mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell (B1, B2, B3, B4) comprising: a membrane electrode assembly comprising an electrolyte membrane, catalyst layers (60, 70) stacked on both sides of the electrolyte membrane in a stacking direction, and two or more porous bodies (80, 90) having different moduli of elasticity from each other and provided on a surface of one of the catalyst layers (60, 70); a separator defining a gas flow passage between the separator and the membrane electrode assembly; and a frame body surrounding an outer periphery of the electrolyte membrane, wherein a porous body adjacent to the separator out of the two or more porous bodies (80, 90) comprises an outer extending portion extending out-teward beyond an inner edge portion of the frame body with a gap between the outer extending portion and an upper surface of the frame body in the stacking direction, wherein an elastic body is provided in the gap, characterized in that the porous body adjacent to the separator, and the frame body are not in direct contact with each other in the stacking direction, and the elastic body has a lower modulus of elasticity than moduli of compressive elasticity of the porous body adjacent to the separator, and the frame body. a membrane electrode assembly comprising an electrolyte membrane, catalyst layers (60, 70) stacked on both sides of the electrolyte membrane in a stacking direction, and two or more porous bodies (80, 90) having different moduli of elasticity from each other and provided on a surface of one of the catalyst layers (60, 70); a separator defining a gas flow passage between the separator and the membrane electrode assembly; and a frame body surrounding an outer periphery of the electrolyte membrane, wherein a porous body adjacent to the separator out of the two or more porous bodies (80, 90) comprises an outer extending portion extending out-teward beyond an inner edge portion of the frame body with a gap between the outer extending portion and an upper surface of the frame body in the stacking direction, wherein an elastic body is provided in the gap, characterized in that the porous body adjacent to the separator, and the frame body are not in direct contact with each other in the stacking direction, and the elastic body has a lower modulus of elasticity than moduli of compressive elasticity of the porous body adjacent to the separator, and the frame body.
Disc for disc brakes, comprising: a drum and a radially external band that is extended around a symmetry axis (X-X), said radially external band having side braking surfaces adapted to cooperate with brake calipers in order to exert a braking action on a vehicle; rotor elements of a rotary electrical machine (12, 14, 15, 17; 12, 14, 15, 18) adapted to cooperate with stator elements of said rotary electrical machine (12, 14, 15, 17; 12, 14, 15, 18) mounted on the vehicle; characterized in that said radially external band is made of composite material comprising carbon fibers; and in that the rotor elements are embedded in the composite material or inserted in housings made in the composite material. a drum and a radially external band that is extended around a symmetry axis (X-X), said radially external band having side braking surfaces adapted to cooperate with brake calipers in order to exert a braking action on a vehicle; rotor elements of a rotary electrical machine (12, 14, 15, 17; 12, 14, 15, 18) adapted to cooperate with stator elements of said rotary electrical machine (12, 14, 15, 17; 12, 14, 15, 18) mounted on the vehicle; characterized in that said radially external band is made of composite material comprising carbon fibers; and in that the rotor elements are embedded in the composite material or inserted in housings made in the composite material.
Use of a composition for hydrocarbon recovery operations, wherein the composition comprises: a water insoluble hydrophobic liquid selected from one or more Group IV and Group V category base oils, as classified by the American Petroleum Institute in API Publication 1509, 15 Edition, Appendix E, April 2002, and combinations thereof, an organophilic clay suspension agent being an organophilic clay, a polar activator, a sparingly-soluble alkaline earth metal peroxide selected from calcium peroxide, magnesium peroxide, or a mixture thereof, and an anionic surfactant; wherein polar activator is selected from acetone, methanol, methanol/water, ethanol/water, propylene carbonate, acetonylacetone, diacetone alcohol, dimethyl formamide, or gamma-butyl lactone. a water insoluble hydrophobic liquid selected from one or more Group IV and Group V category base oils, as classified by the American Petroleum Institute in API Publication 1509, 15 Edition, Appendix E, April 2002, and combinations thereof, an organophilic clay suspension agent being an organophilic clay, a polar activator, a sparingly-soluble alkaline earth metal peroxide selected from calcium peroxide, magnesium peroxide, or a mixture thereof, and an anionic surfactant;
A tufting tool module for a tufting machine, the tufting tool module comprising a plurality of tufting tools (20, 30, 40), the tufting tools comprising a head portion (22, 32,42) and a securing portion (24,34,44), wherein the securing portion of each tufting tool is casted in a base block characterized in that the securing portions of each tufting tool is provided with at least two cut outs (26,28, 36, 37, 38, 45, 46, 47, 48, 49) located inside the base block, said at least two cut outs comprising two through holes (26, 28) formed in the securing portion located inside the base block.
A wearable device comprising: a sensor configured to detect a value corresponding to at least one ambient condition relative to the wearable device; an alert indicator; a transceiver; and a processor coupled to the transceiver, and the sensor, wherein the processor is configured to wirelessly pair the wearable device with a control panel, remote from the wearable device, through the transceiver, wherein, the processor is configured to receive the value from the sensor and, responsive thereto, the processor is configured to transmit information to the control panel, wherein the processor is configured to compare the value to an alert condition for the sensor stored in a memory of the wearable device, and wherein, when the value matches the alert condition, the processor is configured to include an alert message in the information transmitted to the control panel and the processor is configured to activate the alert indicator. a sensor configured to detect a value corresponding to at least one ambient condition relative to the wearable device; an alert indicator; a transceiver; and a processor coupled to the transceiver, and the sensor, wherein the processor is configured to wirelessly pair the wearable device with a control panel, remote from the wearable device, through the transceiver, wherein, the processor is configured to receive the value from the sensor and, responsive thereto, the processor is configured to transmit information to the control panel, wherein the processor is configured to compare the value to an alert condition for the sensor stored in a memory of the wearable device, and wherein, when the value matches the alert condition, the processor is configured to include an alert message in the information transmitted to the control panel and the processor is configured to activate the alert indicator.
A method for determining the presence of a target nucleic acid molecule in a sample including a) suspending a sample in a collection medium including an anionic detergent and a non-ionic detergent; b) denaturing a target nucleic acid molecule; c) contacting one or more polynucleotide probes with the target nucleic acid molecule under conditions that allow the probes and the target nucleic acid molecule to hybridize or bind, and d) capturing the double-stranded nucleic acid hybrid on a solid support coated with a first antibody specific for the double-stranded hybrid nucleic acid hybrid. a) suspending a sample in a collection medium including an anionic detergent and a non-ionic detergent; b) denaturing a target nucleic acid molecule; c) contacting one or more polynucleotide probes with the target nucleic acid molecule under conditions that allow the probes and the target nucleic acid molecule to hybridize or bind, and d) capturing the double-stranded nucleic acid hybrid on a solid support coated with a first antibody specific for the double-stranded hybrid nucleic acid hybrid.
A mobile device, comprising: a housing; a mobile device processor in the housing, the mobile device processor coupled to a memory module and configured to run a software application; a virtual controller module; and a mobile device battery; wherein a side portion of the housing is configured to be removably coupleable to a first hardware gaming controller configured to be manipulated by a user's left thumb and/or fingers to generate a left controller input, the first hardware gaming controller comprising a controller battery; wherein an opposing side portion of the housing is configured to be removably coupleable to a second hardware gaming controller configured to be manipulated by a user's right thumb and/or fingers to generate a right controller input; wherein the virtual controller module is configured to combine the left controller input and the right controller input to form a single controller input representation for providing to the software application; wherein the mobile device battery is coupled to the controller battery for priority charge dissipation, wherein the mobile device battery is configured to be drained first while not utilizing charge on the controller battery. a housing; a mobile device processor in the housing, the mobile device processor coupled to a memory module and configured to run a software application; a virtual controller module; and a mobile device battery; wherein a side portion of the housing is configured to be removably coupleable to a first hardware gaming controller configured to be manipulated by a user's left thumb and/or fingers to generate a left controller input, the first hardware gaming controller comprising a controller battery; wherein an opposing side portion of the housing is configured to be removably coupleable to a second hardware gaming controller configured to be manipulated by a user's right thumb and/or fingers to generate a right controller input; wherein the virtual controller module is configured to combine the left controller input and the right controller input to form a single controller input representation for providing to the software application; wherein the mobile device battery is coupled to the controller battery for priority charge dissipation, wherein the mobile device battery is configured to be drained first while not utilizing charge on the controller battery.
A method of calculating a time difference, comprising: sampling a first ultrasonic signal to produce a first sampled signal; sampling a second ultrasonic signal to produce a second sampled signal; determining a first differential time of flight between the first sampled signal and the second sampled signal; determining a second differential time of flight, independently from the first differential time of flight, between the first sampled signal and the second sampled signal; and calculating the time difference in response to the first and second differential times of flight. sampling a first ultrasonic signal to produce a first sampled signal; sampling a second ultrasonic signal to produce a second sampled signal; determining a first differential time of flight between the first sampled signal and the second sampled signal; determining a second differential time of flight, independently from the first differential time of flight, between the first sampled signal and the second sampled signal; and calculating the time difference in response to the first and second differential times of flight.
A glass bottle inspection method for detecting a defect at a specific location of a glass bottle by producing a template serving as a reference image based on images of a defect-free glass bottle which have been captured previously using an illuminating unit (LED1, LED2) and a camera, and by comparing an image of the glass bottle to be inspected with the template, the glass bottle inspection method comprising: successively producing differential images from original images, each differential image produced from two original images which are successively captured from the glass bottle to be inspected, while the glass bottle is being rotated about its own axis (Cx); comparing said differential images with said template to judge whether the glass bottle is defect-free or not, and combining all the differential images obtained from the glass bottle to be inspected in one inspection cycle to produce a differential composite image; using said differential composite image as a provisional template when all the differential images obtained from the glass bottle in one inspection cycle are judged as representing a defect-free glass bottle; and correcting said template using said provisional template. successively producing differential images from original images, each differential image produced from two original images which are successively captured from the glass bottle to be inspected, while the glass bottle is being rotated about its own axis (Cx); comparing said differential images with said template to judge whether the glass bottle is defect-free or not, and combining all the differential images obtained from the glass bottle to be inspected in one inspection cycle to produce a differential composite image; using said differential composite image as a provisional template when all the differential images obtained from the glass bottle in one inspection cycle are judged as representing a defect-free glass bottle; and correcting said template using said provisional template.
A method of generating an Orthogonal Frequency Division Multiplexing, OFDM, symbol for transmission from a non-reference transceiver to a user equipment in a mobile communication system, the method comprising: ascertaining a general timing for transmission of OFDM symbols, wherein the general timing is associated with a reference transceiver by a time delay between the reference transceiver and the non-reference transceiver; ascertaining a user equipment timing relative to the general timing, wherein the user equipment timing relative to the general timing is based, at least in part, on a timing advance amount determined by the reference transceiver, wherein the timing advance amount influences when the user equipment will initiate uplink transmissions; adjusting an initial resource element value by a pre-compensating amount to obtain a pre-compensated resource element value, wherein the pre-compensating amount is based on the user equipment timing relative to the general timing; supplying the pre-compensated resource element value as one of a plurality of values to be transmitted; performing an Inverse Fast Fourier Transform, IFFT, on the plurality of values to be transmitted to obtain pre-compensated initial signal information; and appending a cyclic prefix to the pre-compensated initial signal information to form the OFDM symbol for transmission from the non-preference transceiver to the user equipment. ascertaining a general timing for transmission of OFDM symbols, wherein the general timing is associated with a reference transceiver by a time delay between the reference transceiver and the non-reference transceiver; ascertaining a user equipment timing relative to the general timing, wherein the user equipment timing relative to the general timing is based, at least in part, on a timing advance amount determined by the reference transceiver, wherein the timing advance amount influences when the user equipment will initiate uplink transmissions; adjusting an initial resource element value by a pre-compensating amount to obtain a pre-compensated resource element value, wherein the pre-compensating amount is based on the user equipment timing relative to the general timing; supplying the pre-compensated resource element value as one of a plurality of values to be transmitted; performing an Inverse Fast Fourier Transform, IFFT, on the plurality of values to be transmitted to obtain pre-compensated initial signal information; and appending a cyclic prefix to the pre-compensated initial signal information to form the OFDM symbol for transmission from the non-preference transceiver to the user equipment.
A method performed by a wireless communication device (212, 700) for a cellular communications system, the method comprising: • receiving a configuration from a network node, the configuration comprising a demodulation reference signal, DMRS, configuration that comprises an indication of a type of DMRS used and a maximum number of front-loaded DMRS symbols, and an antenna port field configuration for indicating a size of an antenna port field having a configurable size in a downlink control information, DCI, format; • receiving a DCI of the DCI format from the network node for a corresponding physical channel, the received DCI comprising an antenna port field; • determining the size of the antenna port field of the received DCI and a DMRS port table for interpreting a value comprised in the antenna port field of the received DCI based on at least the DMRS configuration and the antenna port field configuration, the determined DMRS port table being a subset of a master DMRS port table; and • determining one or more DMRS ports in the DMRS table used for the corresponding physical channel based on one or more of the determined size of the antenna port field, the DMRS port table, and the value of the antenna port field comprised in the DCI. • receiving a configuration from a network node, the configuration comprising a demodulation reference signal, DMRS, configuration that comprises an indication of a type of DMRS used and a maximum number of front-loaded DMRS symbols, and an antenna port field configuration for indicating a size of an antenna port field having a configurable size in a downlink control information, DCI, format; • receiving a DCI of the DCI format from the network node for a corresponding physical channel, the received DCI comprising an antenna port field; • determining the size of the antenna port field of the received DCI and a DMRS port table for interpreting a value comprised in the antenna port field of the received DCI based on at least the DMRS configuration and the antenna port field configuration, the determined DMRS port table being a subset of a master DMRS port table; and • determining one or more DMRS ports in the DMRS table used for the corresponding physical channel based on one or more of the determined size of the antenna port field, the DMRS port table, and the value of the antenna port field comprised in the DCI.
A temperature sensor, comprising: a first substrate having an upper surface, a first support surface elevated above the upper surface, and a second support surface elevated above the upper surface, the first support surface being spaced apart from the second support surface; a first platinum member including a first base portion positioned on the first support surface and including a first prong and a second prong extending from the first base portion to the second support surface, the first prong and the second prong being suspended over the upper surface of the first substrate; and a first post extending from the first support surface and restricting movement of the first base portion relative to the first support surface. a first substrate having an upper surface, a first support surface elevated above the upper surface, and a second support surface elevated above the upper surface, the first support surface being spaced apart from the second support surface; a first platinum member including a first base portion positioned on the first support surface and including a first prong and a second prong extending from the first base portion to the second support surface, the first prong and the second prong being suspended over the upper surface of the first substrate; and a first post extending from the first support surface and restricting movement of the first base portion relative to the first support surface.
A method for mixing a dilution air (201, 301) with hot gases in a sequential combustion system (100, 200, 300) of a gas turbine, wherein the gas turbine essentially comprises at least one compressor, a first combustor (102, 120, 220, 320) which is connected downstream to the compressor, a first burner inducing a main original swirl (121, 221, 321), wherein hot gases of the first combustor (102, 120, 220, 320) having said main original swirl (121, 221, 321) are admitted to at least one intermediate turbine or directly or indirectly to at least one second combustor, wherein hot gases of the second combustor are admitted to a further turbine or directly or indirectly to an energy recovery, wherein the first combustor (102, 120, 320) runs under a caloric combustion path having a can architecture, and wherein at least one dilution air (201, 301) injection is introduced into the first combustor (102, 120, 220, 320) and wherein the dilution air injection (223, 323) is directed against or in the direction of the main original swirl (121, 221, 321) of the hot gases of the first combustor (102, 120, 220, 320) inside of the first combustor (102, 120, 220, 320), the method further comprising regulating the direction of the dilution air (201, 301).
A method for preparing an infusion beverage, wherein a measured quantity of a dried infusion substance is brought into contact with a measured quantity of an infusion liquid, and the infusion beverage arises by way of this, characterised in that the dried infusion substance is provided in an infusion container which is firstly present in a collapsed shape and is expandable into an expanded shape, that the infusion liquid is introduced into the infusion container, whereby the infusion container is expanded, that the dried infusion substance is kept in contact with the infusion liquid in the infusion container during a contact duration for forming the infusion beverage, and that the infusion container is then at least partly brought back into its collapsed shape by way of pressing together and with this the infusion beverage is at least partly expelled from the infusion container.
Support and containment element for articles comprising a base, lateral walls (3, 3', 3", 3′′′) connected to said base in a manner so as to form a single body, wherein said base and said lateral walls (3, 3', 3", 3′′′) together delimit a containment space that has at least one upper opening, delimited at an upper portion of said support and containment element, for accessing said space, characterized in that it comprises at least one stiffening element associated with at least one pair from among said lateral walls (3, 3', 3", 3′′′) at said upper portion, wherein said at least one stiffening element and said at least one pair from among said lateral walls (3, 3', 3", 3"') are mutually constrained in a permanent manner, wherein at least one section of said at least one stiffening element is at least partially incorporated in at least one pair of said lateral walls (3, 3', 3", 3′′′).