mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication node for generating multicarrier signals by means of backscattering in a wireless communication system comprising: a plurality A of antennas configured to receive a radio frequency, RF, signal with a carrier frequency (fc); a plurality A of switches, each switch has a number M of states; a number of impedance matrices, each impedance matrix comprising a number M of impedances (Z1, Z2...), and wherein each antenna is coupled to one of the impedance matrices by one of the plurality A switches; a symbol mapper, a serial to parallel converter and one or more modulators configured to generate a number A of baseband subcarrier signals based on data symbols to be transmitted, wherein each baseband subcarrier signal is generated with an antenna specific frequency ( k a · Δ f, a=1, 2, 3,... A, where A and k a are integers) for each one of the plurality A of antennas; one or more switch controller configured to control the states of the plurality A of switches based on the generated baseband subcarrier signals such that each antenna impedance is selected among the number M of impedances, and thereby the received RF signal at each antenna is modulated by its specific frequency baseband subcarrier signal; and wherein a group of RF subcarrier signals is generated by reflecting the modulated RF signal from each antenna, and thereby the multicarrier signals are generated from the plurality A of antennas. a plurality A of antennas configured to receive a radio frequency, RF, signal with a carrier frequency (fc); a plurality A of switches, each switch has a number M of states; a number of impedance matrices, each impedance matrix comprising a number M of impedances (Z1, Z2...), and wherein each antenna is coupled to one of the impedance matrices by one of the plurality A switches; a symbol mapper, a serial to parallel converter and one or more modulators configured to generate a number A of baseband subcarrier signals based on data symbols to be transmitted, wherein each baseband subcarrier signal is generated with an antenna specific frequency ( k a · Δ f, a=1, 2, 3,... A, where A and k a are integers) for each one of the plurality A of antennas; one or more switch controller configured to control the states of the plurality A of switches based on the generated baseband subcarrier signals such that each antenna impedance is selected among the number M of impedances, and thereby the received RF signal at each antenna is modulated by its specific frequency baseband subcarrier signal; and wherein a group of RF subcarrier signals is generated by reflecting the modulated RF signal from each antenna, and thereby the multicarrier signals are generated from the plurality A of antennas.
An apparatus, comprising: means for transmitting a reference signal to one or more remote user terminals from each of a plurality of sub-arrays (36-41, 66, 68, 70) of an antenna array, each sub-array (36-41, 66, 68, 70) comprising a quantity of radiating elements of the antenna array; means for receiving measurement signals from the one or more remote user terminals, wherein the measurement signals are indicative of one or more characteristics of the reference signals received by the one or more remote user terminals, respectively; and means for selecting, based on the measurement signals received from the one or more remote user terminals, a first subset of the sub-arrays (36-41, 66, 68, 70) for backhaul communications with a remote communications node (18, 22, 24) and a second subset of the sub-arrays (36-41, 66, 68, 70), comprising one or more of the remaining sub-arrays, for access communications with the one or more remote user terminals. means for transmitting a reference signal to one or more remote user terminals from each of a plurality of sub-arrays (36-41, 66, 68, 70) of an antenna array, each sub-array (36-41, 66, 68, 70) comprising a quantity of radiating elements of the antenna array; means for receiving measurement signals from the one or more remote user terminals, wherein the measurement signals are indicative of one or more characteristics of the reference signals received by the one or more remote user terminals, respectively; and means for selecting, based on the measurement signals received from the one or more remote user terminals, a first subset of the sub-arrays (36-41, 66, 68, 70) for backhaul communications with a remote communications node (18, 22, 24) and a second subset of the sub-arrays (36-41, 66, 68, 70), comprising one or more of the remaining sub-arrays, for access communications with the one or more remote user terminals.
A computer program adapted to perform a method for pulmonary condition monitoring, the method comprising: obtaining motion data collected by one or more other electronic devices; obtaining audio data received by a separate microphone; identifying respiratory phases of the user's breathing based on the audio data; producing breathing waveform data based on the motion data; characterised in that the method performed by the computer program further comprises: converting the audio data into image data; identifying an abnormal sound associated with the user's breathing based on the image data; and identifying a pulmonary condition of the user based on the abnormal sound, the identified respiratory phases and the breathing waveform data. obtaining motion data collected by one or more other electronic devices; obtaining audio data received by a separate microphone; identifying respiratory phases of the user's breathing based on the audio data; producing breathing waveform data based on the motion data; characterised in that the method performed by the computer program further comprises: converting the audio data into image data; identifying an abnormal sound associated with the user's breathing based on the image data; and identifying a pulmonary condition of the user based on the abnormal sound, the identified respiratory phases and the breathing waveform data. converting the audio data into image data; identifying an abnormal sound associated with the user's breathing based on the image data; and identifying a pulmonary condition of the user based on the abnormal sound, the identified respiratory phases and the breathing waveform data.
A transmitter comprising: a lever arranged for controlling a flight height of a flying object; and a cover having an opening through which the lever passes, characterized in that aplurality of steps is formed on an edge of the opening, wherein each step includes lateral sides, which are parallel on upper and lower sides of the opening, and perpendicular sides; and wherein the lateral sides and perpendicular sides are arranged alternately. a lever arranged for controlling a flight height of a flying object; and a cover having an opening through which the lever passes, characterized in that aplurality of steps is formed on an edge of the opening, wherein each step includes lateral sides, which are parallel on upper and lower sides of the opening, and perpendicular sides; and wherein the lateral sides and perpendicular sides are arranged alternately.
A cylindrical battery, characterized by comprising: a housing, which comprises an opening; a cell, which comprises a cell body and a first tab, wherein the first tab is located at one end of the cell body; a cover, which is electrically connected to the first tab, wherein a protruding portion is provided on the cover; a sealing member, which covers an edge of the cover, wherein the sealing member is provided with an avoidance hole for the protruding portion to protrude from, and the protruding portion on the cover is able to reach out through the avoidance hole on the sealing member to be in direct contact with the housing. a housing, which comprises an opening; a cell, which comprises a cell body and a first tab, wherein the first tab is located at one end of the cell body; a cover, which is electrically connected to the first tab, wherein a protruding portion is provided on the cover; a sealing member, which covers an edge of the cover, wherein the sealing member is provided with an avoidance hole for the protruding portion to protrude from, and the protruding portion on the cover is able to reach out through the avoidance hole on the sealing member to be in direct contact with the housing.
A method for producing cellobiohydrolase with higher activity, comprising: substituting, with alanine, asparagine that is the amino acid at position 62 from the N-terminal of cellobiohydrolase shown in SEQ ID NO: 1, or asparagine at position corresponding to position 62 of SEQ ID NO: 1 in an amino acid sequence of cellobiohydrolase classified as GH7 of a glycoside hydrolase family. substituting, with alanine, asparagine that is the amino acid at position 62 from the N-terminal of cellobiohydrolase shown in SEQ ID NO: 1, or asparagine at position corresponding to position 62 of SEQ ID NO: 1 in an amino acid sequence of cellobiohydrolase classified as GH7 of a glycoside hydrolase family.
An air bag for vehicles comprising a main body part consisting of a base fabric and a sewn part being formed by sewing, with a sewing thread, the above main body part into a bag, characterized in that, the difference between the elongation of the sewing thread upon applying the tension of 31.3/a, having the unit: N/thread, to the sewing thread and the elongation of the base fabric upon applying the tension of 62.5/a, having the unit: N/stitch, to the base fabric, wherein "a", having the unit: stitch(es)/cm, is a sewing pitch in the sewn part, is within a range of 0 to 5.0% in both directions of warp and weft, the value of B is less than 2% in both directions of warp and weft, and the air permeability of the sewn part at 40 kPa during the initial stage of development of the air bag is less than 50 mm/cm/sec, wherein the base fabric is constituted from multifilament having total fineness of from 350 to 1100 dtex, wherein fineness of the sewing thread is from 630 to 2400 dtex, wherein tensile strength of the sewing thread is from 6.0 cN/dtex to 10 cN/dtex, and wherein elongation at breakage of the sewing thread is from 25% to 45%.
A method of designing a primer oligonucleotide, the primer oligonucleotide comprising from 5' to 3': i) a first region comprising a self-complementary sequence comprising from 5' to 3' the reverse complement of a nicking enzyme recognition sequence, a palindromic sequence, and a nicking enzyme recognition sequence, and ii) a second region at least 16 nucleotides long that specifically binds to a complementary region on a target nucleic acid molecule, wherein the second region comprises one or more 2' modified nucleotides; the method comprising: a) selecting the second region of said primer oligonucleotide, so that the ΔG for a double-stranded primer-target hybrid formed by the hybridization of the second region and the target nucleic acid molecule is at least 62.76 kJ/mol (15 kcal/mol) lower than the ΔG of a self-dimer comprising the second region of the primer; and b) selecting a first region of said primer oligonucleotide, so that the ΔG for a homodimer formed by hybridization of the self-complementary first region of two primer oligonucleotide molecules is at least 15 kcal/mol lower than the ΔG of a self-dimer comprising the second region of the primer oligonucleotide. i) a first region comprising a self-complementary sequence comprising from 5' to 3' the reverse complement of a nicking enzyme recognition sequence, a palindromic sequence, and a nicking enzyme recognition sequence, and ii) a second region at least 16 nucleotides long that specifically binds to a complementary region on a target nucleic acid molecule, wherein the second region comprises one or more 2' modified nucleotides; a) selecting the second region of said primer oligonucleotide, so that the ΔG for a double-stranded primer-target hybrid formed by the hybridization of the second region and the target nucleic acid molecule is at least 62.76 kJ/mol (15 kcal/mol) lower than the ΔG of a self-dimer comprising the second region of the primer; and b) selecting a first region of said primer oligonucleotide, so that the ΔG for a homodimer formed by hybridization of the self-complementary first region of two primer oligonucleotide molecules is at least 15 kcal/mol lower than the ΔG of a self-dimer comprising the second region of the primer oligonucleotide.
A ductile iron composition, comprising, by weight: 3.4% to 4.0% Si; 3.0% to 3.5% C; 0.5% to 1.0% Cr; 0.02% to 0.05% Mo; up to 0.01% S; up to 0.5% Mn; and balance iron and incidental impurities; wherein the composition includes a ferritic body center cubic microstructure and has a graphite nodule density of greater than 100 per mm 2, wherein the ductile iron composition includes microstructure containing less than 15 areal% pearlite and carbide volumetric percentage between 5% and 20%. 3.4% to 4.0% Si; 3.0% to 3.5% C; 0.5% to 1.0% Cr; 0.02% to 0.05% Mo; up to 0.01% S; up to 0.5% Mn; and balance iron and incidental impurities; wherein the composition includes a ferritic body center cubic microstructure and has a graphite nodule density of greater than 100 per mm 2, wherein the ductile iron composition includes microstructure containing less than 15 areal% pearlite and carbide volumetric percentage between 5% and 20%.
An eyepiece system that is configured to form a magnified virtual image of an observation object, the eyepiece system having a horizontal angle of view of 40 degrees or more, the eyepiece system consisting of, in sequence from an object side to an observation side, a field-curvature collecting lens, a first group having a negative refracting power, and a second group having a positive refracting power, the first group including a cemented lens, the cemented lens including a biconcave lens and a biconvex lens, and the second group including two or three positive lenses, and the field-curvature collecting lens being a positive meniscus lens having two aspherical surfaces, such that a concave surface thereof is configured to face an image display device, wherein a proportion of an amount of change, in tangential field curvature, Δ and an amount of eccentricity, S mm, between the optical axis and an eye point satisfies: − 0.25 < Δ / S < 0, and wherein a positive focal distance, F, of the overall system, a negative focal distance, F1, of the first group, and a positive focal distance, F2, of the second group satisfy,: − 5 < F 1 / F < − 1 0.5 < F 2 / F < 3, characterized in that a maximum amount of eccentricity S, from an optical axis in a direction perpendicular to the optical axis, at a designed eye relief position, that makes valid at all image heights is 3 mm.
An arrangement for conditioning moist exhaust air, characterized in that the arrangement comprises a heat exchanger unit, a washing unit and an air mixing chamber, the heat exchanger unit configured to transfer heat between the moist exhaust air and a supplementary air comprises an inlet and an outlet for the moist exhaust air and an inlet and outlet for the supplementary air, the outlet for the moist exhaust air is connected to the washing unit configured to clean the moist exhaust air, the washing unit comprises an outlet for the washed moist exhaust air connected to an inlet of the air mixing chamber, the air mixing chamber comprises at least two compartments (13a-e) connected to the inlet of the air mixing chamber, and the compartments (13a-e) comprise inlets (14a-e) connected to the outlet of the supplementary air, and the compartments (13a-e) comprise outlets (15a-e) for the mixture of the washed moist exhaust air and the supplementary air (16a-e), the arrangement being configured such that the mixing ratio of the washed moist exhaust air and the supplementary air differs in adjacent compartments (13a-e), and the arrangement comprises a control system comprising humidity measuring devices and temperature measuring devices, and the control system is configured to control a fan configured to pressurize the supplementary air based on measurement results obtained from the humidity measuring devices and the temperature measuring devices located at the outlets of the compartments (15a-e).
An antibody-drug conjugate comprising an antibody covalently bound to a toxic payload molecule, optionally via a linker group, and a saccharide bound via an O-glycosidic bond to a hydroxyl group of the toxic payload molecule, wherein the toxic payload molecule is monomethylauristatin E, wherein the antibody-drug conjugate is represented by formula VII: wherein AB is an antibody; L is absent or a linker group; R1 is a saccharide bound via an O-glycosidic bond to the monomethylauristatin E; and n is at least 1. AB is an antibody; L is absent or a linker group; R1 is a saccharide bound via an O-glycosidic bond to the monomethylauristatin E; and n is at least 1.
A vehicle body floor structure comprising: a plurality of first vehicle body framework members (13; 21; 22; 71; 72; 73; 74; 75; 76) extending along a vehicle body front-rear direction; a plurality of second vehicle body framework members (31; 32; 41; 42; 51; 52; 61) extending along a vehicle width direction; and a floor panel to which each of the first vehicle body framework members (13; 21; 22; 71; 72; 73; 74; 75; 76) and the second vehicle body framework members (31; 32; 41; 42; 51; 52; 61) is joined, the floor panel including a plurality of steps having ridge lines extending along a short-side direction of a first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12), the steps being arrayed along a long-side direction of the first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12), the first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12) being surrounded by the first vehicle body framework members (13; 21; 22; 71; 72; 73; 74; 75; 76) that are adjacent to each other in the vehicle width direction and the second vehicle body framework members (31; 32; 41; 42; 51; 52; 61) that are adjacent to each other in the vehicle body front-rear direction; characterized by: a vibration damping material applied to a surface of the floor panel, the vibration damping material being applied along at least one outer edge portion of the first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12) extending along the long-side direction. a plurality of first vehicle body framework members (13; 21; 22; 71; 72; 73; 74; 75; 76) extending along a vehicle body front-rear direction; a plurality of second vehicle body framework members (31; 32; 41; 42; 51; 52; 61) extending along a vehicle width direction; and a floor panel to which each of the first vehicle body framework members (13; 21; 22; 71; 72; 73; 74; 75; 76) and the second vehicle body framework members (31; 32; 41; 42; 51; 52; 61) is joined, the floor panel including a plurality of steps having ridge lines extending along a short-side direction of a first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12), the steps being arrayed along a long-side direction of the first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12), the first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12) being surrounded by the first vehicle body framework members (13; 21; 22; 71; 72; 73; 74; 75; 76) that are adjacent to each other in the vehicle width direction and the second vehicle body framework members (31; 32; 41; 42; 51; 52; 61) that are adjacent to each other in the vehicle body front-rear direction; characterized by: a vibration damping material applied to a surface of the floor panel, the vibration damping material being applied along at least one outer edge portion of the first region (A1, A2, A3, A4, A5, A6, A7, A8, A9, A10, A11, A12) extending along the long-side direction.
Set comprising at least one electrical plug-in connection and at least one functional element, the plug-in connection having a plug-in connector and a mating plug-in connector which is assigned to the plug-in connector as a mating piece and to which the plug-in connector can be plugged in a plug-in direction, the plug-in connector having a housing and a plurality of electrical plug contacts which are arranged at least partially in the housing and which are arranged next to one another in a row direction, wherein a first housing wall of the housing, which is arranged parallel to a plane spanned by the plug-in direction and the row direction, adjoins a second housing wall of the housing, the normal of the second housing wall pointing approximately in the plug-in direction and being arranged at an angle to the first housing wall, and adjoining the second housing wall is a third housing wall of the housing, which is arranged at an angle to the second housing wall, so that the second housing wall is arranged between the first and the third housing wall, having the following features: a) the first housing wall has at least one first fastening element for fastening the functional element to the housing, b) the third housing wall has at least one second fastening element for fastening the functional element to the housing, characterized in that the first and the second fastening element (11, 21) are designed as a receiving recess, it being possible for the functional element which can be fastened to the housing to be secured to the first and the second fastening element (11, 21), the functional element having at least one second projecting fastening region which can be fastened to the first fastening element and a first projecting fastening region which can be fastened to the second fastening element. a) the first housing wall has at least one first fastening element for fastening the functional element to the housing, b) the third housing wall has at least one second fastening element for fastening the functional element to the housing,
An impinger for cooling or freezing products, in particular individually quick frozen products, for example IQF food products, comprising an impingement plate containing openings for directing impingement jets of a mixture of gas and solid or liquid cryogen toward the products conveyed or transported on a conveyor, said impinger further comprising an at least partially enclosed impingement hood above the conveyor in which impingement hood the mixing of the gas with the solid or liquid cryogen occurs at least partially, the impingement hood comprising a shell supporting the impinger, the shell being adapted to accommodate a gas circulation device for directing the mixture of gas and solid or liquid cryogen to the impinger, characterized by - a cross-sectional area of the openings being within a range of 2.8 cm 2 to 20.5 cm 2, - the openings in aggregate comprising an open area of seven percent to twelve percent of the total surface area of the impingement plate, and - the impingement plate providing a back pressure restriction in a circulation path of the mixture of 220 Pa to 475 Pa, in particular of 270 Pa to 475 Pa. - a cross-sectional area of the openings being within a range of 2.8 cm 2 to 20.5 cm 2, - the openings in aggregate comprising an open area of seven percent to twelve percent of the total surface area of the impingement plate, and - the impingement plate providing a back pressure restriction in a circulation path of the mixture of 220 Pa to 475 Pa, in particular of 270 Pa to 475 Pa.