mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for sensing information of an object, the apparatus comprising: a dynamic vision sensor (110; 410) configured to sense a change of light intensity in each pixel of the sensor; and a changer comprising an actuator (130; 413, 433) configured to apply a movement to the dynamic vision sensor (110; 410) as to change how light is being inputted to the dynamic vision sensor (110; 410), wherein the information of the object is sensed by the dynamic vision sensor (110; 410) based on light artificially changed by the actuator (130; 413, 433), said information comprising at least one of a position, a shape, or a size, of the object; wherein the apparatus is configured to calculate a spatial differential value of light generated from the object by the movement generated at the dynamic vision sensor (110; 410) when the movement is generated by the actuator (130; 413, 433), said spatial differential value of light corresponding to an edge or outline of the object. a dynamic vision sensor (110; 410) configured to sense a change of light intensity in each pixel of the sensor; and a changer comprising an actuator (130; 413, 433) configured to apply a movement to the dynamic vision sensor (110; 410) as to change how light is being inputted to the dynamic vision sensor (110; 410), wherein the information of the object is sensed by the dynamic vision sensor (110; 410) based on light artificially changed by the actuator (130; 413, 433), said information comprising at least one of a position, a shape, or a size, of the object; wherein the apparatus is configured to calculate a spatial differential value of light generated from the object by the movement generated at the dynamic vision sensor (110; 410) when the movement is generated by the actuator (130; 413, 433), said spatial differential value of light corresponding to an edge or outline of the object.
A method for use in a delivery manager, the method comprising: receiving (616, 706, 806, 906, or 1102) a certificate that a Domain Name Service ,DNS, associates with a DNS name of a recipient system; and distributing (618, 708a, 708n, 808, 908, 1004, or 1106) the certificate to a plurality of sending systems, each sending system configured to: store the certificate in a local memory of the sending system; in response to a future determination to send an encrypted message to the recipient system, use the certificate from the local memory of the sending system to perform encryption; and send the encrypted message directly to the recipient system; characterized in that distributing the certificate to the plurality of sending systems is according to a pre-determined time period or in response to the delivery manager receiving a new or updated certificate. receiving (616, 706, 806, 906, or 1102) a certificate that a Domain Name Service ,DNS, associates with a DNS name of a recipient system; and distributing (618, 708a, 708n, 808, 908, 1004, or 1106) the certificate to a plurality of sending systems, each sending system configured to: store the certificate in a local memory of the sending system; in response to a future determination to send an encrypted message to the recipient system, use the certificate from the local memory of the sending system to perform encryption; and send the encrypted message directly to the recipient system; store the certificate in a local memory of the sending system; in response to a future determination to send an encrypted message to the recipient system, use the certificate from the local memory of the sending system to perform encryption; and send the encrypted message directly to the recipient system; characterized in that distributing the certificate to the plurality of sending systems is according to a pre-determined time period or in response to the delivery manager receiving a new or updated certificate.
Anchorless crash cushion apparatus comprising in combination: a plurality of crash cushion elements including interconnected water-filled crash cushion elements and a forward element ; vehicle capture structure operatively associated with said forward element operable to capture a vehicle frontally impacting the forward element , resist upward tilting of the impacting vehicle and substantially prevent ramping of the impacting vehicle over the forward element ; and stabilizing structure operatively associated with said plurality of crash cushion elements to resist relative rotation therebetween in both vertical and lateral planes during vehicle impact, wherein each of said crash cushion elements has an element front , an element back , an element bottom , an element top and element sides , characterized in that the element sides of said plurality of crash cushion elements each forming an elongated cavity extending the length thereof, the elongated cavities of adjacent crash cushion elements being in substantial alignment, and wherein vertical buckling cavities are formed in said element sides , said stabilizing structure including a top stiffness spine formed at the element top spaced from and positioned between the locations of said buckling cavities . a plurality of crash cushion elements including interconnected water-filled crash cushion elements and a forward element ; vehicle capture structure operatively associated with said forward element operable to capture a vehicle frontally impacting the forward element , resist upward tilting of the impacting vehicle and substantially prevent ramping of the impacting vehicle over the forward element ; and stabilizing structure operatively associated with said plurality of crash cushion elements to resist relative rotation therebetween in both vertical and lateral planes during vehicle impact, wherein each of said crash cushion elements has an element front , an element back , an element bottom , an element top and element sides , characterized in that the element sides of said plurality of crash cushion elements each forming an elongated cavity extending the length thereof, the elongated cavities of adjacent crash cushion elements being in substantial alignment, and wherein vertical buckling cavities are formed in said element sides , said stabilizing structure including a top stiffness spine formed at the element top spaced from and positioned between the locations of said buckling cavities .
An oil filter , comprising: a housing including: an inlet ; an outlet ; and a filter element located downstream of the inlet and upstream of the outlet , the filter element including: a filtering material ; and a tracer material comprising at least one of chromophores or organometallics of zirconium, cerium, yttrium, scandium, lanthanum, or other heavy elements; wherein the filtering material is formed by an additive manufacturing process, and wherein the tracer material is added to the filter element by the additive manufacturing process. an inlet ; an outlet ; and a filter element located downstream of the inlet and upstream of the outlet , the filter element including: a filtering material ; and a tracer material comprising at least one of chromophores or organometallics of zirconium, cerium, yttrium, scandium, lanthanum, or other heavy elements; wherein the filtering material is formed by an additive manufacturing process, and wherein the tracer material is added to the filter element by the additive manufacturing process. a filtering material ; and a tracer material comprising at least one of chromophores or organometallics of zirconium, cerium, yttrium, scandium, lanthanum, or other heavy elements; wherein the filtering material is formed by an additive manufacturing process, and wherein the tracer material is added to the filter element by the additive manufacturing process.
Room air composition modifier comprising at least one pipe having a pipe wall , which encloses an inner cross-section , into which a gas flow taken from the room air can be supplied, characterized in that the pipe wall has, in at least a longitudinal section of the pipe , at least one opening , which is closed by a membrane and which connects the inner cross-section of the pipe to a storage volume .
An unmanned aerial vehicle having a yaw axis , a pitch axis , and a roll axis , which intersect at a center of mass of the unmanned aerial vehicle , comprising: a plurality of propeller assemblies , each of the plurality of propeller assemblies configured to rotate about a respective one of a plurality of axes of rotation ; a base assembly in a first plane defined by the pitch axis and the roll axis , wherein the base assembly is coupled to each of the plurality of propeller assemblies ; and a vertically-mounted printed circuit board coupled and perpendicular to the base assembly , wherein: the vertically-mounted printed circuit board lies in a second plane comprising the yaw axis and the roll axis ; no portion of the vertically-mounted printed circuit board intersects any of the axes of rotation of the propeller assemblies , and wherein the vertically-mounted printed circuit board comprises a mechanical feature configured to engage with a peripheral or a peripheral subassembly comprising the peripheral. a plurality of propeller assemblies , each of the plurality of propeller assemblies configured to rotate about a respective one of a plurality of axes of rotation ; a base assembly in a first plane defined by the pitch axis and the roll axis , wherein the base assembly is coupled to each of the plurality of propeller assemblies ; and a vertically-mounted printed circuit board coupled and perpendicular to the base assembly , wherein: the vertically-mounted printed circuit board lies in a second plane comprising the yaw axis and the roll axis ; no portion of the vertically-mounted printed circuit board intersects any of the axes of rotation of the propeller assemblies , and wherein the vertically-mounted printed circuit board comprises a mechanical feature configured to engage with a peripheral or a peripheral subassembly comprising the peripheral. the vertically-mounted printed circuit board lies in a second plane comprising the yaw axis and the roll axis ; no portion of the vertically-mounted printed circuit board intersects any of the axes of rotation of the propeller assemblies , and wherein the vertically-mounted printed circuit board comprises a mechanical feature configured to engage with a peripheral or a peripheral subassembly comprising the peripheral.
A method of wireless communication performed by a user equipment, UE, comprising: receiving , from a base station, information about a time division duplex, TDD, frame structure of a plurality of frames, wherein the plurality of frames includes a plurality of subframes, and the received information about the TDD frame structure of the plurality of frames indicates a number of downlink, DL, subframes in the plurality of frames; determining a control channel search space within the plurality of subframes based on the information about the TDD frame structure of the plurality of frames, which comprises determining at least one of a size and a location of a first subset of the DL subframes allowed to carry the control information; determining a search strategy including a maximum aggregation level based on the control channel search space, which comprises determining the maximum aggregation level for the control channel search space based on the size of the first subset of the DL subframes; and performing a blind decoding of the control channel search space with the search strategy to obtain control information, which comprises performing the blind decoding of the control channel search space based on the determined maximum aggregation level. receiving , from a base station, information about a time division duplex, TDD, frame structure of a plurality of frames, wherein the plurality of frames includes a plurality of subframes, and the received information about the TDD frame structure of the plurality of frames indicates a number of downlink, DL, subframes in the plurality of frames; determining a control channel search space within the plurality of subframes based on the information about the TDD frame structure of the plurality of frames, which comprises determining at least one of a size and a location of a first subset of the DL subframes allowed to carry the control information; determining a search strategy including a maximum aggregation level based on the control channel search space, which comprises determining the maximum aggregation level for the control channel search space based on the size of the first subset of the DL subframes; and performing a blind decoding of the control channel search space with the search strategy to obtain control information, which comprises performing the blind decoding of the control channel search space based on the determined maximum aggregation level.
An atherectomy system , comprising: a catheter body extending from a proximal catheter portion to a distal catheter portion , the catheter body including an aspiration lumen extending from the distal catheter portion to the proximal catheter portion ; an atherectomy assembly coupled with the distal catheter portion , wherein the atherectomy assembly includes: a rotatable cutter , and a drive shaft coupled with the rotatable cutter and extending to the proximal catheter portion ; a shaft sleeve extending through the aspiration lumen and surrounding the drive shaft , wherein the drive shaft is rotatable relative to the shaft sleeve , and wherein the shaft sleeve isolates the drive shaft from the aspiration lumen ; a jet body positioned within the aspiration lumen near the catheter distal portion, wherein the jet body includes at least one jet orifice directed proximally through the aspiration lumen ; and an inflow orifice extending through the catheter body and in communication with the aspiration lumen , wherein the inflow orifice is adjacent to and downstream from the jet body . a catheter body extending from a proximal catheter portion to a distal catheter portion , the catheter body including an aspiration lumen extending from the distal catheter portion to the proximal catheter portion ; an atherectomy assembly coupled with the distal catheter portion , wherein the atherectomy assembly includes: a rotatable cutter , and a drive shaft coupled with the rotatable cutter and extending to the proximal catheter portion ; a rotatable cutter , and a drive shaft coupled with the rotatable cutter and extending to the proximal catheter portion ; a shaft sleeve extending through the aspiration lumen and surrounding the drive shaft , wherein the drive shaft is rotatable relative to the shaft sleeve , and wherein the shaft sleeve isolates the drive shaft from the aspiration lumen ; a jet body positioned within the aspiration lumen near the catheter distal portion, wherein the jet body includes at least one jet orifice directed proximally through the aspiration lumen ; and an inflow orifice extending through the catheter body and in communication with the aspiration lumen , wherein the inflow orifice is adjacent to and downstream from the jet body .
A tape arranging device comprising: guide roller units through which tape materials (T) are capable of passing respectively, each of the tape materials being configured with fibers impregnated with resin; and a moving unit configured to move the guide roller units in a lengthwise direction of the tape materials and to change a distance between adjacent ones of the guide roller units , the adjacent ones of the guide roller units being adjacent to each other, wherein the moving unit includes: a first and a second support portion supporting the guide roller units such that rotation axes of the guide roller units are parallel to each other, a shaft portion rotatably supporting an end portion of the first support portion and an end portion of the second support portion , and a drive unit configured to rotate the first support portion and the second support portion . guide roller units through which tape materials (T) are capable of passing respectively, each of the tape materials being configured with fibers impregnated with resin; and a moving unit configured to move the guide roller units in a lengthwise direction of the tape materials and to change a distance between adjacent ones of the guide roller units , the adjacent ones of the guide roller units being adjacent to each other, wherein the moving unit includes: a first and a second support portion supporting the guide roller units such that rotation axes of the guide roller units are parallel to each other, a shaft portion rotatably supporting an end portion of the first support portion and an end portion of the second support portion , and a drive unit configured to rotate the first support portion and the second support portion . a first and a second support portion supporting the guide roller units such that rotation axes of the guide roller units are parallel to each other, a shaft portion rotatably supporting an end portion of the first support portion and an end portion of the second support portion , and a drive unit configured to rotate the first support portion and the second support portion .
A wind turbine comprising a wind turbine tower , a nacelle with a mainframe , a ring gear and a flange provided at the top of the wind turbine tower , the ring gear being configured to engage at least one drive unit for yawing the nacelle relative to the wind turbine tower , the flange having an upper surface of flange , a lower surface of flange , and a radial surface of flange , the mainframe having a lower surface of mainframe facing the upper surface of the flange , wherein the mainframe is slidable supported on the flange by a plurality of individual yaw bearing units arranged relative to each other, each yaw bearing unit comprising a separate calliper structure , the calliper structure having an upper portion with an upper surface of upper portion and a lower portion with an upper surface of lower portion ; the upper portion having a radial surface of upper portion facing the radial surface of the flange and an upper surface of upper portion facing the lower surface of mainframe , wherein at least one upper pad is arranged between the upper surface of flange and the lower surface of mainframe , wherein at least one radial pad is arranged between the radial surface of flange and the radial surface of upper portion of the calliper structure , the at least one radial pad has a lower edge contacting the upper surface of lower portion and extends along the entire length of the radial surface of upper portion and characterised in that the yaw bearing unit further comprises at least one removable stop element configured to be mounted to at least one side surface of the upper portion .
A method of making an optical device , comprising: forming elements and a first and second hole at selected locations on a printed wiring board using a printed wiring board manufacturing technique to control a tolerance for the locations of the elements and the first and second hole ; securing a light source to the printed wiring board at the elements ; securing the printed wiring board to a part that includes an optical structure formed thereon using the first and second hole of the printed wiring board and a hole and a slot in the part by inserting a first pin into the first hole and the slot , and inserting a second pin into the second hole and the hole ; and moving the printed wiring board with respect to the part to adjust a distance between light source and the optical structure . forming elements and a first and second hole at selected locations on a printed wiring board using a printed wiring board manufacturing technique to control a tolerance for the locations of the elements and the first and second hole ; securing a light source to the printed wiring board at the elements ; securing the printed wiring board to a part that includes an optical structure formed thereon using the first and second hole of the printed wiring board and a hole and a slot in the part by inserting a first pin into the first hole and the slot , and inserting a second pin into the second hole and the hole ; and
An implantable medical device (110; 210; 310) comprising: a housing portion (120; 220) defining an interior chamber; a circuit (150; 250; 480A; 480B) in the interior chamber; a first electronic component (180; 280; 480A; 480B; 610) that is not in the interior chamber; a substrate coupled to the housing, characterized in that the substrate is made from semiconductor material, the substrate including a first via (290; 361; 465; 660) extending through the substrate, the first via electrically coupling the first electronic component to the circuit, a first substrate surface configured for juxtaposition against a biological fluid. a housing portion (120; 220) defining an interior chamber; a circuit (150; 250; 480A; 480B) in the interior chamber; a first electronic component (180; 280; 480A; 480B; 610) that is not in the interior chamber; a substrate coupled to the housing, characterized in that the substrate is made from semiconductor material, the substrate including a first via (290; 361; 465; 660) extending through the substrate, the first via electrically coupling the first electronic component to the circuit, a first substrate surface configured for juxtaposition against a biological fluid.
An electric powered device for raising and lowering a landing gear of a trailer, the landing gear comprising of a pair of legs that are extendable and retractable by rotation of a landing gear shaft , said device comprising: a) a main shaft adapted to be coupled to the landing gear shaft; b) an electric motor having a motor shaft and a motor controller configured to control a motor speed and a motor torque, and provide a variable speed/torque motor operation; characterised in that said device further comprises: c) a sprocket-and-chain mechanism connected to the electric motor, comprising a set of sprockets and chain mechanism arranged between the motor shaft and the main shaft; the set of sprockets and chain mechanism comprising a first small sprocket rotatable around an axis of the motor shaft and a second large sprocket rotatable around an axis of the main shaft, and a chain connecting the first small sprocket and the second large sprocket; whereby the motor controller is used to control the applied speed and torque on the main shaft and then to the landing gear shaft and to continually adjust the motor speed and eliminate the need for a multi gear ratio for the landing gear. a) a main shaft adapted to be coupled to the landing gear shaft; b) an electric motor having a motor shaft and a motor controller configured to control a motor speed and a motor torque, and provide a variable speed/torque motor operation; characterised in that said device further comprises: c) a sprocket-and-chain mechanism connected to the electric motor, comprising a set of sprockets and chain mechanism arranged between the motor shaft and the main shaft; the set of sprockets and chain mechanism comprising a first small sprocket rotatable around an axis of the motor shaft and a second large sprocket rotatable around an axis of the main shaft, and a chain connecting the first small sprocket and the second large sprocket;