mhurhangee/ep-ind-claims huggingface dataset:
A server for searching for metadata corresponding to content, the server comprising: a communicator configured to receive metadata corresponding to content related to at least one device of a first user, from the at least one device without the corresponding content; and a controller configured to store the received metadata in a remote storage that is separate from the server such that the content corresponding to the received metadata is not stored on the server or the remote storage, the received metadata being searchable, and upon receiving a search request containing a search term for searching for metadata, to search the received metadata stored in the remote storage for metadata related to the search term, wherein the communicator is configured to receive, from another device different from the at least one device, a request related to the content, wherein the controller is configured to: determine sharable content among the content based on a service ID of the first user and a service ID of a second user of the other device; obtain device information of a device storing the sharable content requested by the other device by using the received metadata stored in the remote storage, and provide the device information and a list of the sharable content to the other device, and wherein the device information is used by the other device to request the sharable content from the device storing the sharable content. a communicator configured to receive metadata corresponding to content related to at least one device of a first user, from the at least one device without the corresponding content; and a controller configured to store the received metadata in a remote storage that is separate from the server such that the content corresponding to the received metadata is not stored on the server or the remote storage, the received metadata being searchable, and upon receiving a search request containing a search term for searching for metadata, to search the received metadata stored in the remote storage for metadata related to the search term, wherein the communicator is configured to receive, from another device different from the at least one device, a request related to the content, wherein the controller is configured to: determine sharable content among the content based on a service ID of the first user and a service ID of a second user of the other device; obtain device information of a device storing the sharable content requested by the other device by using the received metadata stored in the remote storage, and provide the device information and a list of the sharable content to the other device, and determine sharable content among the content based on a service ID of the first user and a service ID of a second user of the other device; obtain device information of a device storing the sharable content requested by the other device by using the received metadata stored in the remote storage, and provide the device information and a list of the sharable content to the other device, and wherein the device information is used by the other device to request the sharable content from the device storing the sharable content.
Power module (1, 16, 17) for an electric motor, wherein the power module (1, 16, 17) comprises at least one semiconductor switch half-bridge (2, 3, 17, 18, 19, 20, 21, 22), characterized in that the semiconductor switch half-bridge (2, 3, 17, 18, 19, 20, 21, 22) has a high-side semiconductor switch (2, 17, 18, 19) and a low-side semiconductor switch (3, 20, 21, 22), wherein the semiconductor switches (2, 3, 17, 18, 19, 20, 21, 22) of the half-bridge (2, 3) have in each case switching path terminals (4, 5, 6, 7, 23, 24, 25, 26) formed by a surface region of the semiconductor switch (2, 3, 17, 18, 19, 20, 21, 22), said surface region being embodied in a flat fashion, and the switching path terminals (4, 5, 6, 7, 23, 24, 25, 26) of a semiconductor switch in each case face in the same direction, wherein the high-side semiconductor switch and the low-side semiconductor switch enclose between one another at least one electrically conductive layer (8, 9, 10, 28, 31, 34, 35, 36) which connects a switching path terminal (4, 6, 24, 26) of the low-side semiconductor switch (3, 20, 21, 22) and a switching path terminal (5, 7, 23, 25) of the high-side semiconductor switch of the half-bridge electrically to one another, wherein an output terminal of the half-bridge is formed by at least one electrically conductive layer (8, 9, 10).
Process for producing a linerless self-adhesive material comprising the steps of: a) providing a self-adhesive material having a self-adhesive layer and a liner, said liner comprising a film made of plastic material coated with a non-stick material and said self-adhesive layer comprising a film made of plastic or paper material having a front surface, and a surface, opposite the front surface, coated with a pressure-sensitive adhesive, wherein at least one of either the front surface of the self-adhesive layer or the surface of the liner opposite the surface coated with the non-stick material is coated with a thermo-adhesive; b) de-laminating the liner from the self-adhesive layer; c) activating the thermo-adhesive through heating; d) transferring the liner onto the self-adhesive layer so that the thermo-adhesive is located between the self-adhesive layer and the liner; e) re-laminating the liner with the self-adhesive layer; wherein said transfer of the liner onto the self-adhesive layer is performed before or after said activation of the self-adhesive layer and/or said activation is performed before, after or during the re-lamination of the liner with the self-adhesive layer. a) providing a self-adhesive material having a self-adhesive layer and a liner, said liner comprising a film made of plastic material coated with a non-stick material and said self-adhesive layer comprising a film made of plastic or paper material having a front surface, and a surface, opposite the front surface, coated with a pressure-sensitive adhesive, wherein at least one of either the front surface of the self-adhesive layer or the surface of the liner opposite the surface coated with the non-stick material is coated with a thermo-adhesive; b) de-laminating the liner from the self-adhesive layer; c) activating the thermo-adhesive through heating; d) transferring the liner onto the self-adhesive layer so that the thermo-adhesive is located between the self-adhesive layer and the liner; e) re-laminating the liner with the self-adhesive layer; wherein said transfer of the liner onto the self-adhesive layer is performed before or after said activation of the self-adhesive layer and/or said activation is performed before, after or during the re-lamination of the liner with the self-adhesive layer.
A super-cell handover method, wherein the method is applied to a no cell system, the no cell system comprises at least two super cells, each super cell refers to a cell cluster, wherein each cell of the cell cluster corresponds to one transmission point, TP, and each super cell corresponds to at least one logical entity, LE, wherein each LE controls the TP in the super cell, the at least two super cells comprise a first super cell and a second super cell, the first super cell is adjacent to the second super cell, the no cell system indicates that user equipment, UE, sends a reference signal, and an LE in a super cell in which the UE is located continually updates and maintains the reference signal, and provides the UE with a TP used for a data communication service, so that the UE does not sense a change of the TP as much as possible, and the method comprises: receiving, by a first LE, measurement reports sent by a plurality of first TPs, wherein the measurement reports are measurement reports determined by the plurality of first TPs based on a reference signal sent by target user equipment, UE, in the second super cell, wherein data of the target UE is transmitted or a communication service is provided for the target UE by using a TP set formed by TPs in the second super cell, the first LE is an LE in the first super cell, and the plurality of first TPs are TPs in the first super cell; determining, by the first LE, a first handover policy based on a first preset condition and the measurement reports, wherein the first handover policy indicates whether the first LE allows to hand over the target UE from the second super cell to the first super cell; and sending, by the first LE, indication information of the first handover policy to a second LE, wherein the indication information is used to instruct the second LE to perform handover processing based on the first handover policy, and the second LE is an LE in the second super cell. receiving, by a first LE, measurement reports sent by a plurality of first TPs, wherein the measurement reports are measurement reports determined by the plurality of first TPs based on a reference signal sent by target user equipment, UE, in the second super cell, wherein data of the target UE is transmitted or a communication service is provided for the target UE by using a TP set formed by TPs in the second super cell, the first LE is an LE in the first super cell, and the plurality of first TPs are TPs in the first super cell; determining, by the first LE, a first handover policy based on a first preset condition and the measurement reports, wherein the first handover policy indicates whether the first LE allows to hand over the target UE from the second super cell to the first super cell; and sending, by the first LE, indication information of the first handover policy to a second LE, wherein the indication information is used to instruct the second LE to perform handover processing based on the first handover policy, and the second LE is an LE in the second super cell.
A pharmaceutical composition comprising bupropion or a pharmaceutically acceptable salt thereof, and naltrexone or a pharmaceutically acceptable salt thereof for use in the treatment of binge or compulsive eating.
A modulator for a digital amplifier, wherein the modulator comprises: a pulse shaper and a control unit for controlling the pulse shaper; the pulse shaper comprising a clock input and a control input, wherein the pulse shaper is adapted to convert an input signal applied to an input of the control unit into a bit stream configured for a digital amplifier, which encodes per clock of a clock signal applied to the clock input an amplitude value of the input signal applied to the input of the control unit, wherein the pulse shaper can represent a respective amplitude value of the input signal with different bit patterns and the respective bit pattern used by the pulse shaper is determined by the control unit by means of a corresponding, associated control command applied to the control input of the pulse shaper, wherein an assignment of the control commands to associated amplitude values resulting from amplification of the associated bit patterns with the digital amplifier is stored and provided in the control unit, wherein the control unit selects a control command per clock by means of the assignment and the respective amplitude value of the input signal and controls the pulse shaper accordingly, wherein the modulator further comprises an amplitude modulator, wherein the amplitude modulator is adapted to encode the amplitude value of the input signal and to provide it to the control unit, wherein the control unit is further adapted to use the encoded signal to determine the bit patterns to be generated, wherein the amplitude modulator is adapted to encode the amplitude value of the input signal using the resulting amplitude value which is associated with a previously used bit pattern.
A dynamic reference frame system operable to be fixed in a selected position relative to a bone, comprising: a positioning member (80, 110, 130, 200) extending along an axis between a first end (84, 134) and a second end (86, 136); a tracking sensor engaging portion including an engaging pin that extends transverse to the axis of the positioning member; a bone engaging portion (88, 112, 138, 204) near said second end (86, 136); wherein said bone engaging portion (88, 112, 138, 204) comprises a central member, a first member (90, 120, 138a), a second member (92, 122, 138b), a third member (94, 124, 138c) and a fourth member (96, 126, 138d), wherein each of said first member (90, 120, 138a), second member (92, 122, 138b), third member (94, 124, 138c) and fourth member (96, 126, 138d) extend from said central member and are positioned at an angle of about 90° (π/2 radians) relative to one another, wherein said bone engaging portion (88, 112, 138, 204) is operable to be driven into the bone, and wherein the dynamic reference frame system further comprises: a resiliently deformable member extending from said first end (84, 134) of said positioning member (80, 110, 130, 200); a tracking sensor defining an opening in an engaging shaft and a finger extending into said opening wherein said finger selectively engages said engaging pin; wherein said resilient deformable member biases said finger towards said engaging pin. a positioning member (80, 110, 130, 200) extending along an axis between a first end (84, 134) and a second end (86, 136); a tracking sensor engaging portion including an engaging pin that extends transverse to the axis of the positioning member; a bone engaging portion (88, 112, 138, 204) near said second end (86, 136); wherein said bone engaging portion (88, 112, 138, 204) comprises a central member, a first member (90, 120, 138a), a second member (92, 122, 138b), a third member (94, 124, 138c) and a fourth member (96, 126, 138d), wherein each of said first member (90, 120, 138a), second member (92, 122, 138b), third member (94, 124, 138c) and fourth member (96, 126, 138d) extend from said central member and are positioned at an angle of about 90° (π/2 radians) relative to one another, wherein said bone engaging portion (88, 112, 138, 204) is operable to be driven into the bone, and wherein the dynamic reference frame system further comprises: a resiliently deformable member extending from said first end (84, 134) of said positioning member (80, 110, 130, 200); a tracking sensor defining an opening in an engaging shaft and a finger extending into said opening wherein said finger selectively engages said engaging pin; wherein said resilient deformable member biases said finger towards said engaging pin.
A gas turbine engine rotor including an upstream axial flow compressor portion and a downstream turbine portion in longitudinal serial flow relationship said compressor comprising a hub having forward and aft end portions (30,35) and at least one bladed disk disposed within said compressor hub between and in engagement with said forward and aft end portions (30,35) thereof; said turbine comprising a hub having forward and aft end portions and at least one bladed disk disposed within said turbine hub between and in engagement with said forward and aft end portions thereof; characterised in that said rotor further comprises a forward tie shaft extending through and engaging said compressor hub at said forward and aft end portions (30,35) thereof to longitudinally and compressively preload said compressor hub for compressive preloaded retention of said at least one bladed compressor disk between said forward and aft portions (30,35) of said compressor hub; said rotor further comprises an aft tie shaft independent of said forward tie shaft, said aft tie shaft engaging said compressor hub at said aft end portion thereof; said aft tie shaft engaging said turbine hub at said aft end portion thereof to longitudinally and compressively preload said turbine hub for compressive retention of said at least one bladed turbine disk between said aft portion of said turbine and compressor hubs (70,25) independently of said preloaded retention of said at least one bladed compressor disk within said compressor hub.
An electrical system (42, 68) having a fault interruption micro-electro-mechanical system abbrev. MEMS, switch unit, the electrical system comprising: a first operation MEMS switch positioned in a first electrical path (56, 86), the first operation MEMS switch operable in an on state that enables current to flow to a first electrical load (54, 76) and an off state that disables current from flowing to the first electrical load (54, 76); a first fault interruption MEMS switch positioned in series with the first operation MEMS switch, the first fault interruption MEMS switch operable in an on state that enables current to flow to the first electrical load (54, 76) and an off state that disables current from flowing to the first electrical load (54, 76), wherein operation of the first fault interruption MEMS switch in the off state disables current from flowing to the first electrical load (54, 76) regardless of the state of the first operation MEMS switch; a first fault sensor positioned to sense a first system variable; and a control system (50, 70) programmed to: receive the first system variable from the first fault sensor; analyze the first system variable to detect if a fault is affecting the electrical system (42, 68); and upon detection of a fault, switch the first fault interruption MEMS switch from the on state to the off state to interrupt current flowing through the first operation MEMS switch to the first electrical load (54, 76). a first operation MEMS switch positioned in a first electrical path (56, 86), the first operation MEMS switch operable in an on state that enables current to flow to a first electrical load (54, 76) and an off state that disables current from flowing to the first electrical load (54, 76); a first fault interruption MEMS switch positioned in series with the first operation MEMS switch, the first fault interruption MEMS switch operable in an on state that enables current to flow to the first electrical load (54, 76) and an off state that disables current from flowing to the first electrical load (54, 76), wherein operation of the first fault interruption MEMS switch in the off state disables current from flowing to the first electrical load (54, 76) regardless of the state of the first operation MEMS switch; a first fault sensor positioned to sense a first system variable; and a control system (50, 70) programmed to: receive the first system variable from the first fault sensor; analyze the first system variable to detect if a fault is affecting the electrical system (42, 68); and upon detection of a fault, switch the first fault interruption MEMS switch from the on state to the off state to interrupt current flowing through the first operation MEMS switch to the first electrical load (54, 76). receive the first system variable from the first fault sensor; analyze the first system variable to detect if a fault is affecting the electrical system (42, 68); and upon detection of a fault, switch the first fault interruption MEMS switch from the on state to the off state to interrupt current flowing through the first operation MEMS switch to the first electrical load (54, 76).
A pontoon chassis system having a base frame, along of longitudinal sides of which a pontoon carrier is each arranged, which in each case features at least one pontoon body, around which at least one crawler track is guided in a circulating manner and can be driven, characterized in that each pontoon carrier is detachably secured to at least two crossmembers of the base frame, which are horizontally extendable and retractable in a horizontal direction transverse to the longitudinal sides, and that at least one vertical support, the height of which can be adjusted, is arranged on each of the movable crossmembers.
An image forming apparatus, to which a development cartridge having a first memory storing therein cartridge information is detachably mountable, the image forming apparatus comprising: an apparatus casing, wherein the apparatus casing includes an opening portion, through which the development cartridge can be detachably mounted to the image forming apparatus and a cover configured to open and close the opening portion; an exposure unit having plural light emitting portions, the exposure unit being supported by the apparatus casing so that the light emitting portions face a photosensitive member rotatably supported by the apparatus casing; and a reader unit disposed on the exposure unit and configured to read the cartridge information from the first memory when the development cartridge is mounted to the image forming apparatus characterized by each of the light emitting portions being an LED and the light emitting portions are attached to the cover. an apparatus casing, wherein the apparatus casing includes an opening portion, through which the development cartridge can be detachably mounted to the image forming apparatus and a cover configured to open and close the opening portion; an exposure unit having plural light emitting portions, the exposure unit being supported by the apparatus casing so that the light emitting portions face a photosensitive member rotatably supported by the apparatus casing; and a reader unit disposed on the exposure unit and configured to read the cartridge information from the first memory when the development cartridge is mounted to the image forming apparatus
A push-button attachment for a bus coupler to a bus line of a building automation system, wherein the push-button attachment has a signal interface for connection to a bus coupler and at least one push-button, which is set up to generate a signal for the wire-bound signal transmission as a result of its actuation, the push-button attachment having a media coupler with a radio interface and with a further signal interface for connection to a bus coupler, the media coupler being set up to convert a signal for the wired signal transmission into a signal for the wireless signal transmission or vice versa, characterized in that the signal for the wired signal transmission is of a telegram type and the signal for the wireless signal transmission is of a telegram type, the radio interface for the transmission of the signal of the telegram type for the wireless signal transmission having at least two radio channels differing in their frequency range and/or in their data rate.