mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a thermoelectric component or at least one semi-finished product of same, in which a multiplicity of thermolegs made of a thermoelectrically active active material are introduced into an essentially planar substrate made of an electrically and thermally insulating substrate material such that the thermolegs extend through the substrate essentially perpendicular to the substrate plane, and in which the active material is provided in pulverulent form, is pressed to give green bodies and is then sintered within the substrate to give thermolegs, characterized in that the pulverulent active material is pressed, in a mould arranged outside the substrate, to give green bodies, the green bodies are pushed out of the mould and into holes provided in the substrate, where they are sintered to give thermolegs, wherein pressing the pulverulent active material to give green bodies and pushing the green bodies into the holes in the substrate is performed with the aid of the same tools and wherein the tools are at least one pair of punches which are inserted from both sides into the mould and of which one engages through the hole provided in the substrate for the respective green body.
A spreading material plant for purposes of spreading material in the form of fibres onto a spreading material belt conveyor so as to form spreading material mats for the manufacture of fibre boards, e.g. MDF boards, with at least one spreading material bunker for the spreading material that is to be spread onto the spreading material belt conveyor, which bunker is designed as a horizontal bunker with at least one floor-mounted metering conveyor, and at least one end-mounted extraction device assigned to the metering conveyor, for purposes of extracting the spreading material onto a spreading material belt conveyor arranged underneath the bunker, wherein the spreading material bunker has at least one topmounted filling opening, to which a chute is connected, via which the spreading material enters the spreading material bunker, characterised in that, at least one braking roller unit is arranged within the chute, which has at least two rotationally driven braking rollers, wherein the braking rollers are spaced apart by a dimension, and are arranged at approximately the same height with parallel axes (a).
A wireless communication method including: configuring one or more parameters of a user device that include a control information format including a first downlink control information, DCI, format scheduling a physical uplink shared channel, PUSCH, in a cell or a second DCI format scheduling a physical downlink shared channel, PDSCH, in the cell; and configuring, by a network device, a user device to operate in a cross slot scheduling mode by transmitting configuration information including the one or more parameters to the user device, wherein, in the cross slot scheduling mode, a slot offset between a first slot for a transmission of a control channel carrying the control information format and a second slot for a transmission of the PUSCH or the PDSCH is greater than zero, the second slot being later than the first slot, and wherein, in case that the control information format includes the second DCI format scheduling the PDSCH the slot offset between the first slot and the second slot carrying the PDSCH is greater than one slot, and in case that the control information format includes the first DCI format scheduling the PUSCH, the slot offset between the first slot and the second slot carrying the PUSCH is greater than six slots. configuring one or more parameters of a user device that include a control information format including a first downlink control information, DCI, format scheduling a physical uplink shared channel, PUSCH, in a cell or a second DCI format scheduling a physical downlink shared channel, PDSCH, in the cell; and configuring, by a network device, a user device to operate in a cross slot scheduling mode by transmitting configuration information including the one or more parameters to the user device, wherein, in the cross slot scheduling mode, a slot offset between a first slot for a transmission of a control channel carrying the control information format and a second slot for a transmission of the PUSCH or the PDSCH is greater than zero, the second slot being later than the first slot, and wherein, in case that the control information format includes the second DCI format scheduling the PDSCH the slot offset between the first slot and the second slot carrying the PDSCH is greater than one slot, and in case that the control information format includes the first DCI format scheduling the PUSCH, the slot offset between the first slot and the second slot carrying the PUSCH is greater than six slots.
Device for providing a vacuum for vacuum-treating wounds on the human body, comprising a vacuum-generating apparatus and a container for receiving liquids in an interior of the container, in particular wound secretions suctioned from a wound, said container comprising a connection for a suction line leading to the body, the vacuum-generating apparatus being arranged in a first housing part of the device and the container being formed by a second housing part of the device, it being possible for the housing parts (4, 6) to be releasably fixed to one another, and the device having a beltlike holding means such that it can be worn on the user's body and carried around, the device having a rear face, which faces the user's body in a mobile wearing position, a front face, which is opposite said rear face, faces away from the user's body and forms a visible face of the device, and a peripheral face, which connects said front face and said rear face, characterized in that the holding means can be releasably fixed to the device in such a way that the holding means cover a transparent region of a wall of the second housing part in an operating position, through which transparent region the interior of the container can be inspected when the holding means is not in the operating position, the transparent region of the wall of the second housing part being formed in the peripheral face of the device.
An ice making apparatus for making ice of the nugget-forming type from ice shavings that are compacted, comprising: (a) a refrigeration system for providing refrigerant to a freezing chamber of the hollow cylinder type; (b) a freezing chamber with a generally hollow cylindrical inner wall and means for receiving water therein for forming ice on said cylindrical inner wall; (c) a rotatable ice auger (22, 72, 272) sized to fit inside said freezing chamber and comprising means for scraping ice formed on the wall of said chamber and conveying the ice from the wall of said chamber, along said rotatable auger (22, 72, 272), to ice compression means; (d) means to cause rotation of said ice auger (22, 72, 272); (e) means for supplying water to said freezing chamber; (f) ice compression means for receiving ice from said freezing chamber and compressing it into compacted solid form while squeezing water therefrom; (g) said freezing chamber and its said auger (22, 72, 272) being generally horizontally disposed, with said auger (22, 72, 272) being driven for rotation about a generally horizontal axis, and characterized by (h) means for pushing ice upwardly into a generally vertically disposed chamber. (a) a refrigeration system for providing refrigerant to a freezing chamber of the hollow cylinder type; (b) a freezing chamber with a generally hollow cylindrical inner wall and means for receiving water therein for forming ice on said cylindrical inner wall; (c) a rotatable ice auger (22, 72, 272) sized to fit inside said freezing chamber and comprising means for scraping ice formed on the wall of said chamber and conveying the ice from the wall of said chamber, along said rotatable auger (22, 72, 272), to ice compression means; (d) means to cause rotation of said ice auger (22, 72, 272); (e) means for supplying water to said freezing chamber; (f) ice compression means for receiving ice from said freezing chamber and compressing it into compacted solid form while squeezing water therefrom; (g) said freezing chamber and its said auger (22, 72, 272) being generally horizontally disposed, with said auger (22, 72, 272) being driven for rotation about a generally horizontal axis, and characterized by (h) means for pushing ice upwardly into a generally vertically disposed chamber.
A wind turbine assembly comprising: a plurality of sails; a brake assembly including: a magnet assembly that rotates with rotation of the plurality of sails; a plate initially spaced-apart from the magnet assembly; and an actuator for translating the plate relative to the magnet assembly during rotation thereof to thereby induce eddy currents that create a magnetic field acting on the plate to impart a retarding force to control the rotational speed thereof; and a control module configured to control the actuator to adjust the spacing between the magnet assembly and the plate in order to maintain the wind turbine assembly at a predetermined speed; and a generator assembly configured to convert rotation thereabout to power, wherein the generator assembly includes: at least two magnet rings configured to rotate with rotation of the plurality of sails; and a coil mold between the at least two magnet rings and having a plurality of coil packs therein. a plurality of sails; a brake assembly including: a magnet assembly that rotates with rotation of the plurality of sails; a plate initially spaced-apart from the magnet assembly; and an actuator for translating the plate relative to the magnet assembly during rotation thereof to thereby induce eddy currents that create a magnetic field acting on the plate to impart a retarding force to control the rotational speed thereof; and a magnet assembly that rotates with rotation of the plurality of sails; a plate initially spaced-apart from the magnet assembly; and an actuator for translating the plate relative to the magnet assembly during rotation thereof to thereby induce eddy currents that create a magnetic field acting on the plate to impart a retarding force to control the rotational speed thereof; and a control module configured to control the actuator to adjust the spacing between the magnet assembly and the plate in order to maintain the wind turbine assembly at a predetermined speed; and a generator assembly configured to convert rotation thereabout to power, wherein the generator assembly includes: at least two magnet rings configured to rotate with rotation of the plurality of sails; and a coil mold between the at least two magnet rings and having a plurality of coil packs therein. at least two magnet rings configured to rotate with rotation of the plurality of sails; and a coil mold between the at least two magnet rings and having a plurality of coil packs therein.
An absorbent article comprising: a fluid permeable cover layer; a first absorbent layer; a second absorbent layer; a fluid impermeable barrier layer; a longitudinally extending centerline; a transversely extending centerline; a first end region and a second end region; a central region arranged between the first and second end regions; a first longitudinal edge; a second longitudinal edge; a first transverse edge; a second transverse edge; a main absorbent body; a first embossing pattern having a first portion arranged in the first end region and a second portion arranged in the second end region, each of the first and second portions including a plurality of interconnected channels, the interconnected channels defining a plurality of body facing protrusions; a second embossing pattern including at least one channel arranged in the central region and extending in a longitudinal direction of the article, the at least one channel intersecting at least one of the plurality of interconnected channels in the first end region and at least one of the plurality of interconnected channels in the second end region; wherein the embossed regions of the first and second embossed patterns are formed such that they extend into cover layer, first absorbent layer and second absorbent layer. a fluid permeable cover layer; a first absorbent layer; a second absorbent layer; a fluid impermeable barrier layer; a longitudinally extending centerline; a transversely extending centerline; a first end region and a second end region; a central region arranged between the first and second end regions; a first longitudinal edge; a second longitudinal edge; a first transverse edge; a second transverse edge; a main absorbent body; a first embossing pattern having a first portion arranged in the first end region and a second portion arranged in the second end region, each of the first and second portions including a plurality of interconnected channels, the interconnected channels defining a plurality of body facing protrusions; a second embossing pattern including at least one channel arranged in the central region and extending in a longitudinal direction of the article, the at least one channel intersecting at least one of the plurality of interconnected channels in the first end region and at least one of the plurality of interconnected channels in the second end region; wherein the embossed regions of the first and second embossed patterns are formed such that they extend into cover layer, first absorbent layer and second absorbent layer.
An implantable leadless pacemaker (102a, 102b) configured to be implanted in or on a first cardiac chamber of a patient and configured to pace the first cardiac chamber and adjust a pacing rate at which the first cardiac chamber is paced based on a pacing rate indicator included in an implant-to-implant (i2i) message received from an implantable medical device (102b, 102a, 106) remotely located relative to the LP (102a, 102b), the LP (102a, 102b) comprising: at least one receiver (120, 122) configured to receive i2i messages; and a controller configured to: determine whether a received i2i message includes a pacing rate indicator that informs the LP (102a, 102) of a new pacing rate at which the LP (102a, 102b) should pace the first cardiac chamber, characterized in that the controller is further configured to: determine whether adjusting the pacing rate of the first cardiac chamber to match the new pacing rate specified by the pacing rate indicator would cause an adjustment to the pacing rate to exceed a rate adjustment threshold; and limit the adjustment to the pacing rate to a specified amount, in response to determining that the adjustment to the pacing rate of the first cardiac chamber to match the new pacing rate specified by the pacing rate indicator would cause the adjustment to the pacing rate to exceed the rate adjustment threshold. at least one receiver (120, 122) configured to receive i2i messages; and a controller configured to: determine whether a received i2i message includes a pacing rate indicator that informs the LP (102a, 102) of a new pacing rate at which the LP (102a, 102b) should pace the first cardiac chamber, characterized in that the controller is further configured to: determine whether adjusting the pacing rate of the first cardiac chamber to match the new pacing rate specified by the pacing rate indicator would cause an adjustment to the pacing rate to exceed a rate adjustment threshold; and limit the adjustment to the pacing rate to a specified amount, in response to determining that the adjustment to the pacing rate of the first cardiac chamber to match the new pacing rate specified by the pacing rate indicator would cause the adjustment to the pacing rate to exceed the rate adjustment threshold. determine whether adjusting the pacing rate of the first cardiac chamber to match the new pacing rate specified by the pacing rate indicator would cause an adjustment to the pacing rate to exceed a rate adjustment threshold; and limit the adjustment to the pacing rate to a specified amount, in response to determining that the adjustment to the pacing rate of the first cardiac chamber to match the new pacing rate specified by the pacing rate indicator would cause the adjustment to the pacing rate to exceed the rate adjustment threshold.
Electrically driven vehicle, in particular rail vehicle with the following features: - at least one frame element which is mechanically coupled to a vehicle frame, - at least one drive motor which is positioned in the frame element, wherein the longitudinal axis of said frame element is arranged parallel to an axis of a wheelset to be driven and wherein the drive motor, via a drive pinion, drives a large wheel connected in a torque-proof manner to a shaft, in particular a wheelset shaft, - a fan which is coupled to the large wheel via a fan pinion, - an air duct which conducts the air flow generated by the fan to at least one drive motor, characterised in that - air suction openings of the fan are arranged such that the air is sucked in at least partly over the gear train formed by drive pinion, large wheel and fan pinion and thus contributes to the cooling of the gear train, - wherein the fan sucks in cooling air outside the area of the mechanical brake. - at least one frame element which is mechanically coupled to a vehicle frame, - at least one drive motor which is positioned in the frame element, wherein the longitudinal axis of said frame element is arranged parallel to an axis of a wheelset to be driven and wherein the drive motor, via a drive pinion, drives a large wheel connected in a torque-proof manner to a shaft, in particular a wheelset shaft, - a fan which is coupled to the large wheel via a fan pinion, - an air duct which conducts the air flow generated by the fan to at least one drive motor, characterised in that - air suction openings of the fan are arranged such that the air is sucked in at least partly over the gear train formed by drive pinion, large wheel and fan pinion and thus contributes to the cooling of the gear train, - wherein the fan sucks in cooling air outside the area of the mechanical brake.
A fire-safe ventilated structure for a building, which as an inner wall cladding comprises a concrete element and a mineral wool layer, which is bonded to an external side of the concrete element and which on its external side has a hardened windscreen coating applied in a mortary state to the mineral wool layer and being permeable to moisture and non-inflammable, as well as a façade element which is secured by means of fasteners and spacers through the windscreen coating and the insulation to the inner concrete cladding so as to leave between the façade element and the windscreen coating an air gap necessary for ventilation.
A compound of formula: wherein: J represents Ar is a naphthylene or phenyl ring either of which may be optionally substituted by one or more groups independently selected from C 1-6 alkyl, C 1-6 alkoxy, amino, C 1-4 mono alkyl amino and C 2-8 di-alkyl amino; Q is N, or CH; R 1 is H, phenyl, or a saturated or unsaturated branched or unbranched C 1-10 alkylene in the form of an acyclic or alicyclic chain wherein one or more carbons in the chain are optionally replaced by a heteroatom(s) independently selected from -O-, -N- and S n and the chain is optionally substituted by: one oxo group, and/or one or more halogen atoms; R 2a is H, halo, or a saturated or unsaturated branched or unbranched C 1-8 alkylene chain, wherein one or more carbons are optionally replaced by a heteroatom(s) independently selected from -O-, -N- and/or S m and the chain is optionally substituted by one or more halogen atoms; R 2b is H, halo, C 1-6 alkoxy or C 1-6 alkyl optionally substituted by OH; L is a saturated or unsaturated branched or unbranched C 1-6 alkylene chain, wherein one or more carbons are optionally replaced by a heteroatom selected from -O- and/or S, and the chain is optionally substituted by one or two oxo groups; X is a pyridine or pyrimidine ring optionally substituted by C 1-3 alkyl,or C 1-3 haloalkyl; R 3 H or C 1-4 alkyl; R 4 is C 1-10 branched or unbranched acyclic or alicyclic alkyl chain; n is 0, 1 or 2; m is 0, 1 or 2; or a pharmaceutically acceptable salt thereof, including all stereoisomers, tautomers and isotopic derivatives thereof. J represents Ar is a naphthylene or phenyl ring either of which may be optionally substituted by one or more groups independently selected from C 1-6 alkyl, C 1-6 alkoxy, amino, C 1-4 mono alkyl amino and C 2-8 di-alkyl amino; Q is N, or CH; R 1 is H, phenyl, or a saturated or unsaturated branched or unbranched C 1-10 alkylene in the form of an acyclic or alicyclic chain wherein one or more carbons in the chain are optionally replaced by a heteroatom(s) independently selected from -O-, -N- and S n and the chain is optionally substituted by: one oxo group, and/or one or more halogen atoms; one oxo group, and/or one or more halogen atoms; R 2a is H, halo, or a saturated or unsaturated branched or unbranched C 1-8 alkylene chain, wherein one or more carbons are optionally replaced by a heteroatom(s) independently selected from -O-, -N- and/or S m and the chain is optionally substituted by one or more halogen atoms; R 2b is H, halo, C 1-6 alkoxy or C 1-6 alkyl optionally substituted by OH; L is a saturated or unsaturated branched or unbranched C 1-6 alkylene chain, wherein one or more carbons are optionally replaced by a heteroatom selected from -O- and/or S, and the chain is optionally substituted by one or two oxo groups; X is a pyridine or pyrimidine ring optionally substituted by C 1-3 alkyl,or C 1-3 haloalkyl; R 3 H or C 1-4 alkyl; R 4 is C 1-10 branched or unbranched acyclic or alicyclic alkyl chain; n is 0, 1 or 2; m is 0, 1 or 2; or