mhurhangee/ep-ind-claims huggingface dataset:
A hydraulic device for a sanitary device, comprising at least: - at least one liquid inlet (3, 4); - at least one liquid outlet (5, 6, 7); - a support having at least one receptacle (8, 9, 10) for a valve (11, 12); and - at least one sensor (13, 14, 15) for detecting the valve (11, 12), characterized in that an electrical resistance of the valve (11, 12) can be measured by the at least one sensor (13, 14, 15). - at least one liquid inlet (3, 4); - at least one liquid outlet (5, 6, 7); - a support having at least one receptacle (8, 9, 10) for a valve (11, 12); and - at least one sensor (13, 14, 15) for detecting the valve (11, 12), characterized in that an electrical resistance of the valve (11, 12) can be measured by the at least one sensor (13, 14, 15).
A laser annealing method comprising: a step of preparing an annealing object in which an absorbing film formed of a metal is formed on a surface of a wafer formed of silicon carbide into which an unactivated dopant is implanted; and a step of activating the dopant by causing a laser beam to be incident into the absorbing film, wherein a power density of the laser beam in a surface of the annealing object is a value with which a silicide reaction is caused to occur between the absorbing film and the wafer and a metal silicide film formed by the silicide reaction is evaporated. a step of preparing an annealing object in which an absorbing film formed of a metal is formed on a surface of a wafer formed of silicon carbide into which an unactivated dopant is implanted; and a step of activating the dopant by causing a laser beam to be incident into the absorbing film, wherein a power density of the laser beam in a surface of the annealing object is a value with which a silicide reaction is caused to occur between the absorbing film and the wafer and a metal silicide film formed by the silicide reaction is evaporated.
Tubular food casing having a sheet-like textile support material and a continuous full-surface coating formed from linear thermoplastic polymers located thereupon, wherein the support material consists of a woven fabric, knitted fabric, nonwoven fabric, consolidated nonwoven fabric formed from natural fibres, synthetic fibres or a mixture thereof, characterized in that the coating comprises, as an essential constituent, at least one linear hotmelt polymer but does not contain any precipitated or regenerated cellulose, and in that the coating forms the outer side of the casing, the hotmelt polymer having an MVR value in the range from 25 to 500 cm 3 per 10 min, measured at 190 °C under a load of 2.16 kg.
A use of a pouch packaging formed by folding a multilayer film, which packaging, after filling, comprises an outer contour defined by the folding of the film with film surfaces and outer edges, for packing chunky or granular bulk material, with the proviso that the film comprises a thickness of 0.5 g/cm 3 to 0.9 g/m 3, that the layered structure of the film comprises a printable outer layer on the outside of the packaging, a sealing layer from a sealable polymer on the inside of the packaging as well as a foamed-on polymer layer, in that the foamed-on polymer layer comprises a micro-cell structure produced by physical foaming, wherein the polymer structure of the foamed-on polymer layer contains inorganic nucleating agents and in that the outer layer is applied to a multi-layer polyethylene film, which comprises the foamed-on polymer layer as core layer and unfoamed polyethylene layers (7, 7') on both sides of the core layer.
Motor vehicle lock for a motor vehicle door arrangement, wherein a lock latch and a pawl assigned to the lock latch are provided, wherein the lock latch can be brought into an open position and into a closed position, wherein the lock latch in the closed position is or can be brought into engagement with a striker or the like, wherein the pawl can be brought into an engaged position in which it fixes the lock latch in the closed position and wherein the pawl can be lifted out into a release position in which it releases the lock latch, wherein the pawl can be brought into the release position by means of an actuating arrangement, wherein a crash element is provided which, in order to avoid a crash-induced lifting-out of the pawl, can be adjusted by the crash-induced deformation of said component by a component of the motor vehicle door arrangement, in particular a door outer skin, into a crash position, and in that, for this purpose, the crash element in the crash position blocks the pawl wherein a crash element mounting is provided which is configured as a linear guide and in which the crash element is displaceably guided.
A method of producing an implant material, comprising step: a step of setting a porous ceramic material having substantially unidirectionally arrayed pores at any depth position inside a container, step: a step of filling the container with a cell-containing liquid containing at least bone marrow blood and/or peripheral blood, and step: a step of applying, on the container, a centrifugal force in the direction along the axis of the container. step: a step of setting a porous ceramic material having substantially unidirectionally arrayed pores at any depth position inside a container, step: a step of filling the container with a cell-containing liquid containing at least bone marrow blood and/or peripheral blood, and step: a step of applying, on the container, a centrifugal force in the direction along the axis of the container.
A method, comprising: measuring RF losses at multiple frequencies in a first direction between a head end and a coverage node in a site by measuring output power from the head end and comparing that to input power on a plurality of coverage nodes as received from the coverage nodes for downlink loss; generating gains and output power limits for each amplifier in each coverage node and the head end based on the measured RF losses; and further adjusting the generated gains and output power limits based on downlink signal strength of cellular signals at a donor antenna; wherein the measuring includes measuring RF loss at both a donor antenna in the head end and coverage antennas in the coverage nodes. measuring RF losses at multiple frequencies in a first direction between a head end and a coverage node in a site by measuring output power from the head end and comparing that to input power on a plurality of coverage nodes as received from the coverage nodes for downlink loss; generating gains and output power limits for each amplifier in each coverage node and the head end based on the measured RF losses; and further adjusting the generated gains and output power limits based on downlink signal strength of cellular signals at a donor antenna;
Multi-pole plug connector assembly with a first plug connector, which has a first plug connector housing, and with a second plug connector, which has a second plug connector housing, wherein a plurality of contact elements are arranged in each of the two plug connector housings (12, 22), of which at least the contact elements of the first plug connector housing are each connected to a connecting cable, wherein the first and second connector housings (10, 20) are connected to one another by a latching connection which is secured against unintentional disconnection by a CPA latch, and wherein the CPA latch forms a spring clip consisting of two opposing spring arms, characterized in that the CPA latch simultaneously forms a cable holder for fastening a plurality of connecting cables which are guided parallel to one another, and that parallel bundled connecting cables are inserted into the spring clip and held by the clamping force of the spring clip. with a first plug connector, which has a first plug connector housing, and with a second plug connector, which has a second plug connector housing, wherein a plurality of contact elements are arranged in each of the two plug connector housings (12, 22), of which at least the contact elements of the first plug connector housing are each connected to a connecting cable, wherein the first and second connector housings (10, 20) are connected to one another by a latching connection which is secured against unintentional disconnection by a CPA latch, and wherein the CPA latch forms a spring clip consisting of two opposing spring arms, characterized in that the CPA latch simultaneously forms a cable holder for fastening a plurality of connecting cables which are guided parallel to one another, and that parallel bundled connecting cables are inserted into the spring clip and held by the clamping force of the spring clip.
A method for producing a radiolabeled compound, comprising the steps of: irradiating an alloy as a target substance with a radiation beam, to generate two or more radioisotopes from the alloy, and allowing the two or more radioisotopes to migrate into a gas; and generating an intermediate label by allowing a first radioisotope, from among the two or more radioisotopes having migrated into the gas, to react with a label precursor; characterized in that the method further comprises: generating a final label by allowing a second radioisotope different from the first radioisotope, from among the two or more radioisotopes having migrated into the gas, to react with the intermediate label. irradiating an alloy as a target substance with a radiation beam, to generate two or more radioisotopes from the alloy, and allowing the two or more radioisotopes to migrate into a gas; and generating an intermediate label by allowing a first radioisotope, from among the two or more radioisotopes having migrated into the gas, to react with a label precursor; characterized in that the method further comprises: generating a final label by allowing a second radioisotope different from the first radioisotope, from among the two or more radioisotopes having migrated into the gas, to react with the intermediate label.
An apparatus for a multi-mode wireless device operable to communicate with a Public Land Mobile Network, PLMN, and a Generic Access Network, GAN,, the apparatus for facilitating Logic Link Control, LLC, layer negotiation pursuant to a rove-in by the wireless device, said apparatus comprising: a communication transferor configured to determine a need for a rove-in from the PLMN to the GAN; a frame size calculator configured to calculate, in response to a determined need for a rove-in, a desired frame size for the GAN, said desired frame size comprising an optimal value at the LLC layer, wherein the optimal value is an IP bearer Maximum Transmission Unit, MTU, of the GAN minus a plurality of header sizes and minus an IPSec expansion size; a transmitter configured to transmit negotiation of frame size of the frame into which data to be communicated is to be formatted with an eXchange IDentity, XID, procedure, the frame size negotiation utilizing the calculated desired frame size; a receiver configured to receive a response message allowing the calculated desired frame size to be used to calculate a user data MTU size; and a user data MTU size calculator configured to form user data into packets of sizes within said calculated user data MTU size. a communication transferor configured to determine a need for a rove-in from the PLMN to the GAN; a frame size calculator configured to calculate, in response to a determined need for a rove-in, a desired frame size for the GAN, said desired frame size comprising an optimal value at the LLC layer, wherein the optimal value is an IP bearer Maximum Transmission Unit, MTU, of the GAN minus a plurality of header sizes and minus an IPSec expansion size; a transmitter configured to transmit negotiation of frame size of the frame into which data to be communicated is to be formatted with an eXchange IDentity, XID, procedure, the frame size negotiation utilizing the calculated desired frame size; a receiver configured to receive a response message allowing the calculated desired frame size to be used to calculate a user data MTU size; and a user data MTU size calculator configured to form user data into packets of sizes within said calculated user data MTU size.
A method for preparing an injectable composition, comprising: (a) mixing dry microparticles with an aqueous injection vehicle having a viscosity of 20-50 cP at 20 °C to form a first suspension; and (b) mixing the first suspension with a viscosity enhancing agent to form a second suspension, wherein the viscosity enhancing agent increases the viscosity of the fluid phase of the second suspension, wherein the microparticles comprise a polymeric binder, have a mass median diameter of at least 10 μm, and include an active agent selected from the group consisting of risperidone, 9-hydroxyrisperidone, and pharmaceutically acceptable salts thereof. (a) mixing dry microparticles with an aqueous injection vehicle having a viscosity of 20-50 cP at 20 °C to form a first suspension; and (b) mixing the first suspension with a viscosity enhancing agent to form a second suspension, wherein the viscosity enhancing agent increases the viscosity of the fluid phase of the second suspension,
An apparatus for heating food, comprising - a forming tube made of an electrically non-conductive material, - a filling slider movably guided in the forming tube, - a first cap associated with the filling slider, - a second cap, - wherein the first and second caps (15, 18) each have concave surfaces (16, 21) facing each other and defining a cavity therebetween, - wherein the food can be supplied to the cavity via the filling slider, and - wherein the apparatus includes a heating device configured to heat the food located in the cavity, and wherein the apparatus includes an air valve on the second cap. - a forming tube made of an electrically non-conductive material, - a filling slider movably guided in the forming tube, - a first cap associated with the filling slider, - a second cap, - wherein the first and second caps (15, 18) each have concave surfaces (16, 21) facing each other and defining a cavity therebetween, - wherein the food can be supplied to the cavity via the filling slider, and - wherein the apparatus includes a heating device configured to heat the food located in the cavity, and wherein the apparatus includes an air valve on the second cap.
A wire holding structure for holding in a body of a vehicle, a wire for electrically connecting the body of the vehicle to a sliding door of the vehicle, comprising: a step member arranged adjacent to the vehicle sliding door and molded of a plastic material; and a holding portion for holding the wire, wherein the holding portion includes: a first holding member molded integrally with the step member; and a second holding member fixed to face the first holding member, the second holding member holding the wire in the space between the second holding member and the first holding member, characterized in that the step member includes a flat portion, which functions as a step for an occupant of the vehicle, and a drive device mounting portion, which is formed continuously from the flat portion at the front end of the flat portion in the opening direction of the sliding door, which is the rear end of the flat portion with respect to the vehicle, and wherein the first holdingmember is formed integrally with step member at a position rearward of the drive device mounting position with respect to the vehicle. a step member arranged adjacent to the vehicle sliding door and molded of a plastic material; and a holding portion for holding the wire, wherein the holding portion includes: a first holding member molded integrally with the step member; and a second holding member fixed to face the first holding member, the second holding member holding the wire in the space between the second holding member and the first holding member, characterized in that the step member includes a flat portion, which functions as a step for an occupant of the vehicle, and a drive device mounting portion, which is formed continuously from the flat portion at the front end of the flat portion in the opening direction of the sliding door, which is the rear end of the flat portion with respect to the vehicle, and wherein the first holdingmember is formed integrally with step member at a position rearward of the drive device mounting position with respect to the vehicle. a first holding member molded integrally with the step member; and a second holding member fixed to face the first holding member, the second holding member holding the wire in the space between the second holding member and the first holding member, characterized in that the step member includes a flat portion, which functions as a step for an occupant of the vehicle, and a drive device mounting portion, which is formed continuously from the flat portion at the front end of the flat portion in the opening direction of the sliding door, which is the rear end of the flat portion with respect to the vehicle, and wherein the first holdingmember is formed integrally with step member at a position rearward of the drive device mounting position with respect to the vehicle.
A sinter powder comprising the following components and optionally, and/or: at least one semicrystalline terephthalate polyester which is prepared by reacting at least components (a) and (b): (a) at least one aromatic dicarboxylic acid and (b) at least two aliphatic diols and, where the aliphatic diol is neopentyl glycol, optionally at least one further polymer, optionally at least one additive and/or optionally at least one reinforcer, where the molar ratio of component (a) to component in the preparation of the at least one semicrystalline terephthalate polyester is in the range from 1:0.15 to 1:0.65 [mol/mol] and the aliphatic diol is a linear diol of the general formula HO-(CH 2) n -OH in which n is 2, 3, 4, 5 or 6. at least one semicrystalline terephthalate polyester which is prepared by reacting at least components (a) and (b): (a) at least one aromatic dicarboxylic acid and (b) at least two aliphatic diols and, where the aliphatic diol is neopentyl glycol, (a) at least one aromatic dicarboxylic acid and (b) at least two aliphatic diols and, where the aliphatic diol is neopentyl glycol, optionally at least one further polymer, optionally at least one additive and/or optionally at least one reinforcer, where the molar ratio of component (a) to component in the preparation of the at least one semicrystalline terephthalate polyester is in the range from 1:0.15 to 1:0.65 [mol/mol] and the aliphatic diol is a linear diol of the general formula HO-(CH 2) n -OH in which n is 2, 3, 4, 5 or 6.
A non-aqueous electrolyte secondary cell comprising: a non-aqueous electrolyte including an additive for a non-aqueous electrolyte containing therein a phosphazene derivative represented by formula and a supporting salt; a positive electrode; and a negative electrode: (PNR 2) n ······· formula wherein n is 3, four of the R groups are fluorine, and two of the R groups are fluorine containing methoxy substituents, and the non-aqueous electrolyte has a viscosity at 25°C of 0.01 Pa.s (10 cP) or less. a non-aqueous electrolyte including an additive for a non-aqueous electrolyte containing therein a phosphazene derivative represented by formula and a supporting salt; a positive electrode; and a negative electrode: (PNR 2) n ······· formula wherein n is 3, four of the R groups are fluorine, and two of the R groups are fluorine containing methoxy substituents, and the non-aqueous electrolyte has a viscosity at 25°C of 0.01 Pa.s (10 cP) or less.
A device for detecting an acceleration in at least one direction and a speed of rotation around at least one other direction, comprising a support and at least two structures (S1, S101, S201, S301, S2, S102, S202, S302) mechanically coupled to each other in opposite phase, said structures (S1, S101, S201, S301, S2, S102, S202, S302) being suspended relative to the support, each of the structures (S1, S101, S201, S301, S2, S102, S202, S302) comprising: - an excitation mass (6, 106, 206, 306), - excitation means (8, 108, 208) able to move said excitation mass in a given direction called a direction of excitation, - an inertial mass (10, 110, 210, 310) mechanically integral with the excitation mass, - a detecting element (16, 116, 216, 316) connected to the inertial mass (10, 110, 210, 310) so as to be displaced by the inertial mass, said detecting element being hinged to the support by means of a pivot hinge and connected to the inertial mass (10, 110, 210, 310) by elastic means, - means (20, 120, 320) for detecting the displacement of said inertial mass in a given direction called a direction of detection, and - a unit for controlling the excitation means and processing signals delivered by the detecting means. - an excitation mass (6, 106, 206, 306), - excitation means (8, 108, 208) able to move said excitation mass in a given direction called a direction of excitation, - an inertial mass (10, 110, 210, 310) mechanically integral with the excitation mass, - a detecting element (16, 116, 216, 316) connected to the inertial mass (10, 110, 210, 310) so as to be displaced by the inertial mass, said detecting element being hinged to the support by means of a pivot hinge and connected to the inertial mass (10, 110, 210, 310) by elastic means, - means (20, 120, 320) for detecting the displacement of said inertial mass in a given direction called a direction of detection, and - a unit for controlling the excitation means and processing signals delivered by the detecting means.
Method for producing a heat exchanger module having at least one fluid circuit, comprising the following steps: a) producing an open part of a metal shell; b) producing one or more metal tubes of at least one fluid circuit; c) optionally, introducing a first set of one or more elements made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy (s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s); d) assembling the open part of the shell and the tube(s); e) introducing a second set of one or more elements (31, 32) made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy(s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s); f) closing the metal shell in a sealed manner, so as to form the final exterior form of the heat exchanger module; g) heating the sealed shell until the element(s) (30, 31, 32) made of at least one fusible metal alloy or metal melt and the tube(s) harden; h) cooling the whole so as to obtain the final assembly of the heat exchanger module. a) producing an open part of a metal shell; b) producing one or more metal tubes of at least one fluid circuit; c) optionally, introducing a first set of one or more elements made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy (s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s); d) assembling the open part of the shell and the tube(s); e) introducing a second set of one or more elements (31, 32) made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy(s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s); f) closing the metal shell in a sealed manner, so as to form the final exterior form of the heat exchanger module; g) heating the sealed shell until the element(s) (30, 31, 32) made of at least one fusible metal alloy or metal melt and the tube(s) harden; h) cooling the whole so as to obtain the final assembly of the heat exchanger module.