mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a compression garment for clothing a body part to maintain a predetermined compression of the garment about said body part, said garment being formed from two or more panels (19, 21) of stretchable material joined by a seam, each panel (19, 21) having a warp stretch, the method comprising the steps of: measuring the average warp stretch of at least a first panel of predetermined size to be used in forming the garment; characterized by reducing the size of the panel if warp stretch is greater than a preferred average warp stretch by a percentage amount determined by dividing the warp stretch of the panel by said preferred average warp stretch of the panel and multiplying this by the numerical constant π; increasing the size of the panel if warp stretch is less than said preferred average warp stretch by a percentage amount determined by dividing the warp stretch of the panel by said preferred average warp stretch of the panel and multiplying this by the numerical constant π. measuring the average warp stretch of at least a first panel of predetermined size to be used in forming the garment; characterized by reducing the size of the panel if warp stretch is greater than a preferred average warp stretch by a percentage amount determined by dividing the warp stretch of the panel by said preferred average warp stretch of the panel and multiplying this by the numerical constant π; increasing the size of the panel if warp stretch is less than said preferred average warp stretch by a percentage amount determined by dividing the warp stretch of the panel by said preferred average warp stretch of the panel and multiplying this by the numerical constant π.
A system comprising: (a) a data center comprising a water cooling subsystem configured to receive cool water and output warm water; and (b) a water desalination plant co-located with the data center and configured to i. receive the output warm water from the data center; and ii. desalinate the output warm water received from the data center, wherein the water desalination plant is a reverse osmosis desalination plant, wherein the cool water is received from an ocean or sea, wherein the water cooling subsystem comprises a water intake, wherein the water intake is positioned at a depth of 15 m or more in the sea or ocean and wherein the water intake is positioned below the photic zone in the sea or ocean. (a) a data center comprising a water cooling subsystem configured to receive cool water and output warm water; and (b) a water desalination plant co-located with the data center and configured to i. receive the output warm water from the data center; and ii. desalinate the output warm water received from the data center, wherein the water desalination plant is a reverse osmosis desalination plant, i. receive the output warm water from the data center; and ii. desalinate the output warm water received from the data center, wherein the water desalination plant is a reverse osmosis desalination plant, wherein the cool water is received from an ocean or sea, wherein the water cooling subsystem comprises a water intake, wherein the water intake is positioned at a depth of 15 m or more in the sea or ocean and wherein the water intake is positioned below the photic zone in the sea or ocean.
A process for the preparation of N-(5-((5 R,6 S)-5-amino-6-fluorooxepan-2-yl)-1-methyl-1 H- pyrazol-4-yl)-2-(2,6-difluorophenyl)thiazole-4-carboxamide comprising the steps of: (i). treating 1-methyl-4-nitro-5-(2,3,4,7-tetrahydrooxepin-2-yl)-1 H -pyrazole with an N-chlorosulfonamide and a bromine source to afford the aziridine 19 (ii) treating 19 with a nucleophilic fluoride source to afford 20, (iii) contacting 20 with a first cleavage reagent selected from a thiol and strong base or trifluoromethyl sulfonic acid to afford 8 (iv) introducing a amine protecting group to afford 21 (v) reducing 21 to afford 22 (vi) condensing 22 with 2-(2,6-difluorophenyl)thiazole-4-carboxylic acid in the presence of an activating agent to afford 23 (vii) treating 23 with a second cleavage reagent to afford 1, wherein R 1 is nitrophenyl or tert- Butyl and R 2 is selected from the group consisting of Boc, Fmoc and Cbz. (i). treating 1-methyl-4-nitro-5-(2,3,4,7-tetrahydrooxepin-2-yl)-1 H -pyrazole with an N-chlorosulfonamide and a bromine source to afford the aziridine 19 (ii) treating 19 with a nucleophilic fluoride source to afford 20, (iii) contacting 20 with a first cleavage reagent selected from a thiol and strong base or trifluoromethyl sulfonic acid to afford 8 (iv) introducing a amine protecting group to afford 21 (v) reducing 21 to afford 22 (vi) condensing 22 with 2-(2,6-difluorophenyl)thiazole-4-carboxylic acid in the presence of an activating agent to afford 23 (vii) treating 23 with a second cleavage reagent to afford 1,
An expression vector comprising 5' Chinese Hamster Elongation Factor-1α (CHEF1) transcriptional regulatory DNA and a cytomegalovirus promoter comprising: Sequence ID NO: 6; or Sequence ID NO: 7, wherein said expression vector exhibits at least two-fold greater specific productivity compared to a control expression vector having the 5' CHEF1 transcriptional regulatory DNA but not comprising the cytomegalovirus promoter.
A clothes treatment apparatus comprising: a cabinet comprising an accommodation space to accommodate clothes therein; a heated air generating device configured to generate heated air; a steam generating device configured to generate steam; a moving nozzle device configured to supply at least one of the steam and heated air to the accommodation space selectively, when moving within the accommodation space, in communication with the heated air generating device and the steam generating device; wherein the moving nozzle device comprises: a guide part and a nozzle moving part configured to linearly reciprocate along the guide part on an inner circumferential surface of the accommodation space; characterised in that the moving nozzle device further comprises: an arm supporting part rotatably provided in the nozzle moving part; a pair of nozzle arms rotatably coupled to opposite ends of the arm supporting part, to spray at least one of the heated air and steam to the accommodation space, in communication with the heated air generating device and the steam generating device. a cabinet comprising an accommodation space to accommodate clothes therein; a heated air generating device configured to generate heated air; a steam generating device configured to generate steam; a moving nozzle device configured to supply at least one of the steam and heated air to the accommodation space selectively, when moving within the accommodation space, in communication with the heated air generating device and the steam generating device; wherein the moving nozzle device comprises: a guide part and a nozzle moving part configured to linearly reciprocate along the guide part on an inner circumferential surface of the accommodation space; characterised in that the moving nozzle device further comprises: an arm supporting part rotatably provided in the nozzle moving part; a pair of nozzle arms rotatably coupled to opposite ends of the arm supporting part, to spray at least one of the heated air and steam to the accommodation space, in communication with the heated air generating device and the steam generating device. an arm supporting part rotatably provided in the nozzle moving part; a pair of nozzle arms rotatably coupled to opposite ends of the arm supporting part, to spray at least one of the heated air and steam to the accommodation space, in communication with the heated air generating device and the steam generating device.
A distributed power and communications system for an aircraft having a fuselage formed, in a longitudinal direction, from a plurality of sections (12, 14, 16) with section breaks (18, 20, 22) defined between adjacent sections, the system comprising: a plurality of modular power and communication equipment centers "MECs" (44, 46, 48) spatially distributed throughout the aircraft, each of the MECs being configured to independently receive primary, high voltage alternating current, power from one or more primary power sources (34a, 34b, 36a, 36b) and provide low voltage secondary electrical power and communication data for independently servicing equipment loads, wherein the term high voltage alternating current is defined as 230 VAC and low voltage is defined as 28VDC or 115VDC; and a plurality of remote modular power and communication equipment centers "RMECs" distributed throughout the aircraft, each of the RMECs being configured to receive secondary electrical power and communication data from the MEC closest in spatial proximity, each of the RMECs positioned and associated with a zone of one or more power and communication data elements in spatial proximity of a respective RMEC, and each RMEC being configured to distribute electrical power to and collect data from the power and communication data elements of an associated zone, characterized in that the system is configured such that one or more MECs (44, 46, 48) is located in each aircraft section and secondary electrical power is not distributed across aircraft section breaks (18, 20, 22). a plurality of modular power and communication equipment centers "MECs" (44, 46, 48) spatially distributed throughout the aircraft, each of the MECs being configured to independently receive primary, high voltage alternating current, power from one or more primary power sources (34a, 34b, 36a, 36b) and provide low voltage secondary electrical power and communication data for independently servicing equipment loads, wherein the term high voltage alternating current is defined as 230 VAC and low voltage is defined as 28VDC or 115VDC; and a plurality of remote modular power and communication equipment centers "RMECs" distributed throughout the aircraft, each of the RMECs being configured to receive secondary electrical power and communication data from the MEC closest in spatial proximity, each of the RMECs positioned and associated with a zone of one or more power and communication data elements in spatial proximity of a respective RMEC, and each RMEC being configured to distribute electrical power to and collect data from the power and communication data elements of an associated zone, characterized in that the system is configured such that one or more MECs (44, 46, 48) is located in each aircraft section and secondary electrical power is not distributed across aircraft section breaks (18, 20, 22).
Seat shell comprising a one-piece shaped wooden shell which has a seat part and a backrest part and which in its transition region has a bent portion along a bending axis, the shaped wooden shell comprises a veneer structure comprising a plurality of wood layers (10, 11, 12, 13, 14, 15) glued on top of each other, wherein to the front and rear of the shaped wooden shell, respectively, a top layer made of a wood layer is arranged in the longitudinal direction, and between the top layers a number of middle and outer wood layers (10, 11, 12, 13, 14, 15) in the longitudinal or transverse direction are arranged, and the shaped wooden shell is upholstered, wherein the shaped wooden shell has a transversely extending cutout defined by bars at the edge in the transition region and/or the backrest part, characterizied in that the veneer structure comprises at least nine wood layers (11, 12, 13, 14, 15) with at least two middle wood layers in the transverse direction, at least one middle wood layer in the longitudinal direction being arranged therebetween, and the at least two middle wood layers in the transverse direction having a greater thickness than the outer wood layers in the transverse direction.
A method in a network node (110, 140) for supporting compensation of a cell outage in a cellular communications network, the cellular communications network comprising a compensating cell for compensating the cell outage and a supporting cell neighbouring the compensating cell, wherein the method comprises: - obtaining (502, 1202) a sub-band of a system bandwidth for uplink scheduling of resources for the compensating cell, wherein the obtaining (502, 1202) of the sub-band is based on one or more parameters, and wherein the system bandwidth comprises a total allocated bandwidth for the uplink scheduling of the resources for the compensating cell; - scheduling (503, 802, 1203), in response to the cell outage, the resources for the supporting cell with restricted uplink scheduling within the obtained sub-band, wherein the scheduling (503, 802, 1203) of the resources for the supporting cell comprises selecting the resources from one or both ends of the obtained sub-band, thereby leaving an inner region thereof without the scheduled resources, and wherein the restricted uplink scheduling within the obtained sub-band is restricted by deliberately avoiding the scheduling (503, 802, 1203) of at least some resources for the supporting cell, within the obtained sub-band; and - applying the scheduled resources in the supporting cell with the restricted uplink scheduling within the obtained sub-band, thereby supporting the compensation of the cell outage by decreasing interference within the obtained sub-band in the compensating cell. - obtaining (502, 1202) a sub-band of a system bandwidth for uplink scheduling of resources for the compensating cell, wherein the obtaining (502, 1202) of the sub-band is based on one or more parameters, and wherein the system bandwidth comprises a total allocated bandwidth for the uplink scheduling of the resources for the compensating cell; - scheduling (503, 802, 1203), in response to the cell outage, the resources for the supporting cell with restricted uplink scheduling within the obtained sub-band, wherein the scheduling (503, 802, 1203) of the resources for the supporting cell comprises selecting the resources from one or both ends of the obtained sub-band, thereby leaving an inner region thereof without the scheduled resources, and wherein the restricted uplink scheduling within the obtained sub-band is restricted by deliberately avoiding the scheduling (503, 802, 1203) of at least some resources for the supporting cell, within the obtained sub-band; and - applying the scheduled resources in the supporting cell with the restricted uplink scheduling within the obtained sub-band, thereby supporting the compensation of the cell outage by decreasing interference within the obtained sub-band in the compensating cell.
An apparatus for measuring displacement of a moving diaphragm in an electroacoustic transducer having a magnetic structure and a voice coil assembly comprising at least a voice coil aligned with the magnetic structure, one of the magnetic structure or the voice coil assembly coupled to the diaphragm, the apparatus comprising: a first interface terminal configured to be electrically coupled to a first input of the voice coil; a second interface terminal configured to be electrically coupled to the magnetic structure; a first circuit configured to be coupled to at least the first input of the voice coil and operable to provide a modulated electrical signal based on changes in capacitance between the voice coil assembly and the magnetic structure resulting from relative motion between the voice coil assembly and the magnetic structure, characterized in that the first circuit comprises a frequency generator operable to apply a carrier signal having a frequency above an operating range of the electroacoustic transducer to the voice coil through the first interface terminal; and a change in capacitance between the voice coil assembly and the magnetic structure, resulting from relative motion between the voice coil assembly and the magnetic structure, modulates the amplitude of the carrier signal as the carrier signal propagates to the magnetic structure through capacitive coupling between the voice coil and the magnetic structure. a first interface terminal configured to be electrically coupled to a first input of the voice coil; a second interface terminal configured to be electrically coupled to the magnetic structure; a first circuit configured to be coupled to at least the first input of the voice coil and operable to provide a modulated electrical signal based on changes in capacitance between the voice coil assembly and the magnetic structure resulting from relative motion between the voice coil assembly and the magnetic structure, a frequency generator operable to apply a carrier signal having a frequency above an operating range of the electroacoustic transducer to the voice coil through the first interface terminal; and a change in capacitance between the voice coil assembly and the magnetic structure, resulting from relative motion between the voice coil assembly and the magnetic structure, modulates the amplitude of the carrier signal as the carrier signal propagates to the magnetic structure through capacitive coupling between the voice coil and the magnetic structure.
A granular column aggregate drill including a drill flight where, the drill is a tubular drill including a drill body which is a tube, such that the drill flight is attached to a body outer surface of the drill body and the body outer surface is the exposed outer surface of the drill body characterised in that, the drill body includes one or more compactors (60,67,68), where each compactor (60,67,68) present extends radially from the drill body and each compactor (60,67,68) extends, at least partially, between two facing portions of the drill flight such that each compactor (60,67,68) present is a minimum of 1m to 3m from a ground terminal end of the drill.
Buffer element for use as a stop for a movable component, in particular a front or rear cover of a motor vehicle, on a supporting component, in particular of a body, having a securing element which can be secured to the supporting or movable component, and having a buffer which is retained indirectly or directly by means of the securing element, wherein the buffer can be adjusted in terms of height with respect to the securing element, wherein the buffer has a buffer body which faces away from the securing element and a connection element which faces the securing element, and wherein the connection element engages in a non-positive-locking and/or positive-locking manner in the securing element, wherein the position of the connection element can be adjusted and locked with respect to the securing element, characterised in that the securing element has a cylindrical side wall, wherein the side wall has an outer thread, and wherein the side wall is screwed to a sleeve which has a corresponding inner thread, and wherein there is provided a securing ring by means of which the position of the buffer with respect to the outer thread of the side wall can be locked by supporting the securing ring in an upward direction with respect to the buffer body and the securing ring acting on the sleeve which is arranged in the lower region of the buffer, wherein the securing ring tensions the inner thread of the sleeve with respect to the outer thread of the side wall.
Mobile side circuitry of a wireless power transmission system, comprising: a mobile side resonant circuit (24, 26) adapted to inductively couple the mobile side circuitry to a stationary side circuitry of the wireless power transmission system; a mobile side rectifier stage adapted to rectify an input signal for supply of power to a mobile side load; and a mobile side transformer stage connected at its input side to the mobile side resonant circuit (24, 26) and connected at its output side to the mobile side rectifier stage (28; 40_1,..., 40_n); characterized in that the mobile side transformer stage comprises at least one primary side winding (36_1,..., 36_n, 36) and a plurality of secondary side windings (38_1,..., 38_n); the mobile side rectifier stage comprises a plurality of mobile side AC/DC converters (40_1,..., 40_n) each connected to one of the plurality secondary side windings (38_1,..., 38_n); wherein output terminal pairs (42_1,..., 42_n) of the plurality of mobile side AC/DC converters (40_1,..., 40_n) are connected in series or output terminal pairs (42_1,..., 42_n) of the plurality of mobile side AC/DC converters (40_1,..., 40_n) are connected in parallel or mobile side AC/DC converters (40_1,..., 40_n) are grouped into a plurality of mobile side output groups (48_1,..., 48_g) such that output terminal pairs within each mobile side output group (48_1,..., 48_g) are connected in series and output terminal pairs of different mobile side output groups (48_1,..., 48_g) are connected in parallel. a mobile side resonant circuit (24, 26) adapted to inductively couple the mobile side circuitry to a stationary side circuitry of the wireless power transmission system; a mobile side rectifier stage adapted to rectify an input signal for supply of power to a mobile side load; and a mobile side transformer stage connected at its input side to the mobile side resonant circuit (24, 26) and connected at its output side to the mobile side rectifier stage (28; 40_1,..., 40_n); characterized in that the mobile side transformer stage comprises at least one primary side winding (36_1,..., 36_n, 36) and a plurality of secondary side windings (38_1,..., 38_n); the mobile side rectifier stage comprises a plurality of mobile side AC/DC converters (40_1,..., 40_n) each connected to one of the plurality secondary side windings (38_1,..., 38_n); wherein output terminal pairs (42_1,..., 42_n) of the plurality of mobile side AC/DC converters (40_1,..., 40_n) are connected in series or output terminal pairs (42_1,..., 42_n) of the plurality of mobile side AC/DC converters (40_1,..., 40_n) are connected in parallel or mobile side AC/DC converters (40_1,..., 40_n) are grouped into a plurality of mobile side output groups (48_1,..., 48_g) such that output terminal pairs within each mobile side output group (48_1,..., 48_g) are connected in series and output terminal pairs of different mobile side output groups (48_1,..., 48_g) are connected in parallel.