mhurhangee/ep-ind-claims huggingface dataset:
An electronic apparatus which is configured to remotely control an external device, the electronic apparatus comprising: a button interface comprising a plurality of buttons configured to receive a user input; a sensing unit configured to sense a movement of the electronic apparatus, the sensing unit comprising at least one of a gyro sensor, an acceleration sensor, and a geomagnetic sensor; a communication unit configured to establish communication with the external device, and a control unit configured: while the sensing unit is operating in an active state, to control the communication unit to transmit a first signal corresponding to a user input received via the button interface to control the external device, and information corresponding to the sensed movement of the electronic apparatus to the external device, and while the sensing unit is in a power saving state, to control the communication unit to transmit a second signal corresponding to a user input received via the button interface to control the external device, wherein the control unit is configured to block power to the sensing unit in the power saving state, characterized in that the control unit is further configured, while the sensing unit is in a power saving state, to control the sensing unit to switch an operation state of the sensing unit into the active state in response to receiving information via the communication unit from the external device which relates to at least one of a function, an application and content executed by the external device. a button interface comprising a plurality of buttons configured to receive a user input; a sensing unit configured to sense a movement of the electronic apparatus, the sensing unit comprising at least one of a gyro sensor, an acceleration sensor, and a geomagnetic sensor; a communication unit configured to establish communication with the external device, and a control unit configured: while the sensing unit is operating in an active state, to control the communication unit to transmit a first signal corresponding to a user input received via the button interface to control the external device, and information corresponding to the sensed movement of the electronic apparatus to the external device, and while the sensing unit is in a power saving state, to control the communication unit to transmit a second signal corresponding to a user input received via the button interface to control the external device, while the sensing unit is operating in an active state, to control the communication unit to transmit a first signal corresponding to a user input received via the button interface to control the external device, and information corresponding to the sensed movement of the electronic apparatus to the external device, and while the sensing unit is in a power saving state, to control the communication unit to transmit a second signal corresponding to a user input received via the button interface to control the external device, wherein the control unit is configured to block power to the sensing unit in the power saving state,
A skin treatment apparatus, comprising: a shear inducing head having a first friction surface adjacent a first edge, and a second friction surface adjacent a second edge, and a drive motor assembly configured to impart an oscillating motion to the shear inducing head such that the first friction surface moves with respect to the second friction surface in an oscillating manner, characterized in that the second edge is spaced a constant distance from the first edge in order to form a gap having a width of between about 0.003mm and 0.200mm. a shear inducing head having a first friction surface adjacent a first edge, and a second friction surface adjacent a second edge, and a drive motor assembly configured to impart an oscillating motion to the shear inducing head such that the first friction surface moves with respect to the second friction surface in an oscillating manner, characterized in that the second edge is spaced a constant distance from the first edge in order to form a gap having a width of between about 0.003mm and 0.200mm.
A mobile communication method with which a mobile station determines a cell in which the mobile station goes into a standby mode, by using a pilot channel, comprising: detecting reception of a predetermined operation by a user; characterized by: in response to receiving the predetermined operation by the user, determining whether a combination of a frequency band and spreading code corresponding to a predetermined pilot channel for a particular cell that provides area-restricted services is previously stored; attempting to detect the combination of the frequency band and spreading code in response to determining that the frequency band and spreading code are previously stored; causing the mobile station to judge whether the mobile station is allowed to go into a standby mode in the particular cell based on the detection of the combination of the frequency band and spreading code; and causing the mobile station to enter the standby mode in the particular cell when the mobile station judges that the mobile station is allowed to be in the standby mode in the particular cell. detecting reception of a predetermined operation by a user; characterized by: in response to receiving the predetermined operation by the user, determining whether a combination of a frequency band and spreading code corresponding to a predetermined pilot channel for a particular cell that provides area-restricted services is previously stored; attempting to detect the combination of the frequency band and spreading code in response to determining that the frequency band and spreading code are previously stored; causing the mobile station to judge whether the mobile station is allowed to go into a standby mode in the particular cell based on the detection of the combination of the frequency band and spreading code; and causing the mobile station to enter the standby mode in the particular cell when the mobile station judges that the mobile station is allowed to be in the standby mode in the particular cell. in response to receiving the predetermined operation by the user, determining whether a combination of a frequency band and spreading code corresponding to a predetermined pilot channel for a particular cell that provides area-restricted services is previously stored; attempting to detect the combination of the frequency band and spreading code in response to determining that the frequency band and spreading code are previously stored; causing the mobile station to judge whether the mobile station is allowed to go into a standby mode in the particular cell based on the detection of the combination of the frequency band and spreading code; and causing the mobile station to enter the standby mode in the particular cell when the mobile station judges that the mobile station is allowed to be in the standby mode in the particular cell.
A device for welding the end faces of thin-walled sheathing on a welding plane with two cylindrical positioning receptacles which are centered to the thin-walled sheathing to be welded relative to their outer diameter, with both receptacles aligned to each other on an alignment base and axially displaceable; characterized in that on the outer side of each receptacle there is a deformed, annular, membrane-type heat exchanger composed of lamellar sheets separated from one another, which are made of a heat-resistant material and whose lower ends are arranged to be in thermal contact with the sheathing.
A landing structure for use with an unmanned aerial vehicle, UAV, comprising a) a winch system comprising a tether (232A, 232B, 332) coupleable to a payload (135, 235A, 235B) and b) a boom with a first landing pad and a second landing pad, wherein the first landing pad and the second landing pad each have a pin that extends below the pad, wherein the landing structure comprises: a landing platform for the UAV; a cavity within the landing platform, wherein the cavity is aligned over a predetermined target location and is sized to allow the winch system of the UAV to pass the payload (135, 235A, 235B), when such is coupled to the tether, through the cavity; a touchdown area for the UAV; a track comprising a slot in the landing platform that runs along the landing platform and along at least a portion of the cavity such that the track guides the UAV to a docked position in which the tether (232A, 232B, 332) is positioned over the cavity, such that the tether (232A, 232B, 332) can raise or lower the payload (135, 235A, 235B), when such is coupled to the tether (232A, 232B, 332), through the cavity, wherein the slot at least partially surrounds the touchdown area such that the UAV is able to land in the touchdown area at a number of different orientations and thrust forward in order to engage the slot which then guides the UAV to the docked position over the cavity, and wherein the slot is configured such that, when the UAV lands in the touchdown area and thrusts forward, the pin in the first landing pad will engage the slot, then the pin in the second landing pad will engage the slot so, as the UAV continues thrust forward, the UAV will follow a path of the slot to the docked position over the cavity. a landing platform for the UAV; a cavity within the landing platform, wherein the cavity is aligned over a predetermined target location and is sized to allow the winch system of the UAV to pass the payload (135, 235A, 235B), when such is coupled to the tether, through the cavity; a touchdown area for the UAV; a track comprising a slot in the landing platform that runs along the landing platform and along at least a portion of the cavity such that the track guides the UAV to a docked position in which the tether (232A, 232B, 332) is positioned over the cavity, such that the tether (232A, 232B, 332) can raise or lower the payload (135, 235A, 235B), when such is coupled to the tether (232A, 232B, 332), through the cavity, wherein the slot at least partially surrounds the touchdown area such that the UAV is able to land in the touchdown area at a number of different orientations and thrust forward in order to engage the slot which then guides the UAV to the docked position over the cavity, and wherein the slot is configured such that, when the UAV lands in the touchdown area and thrusts forward, the pin in the first landing pad will engage the slot, then the pin in the second landing pad will engage the slot so, as the UAV continues thrust forward, the UAV will follow a path of the slot to the docked position over the cavity.
Respiratory mask comprising a mask body and a holding arm arranged on the mask body and projecting upwardly from said mask body, said holding arm comprising a free end, the holding arm further comprising at least a proximal portion and a distal portion, said proximal portion being integrally fixed to the mask body and said distal portion comprising the free end of said holding arm, the distal portion being detachable from the holding arm, the proximal portion and the distal portion of the holding arm each comprising fixing means (10, 15) for fixing a headgear, characterized in that: - the mask body and the holding arm are molded in one piece and made of a resilient soft material, and - the intermediary area between the proximal portion and the distal portion comprises a neck portion forming a neck having a first thickness (Tn) less than a second thickness (Tp) of the proximal portion and less than a third thickness (Td) of the distal portion. - the mask body and the holding arm are molded in one piece and made of a resilient soft material, and - the intermediary area between the proximal portion and the distal portion comprises a neck portion forming a neck having a first thickness (Tn) less than a second thickness (Tp) of the proximal portion and less than a third thickness (Td) of the distal portion.
Seal arrangement for a connection between two connecting elements (4, 6), in particular designed as a monopile and a transition piece, of an offshore structure, preferably an offshore wind turbine, in particular a substructure thereof, in which an upper connecting element and a lower connecting element are inserted into one another so as to clamp at least one sealing unit (8, 8') in order to produce a stable connection, comprising one of the connecting elements (4, 6) and the at least one seal unit (8, 8') attached to the connecting element (4, 6), the at least one seal unit (8, 8') being attached to the connecting element (4, 6) such that the seal unit (8, 8') is arranged in a connection position between an inner connecting surface of the one connecting element (4, 6) and an outer connecting surface of the other connecting element (4, 6), characterized in that the at least one seal unit (8, 8') is designed to be load-bearing, such that said seal unit spaces the connecting elements (4, 6) apart from one another in the connection position and supports the upper connecting element, at least one seal unit (8, 8') having at least one elastic sealing element which extends over the entire circumference thereof in the circumferential direction and the thickness of which is greater than the thickness (D') of an adjoining region of the seal unit (8, 8').
A portable air conditioner used for conditioning indoors which can be integrated with a door leaf comprises, • at least an inner unit including an opening through which the conditioned air is discharged, having an evaporator, fan and expansion valve therein, the inner unit being configured for use in the area that is to be conditioned and adapted for being integrated with the door leaf of a door, • at least an outer unit configured for use outside the area to be conditioned, which comprises a condenser and a compressor therein, • at least a body that extends between bottom portions of the inner unit and the outer unit, which connects the inner unit and the outer unit to each other, and includes at least a connection path comprising a passage channel for the coupling of the pipes between the inner unit and the outer unit; • at least two wheels located at the bottom of the body and configured for being used for moving the body; • a housing adapted for being placed between side walls of the inner unit and the outer unit that are facing each other and on the connection path, and configured for receiving the door leaf therein. • at least an inner unit including an opening through which the conditioned air is discharged, having an evaporator, fan and expansion valve therein, the inner unit being configured for use in the area that is to be conditioned and adapted for being integrated with the door leaf of a door, • at least an outer unit configured for use outside the area to be conditioned, which comprises a condenser and a compressor therein, • at least a body that extends between bottom portions of the inner unit and the outer unit, which connects the inner unit and the outer unit to each other, and includes at least a connection path comprising a passage channel for the coupling of the pipes between the inner unit and the outer unit; • at least two wheels located at the bottom of the body and configured for being used for moving the body; • a housing adapted for being placed between side walls of the inner unit and the outer unit that are facing each other and on the connection path, and configured for receiving the door leaf therein.
A polypeptide comprising a contiguous amino acid sequence that is at least 90% identical to the amino acid sequence of SEQ ID NO: 1, wherein the polypeptide comprises one of the following pairs of substitutions of the corresponding amino acids in SEQ ID NO: 1: K91N and D93T/S or D93N and G95T/S; wherein the polypeptide is suitable for use in the treatment or prevention of a metabolic disease, a metabolic-associated disease, a body weight disorder or a glucose metabolism disorder. K91N and D93T/S or D93N and G95T/S; wherein the polypeptide is suitable for use in the treatment or prevention of a metabolic disease, a metabolic-associated disease, a body weight disorder or a glucose metabolism disorder.
A collapsible medical device (10, 18, 18a, 30, 40, 50, 60, 70, 80, 90, 100, 120, 140, 150, 160, 170) comprising a longitudinal assembly of at least two discrete interconnectable components (300-315, 350-361, 380, 390, 400, 410, 420, 450), configured for manual assembly and optionally also for manual disassembly, at least two of the interconnectable components each comprising: at least one layer of a plurality of metal strands woven into a tubular woven metal fabric having a proximal end and a distal end, at least one end having a securement means (462, 532, 534, 546, 548) for securing at least one end of the tubular woven metal fabric, thereby gathering the strands and inhibiting unraveling of the strands, the tubular woven metal fabric having an expanded preset configuration shaped as a component of a device selected from the group consisting of occlusion devices, filters, shunts and flow restrictors, the expanded preset configuration being deformable to a lesser cross-sectional dimension for delivery through a channel in a patient's body, the woven metal fabric having a memory property whereby the collapsible medical device tends to return to the expanded preset configuration when unconstrained, wherein at least one end of each interconnectable component includes a connector (454, 522, 524, 542, 544) for connecting the interconnectable components to one another and wherein each said connector includes the securement means (462, 532, 534, 546, 548) for securing an end of the tubular woven metal fabric.
Method of regulating a cooling capacity of a closed gas expansion cooling circuit, with a high pressure and a low pressure side, where a gaseous cooling medium goes through a work cycle based on compression, pre-cooling, expansion and thereafter heat exchange with a fluid that is to be cooled down, where a reduction in the cooling capacity is achieved by the steps of: - removing a fraction of cooling medium at the high pressure from the cooling circuit and cooling the fraction of cooling medium at the high pressure to a temperature lower than the lowest pre-cooling temperature of the cooling medium in the cooling circuit; - expanding the fraction of the cooling medium across an expansion device to a lower pressure lower than said high pressure so that at least a fraction of the cooling medium separates as a cold liquid; - separating the liquid from non-condensed gas for temporary storage in a storage unit not belonging to the otherwise closed cooling circuit, such that the liquid is not circulating in the cooling circuit; - returning the non-condensed gas and evaporated cooling medium from the storage unit to the cooling circuit; and where an increase in the cooling capacity is achieved by the steps of - evaporating the stored liquid cooling medium; - returning the evaporated liquid cooling medium to the cooling circuit characterised in that warm gas from the high pressure side of the cooling circuit is used to evaporate the stored liquid cooling medium which is thereafter returned to the low pressure side of the cooling circuit. - removing a fraction of cooling medium at the high pressure from the cooling circuit and cooling the fraction of cooling medium at the high pressure to a temperature lower than the lowest pre-cooling temperature of the cooling medium in the cooling circuit; - expanding the fraction of the cooling medium across an expansion device to a lower pressure lower than said high pressure so that at least a fraction of the cooling medium separates as a cold liquid; - separating the liquid from non-condensed gas for temporary storage in a storage unit not belonging to the otherwise closed cooling circuit, such that the liquid is not circulating in the cooling circuit; - returning the non-condensed gas and evaporated cooling medium from the storage unit to the cooling circuit; and - evaporating the stored liquid cooling medium; - returning the evaporated liquid cooling medium to the cooling circuit
A method for producing 2,3,3,3-tetrafluoro-1-propene (HFO-1234yf), comprising; i) fluorinating a tetrachloropropene of Formula CX 2 =CClCX 3 where X is independently selected from H and Cl provided that the total number of Cl atoms is 4, to form CF 3 CCl=CH 2 (HFO-1233xf); ii) fluorinating HFO-1233xf to form CF 3 CFClCH 3 (HFC-244bb); and iii) subjecting HFC-244bb to a dehydrohalogenation reaction, to form HFO-1234yf. i) fluorinating a tetrachloropropene of Formula CX 2 =CClCX 3 where X is independently selected from H and Cl provided that the total number of Cl atoms is 4, to form CF 3 CCl=CH 2 (HFO-1233xf); ii) fluorinating HFO-1233xf to form CF 3 CFClCH 3 (HFC-244bb); and iii) subjecting HFC-244bb to a dehydrohalogenation reaction, to form HFO-1234yf.
A rotary knife fixture (10, 110, 210, 310, 410) configured for use in a water knife cutting system (10, 110, 210, 310, 410), characterized by: a blade holder ring (122, 122a, 122b, 122c, 222, 222a, 222b, 322a, 322b), defining an internal aperture, configured to be placed in fluid communication with a hydraulic feed conduit of the water knife cutting system (10, 110, 210, 310, 410) and for rotary motion about a rotational axis (134, 234, 334, 434, 534) extending through the aperture; and at least two spaced, angularly offset, parallel groups (116a, 116b, 116c, 216a, 216b, 316a, 316b, 416a, 416b, 416c, 516a, 516b) of parallel cutting blades, extending across the aperture generally perpendicular to the rotational axis (134, 234, 334, 434, 534), each cutting blade having a sharpened cutting edge (116', 216') at one side thereof and being twisted generally about a center point thereof to define a pair of cutting edges (116', 216') oriented in opposite-facing circumferential directions, whereby in use a vegetable product, fed through the apertur at a product speed, and with the rotary knife fixture rotating at a rotational speed, is substantially simultaneously cut into multiple helically twisted pieces (14, 140, 145, 150, 155, 160, 165, 170, 175, 180, 240). a blade holder ring (122, 122a, 122b, 122c, 222, 222a, 222b, 322a, 322b), defining an internal aperture, configured to be placed in fluid communication with a hydraulic feed conduit of the water knife cutting system (10, 110, 210, 310, 410) and for rotary motion about a rotational axis (134, 234, 334, 434, 534) extending through the aperture; and at least two spaced, angularly offset, parallel groups (116a, 116b, 116c, 216a, 216b, 316a, 316b, 416a, 416b, 416c, 516a, 516b) of parallel cutting blades, extending across the aperture generally perpendicular to the rotational axis (134, 234, 334, 434, 534), each cutting blade having a sharpened cutting edge (116', 216') at one side thereof and being twisted generally about a center point thereof to define a pair of cutting edges (116', 216') oriented in opposite-facing circumferential directions, whereby in use a vegetable product, fed through the apertur at a product speed, and with the rotary knife fixture rotating at a rotational speed, is substantially simultaneously cut into multiple helically twisted pieces (14, 140, 145, 150, 155, 160, 165, 170, 175, 180, 240).
An electromechanically actuated, hydraulic control valve with a slide pair (4B, 6D) arranged in a valve housing which is in fluid communication with at least three hydraulic-fluid ports (2B, 2C, 2D), wherein a first and a second axially movable valve slide (4B, 6D) are, independently of each other, arranged to sealingly abut corresponding portions of a double valve seat, characterized in that each valve slide (4B, 6D) is provided with a slide nut (4C, 6E) which is in engagement with an external threaded portion on the valve slide (4B, 6D) and is connected via transmission means (4D, 4E, 4F; 6F, 6G, 6H) to an actuator (4G, 6I), and to each valve slide (4B, 6D), a position sensor (4H, 6I) is connected, arranged to indicate a rotational motion of the slide nut (4C, 6E).