mhurhangee/ep-ind-claims huggingface dataset:
A heater module (22L, 22R) provided along a heated surface of an object to be heated (13CL, 13CR), the object to be heated is a battery module mounted on a battery module mounting surface in a battery pack casing, the heater module (22L, 22R) comprising: a plate-like heater body that faces the heated surface of the object to be heated (13CL, 13CR); and an insulating holder that holds the plate-like heater body in a manner as to face the heated surface of the object to be heated (13CL, 13CR), the insulating holder is fixed, at one edge, onto the mounting surface on which object to be heated (13CL, 13CR) is mounted, the insulating holder being fixed, at one edge of the insulating holder, to the mounting surface on which the object to be heated (13CL, 13CR) is mounted, and located on one side of the plate-like heater body away from the heated surface of the object to be heated (13CL, 13CR), and the insulating holder being provided, at another edge opposite to the one edge, with a regulation member (31 a) that projects toward the heated surface of the object to be heated (13CL, 13CR) from the plate-like heater body, wherein the regulation member (31 a) is a heater body locking portion (31 a) with which the insulating holder locks the plate-like heater body, and wherein the heater body locking portion (31 a) is integrally formed in the insulating holder. a plate-like heater body that faces the heated surface of the object to be heated (13CL, 13CR); and an insulating holder that holds the plate-like heater body in a manner as to face the heated surface of the object to be heated (13CL, 13CR), the insulating holder is fixed, at one edge, onto the mounting surface on which object to be heated (13CL, 13CR) is mounted, the insulating holder being fixed, at one edge of the insulating holder, to the mounting surface on which the object to be heated (13CL, 13CR) is mounted, and located on one side of the plate-like heater body away from the heated surface of the object to be heated (13CL, 13CR), and the insulating holder being provided, at another edge opposite to the one edge, with a regulation member (31 a) that projects toward the heated surface of the object to be heated (13CL, 13CR) from the plate-like heater body, wherein the regulation member (31 a) is a heater body locking portion (31 a) with which the insulating holder locks the plate-like heater body, and wherein the heater body locking portion (31 a) is integrally formed in the insulating holder.
A weld deposit composition for a GMAW application consisting of, by percent mass: between 1.8% and 2.5% Carbon; between 0.8% and 1.4% Manganese; between 0.6% and 1.2% Silicon; between 23.0% and 26.0% Chromium; between 2.0% and 3.0% Nickel; between 0.7% and 1.5% Molybdenum; between 2.6% and 3.6% Niobium; less than 0.5% Titanium; between 0.3% and 0.8% Boron; between 0% and 0.4% Zirconium; and a balance comprising Iron and incidental impurities. between 1.8% and 2.5% Carbon; between 0.8% and 1.4% Manganese; between 0.6% and 1.2% Silicon; between 23.0% and 26.0% Chromium; between 2.0% and 3.0% Nickel; between 0.7% and 1.5% Molybdenum; between 2.6% and 3.6% Niobium; less than 0.5% Titanium; between 0.3% and 0.8% Boron; between 0% and 0.4% Zirconium; and a balance comprising Iron and incidental impurities.
A bispecific antibody comprising: a) a first antigen-binding site that specifically binds human vascular endothelial growth factor (VEGF), and b) a second antigen-binding site that specifically binds human delta-like 4 ligand, wherein the first antigen-binding site comprises a heavy chain CDR1 comprising NYWMH (SEQ ID NO:17), a heavy chain CDR2 comprising DINPSNGRTSYKEKFKR (SEQ ID NO:18), and a heavy chain CDR3 comprising HYDDKYYPLMDY (SEQ ID NO:19); wherein the second antigen-binding site comprises TAYYIH (SEQ ID NO:13) or AYYIH (SEQ ID NO:79), a heavy chain CDR2 comprising YIX 1 X 2 YX 3 X 4 ATNYNQKFKG (SEQ ID NO:80), wherein X 1 is serine or alanine, X 2 is serine, asparagine, or glycine, X 3 is asparagine or lysine, and X 4 is glycine, arginine, or aspartic acid, and a heavy chain CDR3 comprising RDYDYDVGMDY (SEQ ID NO:16); and wherein both the first and second antigen-binding sites comprise a light chain CDR1 comprising RASESVDNYGISFMK (SEQ ID NO:20), a light chain CDR2 comprising AASNQGS (SEQ ID NO:21), and a light chain CDR3 comprising QQSKEVPWTFGG (SEQ ID NO:22). a) a first antigen-binding site that specifically binds human vascular endothelial growth factor (VEGF), and b) a second antigen-binding site that specifically binds human delta-like 4 ligand, wherein the first antigen-binding site comprises a heavy chain CDR1 comprising NYWMH (SEQ ID NO:17), a heavy chain CDR2 comprising DINPSNGRTSYKEKFKR (SEQ ID NO:18), and a heavy chain CDR3 comprising HYDDKYYPLMDY (SEQ ID NO:19); wherein the second antigen-binding site comprises TAYYIH (SEQ ID NO:13) or AYYIH (SEQ ID NO:79), a heavy chain CDR2 comprising YIX 1 X 2 YX 3 X 4 ATNYNQKFKG (SEQ ID NO:80), wherein X 1 is serine or alanine, X 2 is serine, asparagine, or glycine, X 3 is asparagine or lysine, and X 4 is glycine, arginine, or aspartic acid, and a heavy chain CDR3 comprising RDYDYDVGMDY (SEQ ID NO:16); and wherein both the first and second antigen-binding sites comprise a light chain CDR1 comprising RASESVDNYGISFMK (SEQ ID NO:20), a light chain CDR2 comprising AASNQGS (SEQ ID NO:21), and a light chain CDR3 comprising QQSKEVPWTFGG (SEQ ID NO:22). wherein the first antigen-binding site comprises a heavy chain CDR1 comprising NYWMH (SEQ ID NO:17), a heavy chain CDR2 comprising DINPSNGRTSYKEKFKR (SEQ ID NO:18), and a heavy chain CDR3 comprising HYDDKYYPLMDY (SEQ ID NO:19); wherein the second antigen-binding site comprises TAYYIH (SEQ ID NO:13) or AYYIH (SEQ ID NO:79), a heavy chain CDR2 comprising YIX 1 X 2 YX 3 X 4 ATNYNQKFKG (SEQ ID NO:80), wherein X 1 is serine or alanine, X 2 is serine, asparagine, or glycine, X 3 is asparagine or lysine, and X 4 is glycine, arginine, or aspartic acid, and a heavy chain CDR3 comprising RDYDYDVGMDY (SEQ ID NO:16); and wherein both the first and second antigen-binding sites comprise a light chain CDR1 comprising RASESVDNYGISFMK (SEQ ID NO:20), a light chain CDR2 comprising AASNQGS (SEQ ID NO:21), and a light chain CDR3 comprising QQSKEVPWTFGG (SEQ ID NO:22).
A liquid crystal composition, having a nematic phase and containing at least one compound selected from the group of compounds represented by formula as a first component and at least one polymerizable compound selected from the group of compounds represented by formula as a second component, and having a ratio of the first component in the range of 5% by weight to 40% by weight based on the weight of the liquid crystal composition excluding the second component: wherein R 1 is alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons; R 2, R 3, R 4 and R 5 are independently hydrogen, alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons, alkenyl having 2 to 12 carbons, alkenyl having 2 to 12 carbons in which at least one of hydrogen is replaced by fluorine, acryloyl, methacryloyl, vinyloxy, propenyloxy, oxirane, oxetane or vinylcarbonyl, and at least one of R 2, R 3, R 4 and R 5 is acryloyl, methacryloyl, vinyloxy, propenyloxy, oxirane, oxetane or vinylcarbonyl; ring A and ring B are independently 1,4-cyclohexylene, 1,4-phenylene, 2-fluoro-1,4-phenylene, 3-fluoro-1,4-phenylene, 3,5-difluoro-1,4-phenylene, pyrimidine-2,5-diyl or 2,6,7-trioxabicyclo[2.2.2]octane-1,4-diyl; ring C, ring D and ring E are independently 1,4-cyclohexylene, 1,4-phenylene, 2-fluoro-1,4-phenylene, 3-fluoro-1,4-phenylene, 2,3-difluoro-1,4-phenylene, 2-methyl-1,4-phenylene, 3-methyl-1,4-phenylene, 2-trifluoromethyl-1,4-phenylene, 3-trifluoromethyl-1,4-phenylene or 2,6-naphthalene; Z 1 and Z 2 are independently a single bond, ethylene, carbonyloxy or difluoromethyleneoxy; Z 3 is a single bond, ethylene, methyleneoxy, carbonyloxy, -CO-CR 6 =CR 7 -, -CR 6 =CR 7 -CO-, -CR 6 =CR 7 -, -C(=CR 6 R 7)- or -C(=R 8)-; R 6 and R 7 are independently hydrogen, halogen, alkyl having 1 to 10 carbons, or alkyl having 1 to 10 carbons in which at least one of hydrogen is replaced by fluorine; and R 8 is a group selected from the group of groups represented by formula (R-1); wherein V 1 is independently halogen, alkyl having 1 to 6 carbons, or alkyl having 1 to 6 carbons in which at least one of hydrogen is replaced by fluorine; n 1 is an integer from 1 to 8; n 2 is an integer from 0 to 4; Z 4 is independently a single bond, ethylene, methyleneoxy or carbonyloxy; Z 5, Z 6, Z 7 and Z 8 are independently a single bond or alkylene having 1 to 12 carbons, at least one of hydrogen of the alkylene may be replaced by halogen or -C≡N, at least one of non-adjacent -CH 2 - may be replaced by -O-, -S-, -NH-, -CO-, -CO-O-, -O-CO-, -O-CO-O-, -CH=CH- or -C=C-; X 1, X 2, X 3 and X 4 are independently hydrogen or fluorine; Y 1 is fluorine, chlorine, trifluoromethyl or trifluoromethoxy; and m and j are independently 0, 1, 2 or 3,; a sum of m and j is 2 or 3 and q is 0, 1 or 2.
A hand dryer with a housing in which a cavity accessible from outside through a housing opening is formed for accommodating hands to be dried by means of an airflow, and with a device for generating the airflow, as well as a device for generating UV radiation comprising at least one lamp that emits light in the ultraviolet wavelength range, which is arranged in the housing in such a manner that it emits UV radiation into the cavity, characterized in that the device for generating UV radiation is configured in such a manner that the UV radiation emitted into the cavity with a wavelength in the range from 228 to 380 nm has a maximum intensity of 20 % of the intensity of the UV radiation emitted into the cavity with a wavelength in the range from 200 to 380 nm.
Diaphragm vacuum pump having a housing which has a suction chamber which is delimited on one side by a movable diaphragm which is clamped in on the edge side in the housing and is made from a flexible material, having a housing head which delimits the suction chamber opposite the diaphragm and in which at least one intake line, leading into the suction chamber and having an inlet valve arrangement, and at least one discharge line, leading out of the suction chamber and having an outlet valve arrangement, are arranged, and having a mechanical, pneumatic or hydraulic drive, by way of which the diaphragm is set in an oscillating movement, the inlet valve arrangement having an inlet valve opening and an inlet valve body which closes the inlet valve opening in the case of positive pressure in the suction chamber relative to the intake line with a structurally predefined movement direction, and the outlet valve arrangement having an outlet valve opening and an outlet valve body which closes the outlet valve opening in the case of negative pressure in the suction chamber relative to the discharge line with a structurally predefined movement direction, the structurally predefined movement direction of the inlet valve body and/or of the outlet valve body corresponding to the gas flow direction at the corresponding valve opening (12; 14), and it being possible for the inlet valve body and/or the outlet valve body to be moved in any case predominantly in the gas flow direction in the case of a sufficient gas pressure by the respective gas flow at the inlet valve opening and the outlet valve opening, respectively, the inlet valve arrangement being assigned an electric, hydraulic or pneumatic inlet actuator which has a part which is mounted fixedly on the housing head and a driven, movable part which is coupled to the inlet valve body, and the movement direction of that movement of the movable part which is caused by the inlet actuator with respect to the stationary part corresponding with the movement direction of that movement of the inlet valve body which is caused by the gas flow, and/or the outlet valve arrangement being assigned an electric, hydraulic or pneumatic outlet actuator which has a part which is mounted fixedly on the housing head and a driven, movable part which is coupled to the outlet valve body, and the movement direction of that movement of the movable part which is caused by the outlet actuator with respect to the stationary part corresponding with the movement direction of that movement of the outlet valve body which is caused by the gas flow, characterized in that an electronic actuation means is provided which receives measured signals of at least one measuring element for direct or indirect positional determination of the diaphragm and, based on this, controls the inlet actuator and/or the outlet actuator in accordance with the movements of the diaphragm and the direction of the gas flow which is caused by it.
A method for ultrasonic imaging a volume behind a barrier having a front surface and an opposite inner surface, the method including the steps of: a) placing an array of elements of a probe capable of transmitting and receiving ultrasound adjacent the front surface of the barrier; b) estimating local thickness and sound speed in the barrier; c) defining a plurality of sub-apertures in the array of elements, each sub-aperture defined by a different sub-set of adjacent ones of the array of elements; d) collecting ultrasonic waveforms from each of the sub-apertures by focusing each sub-aperture approximately at the inner surface of the barrier based on the estimated thickness and estimated sound speed data obtained in said step b), the ultrasonic waveforms containing reflections from the front and inner surfaces of the barrier; e) combining the ultrasonic waveforms through each of the sub-aperture elements to generate a combined A-mode waveform for each of the sub-apertures; f) extracting a profile of the inner surface of the barrier adjacent the probe based upon the combined A-mode waveforms; g) calculating a correction based upon the profile of the inner surface, including calculating the correction for each element of the sub-apertures by tracing refracted acoustic rays between said each array element and an intended focal point through the barrier and the volume behind the barrier, wherein the corrections are in the form of modified time delays to achieve accurate single-point focusing; and h) scanning the volume behind the barrier using beamforming based upon the correction to generate an image of the volume. a) placing an array of elements of a probe capable of transmitting and receiving ultrasound adjacent the front surface of the barrier; b) estimating local thickness and sound speed in the barrier; c) defining a plurality of sub-apertures in the array of elements, each sub-aperture defined by a different sub-set of adjacent ones of the array of elements; d) collecting ultrasonic waveforms from each of the sub-apertures by focusing each sub-aperture approximately at the inner surface of the barrier based on the estimated thickness and estimated sound speed data obtained in said step b), the ultrasonic waveforms containing reflections from the front and inner surfaces of the barrier; e) combining the ultrasonic waveforms through each of the sub-aperture elements to generate a combined A-mode waveform for each of the sub-apertures; f) extracting a profile of the inner surface of the barrier adjacent the probe based upon the combined A-mode waveforms; g) calculating a correction based upon the profile of the inner surface, including calculating the correction for each element of the sub-apertures by tracing refracted acoustic rays between said each array element and an intended focal point through the barrier and the volume behind the barrier, wherein the corrections are in the form of modified time delays to achieve accurate single-point focusing; and h) scanning the volume behind the barrier using beamforming based upon the correction to generate an image of the volume.
Method of fabricating turbine engine blades, such as for example a turbine blade, comprising the steps consisting of: a) casting by centrifuging a TiAl-based metal alloy into a permanent metal mold, the mold being set into rotation about an axis, the mold having a plurality of cylindrical housings that extend radially around the axis and regularly spaced apart around this axis, a cylindrical core being mounted coaxially inside each of the housings, b) obtaining by casting a casting in the form of a wheel having a plurality of radial blanks secured via their radially inner ends to a common central hub, each blank being tubular and being in the form of a bar of elongate shape and of section that is circular or polygonal; and c) machining each blank to make blades, each blade being machined from the thickness of the tubular blank, over angular sectors of the blank that are arranged side by side, each being of an elongate shape extending substantially parallel to the longitudinal axis of the blank. a) casting by centrifuging a TiAl-based metal alloy into a permanent metal mold, the mold being set into rotation about an axis, the mold having a plurality of cylindrical housings that extend radially around the axis and regularly spaced apart around this axis, a cylindrical core being mounted coaxially inside each of the housings, b) obtaining by casting a casting in the form of a wheel having a plurality of radial blanks secured via their radially inner ends to a common central hub, each blank being tubular and being in the form of a bar of elongate shape and of section that is circular or polygonal; and c) machining each blank to make blades, each blade being machined from the thickness of the tubular blank, over angular sectors of the blank that are arranged side by side, each being of an elongate shape extending substantially parallel to the longitudinal axis of the blank.
A method for fabricating an electrochemical sensor component comprising the steps: providing a substrate; depositing a release layer on the substrate; and characterized by the steps: depositing a first flexible dielectric layer on the release layer; isolating, between the first flexible dielectric layer and a second flexible dielectric layer, one or more individual continuously connected electrodes, traces and contact pads comprised of a conductive material; forming at least one opening (60, 62) in the second flexible dielectric layer exposing at least a portion of at least one of the one or more individual continuously connected electrodes and contact pads; and removing the release layer between the first flexible dielectric material and the substrate, whereby the flexible electrochemical sensor component is released from the substrate. providing a substrate; depositing a release layer on the substrate; and characterized by the steps: depositing a first flexible dielectric layer on the release layer; isolating, between the first flexible dielectric layer and a second flexible dielectric layer, one or more individual continuously connected electrodes, traces and contact pads comprised of a conductive material; forming at least one opening (60, 62) in the second flexible dielectric layer exposing at least a portion of at least one of the one or more individual continuously connected electrodes and contact pads; and removing the release layer between the first flexible dielectric material and the substrate, whereby the flexible electrochemical sensor component is released from the substrate. depositing a first flexible dielectric layer on the release layer; isolating, between the first flexible dielectric layer and a second flexible dielectric layer, one or more individual continuously connected electrodes, traces and contact pads comprised of a conductive material; forming at least one opening (60, 62) in the second flexible dielectric layer exposing at least a portion of at least one of the one or more individual continuously connected electrodes and contact pads; and removing the release layer between the first flexible dielectric material and the substrate, whereby the flexible electrochemical sensor component is released from the substrate.
Station for filling tanks with pressurised fuel gas, the station comprising a gas distribution terminal comprising at least one pipe of which one end is provided with a connector intended to be fluidly connected to a tank to be filled, with the distribution terminal being fluidically connected to a source of gas via a circuit of pressurised gas distribution, with the station comprising at least one heat exchanger in heat exchange with the gas provided to the distribution terminal in order to cool said gas, with the heat exchanger being situated on the distribution circuit, with the distribution terminal and the heat exchanger being arranged on a common support, characterised in that the heat exchanger is arranged below the distribution terminal and in that the support is mobile between a first bottom position wherein the base of the terminal rests at the ground level while the heat exchanger is located in a cavity below ground level and a second top position wherein the exchanger is raised from the cavity to the ground level or above ground level.
A method, performed in a node (10, 110) in a radio network, of determining radio coverage of at least one small cell base station in a wireless communications network, the method comprising the steps of: - receiving (S1, S10) at a wireless device and/or sending to a wireless device an indication to initiate determination of radio coverage of the at least one small cell base station; - receiving at the wireless device and/or sending (S1c) at least one predefined path to the wireless device, along which radio condition measurements are to be performed; - obtaining (S2, S11) radio condition measurements along the at least one predefined path, wherein a respective first time value is associated to each radio condition measurement; - obtaining (S3, S12) position estimates defining the position of the wireless device performing the radio condition measurements along the at least one predefined path, wherein a respective second time value is associated to each position estimate; and - determining (S4a, S13) radio coverage by correlating each radio condition measurement to one of the obtained position estimates using the first and second time values. - receiving (S1, S10) at a wireless device and/or sending to a wireless device an indication to initiate determination of radio coverage of the at least one small cell base station; - receiving at the wireless device and/or sending (S1c) at least one predefined path to the wireless device, along which radio condition measurements are to be performed; - obtaining (S2, S11) radio condition measurements along the at least one predefined path, wherein a respective first time value is associated to each radio condition measurement; - obtaining (S3, S12) position estimates defining the position of the wireless device performing the radio condition measurements along the at least one predefined path, wherein a respective second time value is associated to each position estimate; and - determining (S4a, S13) radio coverage by correlating each radio condition measurement to one of the obtained position estimates using the first and second time values.