mhurhangee/ep-ind-claims huggingface dataset:
A sensor comprising a light conductor having a single mode fibre Bragg grating, a cavity, a transparent cavity end wall, a light emitter for directing light through the light conductor, a light detector for detecting reflected light, a processor, and a coating provided on an outer surface of the cavity end wall, the refractive index of said coating changing in response to the presence of a fluid; wherein the processor is adapted to: analyse light reflected due to the single mode fibre Bragg grating and process said data to determine an indication of temperature; analyse light reflected from the end of the cavity and process said data to determine an indication of pressure; and analyse light reflected from the coating on the outer surface of said cavity end wall, and process said data to determine an indication of refractive index of a medium outside said cavity wall; wherein the coating has a reflectance or fluorescence property which changes with light wavelength, having a peak in a spectrum, and wherein the processor is adapted to analyse said spectrum to derive information about the external medium in contact with the coating. analyse light reflected due to the single mode fibre Bragg grating and process said data to determine an indication of temperature; analyse light reflected from the end of the cavity and process said data to determine an indication of pressure; and analyse light reflected from the coating on the outer surface of said cavity end wall, and process said data to determine an indication of refractive index of a medium outside said cavity wall;
A method for establishing an initial connection to a wireless network comprising: receiving, by a responder from a station (300, 600), a Generic Advertisement Service 'GAS' Request message comprising a Delivery Method 'DM' field indicating the GAS Request message is a broadcast or multicast message, the GAS Request message comprising a request for at least one service; transmitting, by the responder, the GAS Request message to an access controller to be passed on to a server; filtering, by the access controller, copies of the GAS Request message (314, 618); receiving, by the responder, a response from the server; transmitting, by the responder to the station (300, 600), a GAS Response message (316; 318) only if the responder can provide the at least one service; and receiving, by the responder from the station (300, 600), an Association Request 'AR' message. receiving, by a responder from a station (300, 600), a Generic Advertisement Service 'GAS' Request message comprising a Delivery Method 'DM' field indicating the GAS Request message is a broadcast or multicast message, the GAS Request message comprising a request for at least one service; transmitting, by the responder, the GAS Request message to an access controller to be passed on to a server; filtering, by the access controller, copies of the GAS Request message (314, 618); receiving, by the responder, a response from the server; transmitting, by the responder to the station (300, 600), a GAS Response message (316; 318) only if the responder can provide the at least one service; and receiving, by the responder from the station (300, 600), an Association Request 'AR' message.
A method of forming a powder film, comprising the steps of: (a) filling an opening with a powder, the opening being formed in a powder filling member; and (b) forming the powder film by generating an electric potential difference between the powder filling member and a substrate so as to cause the powder, which is filling the opening, to move to the substrate, the powder filling member including a porous body, and a covering part provided on one surface of the porous body, the covering part having the opening, and in the step (b), the covering part being provided on a side facing the substrate, characterized in that in the step (a), the powder is rubbed by a rubbing body so as to fill the opening. (a) filling an opening with a powder, the opening being formed in a powder filling member; and (b) forming the powder film by generating an electric potential difference between the powder filling member and a substrate so as to cause the powder, which is filling the opening, to move to the substrate, the powder filling member including a porous body, and a covering part provided on one surface of the porous body, a porous body, and a covering part provided on one surface of the porous body, the covering part having the opening, and in the step (b), the covering part being provided on a side facing the substrate, characterized in that in the step (a), the powder is rubbed by a rubbing body so as to fill the opening.
Compounds of formula I wherein Y is N or C-R 1'; G is a 5 or 6-membered aromatic or heteroaromatic ring containing 0, 1, 2 or 3 heteroatoms, selected from the group consisting of phenyl, pyridinyl with different N-positions, imidazolyl, pyrazinyl, pyrimidinyl, thiophenyl, thiazolyl, pyrazolyl or thiadiazolyl, which are optionally substituted by 1, 2 or 3 substituents, selected from the group consisting of halogen, C 1-7 -alkyl, C 1-7 - alkoxy, C 1-7 -alkoxy substituted by halogen or NRR'; R and R' are independently from each other hydrogen or C 1-7 -alkyl, or may form together with the N atom to which they are attached a five or six membered saturated heterocyclic group which may contain an additional oxygen, NH, or N-C 1 -C 7 - alkyl group; R 1 is hydrogen, halogen or C 1-7 -alkyl substituted by halogen; R 1' is hydrogen, halogen or C 1-7 -alkyl substituted by halogen; R 2 is hydrogen, C 1-7 -alkyl, C 1-7 -alkoxyalkyl, cycloalkyl or heterocycloalkyl; or R 2 may form together with the closest carbon atom in group G a group for A being -CH 2 -, -CH 2 CH 2, or -C(CH 3) 2 -, R 3 is phenyl or pyridinyl, wherein the N atom in the pyridinyl group may be in different positions; or a pharmaceutically acceptable salt or acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. Y is N or C-R 1'; G is a 5 or 6-membered aromatic or heteroaromatic ring containing 0, 1, 2 or 3 heteroatoms, selected from the group consisting of phenyl, pyridinyl with different N-positions, imidazolyl, pyrazinyl, pyrimidinyl, thiophenyl, thiazolyl, pyrazolyl or thiadiazolyl, which are optionally substituted by 1, 2 or 3 substituents, selected from the group consisting of halogen, C 1-7 -alkyl, C 1-7 - alkoxy, C 1-7 -alkoxy substituted by halogen or NRR'; R and R' are independently from each other hydrogen or C 1-7 -alkyl, or may form together with the N atom to which they are attached a five or six membered saturated heterocyclic group which may contain an additional oxygen, NH, or N-C 1 -C 7 - alkyl group; R 1 is hydrogen, halogen or C 1-7 -alkyl substituted by halogen; R 1' is hydrogen, halogen or C 1-7 -alkyl substituted by halogen; R 2 is hydrogen, C 1-7 -alkyl, C 1-7 -alkoxyalkyl, cycloalkyl or heterocycloalkyl; R 3 is phenyl or pyridinyl, wherein the N atom in the pyridinyl group may be in different positions;
A method for drying a paper web, in which method the paper web is dried with at least one dryer unit, in which - the paper web to be dried is conveyed as supported by a support fabric over a surface of a heated drying cylinder, which surface is heated to a temperature of 130-200 °C, whereby a first surface of the paper web is against the surface of the drying cylinder and a second surface of the paper web is against a first surface of the support fabric, and - air is blown toward a second surface of the support fabric by using a blowing hood comprising air removal means for removing air from the dryer unit, wherein, the air to be blown toward the second surface of the support fabric is unheated, characterised in that the blowing hood comprises a blowing surface, which has blow openings (4', 4"), from which blow openings (4', 4") the air is led to the second surface of the support fabric at a distance of 10-50 mm in an area where the paper web is by its first surface substantially in contact with the surface of the drying cylinder, and in that the air removal means comprise suction openings arranged in the blowing surface of the blowing hood. - the paper web to be dried is conveyed as supported by a support fabric over a surface of a heated drying cylinder, which surface is heated to a temperature of 130-200 °C, whereby a first surface of the paper web is against the surface of the drying cylinder and a second surface of the paper web is against a first surface of the support fabric, and - air is blown toward a second surface of the support fabric by using a blowing hood comprising air removal means for removing air from the dryer unit, wherein, the air to be blown toward the second surface of the support fabric is unheated, characterised in that the blowing hood comprises a blowing surface, which has blow openings (4', 4"), from which blow openings (4', 4") the air is led to the second surface of the support fabric at a distance of 10-50 mm in an area where the paper web is by its first surface substantially in contact with the surface of the drying cylinder, and in that the air removal means comprise suction openings arranged in the blowing surface of the blowing hood.
A method for determining an orthotic profile, said method comprising: sequentially applying pressure to a series of localized regions on a plantar surface of a patient's foot using an array of movable pins, wherein individual pins in the array are coupled to a plurality of drivers for said pins, the drivers coupled to individual pins to move each pin at a known or controlled pressure, wherein at least one pressure is sufficient to displace a bone of the foot to a restored bone state; obtaining positional information for each of the localized regions when the bone is in the restored bone state; and determining the orthotic profile based on the positional information. sequentially applying pressure to a series of localized regions on a plantar surface of a patient's foot using an array of movable pins, wherein individual pins in the array are coupled to a plurality of drivers for said pins, the drivers coupled to individual pins to move each pin at a known or controlled pressure, wherein at least one pressure is sufficient to displace a bone of the foot to a restored bone state; obtaining positional information for each of the localized regions when the bone is in the restored bone state; and determining the orthotic profile based on the positional information.
A vehicle seat core member, comprising: a thermoplastic resin expanded beads molded body; and a frame member, the vehicle seat core member being an integrally molded article of the thermoplastic resin expanded beads molded body and the frame member, wherein the thermoplastic resin expanded beads molded body is formed of an expanded beads molded body in which thermoplastic resin expanded beads having through holes are mutually fused, the expanded beads molded body includes voids, and a porosity of the thermoplastic resin expanded beads molded body is 10 vol% or more and 40 vol% or less, wherein the porosity of the expanded beads molded body according to the present embodiment is calculated as a volume ratio (vol%) from a volume H calculated from an outer dimension of the expanded beads molded body and a volume I of the expanded beads molded body excluding void portions thereof, using the following formula: Porosity vol % = H − I / H × 100, determined as described in the description. a thermoplastic resin expanded beads molded body; and a frame member, the vehicle seat core member being an integrally molded article of the thermoplastic resin expanded beads molded body and the frame member, wherein the thermoplastic resin expanded beads molded body is formed of an expanded beads molded body in which thermoplastic resin expanded beads having through holes are mutually fused, the expanded beads molded body includes voids, and a porosity of the thermoplastic resin expanded beads molded body is 10 vol% or more and 40 vol% or less, wherein the porosity of the expanded beads molded body according to the present embodiment is calculated as a volume ratio (vol%) from a volume H calculated from an outer dimension of the expanded beads molded body and a volume I of the expanded beads molded body excluding void portions thereof, using the following formula: Porosity vol % = H − I / H × 100, determined as described in the description.
A collection and transmission system comprising: a system direct current link configured for carrying power from a plurality of distributed generators (114, 214, 314, 414) to an electrical grid; and alternating current to DC power converter modules (19, 119, 219, 319) coupled in series to the system DC link on a source side of the system DC link, each power converter module configured for being coupled to one or more sources (114, 214, 314, 414) on the source side, characterized in that each power converter module comprises a respective switch that is configured to short circuit the DC terminals (72,85) of the power converter module and decouple the power converter module from the DC-link in the event of fault upon receipt of a respective command signal, wherein the converter modules comprise an inverter and a bridge coupled between the system DC link and the inverter, wherein each respective bridge comprises two diode switch pairs (26, 28), wherein the diode (32, 34) and the switch (36, 38) of such a pair are connected in series and both diode switch pairs are connected in parallel, and each respective bridge is configured for transmitting input power from the inverter when both of the switches (36, 38) of the diode switch pairs are closed, and the collection and transmission system further comprising a controller configured for closing at least one of the switches (36,38) in the event of fault. a system direct current link configured for carrying power from a plurality of distributed generators (114, 214, 314, 414) to an electrical grid; and alternating current to DC power converter modules (19, 119, 219, 319) coupled in series to the system DC link on a source side of the system DC link, each power converter module configured for being coupled to one or more sources (114, 214, 314, 414) on the source side, characterized in that each power converter module comprises a respective switch that is configured to short circuit the DC terminals (72,85) of the power converter module and decouple the power converter module from the DC-link in the event of fault upon receipt of a respective command signal, wherein the converter modules comprise an inverter and a bridge coupled between the system DC link and the inverter, wherein each respective bridge comprises two diode switch pairs (26, 28), wherein the diode (32, 34) and the switch (36, 38) of such a pair are connected in series and both diode switch pairs are connected in parallel, and each respective bridge is configured for transmitting input power from the inverter when both of the switches (36, 38) of the diode switch pairs are closed, and the collection and transmission system further comprising a controller configured for closing at least one of the switches (36,38) in the event of fault.
A method comprising: receiving, from at least one motion sensor (120, 130, 140) associated with an object, acceleration data and angular velocity data of the object in response to an athletic action performed on the object; processing the acceleration data to establish vector rotation data between a frame of reference of the object and an Earth frame of reference; applying the vector rotation data to the acceleration data to obtain acceleration of the object in the Earth frame of reference; applying the vector rotation data to the angular velocity data to obtain angular velocity of the object in the Earth frame of reference; determining and isolating lift and drag forces acting on the object; providing, as an input to a neural network, the acceleration of the object in the Earth frame of reference, the angular velocity of the object in the Earth frame of reference, and the lift and drag forces; receiving from the neural network, an analysis of the athletic action performed on the object based on the angular velocity of the object in the Earth frame of reference and the lift and drag forces; and providing for display of the analysis of the athletic action. receiving, from at least one motion sensor (120, 130, 140) associated with an object, acceleration data and angular velocity data of the object in response to an athletic action performed on the object; processing the acceleration data to establish vector rotation data between a frame of reference of the object and an Earth frame of reference; applying the vector rotation data to the acceleration data to obtain acceleration of the object in the Earth frame of reference; applying the vector rotation data to the angular velocity data to obtain angular velocity of the object in the Earth frame of reference; determining and isolating lift and drag forces acting on the object; providing, as an input to a neural network, the acceleration of the object in the Earth frame of reference, the angular velocity of the object in the Earth frame of reference, and the lift and drag forces; receiving from the neural network, an analysis of the athletic action performed on the object based on the angular velocity of the object in the Earth frame of reference and the lift and drag forces; and providing for display of the analysis of the athletic action.
Method for automatically assigning at least one installation device to at least one cooking hob of an inductive stove having a plurality of cooking hobs which are each inductively heated by means of at least one heating coil, the stove comprising a stove controller for actuating the heating coils with an assignment signal and the installation device comprising an induction coil which can be inductively coupled to the heating coils of the stove, and a transmission unit, the transmission unit being supplied with an operating energy when a voltage is induced by means of at least one of the heating coils in the induction coil of the installation device installed on the cooking hob assigned to said heating coil, and the transmission unit of the installation device transmitting, by means of the operating energy, a response signal which identifies the installation device to a receiving unit of the stove controller or of a third device which is in signal-transmitting connection with the stove controller, characterised in that the response signal correlates with the assignment signal induced by means of at least one of the heating coils assigned to said cooking hob in the induction coil of the installation device, and the response signal is compared with the assignment signal of the at least one heating coil of said cooking hob in an evaluation unit of the stove controller or of the third device, which evaluation unit is in signal-transmitting connection with the receiving unit, and the identified installation device is assigned to said cooking hob on the basis of said comparison. the stove comprising a stove controller for actuating the heating coils with an assignment signal and the installation device comprising an induction coil which can be inductively coupled to the heating coils of the stove, and a transmission unit, the transmission unit being supplied with an operating energy when a voltage is induced by means of at least one of the heating coils in the induction coil of the installation device installed on the cooking hob assigned to said heating coil, and the transmission unit of the installation device transmitting, by means of the operating energy, a response signal which identifies the installation device to a receiving unit of the stove controller or of a third device which is in signal-transmitting connection with the stove controller, characterised in that the response signal correlates with the assignment signal induced by means of at least one of the heating coils assigned to said cooking hob in the induction coil of the installation device, and the response signal is compared with the assignment signal of the at least one heating coil of said cooking hob in an evaluation unit of the stove controller or of the third device, which evaluation unit is in signal-transmitting connection with the receiving unit, and the identified installation device is assigned to said cooking hob on the basis of said comparison.
A method for manufacturing a membrane electrode assembly for a solid polymer electrolyte fuel cell comprising: a carbon nanotube preparing step (100 to 160; 320 to 380) for preparing a plurality of carbon nanotubes which are grown to be vertical to a planar direction of a base material; a catalyst carrying step (240; 420) for causing the carbon nanotubes to carry catalysts after the carbon nanotube preparing step (100 to 160; 320 to 380); an ionomer arranging step (260; 440) for arranging ionomers on surfaces of the carbon nanotubes to cover the catalysts and the carbon nanotubes after the catalyst carrying step (240; 420); a first pressure applying step (280; 480) for applying a first pressure required for connecting the carbon nanotubes and a solid polymer electrolyte membrane therebetween by placing growing ends of the carbon nanotubes and the solid polymer electrolyte membrane to be opposite to each other after the catalyst carrying (240; 420) step or the ionomer arranging step (260; 440); and a base material removing step (300; 500) for removing the base material after the first pressure applying step (280; 480), characterized by a second pressure applying step (180 to 200; 400) for applying a second pressure required for forming a connecting point between two adjacent carbon nanotubes out of the carbon nanotubes in a tube length direction of the carbon nanotubes after the carbon nanotube preparing step (100 to 160; 320 to 380) and at least before the first pressure applying step (280; 480). a carbon nanotube preparing step (100 to 160; 320 to 380) for preparing a plurality of carbon nanotubes which are grown to be vertical to a planar direction of a base material; a catalyst carrying step (240; 420) for causing the carbon nanotubes to carry catalysts after the carbon nanotube preparing step (100 to 160; 320 to 380); an ionomer arranging step (260; 440) for arranging ionomers on surfaces of the carbon nanotubes to cover the catalysts and the carbon nanotubes after the catalyst carrying step (240; 420); a first pressure applying step (280; 480) for applying a first pressure required for connecting the carbon nanotubes and a solid polymer electrolyte membrane therebetween by placing growing ends of the carbon nanotubes and the solid polymer electrolyte membrane to be opposite to each other after the catalyst carrying (240; 420) step or the ionomer arranging step (260; 440); and a base material removing step (300; 500) for removing the base material after the first pressure applying step (280; 480), characterized by a second pressure applying step (180 to 200; 400) for applying a second pressure required for forming a connecting point between two adjacent carbon nanotubes out of the carbon nanotubes in a tube length direction of the carbon nanotubes after the carbon nanotube preparing step (100 to 160; 320 to 380) and at least before the first pressure applying step (280; 480).