second laminated body includes a third laminated group having a concave part and a fourth laminated group having a concave part, which are alternately disposed, the convex part of the first laminated group has a shape that the convex part can not be inserted into the concave part of the third laminated group from a lamination horizontal direction and can be inserted into the concave part of the fourth laminated group from the lamination horizontal direction, the convex part of the second laminated group has a shape that the convex part can be inserted into the concave part of the third laminated group and the concave part of the fourth laminated group from the lamination horizontal direction, and the convex part of the first laminated group is press-inserted in the concave part of the third laminated group from the lamination direction, and the convex part of the second laminated group is inserted in the concave part of the fourth laminated group.
A watch comprising: a timing circuit configured to provide information about a current time; a smart watch circuit configured to provide smart watch functionality; a first battery configured to provide energy to the timing circuit; a second battery configured to provide energy to the smart watch circuit; and a communication circuit configured to provide communication between the timing circuit and the smart watch circuit; and wherein the communication circuit comprises a safety circuit configured to prevent leakage of current from the first battery to the second battery; wherein the safety circuit comprises a plurality of first connections connected to the timing circuit, and comprises a plurality of second connections connected to the smart watch circuit; wherein the first connections are configured to float; wherein the second connections are configured to pull low for output connections among the second connections; and wherein the second connections are configured to use a pullup resistor for input connections among the second connections. a timing circuit configured to provide information about a current time; a smart watch circuit configured to provide smart watch functionality; a first battery configured to provide energy to the timing circuit; a second battery configured to provide energy to the smart watch circuit; and a communication circuit configured to provide communication between the timing circuit and the smart watch circuit; and wherein the communication circuit comprises a safety circuit configured to prevent leakage of current from the first battery to the second battery; wherein the safety circuit comprises a plurality of first connections connected to the timing circuit, and comprises a plurality of second connections connected to the smart watch circuit; wherein the first connections are configured to float; wherein the second connections are configured to pull low for output connections among the second connections; and wherein the second connections are configured to use a pullup resistor for input connections among the second connections.
Controlled-ignition internal combustion engine comprising: - at least one cylinder in which a piston is slidingly mounted, - at least two valve lines (32, 34), including an intake valve line and an exhaust valve line, - a combustion chamber delimited by the roof of the combustion chamber, by a peripheral axial wall and by the piston head, - at least one thermal coating deposited on an upper surface of the roof of the combustion chamber facing the piston head so as to minimize the heat transfers towards components outside the combustion chamber and to thus maintain a higher temperature inside the combustion chamber; characterized: - in that the zones of the exhaust valve line and of the intake valve line of the upper surface do not have any thermal coating, - and in that the thickness e of the thermal coating is variable with at least one maximum thickness e1, e2 situated in the centre of the combustion chamber, then the thickness e of the thermal coating decreases in a radial direction towards the axial wall of the combustion chamber. - at least one cylinder in which a piston is slidingly mounted, - at least two valve lines (32, 34), including an intake valve line and an exhaust valve line, - a combustion chamber delimited by the roof of the combustion chamber, by a peripheral axial wall and by the piston head, - at least one thermal coating deposited on an upper surface of the roof of the combustion chamber facing the piston head so as to minimize the heat transfers towards components outside the combustion chamber and to thus maintain a higher temperature inside the combustion chamber; - in that the zones of the exhaust valve line and of the intake valve line of the upper surface do not have any thermal coating, - and in that the thickness e of the thermal coating is variable with at least one maximum thickness e1, e2 situated in the centre of the combustion chamber, then the thickness e of the thermal coating decreases in a radial direction towards the axial wall of the combustion chamber.
An electrical device which has a printed circuit board which is populated with heat-generating components, wherein the device is a converter, wherein the signal electronics and the power electronics of the converter are arranged on the printed circuit board, wherein the printed circuit board is arranged in a housing of the device, wherein a plastics-material body is arranged on both sides of the printed circuit board and is connected to the populated printed circuit board, in particular by a material bond and/or in positive manner, wherein the plastics material is embodied as Styropor or as foam material, in particular as a polyurethane foam, wherein the plastics-material body has openings for components populated on the printed circuit board, in particular for large components.