mhurhangee/ep-ind-claims huggingface dataset:
A spacecraft, comprising: a structural interface adapter for mating to a launch vehicle; an aft surface disposed proximate to the structural interface adapter; a forward surface disposed opposite to the aft surface; a main body structure disposed between the aft surface and the forward surface, the main body structure including a plurality of sidewalls (116, 117) disposed between the aft surface and the forward surface; and a plurality of unfurlable antenna reflectors, at least one unfurlable antenna reflector configured to be illuminated, in an on-orbit configuration, by a respective feed array, characterised by: the spacecraft being reconfigurable from a launch configuration to the on-orbit configuration; in the launch configuration, the at least one unfurlable antenna reflector is disposed, undeployed, forward of the respective feed array, proximate to and outboard of one of the plurality of sidewalls (116, 117); and, in the on-orbit configuration, the spacecraft is disposed with the forward surface being substantially earth-facing and the at least one unfurlable antenna reflector is disposed, deployed, so as to be earth-facing from a position aft of the respective feed array. a structural interface adapter for mating to a launch vehicle; an aft surface disposed proximate to the structural interface adapter; a forward surface disposed opposite to the aft surface; a main body structure disposed between the aft surface and the forward surface, the main body structure including a plurality of sidewalls (116, 117) disposed between the aft surface and the forward surface; and a plurality of unfurlable antenna reflectors, at least one unfurlable antenna reflector configured to be illuminated, in an on-orbit configuration, by a respective feed array, characterised by: the spacecraft being reconfigurable from a launch configuration to the on-orbit configuration; in the launch configuration, the at least one unfurlable antenna reflector is disposed, undeployed, forward of the respective feed array, proximate to and outboard of one of the plurality of sidewalls (116, 117); and, in the on-orbit configuration, the spacecraft is disposed with the forward surface being substantially earth-facing and the at least one unfurlable antenna reflector is disposed, deployed, so as to be earth-facing from a position aft of the respective feed array. the spacecraft being reconfigurable from a launch configuration to the on-orbit configuration; in the launch configuration, the at least one unfurlable antenna reflector is disposed, undeployed, forward of the respective feed array, proximate to and outboard of one of the plurality of sidewalls (116, 117); and, in the on-orbit configuration, the spacecraft is disposed with the forward surface being substantially earth-facing and the at least one unfurlable antenna reflector is disposed, deployed, so as to be earth-facing from a position aft of the respective feed array.
A method at a user equipment, UE, for obtaining system information in a heterogeneous wireless communication environment, comprising: identifying at least one punctured transmission symbol sent by an interfering base station from a puncturing pattern as a function of a cell identifier, ID, and a transmit time; wherein the at least one punctured transmission symbol is a symbol of a Physical Broadcast Channel, PBCH, signal of the interfering base station; decoding system information from the PBCH signal of the interfering base station comprising ignoring log likelihood ratios, LLRs, from the at least one punctured transmission symbol; if it is determined that the UE is barred from accessing the interfering base station; decoding at least one symbol of a PBCH signal of an interfered base station, wherein the at least one symbol is received during the at least one punctured transmission symbol of the PBCH signal of the interfering base station. identifying at least one punctured transmission symbol sent by an interfering base station from a puncturing pattern as a function of a cell identifier, ID, and a transmit time; wherein the at least one punctured transmission symbol is a symbol of a Physical Broadcast Channel, PBCH, signal of the interfering base station; decoding system information from the PBCH signal of the interfering base station comprising ignoring log likelihood ratios, LLRs, from the at least one punctured transmission symbol; if it is determined that the UE is barred from accessing the interfering base station; decoding at least one symbol of a PBCH signal of an interfered base station, wherein the at least one symbol is received during the at least one punctured transmission symbol of the PBCH signal of the interfering base station.
Apparatus for treating a gas stream, comprising a plasma generator for generating a plasma for treating the gas stream in a reaction chamber downstream of the plasma generator, wherein a region between the plasma generator and the reaction chamber comprises at least one surface which is susceptible to the accumulation of solid deposits and wherein a scraper (26; 50) is fitted for movement from a first position withdrawn from said at least one surface to a second position for scraping said at least one surface to remove accumulated solid deposits, wherein the plasma generator comprises at least one electrode for energising the source gas to generate a plasma, and the scraper is configured for scraping a surface of the electrode to remove solid deposits accumulated on the surface and characterised in that the scraper has a through bore (46; 96) which in the second position of the scraper is aligned with the electrode to allow the plasma flare to extend through the through bore.
A vector comprising a nucleic acid molecule encoding a T cell receptor α chain comprising the nucleic acid sequence of SEQ ID NO: 2 and a nucleic acid molecule encoding a T cell receptor β chain comprising the nucleic acid sequence of SEQ ID NO: 3.
A handover method for a user equipment, UE, the method comprising: measuring the strength of signals received from a serving base station, BS, and neighboring BSs and transmitting to the serving BS a measurement report message containing information based on the signal strengths; receiving, when the serving BS has determined to prepare a handover based on the information and at least one of the neighboring BSs has admitted to to serve the UE as a candidate target BS, a handover command message from the serving BS; upon receipt of the handover command message, measuring the signal strengths of the serving BS and of the neighboring BSs, and determining (S30, S160) based on these measurement if it is time for handover, whereby the time for handover is when an event for executing a handover into a candidate target BS occurs based on the measured signal strengths and if it is time for handover, performing handover to a target BS corresponding to the candidate target BS. measuring the strength of signals received from a serving base station, BS, and neighboring BSs and transmitting to the serving BS a measurement report message containing information based on the signal strengths; receiving, when the serving BS has determined to prepare a handover based on the information and at least one of the neighboring BSs has admitted to to serve the UE as a candidate target BS, a handover command message from the serving BS; upon receipt of the handover command message, measuring the signal strengths of the serving BS and of the neighboring BSs, and determining (S30, S160) based on these measurement if it is time for handover, whereby the time for handover is when an event for executing a handover into a candidate target BS occurs based on the measured signal strengths and if it is time for handover, performing handover to a target BS corresponding to the candidate target BS.
A method for improving the cosmetic appearance of aged or scarred skin of a mammalian animal wherein a: (i) polypeptide comprising an amino acid sequence as set forth in any one of SEQ ID Nos. 1-4 or a sequence which is at least 90% identical to said sequence, or a portion of any of said sequences, wherein said portion comprises at least 100 amino acids and is at least 90% identical to a comparable region of an amino acid sequence as set forth in any one of SEQ ID Nos. 1-4; or (ii) cosmetic composition comprising (i) and one or more pharmaceutically acceptable excipients and/or diluents, is administered to said animal. (i) polypeptide comprising an amino acid sequence as set forth in any one of SEQ ID Nos. 1-4 or a sequence which is at least 90% identical to said sequence, or a portion of any of said sequences, wherein said portion comprises at least 100 amino acids and is at least 90% identical to a comparable region of an amino acid sequence as set forth in any one of SEQ ID Nos. 1-4; or (ii) cosmetic composition comprising (i) and one or more pharmaceutically acceptable excipients and/or diluents,
A surgical stapling apparatus comprising: a cartridge assembly defining a tissue contacting surface and having a longitudinal knife slot formed therein; an anvil assembly defining a tissue contacting surface and having a longitudinal knife slot formed therein; and a surgical buttress ("B") releasably secured to at least one of the tissue contacting surface of the cartridge assembly and the tissue contacting surface of the anvil assembly by at a first anchor ("S") placed near a proximal end of each surgical buttress and a second anchor placed near a distal end of each surgical buttress, wherein the anchors are selected from the group consisting of sutures, threads, tethers, straps, bands, lines, wires, cables, tacks, and fasteners, characterized in that each anchor ("S") extends transversely across the respective longitudinal knife slot (82c, 70b) of the cartridge assembly or the anvil assembly, and wherein the surgical stapling apparatus is configured to sever each anchor to release the surgical buttress upon firing of the surgical stapling apparatus. a cartridge assembly defining a tissue contacting surface and having a longitudinal knife slot formed therein; an anvil assembly defining a tissue contacting surface and having a longitudinal knife slot formed therein; and a surgical buttress ("B") releasably secured to at least one of the tissue contacting surface of the cartridge assembly and the tissue contacting surface of the anvil assembly by at a first anchor ("S") placed near a proximal end of each surgical buttress and a second anchor placed near a distal end of each surgical buttress, wherein the anchors are selected from the group consisting of sutures, threads, tethers, straps, bands, lines, wires, cables, tacks, and fasteners, characterized in that each anchor ("S") extends transversely across the respective longitudinal knife slot (82c, 70b) of the cartridge assembly or the anvil assembly, and wherein the surgical stapling apparatus is configured to sever each anchor to release the surgical buttress upon firing of the surgical stapling apparatus.
A method for producing a hydrogenated unsaturated polyhydroxyhydrocarbon polymer comprising: hydrogenating an unsaturated polyhydroxyhydrocarbon polymer in a hydrogen atmosphere under the presence of a hydrogenation catalyst and a reaction solvent in the following two stages and: carrying out a hydrogenation reaction in a temperature range of 80°C to 130°C until a hydrogenation rate of at least 30 mol% is achieved; and then carrying out a hydrogenation reaction at a temperature higher than 130°C and not more than 190°C until a hydrogenation rate of at least 98 mol% is achieved. hydrogenating an unsaturated polyhydroxyhydrocarbon polymer in a hydrogen atmosphere under the presence of a hydrogenation catalyst and a reaction solvent in the following two stages and: carrying out a hydrogenation reaction in a temperature range of 80°C to 130°C until a hydrogenation rate of at least 30 mol% is achieved; and then carrying out a hydrogenation reaction at a temperature higher than 130°C and not more than 190°C until a hydrogenation rate of at least 98 mol% is achieved. carrying out a hydrogenation reaction in a temperature range of 80°C to 130°C until a hydrogenation rate of at least 30 mol% is achieved; and then carrying out a hydrogenation reaction at a temperature higher than 130°C and not more than 190°C until a hydrogenation rate of at least 98 mol% is achieved.
A heat dissipation module, comprising: a chamber having: an accommodating space; at least one inlet disposed in a first side wall of the chamber and communicating with the accommodating space; and at least one outlet disposed in a second side wall of the chamber away from the at least one inlet and communicating with the accommodating space; a first cooling fin disposed in the accommodating space characterised in that the first cooling fin has a guiding surface extending obliquely upward; and a barrier part is disposed outside the guiding surface of the first cooling fin and having at least one through hole, wherein the chamber is adapted to contact a heat source, and to allow a low-temperature liquid to enter the accommodating space through the at least one inlet and to pass through the barrier part to contact the first cooling fin, and the low-temperature liquid forms a high-temperature gas after heat absorption and is guided toward the at least one outlet by the barrier part and the guiding surface to flow out of the accommodating space. a chamber having: an accommodating space; at least one inlet disposed in a first side wall of the chamber and communicating with the accommodating space; and at least one outlet disposed in a second side wall of the chamber away from the at least one inlet and communicating with the accommodating space; an accommodating space; at least one inlet disposed in a first side wall of the chamber and communicating with the accommodating space; and at least one outlet disposed in a second side wall of the chamber away from the at least one inlet and communicating with the accommodating space; a first cooling fin disposed in the accommodating space characterised in that the first cooling fin has a guiding surface extending obliquely upward; and a barrier part is disposed outside the guiding surface of the first cooling fin and having at least one through hole, wherein the chamber is adapted to contact a heat source, and to allow a low-temperature liquid to enter the accommodating space through the at least one inlet and to pass through the barrier part to contact the first cooling fin, and the low-temperature liquid forms a high-temperature gas after heat absorption and is guided toward the at least one outlet by the barrier part and the guiding surface to flow out of the accommodating space.
A method of manufacturing a glove, which glove comprises a top layer, which top layer is made of genuine or synthetic leather, an outer surface and an inner surface, which inner surface is configured to be in skin contact when the glove is worn in hand, characterized in that, said method comprises a step of covering the outer surface at least partly with nanometric-sized material having photocatalytic properties.
Device for applying clay to a surface, in particular for producing automobile design models, having a housing with a connection piece for a clay supply line and with a clay discharge opening, characterized by a disc which - is placed Clay-tight in a clay dispensing flange opening and is rotatable and motor-driven and - has the discharge opening and otherwise closes said flange opening and - has an elevation on the outside. - is placed Clay-tight in a clay dispensing flange opening and is rotatable and motor-driven and - has the discharge opening and otherwise closes said flange opening and - has an elevation on the outside.
A communication method for use in a communications system serving at least one user, said method comprising the steps of: establishing a session in which the user is arranged to communicate with at least one entity; using a first charging method for one part of said session wherein said first charging method comprises on-line charging; and using a second charging method for a different part of said session wherein said second charging method comprises off-line charging, characterised by providing a plurality of services in the single session, wherein at least one of said services requires the first charging method whilst at least one other of said services requires the second charging method. establishing a session in which the user is arranged to communicate with at least one entity; using a first charging method for one part of said session wherein said first charging method comprises on-line charging; and using a second charging method for a different part of said session wherein said second charging method comprises off-line charging, characterised by providing a plurality of services in the single session, wherein at least one of said services requires the first charging method whilst at least one other of said services requires the second charging method.
An apparatus comprising: a microcontroller; a transmitter configured and arranged to transmit signals from the microcontroller to signal lines (502, 504) of a bus; and a receiver configured and arranged to receive signals communicated over signal lines of the bus and to provide the received signals to the microcontroller, the microcontroller being configured and arranged with the transmitter and the receiver to carry out a test protocol for assessing integrity of the bus or of circuitry connected to the bus, by: transmitting an initial test bit sequence to a plurality of circuit nodes (510, 520, 530, 540, 550) connected to the bus, characterized by providing a test voltage across the signal lines, the potential of the test voltage being less than an operating voltage potential at which the circuit nodes connected to the bus operate for communicating bits, after transmitting the initial test bit sequence, sensing a state of the bus via the receiver, and determining whether all of the circuit nodes received the initial test bit sequence, based on the sensed state of the bus and on a state that the bus is expected to be in after transmission of the initial test bit sequence. a microcontroller; a transmitter configured and arranged to transmit signals from the microcontroller to signal lines (502, 504) of a bus; and a receiver configured and arranged to receive signals communicated over signal lines of the bus and to provide the received signals to the microcontroller, the microcontroller being configured and arranged with the transmitter and the receiver to carry out a test protocol for assessing integrity of the bus or of circuitry connected to the bus, by: transmitting an initial test bit sequence to a plurality of circuit nodes (510, 520, 530, 540, 550) connected to the bus, characterized by providing a test voltage across the signal lines, the potential of the test voltage being less than an operating voltage potential at which the circuit nodes connected to the bus operate for communicating bits, after transmitting the initial test bit sequence, sensing a state of the bus via the receiver, and determining whether all of the circuit nodes received the initial test bit sequence, based on the sensed state of the bus and on a state that the bus is expected to be in after transmission of the initial test bit sequence. transmitting an initial test bit sequence to a plurality of circuit nodes (510, 520, 530, 540, 550) connected to the bus, characterized by providing a test voltage across the signal lines, the potential of the test voltage being less than an operating voltage potential at which the circuit nodes connected to the bus operate for communicating bits, after transmitting the initial test bit sequence, sensing a state of the bus via the receiver, and determining whether all of the circuit nodes received the initial test bit sequence, based on the sensed state of the bus and on a state that the bus is expected to be in after transmission of the initial test bit sequence.
A vane cluster for a gas turbine engine, comprising: a first end-of-cluster vane; a second end-of-cluster vane including a second vane outer platform; a neighbor vane adjacent to said second end-of-cluster vane at an interface that includes an angled load interface therebetween, the angled load interface included on a suction side edge of an outer platform of the neighbor vane; and a multiple of base vanes between said first end-of-cluster vane and said neighbor vane; wherein said angled load interface is different than an interface between each of said multiple of base vanes such as to accommodate an axial movement of the neighbor vane with respect to the second end-of-cluster vane and at least one of the multiple of base vanes, characterised in that: said second end-of-cluster vane includes an anti-rotation lug, said anti-rotation lug radially extends from said second vane outer platform, and said anti-rotation lug extends from a forward hook of said second vane outer platform. a first end-of-cluster vane; a second end-of-cluster vane including a second vane outer platform; a neighbor vane adjacent to said second end-of-cluster vane at an interface that includes an angled load interface therebetween, the angled load interface included on a suction side edge of an outer platform of the neighbor vane; and a multiple of base vanes between said first end-of-cluster vane and said neighbor vane; wherein said angled load interface is different than an interface between each of said multiple of base vanes such as to accommodate an axial movement of the neighbor vane with respect to the second end-of-cluster vane and at least one of the multiple of base vanes, characterised in that: said second end-of-cluster vane includes an anti-rotation lug, said anti-rotation lug radially extends from said second vane outer platform, and said anti-rotation lug extends from a forward hook of said second vane outer platform.
An electrode catalyst for fuel cell comprising a catalyst carrier containing carbon as a main component and a catalytic metal carried on the catalyst carrier, wherein the catalyst has a ratio R' (D'/G intensity ratio) of a peak intensity of D' band (D' intensity) measured in the vicinity of 1620 cm -1 to a peak intensity of G band (G intensity) measured in the vicinity of 1580 cm -1 by Raman spectroscopy of more than 0.6 and 0.8 or less; and wherein the catalyst has pores with a radius of 1 nm or more and less than 5 nm, a pore volume of the pores of 0.8 cm 3 /g carrier or more, and a specific surface area of the catalytic metal of 60 m 2 /g carrier or less, with the catalytic metal being carried inside the pores with a radius of 1 nm or more and less than 5 nm; the R' value being determined by: obtaining a Raman spectrum of a carbon material with a Micro-Raman spectroscope at room temperature (25°C) for an exposure time of 30 seconds by four times as a cumulated number, using an excitation wavelength Nd:SHG of YAG of 532 nm, a laser output of 3 mW, a spot size of 1 μm or less and a CCD detector; determining the peaks of the G band and the D' band by peak fitting with Gaussian distribution; and calculating the relative intensity ratio between the peak intensity in the vicinity of 1620 cm -1 called a D' band (D' intensity) and peak intensity in the vicinity of 1580 cm -1 called a G band (G intensity), that is, a peak area ratio (D' intensity/G intensity), to obtain the R' value. obtaining a Raman spectrum of a carbon material with a Micro-Raman spectroscope at room temperature (25°C) for an exposure time of 30 seconds by four times as a cumulated number, using an excitation wavelength Nd:SHG of YAG of 532 nm, a laser output of 3 mW, a spot size of 1 μm or less and a CCD detector; determining the peaks of the G band and the D' band by peak fitting with Gaussian distribution; and calculating the relative intensity ratio between the peak intensity in the vicinity of 1620 cm -1 called a D' band (D' intensity) and peak intensity in the vicinity of 1580 cm -1 called a G band (G intensity), that is, a peak area ratio (D' intensity/G intensity), to obtain the R' value.