mhurhangee/ep-ind-claims huggingface dataset:
A drying device comprising: a recessed portion (172, 174) into which a suction nozzle (60, 210, 230) is inserted; an air jetting port (188, 194) that is formed on a bottom surface of the recessed portion (172, 174); and a control device that is configured to jet air from the jetting port (188, 194) toward the suction nozzle (60, 210, 230) inserted into the recessed portion (172, 174), and the drying device includes multiple recessed portions (172, 174) having different inner diameters, characterized in that: depths of the multiple recessed portions (172, 174) differ according to the inner diameters. a recessed portion (172, 174) into which a suction nozzle (60, 210, 230) is inserted; an air jetting port (188, 194) that is formed on a bottom surface of the recessed portion (172, 174); and a control device that is configured to jet air from the jetting port (188, 194) toward the suction nozzle (60, 210, 230) inserted into the recessed portion (172, 174), and the drying device includes multiple recessed portions (172, 174) having different inner diameters, characterized in that: depths of the multiple recessed portions (172, 174) differ according to the inner diameters.
A method for the preparation of insulin analogues lacking residues B1-B3, the method comprising: providing a folded single-chain or two-chain insulin-related precursor polypeptide containing Arg or Lys at position B3; digesting the folded single-chain or two-chain insulin-related precursor polypeptide with trypsin to yield a des- tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product; and attaching a B23-B30 peptide segment of insulin or an analogue thereof to the des -tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product by typsin-catalysed semi-synthesis to yield a des -tripeptide-[B1-B3]-insulin analogue. providing a folded single-chain or two-chain insulin-related precursor polypeptide containing Arg or Lys at position B3; digesting the folded single-chain or two-chain insulin-related precursor polypeptide with trypsin to yield a des- tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product; and attaching a B23-B30 peptide segment of insulin or an analogue thereof to the des -tripeptide[B1-B3]- des -octapeptide-[B23-B30]-insulin intermediate product by typsin-catalysed semi-synthesis to yield a des -tripeptide-[B1-B3]-insulin analogue.
A gas turbine engine comprising: a fan, a compressor, a combustor, and a turbine, said turbine including a fan drive turbine which drives said fan through a gear reduction; and the fan including a hub, and a plurality of axial flow fan blades extending radially outwardly of said hub, and a radial compressor impeller positioned radially inwardly of said fan blades, and within said hub, said radial compressor impeller having an upstream inlet that extends generally in an axial direction defined by an axis of rotation of said hub, and said radial compressor impeller having an outlet that extends radially outwardly of said inlet, and into a supply passage (88;100) communicating to the compressor. a fan, a compressor, a combustor, and a turbine, said turbine including a fan drive turbine which drives said fan through a gear reduction; and the fan including a hub, and a plurality of axial flow fan blades extending radially outwardly of said hub, and a radial compressor impeller positioned radially inwardly of said fan blades, and within said hub, said radial compressor impeller having an upstream inlet that extends generally in an axial direction defined by an axis of rotation of said hub, and said radial compressor impeller having an outlet that extends radially outwardly of said inlet, and into a supply passage (88;100) communicating to the compressor.
A strip to be mounted on a window or door frame, a window sill, a beam, a metal connection or a pilaster, comprising a base wall; a first adhesive strip having a first adhesive side, a second second adhesive side opposite the first adhesive side, an inner side and an outer side; an additional adhesive strip which has an adhesive side thereof adhered to the bottom side of the base wall and the opposite side of which is intended to be adhesively connected to or to sealingly abut the window or door frame, the window sill, the beam, the metal connection or the pilaster; the first adhesive strip having its lower, first adhesive side adhered to an upper side of the base wall, and the upper, second adhesive side of the first adhesive strip being intended to be adhered to an edge of an insulating panel, a sheet-metal component or a similar trim member; characterized in that the first adhesive strip is a foamed plastic adhesive strip; and the inside and/or the outside of the foamed plastic adhesive strip has at least one slot (96, 98) to allow a change in distance between the first and second adhesive sides of the foamed plastic adhesive strip.
A method of making a male touch fastener product, the method comprising: shearing distal portions of loops extending from a side of a flexible fabric, leaving fibers extending from the side of the flexible fabric in place of the sheared loops, the fibers extending to respective free distal ends, while leaving other loops extending from the side of the fabric intact, and then heating the distal ends with energy supplied by a linear energy source (54, 68), such that resin of the distal ends flows to form enlarged heads on the extending fibers, while leaving at least some of the other loops intact, wherein, as a result of the shearing and heating, the flexible fabric has both headed fibers and functional loops extending from the side of the flexible fabric, and wherein most of the enlarged heads are disposed closer to the side of the flexible fabric than portions of the intact loops. shearing distal portions of loops extending from a side of a flexible fabric, leaving fibers extending from the side of the flexible fabric in place of the sheared loops, the fibers extending to respective free distal ends, while leaving other loops extending from the side of the fabric intact, and then heating the distal ends with energy supplied by a linear energy source (54, 68), such that resin of the distal ends flows to form enlarged heads on the extending fibers, while leaving at least some of the other loops intact, wherein, as a result of the shearing and heating, the flexible fabric has both headed fibers and functional loops extending from the side of the flexible fabric, and wherein most of the enlarged heads are disposed closer to the side of the flexible fabric than portions of the intact loops.
A method of operating an Adaptive Cruise Control of a subject vehicle, travelling in a first direction and having a first side and a second side, wherein an acceleration surge function is operable when an indicator is actuated by a driver to signal a driving manoeuvre to said first side or said second side, the method comprising: identifying the hand of traffic; and inhibiting the acceleration surge function when the signalled driving manoeuvre is on the same side of the subject vehicle as the hand of traffic' the method being characterised in that identifying the hand of traffic comprises: (a) tracking at least a first object vehicle on said first side of the subject vehicle, and/or detecting the presence or absence of at least a first stationary target on said first side of the subject vehicle; (b) determining a direction of travel of each first object vehicle in relation to the subject vehicle; and (c) identifying the hand of traffic based on the direction of travel of each first object vehicle, and/or the presence or absence of each first stationary target; wherein steps (a) and (b) are repeated for a plurality of first object vehicles; and the hand of traffic identified in step (c) is based on threshold values for a predetermined number of object vehicles travelling in the same direction as the subject vehicle and/or a predetermined number of object vehicles travelling in the opposite direction to the subject vehicle. identifying the hand of traffic; and inhibiting the acceleration surge function when the signalled driving manoeuvre is on the same side of the subject vehicle as the hand of traffic' the method being characterised in that identifying the hand of traffic comprises: (a) tracking at least a first object vehicle on said first side of the subject vehicle, and/or detecting the presence or absence of at least a first stationary target on said first side of the subject vehicle; (b) determining a direction of travel of each first object vehicle in relation to the subject vehicle; and (c) identifying the hand of traffic based on the direction of travel of each first object vehicle, and/or the presence or absence of each first stationary target; (a) tracking at least a first object vehicle on said first side of the subject vehicle, and/or detecting the presence or absence of at least a first stationary target on said first side of the subject vehicle; (b) determining a direction of travel of each first object vehicle in relation to the subject vehicle; and (c) identifying the hand of traffic based on the direction of travel of each first object vehicle, and/or the presence or absence of each first stationary target;
A device for collecting debris from a surface, comprising a catcher and a lifting ramp, wherein the lifting ramp is located forward of the catcher such that when the device is moved over a ground surface, debris on the ground surface passes upwardly over the lifting ramp onto the catcher, characterized in that the lifting ramp is shaped as an inverted aerofoil to create downforce on the lifting ramp toward the ground surface from air moving at high speed across the aerofoil under said movement.
Receiving device for receiving at least one energy storage component, comprising at least one receiving part which delimits at least in sections a mounting frame for receiving the energy storage component, multiple receiving compartments being formed in the receiving part for receiving at least one energy storage component in an exact fit, wherein the receiving part is connected with a cooling device arranged directly adjacent thereto designed to cool the energy storage component to be received in or received in at least one receiving compartment, wherein the receiving part forms a side surface of the receiving device and a further receiving part forming a bottom surface of the receiving device is provided, wherein the cooling device is formed by a coolant channel structure, which is formed in the surface of the further receiving part and comprises at least one coolant channel, wherein at least one coolant inlet communicating with the coolant channel structure and one coolant outlet communicating with the coolant channel structure is provided, wherein the coolant channel structure is covered by at least one plate-shaped cover element, wherein the coolant inlet and the coolant outlet are arranged in a separate region of the plate-shaped cover element which is arranged spatially separate from the regions which delimit the mounting frame
A sensor system comprising: a triplet element comprising a first hydrophone, a second hydrophone, and a third hydrophone configured to receive an incoming signal at a first phase, a second phase, and a third phase, respectively, the first to third hydrophones extending along a first direction; and a processor configured to: determine an incidence direction of the incoming signal based on a depth of the triplet element, a water column depth, a timing of transmission of a signal being reflected back from a seabed and a water surface as the incoming signal, and dynamically generate a cardioid null in the incidence direction to reject the incoming signal based on the incoming signal at the first to third phases. a triplet element comprising a first hydrophone, a second hydrophone, and a third hydrophone configured to receive an incoming signal at a first phase, a second phase, and a third phase, respectively, the first to third hydrophones extending along a first direction; and a processor configured to: determine an incidence direction of the incoming signal based on a depth of the triplet element, a water column depth, a timing of transmission of a signal being reflected back from a seabed and a water surface as the incoming signal, and dynamically generate a cardioid null in the incidence direction to reject the incoming signal based on the incoming signal at the first to third phases. determine an incidence direction of the incoming signal based on a depth of the triplet element, a water column depth, a timing of transmission of a signal being reflected back from a seabed and a water surface as the incoming signal, and dynamically generate a cardioid null in the incidence direction to reject the incoming signal based on the incoming signal at the first to third phases.
Fluid system having a substrate in which a fluid line is incorporated, a first medium and a second medium in the fluid line and a diaphragm which geometrically separates the fluid line into a first volume and a second volume and which provides an open-pore microstructure having a pore surface for the passage of a first medium and a second medium between which a boundary face is formed, wherein between the boundary face and the pore surface there is a contact angle, having electrodes for applying an electrical field in the region of the diaphragm, wherein the diaphragm in a first state Z 1 having a first electrical field E 1 has a pore surface which is not wetted or is wetted to a lesser extent by the first medium and a pore surface which is wetted to a greater extent by the second medium so that between the pore surface and the boundary face in the first medium a first contact angle Θ 1 > 90° is formed, and wherein the first medium and the second medium and the pore surface have a surface energy of which at least one surface energy can be changed in accordance with the electrical field in such a reversible manner that in a second state Z 2 with a second electrical field E 2 ≠ E 1 a second contact angle Θ 2 < Θ 1 is produced between the pore surface and the boundary face, wherein a first of the electrodes is formed by a conductive substrate of the diaphragm or a conductive coating of the diaphragm, and wherein in the first and the second volume a second electrode is arranged in each case directly adjacent to the diaphragm.
An X-ray imaging system for differential phase contrast imaging, comprising - a differential phase contrast setup with: - an X-ray source and an X-ray detector; - a grating arrangement comprising a source grating, a phase grating and an analyser grating, wherein the source grating is arranged between the X-ray source and the phase grating, and the analyser grating is arranged between the phase grating and the detector; and - a moving arrangement for a relative movement between an object under examination and at least one of the gratings; - a processing unit; and - a translation arrangement for translating the source grating; wherein the phase grating, the analyser grating and the detector are provided as a rigid interferometer unit, in which the phase grating and the analyser grating are mounted in parallel to each other; wherein the source grating is misaligned in respect to the interferometer unit such that moire fringes are detectable in the plane of the detector; wherein the processing unit is configured to detect moire patterns in signals provided by the detector upon X-ray radiation; and wherein the processing unit is further configured to compute a translation signal for translating the source grating for achieving a predetermined moire pattern; and characterised in that the translation arrangement is configured to adjust the positioning of the source grating at least in the X-ray projection direction, based on the value of the translation signal, such that at least one complete moiré fringe shows up accross the width D of the detector. - a differential phase contrast setup with: - an X-ray source and an X-ray detector; - a grating arrangement comprising a source grating, a phase grating and an analyser grating, wherein the source grating is arranged between the X-ray source and the phase grating, and the analyser grating is arranged between the phase grating and the detector; and - a moving arrangement for a relative movement between an object under examination and at least one of the gratings; - a processing unit; and - a translation arrangement for translating the source grating;
A compound of Formula I, or salt thereof, wherein: MBG is 1H-tetrazol-1-yl or 2H-tetrazol-2-yl; R 1 is fluoro; R 2 is fluoro; R 3 is thienyl, thiazolyl, quinolinyl, pyridyl, benzothiazolyl, pyrimidinyl, quinoxalinyl, pyrazinyl, or pyridiazinyl, each optionally substituted with 1, 2 or 3 independent R 5; R 4 is 2,4-difluorophenyl; each R 5 is independently H, halo, aryl optionally substituted with 1, 2 or 3 independent R 6, heteroaryl, haloalkyl, haloalkoxy, cyano, nitro, alkyl, alkoxy, alkenyl, haloalkenyl, arylalkenyl, alkynyl, haloalkynyl, alkylaryl,arylalkynyl, arylalkyl, cycloalkyl, halocycloalkyl, thioalkyl, SF 3, SF 6, SCN, SO 2 R 7, C alkyl, C OH, C Oalkyl; each R 6 is independently alkyl, thioalkyl, cyano, haloalkyl, hydroxy, alkoxy, halo, haloalkoxy, -C alkyl, -C OH, -C Oalkyl, SF 3, SF 6, SCN, SO 3 H; and SO 2 R 7; R 7 is independently alkyl, aryl, substituted aryl, heteroaryl or substituted heteroaryl; R 8 is H; and wherein R 3 is not 2-pyridyl optionally substituted with 1, 2 or 3 independent R 5. MBG is 1H-tetrazol-1-yl or 2H-tetrazol-2-yl; R 1 is fluoro; R 2 is fluoro; R 3 is thienyl, thiazolyl, quinolinyl, pyridyl, benzothiazolyl, pyrimidinyl, quinoxalinyl, pyrazinyl, or pyridiazinyl, each optionally substituted with 1, 2 or 3 independent R 5; R 4 is 2,4-difluorophenyl; each R 5 is independently H, halo, aryl optionally substituted with 1, 2 or 3 independent R 6, heteroaryl, haloalkyl, haloalkoxy, cyano, nitro, alkyl, alkoxy, alkenyl, haloalkenyl, arylalkenyl, alkynyl, haloalkynyl, alkylaryl,arylalkynyl, arylalkyl, cycloalkyl, halocycloalkyl, thioalkyl, SF 3, SF 6, SCN, SO 2 R 7, C alkyl, C OH, C Oalkyl; each R 6 is independently alkyl, thioalkyl, cyano, haloalkyl, hydroxy, alkoxy, halo, haloalkoxy, -C alkyl, -C OH, -C Oalkyl, SF 3, SF 6, SCN, SO 3 H; and SO 2 R 7; R 7 is independently alkyl, aryl, substituted aryl, heteroaryl or substituted heteroaryl; R 8 is H;
A method for carrier aggregation operable by a mobile device in a wireless communication network, the method comprising: identifying a first component carrier and a second component carrier among a plurality of component carriers to be aggregated, wherein a first number of subframes of a subframe type in the first component carrier is less than a second number of subframes of the same subframe type in the second component carrier; receiving a configuration to monitor a control channel for the second component carrier on the first component carrier; and determining a reference uplink-downlink subframe configuration for the second component carrier based at least in part on the subframe type and the received configuration for the control channel; wherein the subframe type is one of at least two subframe types, wherein: a first subframe type comprises at least one of a downlink subframe or a special subframe; or a second subframe type comprises an uplink subframe; and wherein the first component carrier is a primary component carrier affiliated with a primary cell, PCell; and the second component carrier is a secondary component carrier affiliated with a secondary cell, SCell; and wherein an SCell physical downlink shared channel, PDSCH, hybrid automatic repeat request, H-ARQ, timing is dependent on a configured Physical Uplink Control Channel, PUCCH, format. identifying a first component carrier and a second component carrier among a plurality of component carriers to be aggregated, wherein a first number of subframes of a subframe type in the first component carrier is less than a second number of subframes of the same subframe type in the second component carrier; receiving a configuration to monitor a control channel for the second component carrier on the first component carrier; and determining a reference uplink-downlink subframe configuration for the second component carrier based at least in part on the subframe type and the received configuration for the control channel; wherein the subframe type is one of at least two subframe types, wherein: a first subframe type comprises at least one of a downlink subframe or a special subframe; or a second subframe type comprises an uplink subframe; and wherein the first component carrier is a primary component carrier affiliated with a primary cell, PCell; and the second component carrier is a secondary component carrier affiliated with a secondary cell, SCell; and a first subframe type comprises at least one of a downlink subframe or a special subframe; or a second subframe type comprises an uplink subframe; and wherein the first component carrier is a primary component carrier affiliated with a primary cell, PCell; and the second component carrier is a secondary component carrier affiliated with a secondary cell, SCell; and wherein an SCell physical downlink shared channel, PDSCH, hybrid automatic repeat request, H-ARQ, timing is dependent on a configured Physical Uplink Control Channel, PUCCH, format.
An installation for conveying people, having at least one travelway (11, 12), along which a plurality of cars may be displaced by means of a plurality of endless hauling cables (21, 22; 23, 24), at least two successive hauling cables (21, 22; 23, 24) being provided, which are each associated with at least one drive, whereby they may be driven independently of one another, to which the cars may be coupled by means of clamping means and which overlap in the mutually associated end regions, whereby the cars may be uncoupled from a first hauling cable and recoupled to a succeeding hauling cable, at least one adjustment means being provided in those regions in which a further hauling cable adjoins a first hauling cable, by which adjustment means that cable run of the further hauling cable to which the car is to be coupled may be moved into the clamping means, which is in the open position, of this car, characterised in that the adjustment means is formed by an adjustment frame translationally adjustable by means of an actuating cylinder or by means of a servomotor, which adjustment frame is provided with two receiving faces (74a, 75a) for in each case one of two neighbouring cable runs (21a, 22a), by which receiving faces (74a, 75a) one of the two cable runs (21a, 22a) may be grasped and moved into the clamping means which is in its open position.