mhurhangee/ep-ind-claims huggingface dataset:
An electric generator comprising a heating plate transmitting heat to cooling means (10, 26, 30), and at least one thermoelectric plate arranged between the heating plate and the cooling means (10, 26, 30) where an electromotive force generating an electric current is produced when the heating plate, located on an external heat source, is at a temperature greater than that of the cooling means (10, 26, 30), comprising insulating means surrounding the at least one thermoelectric plate and arranged between the heating plate and the cooling means (10, 26, 30), wherein the thermoelectric plate comprises wiring at the free end of which an electric potential output terminal for the output of electric potential generated in said plate is located, said wiring exiting the generator going through the cooling means without being exposed to the external heat source, characterized in that arranged on the heating plate there is an upper plate (21, 45) forming the lower base of a container (22, 44) where the cooling means are arranged, said container (22, 44) comprising a closing lid of the container (22, 44) determining a closed space to store the wiring when the generator is not in use.
A method for determining the operating point of an electric motor-driven fan in a system, wherein the method comprises at least one startup of the fan, wherein based on motor parameters of the fan, the operating point A of the fan is determined from at least one startup of the at least one startup, wherein during the at least one startup of the at least one startup, the motor parameters M i are measured for a plurality of speeds, wherein technical flow parameters Pi are determined for the plurality of different speeds.
A hot aisle module (20a-20f) for an IT or computer facility comprising: a chute forming an air passageway enclosure with an open top and an open bottom; and legs (24a-24n) with lower ends configured to rest on a floor of the IT or computer facility; wherein the chute is supported by the legs (24a-24n); characterized in that the legs are telescopable, and in that the height of the chute can be adjusted in a hot aisle of the IT or computer facility by telescoping the telescopable legs (24a-24n) to direct hot air from the hot aisle to an exhaust system of the IT or computer facility. a chute forming an air passageway enclosure with an open top and an open bottom; and legs (24a-24n) with lower ends configured to rest on a floor of the IT or computer facility; wherein the chute is supported by the legs (24a-24n); characterized in that the legs are telescopable, and in that the height of the chute can be adjusted in a hot aisle of the IT or computer facility by telescoping the telescopable legs (24a-24n) to direct hot air from the hot aisle to an exhaust system of the IT or computer facility.
Panel, in particular floor panel, - with a panel forming a core - with an upper side, - with an underside, - with a first side edge, - with a second side edge arranged opposite the first side edge, - with a first locking element formed on the first side edge, - with a second locking element formed on the second side edge, the first locking element and the second locking element being designed to correspond to one another, - with a first abutment surface formed on the first side edge, the first abutment surface adjoining the upper side, and - with a second abutment surface formed on the second side edge, wherein the second abutment surface adjoins the upper -side, - said first locking member and said second locking member being adapted to form a horizontal lock in a locking position, - wherein the material of the side edges (8, 10) corresponds to the core material of the panel, - wherein a deformation element is arranged at least in sections on at least one of the abutment surfaces (14, 18), wherein the deformation element is formed from the material of the side edge (8, 10), - wherein a deformation section corresponding to the deformation element is provided on the other abutment surface (18, 14), characterized in - that the deformation element and the deforming section are suitable for being deformed at least in sections in the locking position by the contact of the deformation element with the opposite abutment surface (14, 18). - with a panel forming a core - with an upper side, - with an underside, - with a first side edge, - with a second side edge arranged opposite the first side edge, - with a first locking element formed on the first side edge, - with a second locking element formed on the second side edge, the first locking element and the second locking element being designed to correspond to one another, - with a first abutment surface formed on the first side edge, the first abutment surface adjoining the upper side, and - with a second abutment surface formed on the second side edge, wherein the second abutment surface adjoins the upper -side, - said first locking member and said second locking member being adapted to form a horizontal lock in a locking position, - wherein the material of the side edges (8, 10) corresponds to the core material of the panel, - wherein a deformation element is arranged at least in sections on at least one of the abutment surfaces (14, 18), wherein the deformation element is formed from the material of the side edge (8, 10), - wherein a deformation section corresponding to the deformation element is provided on the other abutment surface (18, 14), characterized in - that the deformation element and the deforming section are suitable for being deformed at least in sections in the locking position by the contact of the deformation element with the opposite abutment surface (14, 18).
Closing means for a unit for ejecting objects, in particular a confetti shooter, with a closing element that can be moved from a closed position to an open position, and a retaining element for retaining the closing element, wherein the retaining element can be rotated from a retaining position that prevents a complete opening of the closing element into a release position that permits a complete opening of the closing element, wherein the retaining element can be secured in a form-fit manner in the retaining position, characterised in that the retaining element in a retaining position, in which the closing element is secured in a partially opened closed position, secures the closing element by means of a projection that possesses a pocket corresponding to a retaining section of the closing element.
A method of detecting formation of a clot in a sample with a washer moving over a distance through the sample, comprising: a. dividing the distance into a plurality of zones; b. repeatedly measuring a drop time of the washer moving through each zone; c. calculating a clot detection threshold for each zone of the plurality of zones as a product of a scale factor and a sum of the measured drop times for each zone; d. considering formation of the clot to be detected if any of a plurality of criteria based upon the clot detection threshold is met for at least one of the zones. a. dividing the distance into a plurality of zones; b. repeatedly measuring a drop time of the washer moving through each zone; c. calculating a clot detection threshold for each zone of the plurality of zones as a product of a scale factor and a sum of the measured drop times for each zone; d. considering formation of the clot to be detected if any of a plurality of criteria based upon the clot detection threshold is met for at least one of the zones.
A nitric oxide administration device, comprising: a first flow path including a first intake port and an oxygen supply port, an oxygen generation unit which is arranged in the first flow path and which generates concentrated oxygen from air introduced via the first intake port, the generated concentrated oxygen being supplied via the oxygen supply port, a second flow path which is branched from the first flow path and which includes an NO supply port, and an NO generation unit which is arranged in the second flow path and which generates NO from gas distributed from the first flow path, the generated NO being supplied via the NO supply port. a first flow path including a first intake port and an oxygen supply port, an oxygen generation unit which is arranged in the first flow path and which generates concentrated oxygen from air introduced via the first intake port, the generated concentrated oxygen being supplied via the oxygen supply port, a second flow path which is branched from the first flow path and which includes an NO supply port, and an NO generation unit which is arranged in the second flow path and which generates NO from gas distributed from the first flow path, the generated NO being supplied via the NO supply port.
A printhead comprising: a mechanism for feeding a plastic filament, a mechanism for feeding a reinforcing fiber, a mechanism (13, 14) for cutting the reinforcing fiber, a feeding tube for the plastic filament, a feeding tube for feeding the reinforcing fiber from the feeding mechanism to the cutting mechanism (13, 14), a feeding tube for feeding the reinforcing fiber from the cutting mechanism (13, 14) to a heating unit; and the heating unit; wherein the heating unit comprises: a heater, a thermocouple or a thermistor, two input channels, namely a reinforcing fiber feeding channel and a plastic filament feeding channel, and a nozzle having an output channel for a reinforced plastic polymer; wherein the plastic filament feeding channel is connected to the reinforcing fiber feeding channel inside the heating unit, and the input reinforcing fiber feeding channel is arranged coaxially with the output reinforced plastic polymer channel; characterized in that the input reinforcing fiber feeding channel of the heating unit has a diameter greater than the reinforcing fiber diameter by no more than 2-4 times, the diameter of the input reinforcing fiber feeding channel being smaller than the diameter of the output channel to minimize the thermoplastic melt yield, when printing, through the reinforcing fiber feeding channel, and in that a gap is present between the feeding tube for the reinforcing fiber and the reinforcing fiber feeding channel of the heating unit. a mechanism for feeding a plastic filament, a mechanism for feeding a reinforcing fiber, a mechanism (13, 14) for cutting the reinforcing fiber, a feeding tube for the plastic filament, a feeding tube for feeding the reinforcing fiber from the feeding mechanism to the cutting mechanism (13, 14), a feeding tube for feeding the reinforcing fiber from the cutting mechanism (13, 14) to a heating unit; and the heating unit; wherein the heating unit comprises: a heater, a thermocouple or a thermistor, two input channels, namely a reinforcing fiber feeding channel and a plastic filament feeding channel, and a nozzle having an output channel for a reinforced plastic polymer; a heater, a thermocouple or a thermistor, two input channels, namely a reinforcing fiber feeding channel and a plastic filament feeding channel, and a nozzle having an output channel for a reinforced plastic polymer; wherein the plastic filament feeding channel is connected to the reinforcing fiber feeding channel inside the heating unit, and the input reinforcing fiber feeding channel is arranged coaxially with the output reinforced plastic polymer channel; characterized in that the input reinforcing fiber feeding channel of the heating unit has a diameter greater than the reinforcing fiber diameter by no more than 2-4 times, the diameter of the input reinforcing fiber feeding channel being smaller than the diameter of the output channel to minimize the thermoplastic melt yield, when printing, through the reinforcing fiber feeding channel, and in that a gap is present between the feeding tube for the reinforcing fiber and the reinforcing fiber feeding channel of the heating unit.
A concentrated neutral floor treatment composition comprising: 1-50 wt-% of at least two water-insoluble surfactants, wherein a first surfactant is a branched alcohol alkoxylate and a second surfactant is an ethylene oxide/propylene oxide copolymer; and 1-50 wt-% of a water-soluble anionic hydrotrope; and 20-90 wt-% water, wherein the composition has a pH from 6 to 9 and forms a clear solution, 1-50 wt-% of at least two water-insoluble surfactants, wherein a first surfactant is a branched alcohol alkoxylate and a second surfactant is an ethylene oxide/propylene oxide copolymer; and 1-50 wt-% of a water-soluble anionic hydrotrope; and 20-90 wt-% water, wherein the composition has a pH from 6 to 9 and forms a clear solution,
A network comprising: antenna circuitry to receive incoming signals from and transmit outgoing signals to a base station; remote modem circuitry, connected to the antenna circuitry by analog cabling, to demodulate a first incoming signal of the incoming signals to produce first incoming data; and control circuitry, remote from the remote modem circuitry and connected to the remote modem circuitry via digital cabling to control a behaviour of the remote modem circuitry and to receive the first incoming data from the remote modem circuitry, wherein the network is configured to be split across a boundary of a vehicle (100; 400) such that the control circuitry is internal to the vehicle and the remote modem circuitry and antenna circuitry are external to the vehicle. antenna circuitry to receive incoming signals from and transmit outgoing signals to a base station; remote modem circuitry, connected to the antenna circuitry by analog cabling, to demodulate a first incoming signal of the incoming signals to produce first incoming data; and control circuitry, remote from the remote modem circuitry and connected to the remote modem circuitry via digital cabling to control a behaviour of the remote modem circuitry and to receive the first incoming data from the remote modem circuitry, wherein the network is configured to be split across a boundary of a vehicle (100; 400) such that the control circuitry is internal to the vehicle and the remote modem circuitry and antenna circuitry are external to the vehicle.
An organic light emitting display device comprising: an anode; an organic layer on the anode; and a cathode on the organic layer, wherein the organic layer comprises a compound including a carbazole group having hole characteristics and a heteroaryl group having electron characteristics, characterized in that the compound is one among the following compounds: an anode; an organic layer on the anode; and a cathode on the organic layer, wherein the organic layer comprises a compound including a carbazole group having hole characteristics and a heteroaryl group having electron characteristics, characterized in that the compound is one among the following compounds:
A dry shampoo composition comprising: - 0.5 to 5 wt% of Oryza sativa (Rice) hull powder; - 1 to 4 wt% of a smectite clay; - 30 to 60 wt% of tapioca starch; - 30 to 60 wt% of corn starch; and - 3 to 20 wt% of potato starch. - 0.5 to 5 wt% of Oryza sativa (Rice) hull powder; - 1 to 4 wt% of a smectite clay; - 30 to 60 wt% of tapioca starch; - 30 to 60 wt% of corn starch; and - 3 to 20 wt% of potato starch.
A method comprising: creating a transaction layer packet, TLP; calculating a cyclic redundancy check, CRC, code based on the TLP, the CRC code including 8 bytes; encoding the TLP into symbols of a flow control unit, flit; encoding eight symbols of the flit with CRC code, each of the eight symbols occurring after the symbols containing the TLP; and sending the flit across a link, the method further comprising: encoding the flit with data link layer packets, DLLP, the DLLP encoded into symbols between the symbols with the TLP and the symbols with the CRC code, wherein the CRC code is to be used to check the TLP and the DLLP for errors. creating a transaction layer packet, TLP; calculating a cyclic redundancy check, CRC, code based on the TLP, the CRC code including 8 bytes; encoding the TLP into symbols of a flow control unit, flit; encoding eight symbols of the flit with CRC code, each of the eight symbols occurring after the symbols containing the TLP; and sending the flit across a link, the method further comprising: encoding the flit with data link layer packets, DLLP, the DLLP encoded into symbols between the symbols with the TLP and the symbols with the CRC code, wherein the CRC code is to be used to check the TLP and the DLLP for errors.
A process for preparing 2-methoxymethyl-p-phenylenediamine, a cosmetically acceptable salt thereof, or mixture thereof, the process comprising the steps of (a) providing 2-methoxymethyl-1,4-benzoquinone; (b) condensing 2-methoxymethyl-1,4-benzoquinone with an amine source NH2R1 to form 2-(methoxymethyl)-N1(Rl),N4 -cyclohexa-2,5-diene-1,4-diimine (Va); and (c) reacting 2-(methoxymethyl)-N1(Rl),N4 -cyclohexa-2,5-diene-1,4-diimine (Va) in the presence of a hydrogen source to form 2-methoxymethyl-p-phenylenediamine. (a) providing 2-methoxymethyl-1,4-benzoquinone; (b) condensing 2-methoxymethyl-1,4-benzoquinone with an amine source NH2R1 to form 2-(methoxymethyl)-N1(Rl),N4 -cyclohexa-2,5-diene-1,4-diimine (Va); and (c) reacting 2-(methoxymethyl)-N1(Rl),N4 -cyclohexa-2,5-diene-1,4-diimine (Va) in the presence of a hydrogen source to form 2-methoxymethyl-p-phenylenediamine.
A method of transmitting mobile user equipment specific information from a base station in a cellular communication system; the method comprising the steps of: combining mobile user equipment specific information for a plurality of mobile user equipment to generate combined mobile user equipment specific information; encoding the combined mobile user equipment specific information; transmitting the combined mobile user equipment specific information using the smallest block of data for transmission of user equipment specific information and transmitting an indication to assist an individual user equipment determine user equipment specific information for that individual user equipment from within the combined user equipment specific information
Two-component composition consisting of a component A comprising - at least one silane-functional polymer, and - at least one hardener or accelerator for epoxy resins; and a component B comprising - at least one aqueous emulsion of at least one epoxy resin. - at least one silane-functional polymer, and - at least one hardener or accelerator for epoxy resins; and a component B comprising - at least one aqueous emulsion of at least one epoxy resin.
Method for treating a textile material, in which a treatment agent is applied to the textile material and the textile material is dried on at least one heating cylinder (4, 5), the textile material being guided upstream the heating cylinder (4, 5) over a deflection device which fulfils at least one of the following conditions: it operates without contact, it has a non-stick surface, it is temperature-controlled, characterized in that the textile material resting on the heating cylinder (4, 5) is acted upon by an air stream, the air stream being supplied in the region of the circumferential surface of the heating cylinder (4, 5) and being discharged parallel to the axis of the heating cylinder (4, 5).
A binding structure assembly, wherein the binding structure assembly comprises a plurality of binding structures (2, 2') arranged side by side and being attached to their neighbouring binding structure (2, 2'), wherein the binding structures (2, 2') are configured for attaching two structures (38, 40) to each other, wherein each binding structure (2, 2') comprising a straight elongated body portion having a first end portion and a second end portion, wherein a first head portion is provided in the first end portion and a second head portion is provided in the second end portion, wherein said head portions (10, 10') protrude radially from the body portion, wherein the binding structure assembly is provided in a sheet-like structure, wherein the elongated body portion extends between the first head portion and the second head portion of the binder structure (2, 2'), wherein a micro joint (18, 18') is provided between adjacent head portions (10, 10'), wherein the micro joints (18, 18') are provided at the head portions (10, 10') of the binding structures (2, 2') and protrude therefrom, characterised in that adjacent binding structures (2, 2') can be detached from each other by providing a force that pulls the binding structures (2, 2') away from each other, wherein the binding structures are made by a punching process from a metal sheet, wherein the body portion has rectangular cross section.
A flow control device (10, 120, 140) comprising: a housing (11, 12, 14) having a flow passage including an inlet flow passage and an outlet flow passage; a tube (30, 122, 146) in the housing and defining a tube passage (28, 126, 148) included in the flow passage; a valve seat in the flow passage and facing an inlet to the tube; a liner (84, 152) within the housing and fixed with respect to the housing, separated from the flow passage, and including at least one slot (86, 87); and a drain check shuttle assembly in the housing and configured to move relative to the housing and the tube, wherein the drain check shuttle assembly has: a first position at which the drain check shuttle assembly spans a gap between the valve seat and the inlet to the tube to prevent flow into the tube; and a second position in which the drain check shuttle assembly is displaced from the valve seat to open the gap and allow flow into the tube; and the drain check shuttle assembly includes a cylindrical carrier including an opening through which extends the tube, characterized in that the cylindrical carrier extends into the liner and is in sliding contact with the liner. a housing (11, 12, 14) having a flow passage including an inlet flow passage and an outlet flow passage; a tube (30, 122, 146) in the housing and defining a tube passage (28, 126, 148) included in the flow passage; a valve seat in the flow passage and facing an inlet to the tube; a liner (84, 152) within the housing and fixed with respect to the housing, separated from the flow passage, and including at least one slot (86, 87); and a drain check shuttle assembly in the housing and configured to move relative to the housing and the tube, wherein the drain check shuttle assembly has: a first position at which the drain check shuttle assembly spans a gap between the valve seat and the inlet to the tube to prevent flow into the tube; and a second position in which the drain check shuttle assembly is displaced from the valve seat to open the gap and allow flow into the tube; and a first position at which the drain check shuttle assembly spans a gap between the valve seat and the inlet to the tube to prevent flow into the tube; and a second position in which the drain check shuttle assembly is displaced from the valve seat to open the gap and allow flow into the tube; and the drain check shuttle assembly includes a cylindrical carrier including an opening through which extends the tube, characterized in that the cylindrical carrier extends into the liner and is in sliding contact with the liner.
Cap for a container, notably a tube, particularly a flexible tube of cosmetic product, said container comprising a neck and solid insert forming a lid sealing one extremity of the neck opening into an inner volume of the container, said cap comprising a punch, adapted for cutting and/or piercing the lid, said cap being adapted to be placed on said neck, in a waiting position in which the punch is in the neck leaving the lid intact and in a use position in which the lid has been cut and/or pierced by said punch, said punch comprising a body in a drum shape configured for cutting and/or piercing said lid, said punch being characterized in that it comprises a transverse partition separating it into two cavities.