mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an intelligent wearable device, comprising generating, by a terminal device, a first power-off instruction, wherein the first power-off instruction is used to instruct the terminal device to power off; and before the terminal device powers off, generating, by the terminal device, a second power-off instruction and sending the second power-off instruction to the intelligent wearable device associated with the terminal device, wherein the second power-off instruction is used to instruct the intelligent wearable device to power off or disable a short-range wireless communications module of the intelligent wearable device, wherein the short-range wireless communications module connects to and communicates with the terminal device by means of short-range wireless communication; characterized in that the generating, by the terminal device, a second power-off instruction specifically comprises: determining, by the terminal device, whether generation of the first power-off instruction is triggered by a restart of an operating system of the terminal device; and generating, by the terminal device, the second power-off instruction if the generation of the first power-off instruction is not triggered by the restart of the operating system of the terminal device. generating, by a terminal device, a first power-off instruction, wherein the first power-off instruction is used to instruct the terminal device to power off; and before the terminal device powers off, generating, by the terminal device, a second power-off instruction and sending the second power-off instruction to the intelligent wearable device associated with the terminal device, wherein the second power-off instruction is used to instruct the intelligent wearable device to power off or disable a short-range wireless communications module of the intelligent wearable device, wherein the short-range wireless communications module connects to and communicates with the terminal device by means of short-range wireless communication; characterized in that the generating, by the terminal device, a second power-off instruction specifically comprises: determining, by the terminal device, whether generation of the first power-off instruction is triggered by a restart of an operating system of the terminal device; and generating, by the terminal device, the second power-off instruction if the generation of the first power-off instruction is not triggered by the restart of the operating system of the terminal device. determining, by the terminal device, whether generation of the first power-off instruction is triggered by a restart of an operating system of the terminal device; and generating, by the terminal device, the second power-off instruction if the generation of the first power-off instruction is not triggered by the restart of the operating system of the terminal device.
Milking robot comprising a milking area for receiving an animal to be milked, teat cups and a robot arm for attachment of the teat cups to the teats of the animal in said milking area, the robot arm being movable between an active position for the attachment of the teat cups to the teats of the animal wherein the robot arm is, at least partly, inside the milking area, and an inactive position where the robot arm is outside the milking area in an arm storage area, situated behind or to the side of the milking area, wherein the milking robot is further provided with a controllable screening element that is automatically movable between a first open position and a second closed position in which the element screens off the arm storage area, with the robot arm no longer protruding into the milking area, from the milking area more than in the open position.
A computer- implemented method of determining positioning of objects in a scene, said method comprising: obtaining (201; 304) object detection data corresponding to two-dimensional, 2D, images of the scene, said object detection data comprising an object identifier of a respective object in a respective 2D image among the 2D images of the scene and a location of a plurality of reference points of the respective object in the respective 2D image; processing (202; 305-306) the object detection data to identify corresponding objects between pairs of 2D images among the 2D images of the scene and generate candidate association data which associates pairs of objects by associating object identifiers for the corresponding objects; computing (203; 307), based on said location, a plurality of estimated three-dimensional, 3D, positions in a scene coordinate system of the scene for associated pairs of objects in the candidate association data; determining (204; 308) one or more clusters of the plurality of estimated 3D positions; generating (205; 310), based on estimated 3D positions in at least one cluster among the one or more clusters, final association data which associates one or more objects between the 2D images of the scene; and computing (206; 312), based on the final association data, one or more final 3D positions in the scene coordinate system of the scene for one or more reference points among said plurality of reference points of said one or more objects. obtaining (201; 304) object detection data corresponding to two-dimensional, 2D, images of the scene, said object detection data comprising an object identifier of a respective object in a respective 2D image among the 2D images of the scene and a location of a plurality of reference points of the respective object in the respective 2D image; processing (202; 305-306) the object detection data to identify corresponding objects between pairs of 2D images among the 2D images of the scene and generate candidate association data which associates pairs of objects by associating object identifiers for the corresponding objects; computing (203; 307), based on said location, a plurality of estimated three-dimensional, 3D, positions in a scene coordinate system of the scene for associated pairs of objects in the candidate association data; determining (204; 308) one or more clusters of the plurality of estimated 3D positions; generating (205; 310), based on estimated 3D positions in at least one cluster among the one or more clusters, final association data which associates one or more objects between the 2D images of the scene; and computing (206; 312), based on the final association data, one or more final 3D positions in the scene coordinate system of the scene for one or more reference points among said plurality of reference points of said one or more objects.
A portable vacuum lifter system comprising: a host machine; a drive motor coupled to a vacuum pump, a coupler, and a vacuum gauge for displaying a level of vacuum created; a mounting assembly on the host machine; a vacuum pad for grabbing an object to be lifted, said vacuum pad having a top surface and a generally flat bottom surface, an elastomeric seal extending around a periphery of the bottom surface, said vacuum pad supported by the host machine, said vacuum pad connected to said coupler via a vacuum line; and controls for operating said vacuum lifter system; the portable vacuum lifter system being characterized in that it comprises a portable vacuum lifter case containing vacuum lifter components comprising the drive motor, the vacuum pump, a solenoid operated valve in fluid communication with the vacuum pump, the coupler and the vacuum gauge, the coupler extending from the case and the vacuum gauge provided on the case; and in that the mounting assembly removably mounts the case to the host machine. a host machine; a drive motor coupled to a vacuum pump, a coupler, and a vacuum gauge for displaying a level of vacuum created; a mounting assembly on the host machine; a vacuum pad for grabbing an object to be lifted, said vacuum pad having a top surface and a generally flat bottom surface, an elastomeric seal extending around a periphery of the bottom surface, said vacuum pad supported by the host machine, said vacuum pad connected to said coupler via a vacuum line; and controls for operating said vacuum lifter system; the portable vacuum lifter system being characterized in that it comprises a portable vacuum lifter case containing vacuum lifter components comprising the drive motor, the vacuum pump, a solenoid operated valve in fluid communication with the vacuum pump, the coupler and the vacuum gauge, the coupler extending from the case and the vacuum gauge provided on the case; and in that the mounting assembly removably mounts the case to the host machine.
Iron comprising an ironing soleplate comprising at least one steam outlet orifice and a heating body comprising a steam chamber connected by a steam distribution circuit to the at least one steam outlet orifice, the steam chamber having a bottom wall comprising a water injection zone on which water is intended to be injected to produce steam, the heating body comprising a first electrical heating resistance extending into a first zone of the bottom wall of the steam chamber and a second electrical heating resistance extending into a second zone of the bottom wall of the steam chamber, the bottom wall of the steam chamber comprising an intermediate zone extending between the first and second zones, characterised in that the water injection zone of the bottom wall of the steam chamber comprises a surface configured to channel water flowing over the water injection zone in the direction of the intermediate zone when the iron rests flat on the ironing soleplate.
An bone regeneration agent which comprises a gelatin having an amino acid sequence derived from a partial amino acid sequence of collagen for use in a method to regenerate bone, wherein the agent does not comprise other substances having bone regeneration action, other than said gelatin.
A pressure sensor assembly, comprising: a first receive antenna array (106, 108, 110, 140, 142, 144) configured to receive a first signal (134, 128) at a first frequency; a second receive antenna array (106, 108, 110, 140, 142, 144) configured to receive a second signal (134, 130) at a second frequency that differs from the first frequency; a diode coupled to both the first receive antenna array (106, 108, 110, 140, 142, 144) and the second receive antenna array (106, 108, 110, 140, 142, 144), wherein the diode is configured to receive the first signal (134, 128) at the first frequency and the second signal (134, 130) at the second frequency and output a third signal (132, 134) at a third frequency that is a difference between the first frequency and the second frequency; a transmit antenna array (106, 108, 110, 140, 142, 144) coupled to the diode, wherein the transmit antenna array (106, 108, 110, 140, 142, 144) is configured to receive the third signal (132, 134) at the third frequency and output the third signal (132, 134) at the third frequency, and at least one cavity (174, 400, 500) disposed within at least one substrate (150, 300, 332) underneath at least a portion of one or more of the first receive antenna array (106, 108, 110, 140, 142, 144), the second receive antenna array (106, 108, 110, 140, 142, 144), or the transmit antenna array (106, 108, 110, 140, 142, 144). a first receive antenna array (106, 108, 110, 140, 142, 144) configured to receive a first signal (134, 128) at a first frequency; a second receive antenna array (106, 108, 110, 140, 142, 144) configured to receive a second signal (134, 130) at a second frequency that differs from the first frequency; a diode coupled to both the first receive antenna array (106, 108, 110, 140, 142, 144) and the second receive antenna array (106, 108, 110, 140, 142, 144), wherein the diode is configured to receive the first signal (134, 128) at the first frequency and the second signal (134, 130) at the second frequency and output a third signal (132, 134) at a third frequency that is a difference between the first frequency and the second frequency; a transmit antenna array (106, 108, 110, 140, 142, 144) coupled to the diode, wherein the transmit antenna array (106, 108, 110, 140, 142, 144) is configured to receive the third signal (132, 134) at the third frequency and output the third signal (132, 134) at the third frequency, and at least one cavity (174, 400, 500) disposed within at least one substrate (150, 300, 332) underneath at least a portion of one or more of the first receive antenna array (106, 108, 110, 140, 142, 144), the second receive antenna array (106, 108, 110, 140, 142, 144), or the transmit antenna array (106, 108, 110, 140, 142, 144).
A packaging unit consisting of a container and a lid for the container, wherein the container has a circumferential edge flange facing outwards at the upper edge and having a latching region and wherein the lid comprises a cover flange overlapping the edge flange and having a latching rib engageable in the latching region and wherein the container has a container lug at the inner container wall in the upper edge region, which container lug forms a circumferential groove into which a circumferential lid lug located in the transitional area between a lid cover region and an inner lid edge region can be inserted, wherein the inner container wall forms a circumferential sealing surface from the circumferential groove to the upper edge of the container, which sealing surface can be brought into a positive sealing connection with the inner lid edge region, characterized in that the upper edge of the container forms an edge ring which is engageable with a first support ring provided at the inner surface of the cover flange in order to ensure a reliable abutment of the positive sealing connection across the entire inner lid edge region also with mechanical stresses acting on the packaging unit.
Fluid counter having an electronics unit comprising a housing in which the electronics device and an exchangeable energy storage device (5, 5a) associated with the electronics device and supplying power to the electronics device is arranged, characterized in that both the electronics device and the energy storage device (5, 5a) are separately completely potted with a potting compound (8, 10) and are coupled to one another either via a cable connection, one end of which is incorporated in the potting compound of the electronics device and the other end of which is incorporated the potting compound of the energy storage device (5, 5a), or via an inductive energy transmission interface.
A method for uploading a file from a user equipment to an Internet storage service server using a mobile cellular network, the method being performed by a server of the mobile cellular network and the method comprising: while the user equipment uploads sequential chunks of the file via a cell of the mobile cellular network, upon receiving (A2, B2, C2) an indication that the cell is overloaded, sending (S1120, A4, B3, C4) a first message requesting the uploading be paused, to the user equipment, wherein, upon receiving the first message, the user equipment pauses (A5, B4, C5) the uploading of the sequential chunks; and upon receiving (A6, B7, C6) an indication that the cell is no longer overloaded, sending (S1120, A8, B8, C8) a second message requesting to resume the uploading, to the user equipment, the second message indicating a length, wherein upon receiving the second message, the user equipment resumes (A10, B10, C10) the uploading of the sequential chunks of the file using an offset from a beginning of the file corresponding to the length, wherein the server is a content delivery optimization, CDO, server, which is part of a mobile cloud accelerator, MCA, of the mobile cellular network, and receives the indication that the cell is overloaded and the indication that the cell is no longer overloaded from a module of the MCA that monitors traffic in the mobile cellular network. while the user equipment uploads sequential chunks of the file via a cell of the mobile cellular network, upon receiving (A2, B2, C2) an indication that the cell is overloaded, sending (S1120, A4, B3, C4) a first message requesting the uploading be paused, to the user equipment, wherein, upon receiving the first message, the user equipment pauses (A5, B4, C5) the uploading of the sequential chunks; and upon receiving (A6, B7, C6) an indication that the cell is no longer overloaded, sending (S1120, A8, B8, C8) a second message requesting to resume the uploading, to the user equipment, the second message indicating a length, wherein upon receiving the second message, the user equipment resumes (A10, B10, C10) the uploading of the sequential chunks of the file using an offset from a beginning of the file corresponding to the length, wherein the server is a content delivery optimization, CDO, server, which is part of a mobile cloud accelerator, MCA, of the mobile cellular network, and receives the indication that the cell is overloaded and the indication that the cell is no longer overloaded from a module of the MCA that monitors traffic in the mobile cellular network.
A group III nitride semiconductor light-emitting device (100, 200), comprising: a substrate (1, 11); a GaN layer disposed on the substrate and composed of Al x Ga 1-x N (0 ≤ x < 1) an InGaN layer disposed on the GaN layer and composed of InGaN; an AIGaN layer disposed on the InGaN layer and composed of Al y Ga 1-y N (0 ≤ y < 1) comprising a dopant; and a functional layer being a light-emitting layer and disposed on the AIGaN layer; wherein the substrate is a RAMgOa substrate made of a single crystal body represented by general formula RAMgO 4, wherein R represents one or more trivalent elements selected from the group consisting of Sc, In, Y, and lanthanoids, and A represents one or more trivalent elements selected from the group consisting of Fe, Ga, and Al; wherein a concentration of Mg in the GaN layer is higher than a concentration of Mg in the AIGaN layer, wherein a concentration of the dopant in the AIGaN layer is higher than the concentration of Mg in the AIGaN layer, wherein the GaN layer comprises a dopant, and includes a first region that is located closer to the InGaN layer and has a higher concentration of the dopant than the concentration of Mg, and a second region that is located opposite to the first region and has a lower concentration of the dopant than the concentration of Mg, and wherein the second region of the GaN layer has a thickness of 0.5 μm or more and 2 μm or less. a substrate (1, 11); a GaN layer disposed on the substrate and composed of Al x Ga 1-x N (0 ≤ x < 1) an InGaN layer disposed on the GaN layer and composed of InGaN; an AIGaN layer disposed on the InGaN layer and composed of Al y Ga 1-y N (0 ≤ y < 1) comprising a dopant; and a functional layer being a light-emitting layer and disposed on the AIGaN layer; wherein the substrate is a RAMgOa substrate made of a single crystal body represented by general formula RAMgO 4, wherein R represents one or more trivalent elements selected from the group consisting of Sc, In, Y, and lanthanoids, and A represents one or more trivalent elements selected from the group consisting of Fe, Ga, and Al; wherein a concentration of Mg in the GaN layer is higher than a concentration of Mg in the AIGaN layer, wherein a concentration of the dopant in the AIGaN layer is higher than the concentration of Mg in the AIGaN layer, wherein the GaN layer comprises a dopant, and includes a first region that is located closer to the InGaN layer and has a higher concentration of the dopant than the concentration of Mg, and a second region that is located opposite to the first region and has a lower concentration of the dopant than the concentration of Mg, and a first region that is located closer to the InGaN layer and has a higher concentration of the dopant than the concentration of Mg, and a second region that is located opposite to the first region and has a lower concentration of the dopant than the concentration of Mg, and wherein the second region of the GaN layer has a thickness of 0.5 μm or more and 2 μm or less.
A coupling device comprising a tubular body defining a channel having successively along an axis a first segment for receiving an endpiece and a second segment in which a valve member is mounted to be axially movable under thrust from the endpiece from a closed position closing a seat that extends between the first segment and the second segment, towards a disengaged position disengaging the seat, the first segment being provided with a housing in which a latch is movably mounted to move transversely relative to the channel between an unlocking position and a locking position into which the latch is urged by a spring, the latch being provided with a transverse bore enabling the endpiece to pass through the latch to push against the valve member, a first step and a second step projecting into the bore in axially offset positions in such a manner that, when the latch is in the locking position, the first step retains the endpiece in a pushed-in position holding the valve member in its disengaged position, and when the latch is in the unlocking position, the second step retains the endpiece in an intermediate position leaving the valve member in its closed position, thereby enabling the endpiece to be purged, the coupling device being characterized in that the latch is movable along the axial direction of the channel between a first axial position in which the latch and a wall of the housing have a first pair of retaining portions (114, 104) in mutual contact to retain the latch in the unlocking position, and a second axial position in which said retaining portions (114, 104) are disengaged from each other, the second axial position being closer to the valve member than the first axial position.