mhurhangee/ep-ind-claims huggingface dataset:
A dye-sensitized solar cell comprising: a first electrode including a porous semiconductor layer supporting a dye; a second electrode serving as a counter electrode of the first electrode; and an electrolytic solution filled between the first electrode and the second electrode, wherein the second electrode includes a counter electrode conductive layer supporting a dye that is the same as or different from the dye supported by the porous semiconductor layer; and the number of moles of the dye supported by the counter electrode conductive layer is 25% or more and 170% or less of the number of moles of the dye supported by the porous semiconductor layer; characterized in that the counter electrode conductive layer contains carbon microparticles including carbon black having a specific surface area of 800 m 2 /g or more in an amount of 14 mass% or more relative to the total mass of the carbon microparticles. a first electrode including a porous semiconductor layer supporting a dye; a second electrode serving as a counter electrode of the first electrode; and an electrolytic solution filled between the first electrode and the second electrode, wherein the second electrode includes a counter electrode conductive layer supporting a dye that is the same as or different from the dye supported by the porous semiconductor layer; and the number of moles of the dye supported by the counter electrode conductive layer is 25% or more and 170% or less of the number of moles of the dye supported by the porous semiconductor layer;
Dial for a timepiece comprising a support and a mother-of-pearl sheet, the mother-of-pearl sheet having a front face and a rear face facing said support and on which a pattern has been printed, characterized in that the mother-of-pearl sheet has a thickness of between 50 μm and 300 μm so that the pattern printed on the rear face of the mother-of-pearl sheet appears transparently through the mother-of-pearl under normal conditions of illumination.
Knitting needle comprising a bearing section provided with a longitudinal extension, a lower boundary wall, an upper boundary wall and two lateral boundary walls (6, 7), wherein the boundary walls extend along the longitudinal extension, with a working area at one end of the bearing section in the direction of the longitudinal extension and with a needle bottom to absorb tensile forces on the other end of the bearing section in the direction of the longitudinal extension, which protrudes from the bearing section and runs at least partially parallel to the longitudinal extension, characterised by the fact that the needle bottom protrudes laterally from at least one lateral boundary wall (6, 7), thereby forming a lateral protrusion to absorb the tensile forces.
A method for cancelling interference by a device-to-device, D2D, terminal operating in a D2D communication mode in a wireless communication system, the method comprising: receiving, from a base station, interference signal information for cancelling a cellular interference signal corresponding to a cellular terminal causing an interference to the D2D terminal; cancelling the cellular interference signal corresponding to the cellular terminal from a received signal based on the received interference signal information; and processing a D2D signal transmitted to the D2D terminal. receiving, from a base station, interference signal information for cancelling a cellular interference signal corresponding to a cellular terminal causing an interference to the D2D terminal; cancelling the cellular interference signal corresponding to the cellular terminal from a received signal based on the received interference signal information; and processing a D2D signal transmitted to the D2D terminal.
A method for receiving hybrid automatic repeat request-acknowledgement, HARQ-ACK, bits by a node B in a communication system, the method comprising steps of: configuring a plurality of downlink component carriers, DL CCs, for a user equipment, UE, where each of the plurality of DL CCs is associated with one transmission mode; receiving, from the UE, via a physical uplink shared channel, PUSCH, encoded concatenated HARQ-ACK bits for the plurality of DL CCs, decoding encoded concatenated HARQ-ACK bits, wherein HARQ-ACK bits for the plurality of DL CCs are concatenated based on an order of DL CC indexes for the plurality of DL CCs, and wherein the concatenated HARQ-ACK bits include 2 HARQ-ACK bits for a DL CC associated with a transmission mode supporting up to 2 transport blocks and 1 HARQ-ACK bit for a DL CC associated with a transmission mode supporting up to 1 transport block. configuring a plurality of downlink component carriers, DL CCs, for a user equipment, UE, where each of the plurality of DL CCs is associated with one transmission mode; receiving, from the UE, via a physical uplink shared channel, PUSCH, encoded concatenated HARQ-ACK bits for the plurality of DL CCs, decoding encoded concatenated HARQ-ACK bits, wherein HARQ-ACK bits for the plurality of DL CCs are concatenated based on an order of DL CC indexes for the plurality of DL CCs, and wherein the concatenated HARQ-ACK bits include 2 HARQ-ACK bits for a DL CC associated with a transmission mode supporting up to 2 transport blocks and 1 HARQ-ACK bit for a DL CC associated with a transmission mode supporting up to 1 transport block.
A basic-refractory composition, characterized by comprising from 0.5 to 15% by weight of magnesium orthotitanate (Mg 2 TiO 4), from 0.5 to 15% by weight of calcium titanate (CaTiO 3) and from 70 to 99% by weight of magnesia, or dolomite or mixtures thereof, all the percentages being based on the total weight of the composition, wherein the magnesium-orthotitanate (Mg 2 TiO 4) and calcium titanate (CaTiO 3) phases are present in the form of electromolten aggregates.
A method of thermally insulating a piece of equipment, in particular cryogenic equipment, the method comprising the following steps: a) supplying at least one block of thermal insulation presenting a shape complementary to the outside face of a portion of said equipment; b) making at least a first hole in said block of insulation presenting a first end opening out facing the outside face of said equipment and a second end opening out away from the outside face of said equipment; c) placing said block of thermal insulation in a deformable cover made of a gastight material such that the wall of said first hole is covered by said gastight cover while leaving the first end and the second end of said hole open and in that the cover defines, at the second end, a first opening that communicates with the first hole and a second opening that communicates with the space situated between the insulating block and the cover; d) fastening the block of insulation covered in the cover against the outside face of said portion of equipment by gastight and deformable connection means so that the space defined between the block of insulation and said portion of equipment presents a closed outline; e) connecting the first opening and the second opening to suction means; f) activating said suction means whereby the inside of the cover is partially evacuated and the cover is pressed firstly against the block of insulation and secondly against said portion of equipment; and g) closing the first opening and the second opening of the cover in gastight manner. a) supplying at least one block of thermal insulation presenting a shape complementary to the outside face of a portion of said equipment; b) making at least a first hole in said block of insulation presenting a first end opening out facing the outside face of said equipment and a second end opening out away from the outside face of said equipment; c) placing said block of thermal insulation in a deformable cover made of a gastight material such that the wall of said first hole is covered by said gastight cover while leaving the first end and the second end of said hole open and in that the cover defines, at the second end, a first opening that communicates with the first hole and a second opening that communicates with the space situated between the insulating block and the cover; d) fastening the block of insulation covered in the cover against the outside face of said portion of equipment by gastight and deformable connection means so that the space defined between the block of insulation and said portion of equipment presents a closed outline; e) connecting the first opening and the second opening to suction means; f) activating said suction means whereby the inside of the cover is partially evacuated and the cover is pressed firstly against the block of insulation and secondly against said portion of equipment; and g) closing the first opening and the second opening of the cover in gastight manner.
A sling bar assembly comprising: a lift engagement member for selectively coupling to a subject support lift; opposing sling bar members (120A, 120B) slidably engaged with the lift engagement member, wherein the sling bar members (120A, 120B) each comprise a sling hook (124A, 124B) positioned at an outboard end of each of the sling bar members (120A, 120B) in a lateral direction, and wherein at least one of the sling bar members (120A, 120B) defines a cavity (130A, 130B) extending into the sling bar member (120A, 120B), a sling bar frame coupled to the lift engagement member and positioned between the opposing sling bar members (120A, 120B); an engagement member fixed to and extending outward from the sling bar frame and positionable within the cavity (130A, 130B); and a lateral governor positioned between and engaged with the opposing sling bar members (120A, 120B), wherein the lateral governor moves the opposing sling bar members (120A, 120B) in opposing directions, wherein the cavity (130A, 130B) comprises a groove extending in the lateral direction, and the engagement member is movably engaged with the groove. a lift engagement member for selectively coupling to a subject support lift; opposing sling bar members (120A, 120B) slidably engaged with the lift engagement member, wherein the sling bar members (120A, 120B) each comprise a sling hook (124A, 124B) positioned at an outboard end of each of the sling bar members (120A, 120B) in a lateral direction, and wherein at least one of the sling bar members (120A, 120B) defines a cavity (130A, 130B) extending into the sling bar member (120A, 120B), a sling bar frame coupled to the lift engagement member and positioned between the opposing sling bar members (120A, 120B); an engagement member fixed to and extending outward from the sling bar frame and positionable within the cavity (130A, 130B); and a lateral governor positioned between and engaged with the opposing sling bar members (120A, 120B), wherein the lateral governor moves the opposing sling bar members (120A, 120B) in opposing directions, wherein the cavity (130A, 130B) comprises a groove extending in the lateral direction, and the engagement member is movably engaged with the groove.
A gear unit having a shaft, in particular an input shaft, wherein a fan impeller is connected to the shaft in a torsion-resistant manner, wherein a fan cowl, which at least partially surrounds the fan impeller, is connected to the gear unit housing, wherein a separating plate for separating the pressure chamber of the fan from the suction chamber of the fan is connected to the fan cowl, wherein the separating plate has an air entry opening for the fan impeller and is arranged on the side of the fan impeller which is axially remote from the gear unit, wherein the fan impeller has a first and second cover disc (10, 13), which are axially spaced from one another, and fan blades are arranged between the cover discs (10, 13) so that channels are formed, wherein the radial clearance of the air entry opening is arranged within, in particular centrally within, the radial clearance region covered by the first cover disc and wherein the air entry opening is arranged axially within, in particular centrally within, the axial region covered by the first cover disc, wherein the separating plate adjoins the fan impeller, wherein a clearance is provided which prevents contact between the separating plate and the fan impeller, characterised in that at least one of the cover discs (10, 13) is conically formed and the fan impeller is a radial fan impeller with a diffuser effect.
Process for producing cumene and/or sec-butylbenzene comprising contacting benzene with a mixed olefins stream comprising ethylene and an alkylation agent in the presence of a selective alkylation catalyst under selective alkylation conditions, wherein the alkylation agent is propylene and/or butylene and wherein said selective alkylation catalyst comprises a zeolite of the 12-ring structure type having a 3D cage structure and the selective alkylation conditions comprise a weight hourly space velocity of at least 10 h -1, a pressure of 1000-5000 kPa and a temperature of 100-250 °C.
A system for handling a configuration request, the system comprising, - a plurality of auto-configuration servers (ACS1, ACS2, ACS3) in a wide area network; and - an auto-configuration server management device communicatively coupled to the wide area network and to the plurality of auto-configuration servers; wherein the auto-configuration server management device is arranged for communication with a manageable electronic device (CPE1, CPE2, CPE3), and wherein the auto-configuration server management device is arranged to: - receive the configuration request from the manageable electronic device; - identify one or more auto-configuration servers (ACS1, ACS2, ACS3) from the plurality of auto-configuration servers that can handle the configuration request; - balance the loads of the one or more identified auto-configuration servers (ACS1, ACS2, ACS3) by analysing the load of the one or more identified auto-configuration servers (ACS1, ACS2, ACS3) and selecting the auto-configuration server of the one or more identified auto-configuration servers (ACS1, ACS2, ACS3) with the best load conditions as destination address for the configuration request. - a plurality of auto-configuration servers (ACS1, ACS2, ACS3) in a wide area network; and - an auto-configuration server management device communicatively coupled to the wide area network and to the plurality of auto-configuration servers; - receive the configuration request from the manageable electronic device; - identify one or more auto-configuration servers (ACS1, ACS2, ACS3) from the plurality of auto-configuration servers that can handle the configuration request; - balance the loads of the one or more identified auto-configuration servers (ACS1, ACS2, ACS3) by analysing the load of the one or more identified auto-configuration servers (ACS1, ACS2, ACS3) and selecting the auto-configuration server of the one or more identified auto-configuration servers (ACS1, ACS2, ACS3) with the best load conditions as destination address for the configuration request.
Method for the voltage supply of at least two identical consumers (6, 7, 16, 17), in particular LEDs or LED arrays, in vehicles with an on-board supply voltage of 12, 24 or 42 Volt, comprising at least one input switching element which is provided with a supply voltage (U 0) and controls a switching element, characterized in that the input switching element in the form of a Schmitt trigger controls the switching element in response to the level of the input voltage (U 0) to transfer the consumers (6, 7, 16, 17) from a series connection to a parallel connection or vice-versa, wherein a first switch point is 11 to 16 Volt and a second switch point is 20 to 30 Volt.
A printable recording material comprising: a. an opaque supporting substrate; b. a resin-rich barrier layer including polymer resin binder in amounts that represent at least 10 wt % of the total pigment fillers, c. a coating composition with bimodal pore size distribution; and d. an ink colorant-receiving layer with inorganic particles; and, wherein the coating composition with bimodal pore size distribution encompasses: 1) primary permanently positive charged particles; 2) secondary permanently positive charged particles; 3) a metallic salt; and 4) a binder. a. an opaque supporting substrate; b. a resin-rich barrier layer including polymer resin binder in amounts that represent at least 10 wt % of the total pigment fillers, c. a coating composition with bimodal pore size distribution; and d. an ink colorant-receiving layer with inorganic particles; 1) primary permanently positive charged particles; 2) secondary permanently positive charged particles; 3) a metallic salt; and 4) a binder.
Dielectric coatings and articles, characterised in that the coatings and articles, in each case having specific surface resistances of greater than or equal to 10 8 ohm, comprise one or more semiconducting pigments, a dielectric binder and optionally further dielectric additives, where the pigment volume concentration of the semiconducting pigment in the dielectric coating or in the article is ≥ 10%, the semiconducting pigment consists of tin oxide, doped tin dioxide, supports coated with tin oxide or doped tin dioxide, doped titanium dioxide, titanium suboxide, or supports coated with titanium dioxide or titanium suboxide and the semiconducting pigments have a specific powder resistance in the range from 100 kohm to 100 megaohm*cm, where, for measurement of the specific resistance, an acrylic glass tube having an internal diameter of 2 cm is filled with a fill depth of 0.5 to 1 cm of the pigment, which is compressed between two opposing metal rams with the aid of a weight of 10 kg, and the electrical resistance R of the pigment pressed disc obtained in this way is then measured by application of an ohmmeter to the two metal rams, and the specific powder resistance ρ of the pigment is calculated from the layer thickness L and the diameter d of the pigment pressed disc and the measured resistance R, in accordance with the formula ρ = R ⋅ π ⋅ d / 2 2 / L ohm ⋅ cm.
Method for controlling a laser cutting process, the process providing for irradiation of a workpiece by means of a laser beam which is generated by a laser source and focussed by a laser head, as well as for supply of a flow of an assistance gas by means of a nozzle of the laser head, the control method comprising the steps of: a) detecting the wavelength signal of the radiation emitted by an emitting element present in the volume of material irradiated by the focussed laser beam, and b) adjusting, based on the detected signal, at least one of the following process control parameters: the power of the laser, the frequency and the duty cycle of the laser pulse, the pressure of the assistance gas, the relative speed of the laser head with respect to the workpiece, the distance of the nozzle of the laser head from the surface of the workpiece, and distance of the focal point of the laser beam from the surface of the workpiece, characterized in that step a) is performed by detecting the radiation emitted in at least one predetermined wavelength band which includes the wavelength at 777 nm and has a bandwidth not wider than 100 nm, and in that the assistance gas or a contaminant, gas present in the volume of material irradiated by the focussed laser beam is used as emitting element. a) detecting the wavelength signal of the radiation emitted by an emitting element present in the volume of material irradiated by the focussed laser beam, and b) adjusting, based on the detected signal, at least one of the following process control parameters: the power of the laser, the frequency and the duty cycle of the laser pulse, the pressure of the assistance gas, the relative speed of the laser head with respect to the workpiece, the distance of the nozzle of the laser head from the surface of the workpiece, and distance of the focal point of the laser beam from the surface of the workpiece, characterized in that step a) is performed by detecting the radiation emitted in at least one predetermined wavelength band which includes the wavelength at 777 nm and has a bandwidth not wider than 100 nm, and in that the assistance gas or a contaminant, gas present in the volume of material irradiated by the focussed laser beam is used as emitting element.
Method for determining at least one geometric parameter (H, B, L, R, F) of a trailer of a vehicle/trailer combination with a motor vehicle and the trailer, in which the trailer is captured by at least one camera disposed at the motor vehicle and the geometric parameter (H, B, L, R, F) is determined depending thereon, characterized in that in the state of the trailer attached to the motor vehicle, at least one characteristic location (12, 12') of the trailer is captured in a relaxed state of an overrun brake of the trailer by said camera of the motor vehicle, and in a state of the trailer attached to the motor vehicle, at least the characteristic location (12, 12') of the trailer is captured in a tensioned state of said overrun brake of the trailer different from the relaxed state by said camera of the motor vehicle, and depending on the information of the characteristic location (12, 12') obtained in said relaxed state and said tensioned state of said overrun brake, the geometric parameter (H, B, L, R, F) of the trailer is determined.
A contactless card, comprising: a processor; and a memory, the memory containing an identification token, an applet and a list comprising a plurality of product identifiers, wherein the applet is configured to: generate a first token, the first token corresponding to the identification token stored in the memory, encrypt the first token, transmit, after a first entry of the contactless card into a first communication field of an inventory management device, the first token, to the inventory management device, receive, responsive to the transmission of the first token, a first message, the first message including at least one product identifier, and update the list based on the first message. a processor; and a memory, the memory containing an identification token, an applet and a list comprising a plurality of product identifiers, wherein the applet is configured to: generate a first token, the first token corresponding to the identification token stored in the memory, encrypt the first token, transmit, after a first entry of the contactless card into a first communication field of an inventory management device, the first token, to the inventory management device, receive, responsive to the transmission of the first token, a first message, the first message including at least one product identifier, and update the list based on the first message. generate a first token, the first token corresponding to the identification token stored in the memory, encrypt the first token, transmit, after a first entry of the contactless card into a first communication field of an inventory management device, the first token, to the inventory management device, receive, responsive to the transmission of the first token, a first message, the first message including at least one product identifier, and update the list based on the first message.
Speed sensor, wherein said speed sensor is in the form of a crankshaft speed sensor or wheel speed sensor or gear speed sensor or turbocharger speed sensor, comprising at least one sensor element and an analog-to-digital converter, which digitizes the sensor-element output signals, characterized in that the speed sensor comprises a Costas loop unit (3, 4, 5), which is connected to the output of the analog-to-digital converter.