mhurhangee/patent-ind-claim-en huggingface dataset:
A tufting machine , comprising: at least one needle bar having a series of needles mounted therealong; backing feed rolls feeding a backing material (B) through a tufting zone (T) of the tufting machine ; a needle plate mounted along the tufting zone (T); a yarn feed mechanism for feeding a series of yarns (Y) to said needles ; a series of gauge parts mounted below said needles and movable into engagement with said needles as said needles are reciprocated into the backing material (B) to pick-up loops (L) of yarns (Y) therefrom; and a backing support mounted along the tufting zone (T) and located on, mounted to or otherwise integrated with the needle plate in a position wherein the backing material (B) passes thereover as the backing material (B) moves through the tufting zone (T), said backing support having a resilience biasing the backing material (B) toward an elevated position spaced above the needle plate by a selected or prescribed pile height differential or elevation; and a control system including programming for controlling said yarn feed mechanism to selectively control feeding of the yarns (Y) to said needles in a manner whereby selected loops (L) of yarns (Y) picked-up by said gauge parts are drawn thereagainst so as to create tension in the yarns (Y) forming said selected loops (L) of yarns (Y), sufficient to overcome the resilience of said backing support and move the backing material (B) toward a lowered position for forming tufts (38,/38', 39,/39') of yarns (Y) in the backing material (B) at varying pile heights according to a pattern being formed. at least one needle bar having a series of needles mounted therealong; backing feed rolls feeding a backing material (B) through a tufting zone (T) of the tufting machine ; a needle plate mounted along the tufting zone (T); a yarn feed mechanism for feeding a series of yarns (Y) to said needles ; a series of gauge parts mounted below said needles and movable into engagement with said needles as said needles are reciprocated into the backing material (B) to pick-up loops (L) of yarns (Y) therefrom; and a backing support mounted along the tufting zone (T) and located on, mounted to or otherwise integrated with the needle plate in a position wherein the backing material (B) passes thereover as the backing material (B) moves through the tufting zone (T), said backing support having a resilience biasing the backing material (B) toward an elevated position spaced above the needle plate by a selected or prescribed pile height differential or elevation; and a control system including programming for controlling said yarn feed mechanism to selectively control feeding of the yarns (Y) to said needles in a manner whereby selected loops (L) of yarns (Y) picked-up by said gauge parts are drawn thereagainst so as to create tension in the yarns (Y) forming said selected loops (L) of yarns (Y), sufficient to overcome the resilience of said backing support and move the backing material (B) toward a lowered position for forming tufts (38,/38', 39,/39') of yarns (Y) in the backing material (B) at varying pile heights according to a pattern being formed.
Rotor for an electric machine , the rotor comprising a first shaft journal , a second shaft journal , a laminated rotor core and a filler body , wherein - the filler body is cast onto the laminated rotor core , so that the laminated rotor core is mounted rotationally conjointly on the filler body , - the filler body is connected rotationally conjointly to the shaft journals , so that a torque is transmitted from the shaft journals to the laminated rotor core , characterized in that - a cooling duct extends through the shaft journals and the filler body in an axial direction (L) of the rotor , wherein - at least one of the shaft journals has an end plate , which is arranged on the end side, for fastening to the filler body . - the filler body is cast onto the laminated rotor core , so that the laminated rotor core is mounted rotationally conjointly on the filler body , - the filler body is connected rotationally conjointly to the shaft journals , so that a torque is transmitted from the shaft journals to the laminated rotor core , characterized in that - a cooling duct extends through the shaft journals and the filler body in an axial direction (L) of the rotor , wherein - at least one of the shaft journals has an end plate , which is arranged on the end side, for fastening to the filler body .
A method for preparing mixed-metal oxide particles comprising less than 5 wt%, by weight of the mixed-metal oxide particles, of spinel-phases having a formula MAl 2 O 4 , the process comprising: heat ing adamantane-intercalated layered double-hydroxide (LDH) particles up to a reaction temperature of from 400 °C to 800 °C to form mixed-metal oxide particles, where: the adamantane-intercalated LDH particles have a length and a width; a general formula [M 1-x Al x (OH) 2 ](A) x •mH 2 O, where x is from 0.14 to 0.33, m is from 0.33 to 0.50, M is chosen from Mg, Ca, Co, Ni, Cu, or Zn, and A is adamantane carboxylate; and an aspect ratio greater than 100 where the aspect ratio is defined by the width of an adamantane-intercalated LDH particle divided by the thickness of the adamantane-intercalated LDH particle; and the mixed-metal oxide particles comprise a mixed-metal oxide phase containing M, Al and carbon. the adamantane-intercalated LDH particles have a length and a width; a general formula [M 1-x Al x (OH) 2 ](A) x •mH 2 O, where x is from 0.14 to 0.33, m is from 0.33 to 0.50, M is chosen from Mg, Ca, Co, Ni, Cu, or Zn, and A is adamantane carboxylate; and an aspect ratio greater than 100 where the aspect ratio is defined by the width of an adamantane-intercalated LDH particle divided by the thickness of the adamantane-intercalated LDH particle; and a length and a width; a general formula [M 1-x Al x (OH) 2 ](A) x •mH 2 O, where x is from 0.14 to 0.33, m is from 0.33 to 0.50, M is chosen from Mg, Ca, Co, Ni, Cu, or Zn, and A is adamantane carboxylate; and an aspect ratio greater than 100 where the aspect ratio is defined by the width of an adamantane-intercalated LDH particle divided by the thickness of the adamantane-intercalated LDH particle; and the mixed-metal oxide particles comprise a mixed-metal oxide phase containing M, Al and carbon.
Dental orthosis , containing a body having an inner surface and an outer surface , said body being arranged to homothetically cover a portion of a dental crown of a patient, a first and a second bracket , each having a channel and cooperating with no degree of freedom with the outer surface of said body , said dental orthosis being characterized in that : - the inner surface of said body is arranged to homothetically cover at least a portion of three faces of said dental crown of said patient, a first face consisting of the vestibular face, a second face consisting of the lingual face and a third face selected from the occlusal face, the distal face and the mesial face, said first bracket being arranged to be positioned on the vestibular face of the dental crown and said second bracket being arranged to be positioned on the lingual face of the dental crown, - the outer surface of said body contains: ∘ a first regular protrusion , said first protrusion being arranged to constitute said first bracket by material removal, ∘ a second regular protrusion , said second protrusion being arranged to constitute said second bracket by material removal, - said body and said first and second protrusions are made from a single piece. - the inner surface of said body is arranged to homothetically cover at least a portion of three faces of said dental crown of said patient, a first face consisting of the vestibular face, a second face consisting of the lingual face and a third face selected from the occlusal face, the distal face and the mesial face, said first bracket being arranged to be positioned on the vestibular face of the dental crown and said second bracket being arranged to be positioned on the lingual face of the dental crown, - the outer surface of said body contains: ∘ a first regular protrusion , said first protrusion being arranged to constitute said first bracket by material removal, ∘ a second regular protrusion , said second protrusion being arranged to constitute said second bracket by material removal, ∘ a first regular protrusion , said first protrusion being arranged to constitute said first bracket by material removal, ∘ a second regular protrusion , said second protrusion being arranged to constitute said second bracket by material removal, - said body and said first and second protrusions are made from a single piece.
An electrical fluid heater comprising: • a housing forming a fluid flow chamber with an inlet for ingress of fluid inside the fluid flow chamber and an outlet for the egress of fluid from the fluid flow chamber ; • a plurality of electrical heating elements disposed inside the fluid flow chamber and adapted to be heated by resistive heating to heat fluid flowing around thereof as the fluid flows in the chamber from the inlet to the outlet , the electrical heating elements being formed as heating bars extending through the fluid flow chamber from one extremity of the fluid flow chamber to the other; the electrical fluid heater comprising a plurality of intermediate baffles arranged in spaced apart configuration with respect to each other within the fluid flow chamber and formed with re-directing means adapted to redirect the fluid received inside the fluid flow chamber to uniformly distribute the fluid inside the fluid flow chamber and define a torturous fluid flow path between the inlet and the outlet of the fluid flow chamber ; characterized in that the intermediate baffles are so disposed within the fluid flow chamber to extend alternatively from a first chamber wall of the fluid flow chamber and from a second chamber wall of the fluid flow chamber opposite to the first chamber wall , the first chamber wall and the second chamber wall being connected and maintained spaced apart from each other by interconnecting walls, so that a first set of baffles configure a first spacing at regions proximal to the first chamber wall and a second set of baffles configure a second spacing at regions proximal to the second chamber wall to promote fluid scavenging from different regions inside the fluid flow chamber giving the fluid a U-turn trajectory in each of the first and second spacing and to prevent formation of dead zones near the first chamber wall and the second chamber wall of the fluid flow chamber . • a housing forming a fluid flow chamber with an inlet for ingress of fluid inside the fluid flow chamber and an outlet for the egress of fluid from the fluid flow chamber ; • a plurality of electrical heating elements disposed inside the fluid flow chamber and adapted to be heated by resistive heating to heat fluid flowing around thereof as the fluid flows in the chamber from the inlet to the outlet , the electrical heating elements being formed as heating bars extending through the fluid flow chamber from one extremity of the fluid flow chamber to the other;
A cooling system for removing heat from a heat source fluid cooling circuit , the cooling system comprising: a first fluid manifold for flow of a heat transfer fluid, the first fluid manifold comprising a flow inlet and a flow outlet ; a heat exchanger and a heat sink unit each in heat transfer communication with the first fluid manifold ; characterised in that , in a first mode of operation, heat transfer fluid enters the flow inlet and part of the heat transfer fluid flow is controlled to be in heat transfer communication with the heat exchanger , and the remainder of the heat transfer fluid flow is controlled to be in heat transfer communication with the heat sink unit , after which the flows are combined before passing through the flow outlet ; and in a second mode of operation, heat transfer fluid enters the flow inlet and all of the heat transfer fluid flow is controlled to first be in heat transfer communication with the heat sink unit and then in heat transfer communication with the heat exchanger . a first fluid manifold for flow of a heat transfer fluid, the first fluid manifold comprising a flow inlet and a flow outlet ; a heat exchanger and a heat sink unit each in heat transfer communication with the first fluid manifold ; characterised in that , in a first mode of operation, heat transfer fluid enters the flow inlet and part of the heat transfer fluid flow is controlled to be in heat transfer communication with the heat exchanger , and the remainder of the heat transfer fluid flow is controlled to be in heat transfer communication with the heat sink unit , after which the flows are combined before passing through the flow outlet ; and in a second mode of operation, heat transfer fluid enters the flow inlet and all of the heat transfer fluid flow is controlled to first be in heat transfer communication with the heat sink unit and then in heat transfer communication with the heat exchanger .
A process for shaping aluminium containers comprising the sequential steps of: blanking out a disk from a sheet of a 3xxx series aluminium alloy; forming a bottle preform by drawing, redrawing, ironing, and doming the disk; placing the bottle preform into a mold cavity (110; 210); applying an axial load to the bottle preform using a backing ram (120; 220), wherein application of the axial load does not reduce the length of the preform , and wherein the backing ram (120; 220) is held essentially stationary while applying the axial load , undergoing a displacement of between about 0 mm (0 inches) and about 1.27 mm (0.05 inches); and injecting an inert gas into an interior of the bottle preform with pressure until the bottle preform expands to fill the mold cavity (110; 210). blanking out a disk from a sheet of a 3xxx series aluminium alloy; forming a bottle preform by drawing, redrawing, ironing, and doming the disk; placing the bottle preform into a mold cavity (110; 210); applying an axial load to the bottle preform using a backing ram (120; 220), wherein application of the axial load does not reduce the length of the preform , and wherein the backing ram (120; 220) is held essentially stationary while applying the axial load , undergoing a displacement of between about 0 mm (0 inches) and about 1.27 mm (0.05 inches); and injecting an inert gas into an interior of the bottle preform with pressure until the bottle preform expands to fill the mold cavity (110; 210).
An anti-derailment device for lift or elevator door leaves , of the type provided with at least one guide shoe at the lower or upper end thereof, suitable for sliding in a groove formed in a lower sill of the door or defined in the upper zone of the door, the anti-derailment device being positioned and active on the opposite side of the door leaves with respect to a moving apparatus of the door leaves, characterised in that it comprises an element , associated with the shoe or with the leaf , which is shaped like a hook in the sense that one end thereof forms an acute angle so as to hook to at least one corresponding bent edge hook-like shaped of the groove defining an interference (D) between the terminal part of the end and the terminal part of the edge of the groove in response to a stress on the leaf which tends to produce the derailment of the shoe
Drive device for a vehicle flap, comprising an electric motor for driving the vehicle flap, a supply circuit , comprising a first voltage source for supplying power to the electric motor , a first electrical lead (4; 104; 204) and a second electrical lead (5; 105; 205), the first voltage source (9; 109; 209) being arranged between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), a control circuit (12; 112; 212), comprising a logic unit (15; 115; 215), a second voltage source and a switch control device (13; 113; 213), wherein a switching element (10; 110; 210) and a diode (11; 111; 211) are connected between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), wherein the switching element (10; 110; 210) and the diode (11; 111; 211) are connected in series and the switching element is coupled to the switch control device , and wherein the switch control device (13; 113; 213) provides a control voltage for switching the switching element (10; 110; 210), characterized in that the logic unit and the switch control device are connected in parallel and in that the second voltage source supplies the logic unit and the switch control device with power. an electric motor for driving the vehicle flap, a supply circuit , comprising a first voltage source for supplying power to the electric motor , a first electrical lead (4; 104; 204) and a second electrical lead (5; 105; 205), the first voltage source (9; 109; 209) being arranged between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), a control circuit (12; 112; 212), comprising a logic unit (15; 115; 215), a second voltage source and a switch control device (13; 113; 213), wherein a switching element (10; 110; 210) and a diode (11; 111; 211) are connected between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), wherein the switching element (10; 110; 210) and the diode (11; 111; 211) are connected in series and the switching element is coupled to the switch control device , and wherein the switch control device (13; 113; 213) provides a control voltage for switching the switching element (10; 110; 210), characterized in that the logic unit and the switch control device are connected in parallel and in that the second voltage source supplies the logic unit and the switch control device with power.
Insulation displacement contact for connecting at least two wires or wire ends , having two insulation displacement limbs spaced apart to form an insulation displacement slot , - the insulation displacement slot and/or the insulation displacement limbs of the insulation displacement contact being designed in such a way that the at least two wire ends , which are introduced one behind the other in the longitudinal direction of the slot into the insulation displacement slot and are guided there along at least one blade edge on the limb side, are securely clamp-contacted, characterized in - that the insulation displacement slot of the insulation displacement contact has, in the longitudinal direction of the slot, a slot opening on the limb-free end side and a comparatively short insulation displacement contour , which adjoins the slot opening and merges, in the longitudinal direction of the slot, into a slot region , which is widened in the form of a diamond and is adjoined by a further comparatively long insulation displacement or clamping region , - that the widened slot region has, on the side facing the slot opening , a pointed, comparatively pronounced cutting contour , and - that the widened slot region is provided and arranged to receive the first wire end initially cut in the insulation displacement slot as soon as the second wire end enters the first slot region adjoining the slot opening between the knife edges of the insulation displacement contour of the insulation displacement limbs arranged opposite each other. - the insulation displacement slot and/or the insulation displacement limbs of the insulation displacement contact being designed in such a way that the at least two wire ends , which are introduced one behind the other in the longitudinal direction of the slot into the insulation displacement slot and are guided there along at least one blade edge on the limb side, are securely clamp-contacted, characterized in - that the insulation displacement slot of the insulation displacement contact has, in the longitudinal direction of the slot, a slot opening on the limb-free end side and a comparatively short insulation displacement contour , which adjoins the slot opening and merges, in the longitudinal direction of the slot, into a slot region , which is widened in the form of a diamond and is adjoined by a further comparatively long insulation displacement or clamping region , - that the widened slot region has, on the side facing the slot opening , a pointed, comparatively pronounced cutting contour , and - that the widened slot region is provided and arranged to receive the first wire end initially cut in the insulation displacement slot as soon as the second wire end enters the first slot region adjoining the slot opening between the knife edges of the insulation displacement contour of the insulation displacement limbs arranged opposite each other.
A method for determining an antenna port performed by a communication device , the method comprises: transmitting control information, the control information comprising a first information field, the first information field being used to indicate antenna port information of a plurality of antenna port sets; and determining an antenna port set corresponding to each Transmission Configuration Indication, TCI, state in a plurality of TCI states, and determining antenna ports included in each antenna port set of the plurality of antenna port sets in accordance with the first information field, wherein there is a correspondence between the TCI states and the antenna port sets, and the correspondence between the TCI states and the antenna port sets is configured in advance. transmitting control information, the control information comprising a first information field, the first information field being used to indicate antenna port information of a plurality of antenna port sets; and determining an antenna port set corresponding to each Transmission Configuration Indication, TCI, state in a plurality of TCI states, and determining antenna ports included in each antenna port set of the plurality of antenna port sets in accordance with the first information field, wherein there is a correspondence between the TCI states and the antenna port sets, and the correspondence between the TCI states and the antenna port sets is configured in advance.
A method for providing carbohydrates to an athlete, comprising: (i) dissolving a solid composition in water to produce a sports drink, wherein the solid composition comprises: a) 0.2 to 16 wt % alginate, b) 0.12 to 12 wt % pectin, and c) 75 to 99 wt % active ingredients, where the active ingredients are selected from one or more of the ingredients consisting of sugars, complex carbohydrates, mineral salts, and amino acids; and (ii) providing the sports drink to the athlete before, during and/or after exercise. (i) dissolving a solid composition in water to produce a sports drink, wherein the solid composition comprises: a) 0.2 to 16 wt % alginate, b) 0.12 to 12 wt % pectin, and c) 75 to 99 wt % active ingredients, where the active ingredients are selected from one or more of the ingredients consisting of sugars, complex carbohydrates, mineral salts, and amino acids; and a) 0.2 to 16 wt % alginate, b) 0.12 to 12 wt % pectin, and c) 75 to 99 wt % active ingredients, where the active ingredients are selected from one or more of the ingredients consisting of sugars, complex carbohydrates, mineral salts, and amino acids; and (ii) providing the sports drink to the athlete before, during and/or after exercise.