mhurhangee/ep-ind-claims huggingface dataset:
Method for projecting at least one image, by a projection system of a motor vehicle comprising a device for detecting an event, an estimation device capable of estimating the time taken to reach said event, a processing unit capable of generating a control signal, a projection device capable of receiving the control signal and projecting digital images, and a storage unit storing at least one image representative of a pictogram, characterized in that said projection method comprises the following steps: a) detecting an event, b) estimating the time taken to reach the event, c) selecting at least one image representing a pictogram characteristic of the detected event, and d) establishing a sequence of images representing an animation of said pictogram, said sequence of images being paced depending on the time estimated in estimation step b); e) projecting said sequence of images onto the roadway. a) detecting an event, b) estimating the time taken to reach the event, c) selecting at least one image representing a pictogram characteristic of the detected event, and d) establishing a sequence of images representing an animation of said pictogram, said sequence of images being paced depending on the time estimated in estimation step b); e) projecting said sequence of images onto the roadway.
Timepiece comprising a case middle, a bezel, rotatably mounted on the case middle, and an actuation member including a cover capable of adopting a retracted position and a deployed position relative to the case middle, said cover being provided with a bearing surface actuatable by the user's finger and including a shoulder distinct from the bearing surface, said shoulder being intended to cooperate with the bezel when the cover is in the retracted position, characterized in that the cover is mounted so as to pivot on the case middle, and in that the shoulder forms a guiding surface including an arc shaped profile arranged to cooperate with the bezel during the rotation thereof to switch from the deployed position to the retracted position.
A computer-implemented method for rendering a map, the map including a plurality of tiles and further including a specified location, the method comprising: receiving, by a computer, a first request for a tile grid including a plurality of tiles, the request including the specified location, a bounding area for the grid, a number of rows and number of columns in the grid, a number of pixels tall and a number of pixels wide for each tile; generating, by the computer, a tile grid centred at the specified location, the tile grid having the number of rows and columns indicated in the first request, determining, by the computer, a position of a seed tile within the tile grid, determining, for each additional tile in the grid, an offset of the tile position relative to the seed tile, providing a first response to the first request for the tile grid, the first response including the generated tile grid and a resource identifier for each of the plurality of tiles, each resource identifier having position information for the tile, the position information including the offset determined for the tile; receiving a second request, the second request identifying at least one of the provided resource identifiers; rendering, by the computer, in response to the second request, the tile identified by the resource identifier in the second request; and providing a second response, the second response including the tile identified by the resourced identifier specified in the second request. receiving, by a computer, a first request for a tile grid including a plurality of tiles, the request including the specified location, a bounding area for the grid, a number of rows and number of columns in the grid, a number of pixels tall and a number of pixels wide for each tile; generating, by the computer, a tile grid centred at the specified location, the tile grid having the number of rows and columns indicated in the first request, determining, by the computer, a position of a seed tile within the tile grid, determining, for each additional tile in the grid, an offset of the tile position relative to the seed tile, providing a first response to the first request for the tile grid, the first response including the generated tile grid and a resource identifier for each of the plurality of tiles, each resource identifier having position information for the tile, the position information including the offset determined for the tile; receiving a second request, the second request identifying at least one of the provided resource identifiers; rendering, by the computer, in response to the second request, the tile identified by the resource identifier in the second request; and providing a second response, the second response including the tile identified by the resourced identifier specified in the second request.
A multiphasic osteochondral scaffold for osteochondral defect repair, the scaffold comprising a bone phase and a cartilage phase, wherein the bone phase comprises a support matrix and the cartilage phase comprises a polymeric matrix, and the scaffold comprises a non-porous layer between the bone phase and the cartilage phase, wherein the polymeric matrix partially overlaps with and is embedded in the support matrix, and the non-porous layer is present in the region of overlap and acts to join the support matrix to the polymeric matrix, wherein, in use, the non-porous layer prevents synovial fluid from diffusing into the bone phase from the cartilage phase when subjected to dynamic compressive load.
A forceps, comprising: a housing having at least one transducer, the at least one transducer configured to generate a mechanical vibration in response to energy transmitted thereto from an energy source; a shaft assembly extending from the housing, the shaft assembly including at least one articulating member (54, 56) and at least one clamping member and a longitudinal axis defined therethrough; an end effector assembly disposed at a distal end of the shaft assembly and including a pair of opposing jaw members (92, 94) pivotable between approximated and unapproximated configurations in response to movement of the at least one clamping member, the at least one articulating member being configured go articulate the pair of opposing jaw members relative to the shaft and the waveguide assembly about an axis transverse to the longitudinal axis of the shaft assembly; and a waveguide assembly positioned within the shaft assembly and configured to receive the mechanical vibration generated by the transducer, the waveguide assembly being at least partially positionable within at least one of the opposing jaw members; wherein the end effector assembly is longitudinally translatable between a proximal position and a distal position which is beyond the waveguide assembly with respect to the waveguide assembly to allow the end effector assembly to articulate relative to the shaft and waveguide assembly about an axis transverse to the longitudinal axis of the shaft assembly when the end effector assemby is disposed in the distal position. a housing having at least one transducer, the at least one transducer configured to generate a mechanical vibration in response to energy transmitted thereto from an energy source; a shaft assembly extending from the housing, the shaft assembly including at least one articulating member (54, 56) and at least one clamping member and a longitudinal axis defined therethrough; an end effector assembly disposed at a distal end of the shaft assembly and including a pair of opposing jaw members (92, 94) pivotable between approximated and unapproximated configurations in response to movement of the at least one clamping member, the at least one articulating member being configured go articulate the pair of opposing jaw members relative to the shaft and the waveguide assembly about an axis transverse to the longitudinal axis of the shaft assembly; and a waveguide assembly positioned within the shaft assembly and configured to receive the mechanical vibration generated by the transducer, the waveguide assembly being at least partially positionable within at least one of the opposing jaw members; wherein the end effector assembly is longitudinally translatable between a proximal position and a distal position which is beyond the waveguide assembly with respect to the waveguide assembly to allow the end effector assembly to articulate relative to the shaft and waveguide assembly about an axis transverse to the longitudinal axis of the shaft assembly when the end effector assemby is disposed in the distal position.
A thermal protection method for thermally protecting gas turbine components, comprising the steps of: - providing a component of a gas turbine with a hollow seat, formed in a wall of the component; said component, or at least said wall, being made of a metal material; - providing a ceramic element comprising at least a root portion extending substantially along an axis and matching with said seat; said ceramic element and the root portion thereof being made of a high temperature resistant ceramic material; wherein the root portion is a brazed-in or cast-in or cemented-in root portion which is brazed or cast or cemented directly inside the seat so that the root portion and the wall of the component are mechanically interlocked and also connected by a brazed or cast or cemented joint. - providing a component of a gas turbine with a hollow seat, formed in a wall of the component; said component, or at least said wall, being made of a metal material; - providing a ceramic element comprising at least a root portion extending substantially along an axis and matching with said seat; said ceramic element and the root portion thereof being made of a high temperature resistant ceramic material;
A cargo aerial delivery system for delivering one or more delivery items to one or more delivery destinations, the cargo aerial delivery system comprising: a cargo container configured to carry the one or more delivery items; and an unmanned aerial vehicle configured to carry the cargo container to each of the one or more delivery destinations corresponding to the one or more delivery items; characterised in that the cargo container includes a programmable device that stores manifest information regarding each of the one or more delivery items; wherein the manifest information includes item destination information that represents a respective delivery destination of each of the one or more delivery items; wherein the cargo aerial delivery system further utilizes a local communication mode configured to convey delivery information from the cargo container to the UAV, wherein the delivery information is based, at least in part, on the item destination information, and wherein the programmable device is configured to selectively receive, enter, and update manifest information. a cargo container configured to carry the one or more delivery items; and an unmanned aerial vehicle configured to carry the cargo container to each of the one or more delivery destinations corresponding to the one or more delivery items; characterised in that the cargo container includes a programmable device that stores manifest information regarding each of the one or more delivery items; wherein the manifest information includes item destination information that represents a respective delivery destination of each of the one or more delivery items; wherein the cargo aerial delivery system further utilizes a local communication mode configured to convey delivery information from the cargo container to the UAV, wherein the delivery information is based, at least in part, on the item destination information, and wherein the programmable device is configured to selectively receive, enter, and update manifest information.
A rocket fueling system comprising: an insulated jacket configured to removably couple to at least a portion of a rocket and form an enclosed space between the insulated jacket and the at least the portion of the rocket; a cryogen inlet in the insulated jacket, wherein the cryogen inlet is configured to receive a cryogen into an interior chamber of the insulated jacket; a cryogen outlet in the insulated jacket, wherein the cryogen outlet is configured to provide the cryogen from the interior chamber in the insulated jacket to the at least the portion of the rocket in the enclosed space; a gas outlet in the insulated jacket configured to exhaust the cryogen from the enclosed space; and a gas sensor configured to detect a flammable gas at the gas outlet. an insulated jacket configured to removably couple to at least a portion of a rocket and form an enclosed space between the insulated jacket and the at least the portion of the rocket; a cryogen inlet in the insulated jacket, wherein the cryogen inlet is configured to receive a cryogen into an interior chamber of the insulated jacket; a cryogen outlet in the insulated jacket, wherein the cryogen outlet is configured to provide the cryogen from the interior chamber in the insulated jacket to the at least the portion of the rocket in the enclosed space; a gas outlet in the insulated jacket configured to exhaust the cryogen from the enclosed space; and a gas sensor configured to detect a flammable gas at the gas outlet.
A SIM card registration method, performed by a terminal, comprising: receiving (S 110) a SIM card registration request triggered by a user, acquiring (S1 10) a SIM card type corresponding to the SIM card registration request, and sending the SIM card registration request to an operator network; receiving, according to the SIM card registration request, a feedback information returned from the operator network; wherein said method is characterized by: responding to, according to the SIM card type, the feedback information when a preset information is carried in the feedback information; wherein the SIM card type comprises a physical card and a virtual card. receiving (S 110) a SIM card registration request triggered by a user, acquiring (S1 10) a SIM card type corresponding to the SIM card registration request, and sending the SIM card registration request to an operator network; receiving, according to the SIM card registration request, a feedback information returned from the operator network; wherein said method is characterized by: responding to, according to the SIM card type, the feedback information when a preset information is carried in the feedback information; wherein the SIM card type comprises a physical card and a virtual card. responding to, according to the SIM card type, the feedback information when a preset information is carried in the feedback information; wherein the SIM card type comprises a physical card and a virtual card.
A method (200, 300) for thermal management in a variable frequency drive, the method comprising: receiving, by a processor, operational data associated with a variable frequency drive, the operational data comprising one or more operational parameters for the variable frequency drive; comparing the one or more operational parameters to a threshold; operating the variable frequency drive to produce a first modulated output based at least in part on the one or more operational parameters being below the threshold; and operating the variable frequency drive to produce a second modulated output based at least in part on at least one of the one or more operational parameters exceeding the threshold; characterised in that the second modulated output is produced by the variable frequency drive for a first time period. receiving, by a processor, operational data associated with a variable frequency drive, the operational data comprising one or more operational parameters for the variable frequency drive; comparing the one or more operational parameters to a threshold; operating the variable frequency drive to produce a first modulated output based at least in part on the one or more operational parameters being below the threshold; and operating the variable frequency drive to produce a second modulated output based at least in part on at least one of the one or more operational parameters exceeding the threshold; characterised in that the second modulated output is produced by the variable frequency drive for a first time period.
An exploding foil initiator apparatus, comprising: a bridge, said bridge having a first side, a second side, a bridge shape, and bridge dimensions including a bridge width; said bridge comprising a first extension of said bridge on said first side; a second extension of said bridge on said second side; said exploding foil initiator apparatus further comprising; a flyer on said bridge; a current return path unit under said bridge; and a fireset connected to said first extension of said bridge, said second extension of said bridge, and said bridge; wherein said fireset is configured to produce a current density in said bridge; said exploding foil initiator apparatus being characterized in that said bridge shape, said bridge dimensions, and said current return path unit are configured to produce a uniform current density in said bridge, by providing said first and second extensions with the bridge width up to a broadening taper region, said taper region forming corners with said first and second extensions (106, 108); said corners being distant from the region of the bridge directly under the flyer; wherein the region of the bridge directly under the flyer is thinner than all the other region of the bridge, including the first extension of the bridge and the second extension of the bridge. a bridge, said bridge having a first side, a second side, a bridge shape, and bridge dimensions including a bridge width; said bridge comprising a first extension of said bridge on said first side; a second extension of said bridge on said second side; said exploding foil initiator apparatus further comprising; a flyer on said bridge; a current return path unit under said bridge; and a fireset connected to said first extension of said bridge, said second extension of said bridge, and said bridge; wherein said fireset is configured to produce a current density in said bridge; said exploding foil initiator apparatus being characterized in that said bridge shape, said bridge dimensions, and said current return path unit are configured to produce a uniform current density in said bridge, by providing said first and second extensions with the bridge width up to a broadening taper region, said taper region forming corners with said first and second extensions (106, 108); said corners being distant from the region of the bridge directly under the flyer; wherein the region of the bridge directly under the flyer is thinner than all the other region of the bridge, including the first extension of the bridge and the second extension of the bridge.
A method for producing analytical aids for obtaining bodily fluid, in particular lancets or microsamplers, in which the aids are formed as a shaped part from a flat metallic material by material separation on shaped part edges, characterized in that at least one sharp shaped part edge is finished by laser irradiation, a laser beam being guided repeatedly along over the shaped part along an irradiation path in irradiation intervals, and the shaped part edge being rounded by the cumulative energy input of the laser beam, wherein the laser beam is guided into a region near the edge starting from a material region of the shaped part distant from the edge.
A suction device combined with a granulate blasting machine, said suction device having an adapter, comprising a main tube having - a first connecting section for connection to a suction line of the suction device and - a second connecting section for stationary arrangement in an opening of a working space, characterized in that the second connecting section is made of a flexible material and on its perimeter comprises a cutout that extends in the direction of the longitudinal axis of the main tube proceeding from a free end of the second connecting section and a sealing collar is arranged on the main tube, which sealing collar can be moved between a sealing position protruding beyond the free end of the second connecting section and an assembly position that exposes at least the cutout. - a first connecting section for connection to a suction line of the suction device and - a second connecting section for stationary arrangement in an opening of a working space,
An apparatus, comprising: (a) a body including a firing actuator; (b) a shaft extending distally from the body; (c) a stapling assembly disposed at a distal end of the shaft and configured to selectively move from an open position to a closed position to clamp tissue, wherein the stapling assembly is operable to drive a plurality of staples into the clamped tissue in response to activation of the motor; and (d) a motor configured to activate in response to a firing actuation of the firing actuator, characterised in that the motor is configured to deactivate after a first predetermined time period subsequent to the firing actuation; and (e) a timer circuit operatively coupled to the motor and the firing actuator, wherein the timer circuit is configured to activate a timer in response to the firing actuation, wherein the timer is configured to run for a second predetermined time period, wherein the timer circuit is configured to ensure deactivation of the motor upon expiration of the second predetermined time period, wherein the second predetermined time period is at least as long as the first predetermined time period. (a) a body including a firing actuator; (b) a shaft extending distally from the body; (c) a stapling assembly disposed at a distal end of the shaft and configured to selectively move from an open position to a closed position to clamp tissue, wherein the stapling assembly is operable to drive a plurality of staples into the clamped tissue in response to activation of the motor; and (d) a motor configured to activate in response to a firing actuation of the firing actuator, characterised in that the motor is configured to deactivate after a first predetermined time period subsequent to the firing actuation; and (e) a timer circuit operatively coupled to the motor and the firing actuator, wherein the timer circuit is configured to activate a timer in response to the firing actuation, wherein the timer is configured to run for a second predetermined time period, wherein the timer circuit is configured to ensure deactivation of the motor upon expiration of the second predetermined time period, wherein the second predetermined time period is at least as long as the first predetermined time period.