mhurhangee/ep-ind-claims huggingface dataset:
An anti-human TSLP receptor antibody or an antigen-binding fragment thereof selected from or below: an anti-human TSLP receptor antibody or an antigen-binding fragment thereof, comprising a heavy chain variable region consisting of the amino acid sequence of amino acid numbers 1 to 118 of SEQ ID NO: 1 and a light chain variable region consisting of the amino acid sequence of amino acid numbers 1 to 108 of SEQ ID NO: 3; an anti-human TSLP receptor antibody or an antigen-binding fragment thereof in which glutamic acid of the N terminal of the heavy chain of the antibody or the antigen-binding fragment thereof of is modified to pyroglutamic acid. an anti-human TSLP receptor antibody or an antigen-binding fragment thereof, comprising a heavy chain variable region consisting of the amino acid sequence of amino acid numbers 1 to 118 of SEQ ID NO: 1 and a light chain variable region consisting of the amino acid sequence of amino acid numbers 1 to 108 of SEQ ID NO: 3; an anti-human TSLP receptor antibody or an antigen-binding fragment thereof in which glutamic acid of the N terminal of the heavy chain of the antibody or the antigen-binding fragment thereof of is modified to pyroglutamic acid.
A thermal transfer sheet comprising a transfer layer formed on one surface of a substrate, wherein the transfer layer and the substrate are directly contacted to each other, and a back face layer provided on the other surface side of the substrate, the transfer layer comprising one or more constituent layers, the constituent layer closest to the substrate among the constituent layers of the transfer layer containing a copolymer of isobutyl (meth)acrylate and a monomer having a carboxyl group, and an acid value of the copolymer being not less than 40 mg KOH / g, wherein the acid value means the theoretical value of the number of milligrams of potassium hydroxide which is molar equivalent to the carboxyl group in 1 g of the polymer, and the substrate being a polyester film.
Power wrench comprising a motor, an output shaft, and a hydraulic pulse unit including an inertia drive member connected to the motor and rotatable about a rotation axis (A-A), an oil chamber enclosed in the inertia drive member and an impulse generating means arranged to transfer intermittently kinetic energy to the output shaft, wherein the inertia drive member further comprises an end piece having a transverse wall, wherein a separating arrangement is provided for extracting air from oil, said separating arrangement comprising a disc shaped separator element and a sealing arrangement arranged to provide a seal between said disc shaped separator element and said transverse end wall, thereby partly delimiting a receiving space there between in fluid communication with said oil chamber, said disc shaped separator element further arranged to provide a passageway between said oil chamber and said receiving space by means of a fluid opening located at a first radial distance from the rotation axis (A-A), wherein said separating arrangement further comprises a partitioning element arranged in said receiving space, such that a first partial volume is formed on a first side of said partitioning element and a second partial volume is formed on the other side, wherein said first and second partial volume are in fluid communication and wherein said opening is arranged on said first side, wherein said fluid communication is provided by means of a fluid passageway at least partly formed by said partitioning element, characterized in that said sealing arrangement comprises an outer seal and an inner seal, and wherein said inner seal form said partitioning element such that said fluid passageway is provided by means of a channel delimited by said outer seal and said inner seal. wherein a separating arrangement is provided for extracting air from oil, said separating arrangement comprising a disc shaped separator element and a sealing arrangement arranged to provide a seal between said disc shaped separator element and said transverse end wall, thereby partly delimiting a receiving space there between in fluid communication with said oil chamber, said disc shaped separator element further arranged to provide a passageway between said oil chamber and said receiving space by means of a fluid opening located at a first radial distance from the rotation axis (A-A), wherein said separating arrangement further comprises a partitioning element arranged in said receiving space, such that a first partial volume is formed on a first side of said partitioning element and a second partial volume is formed on the other side, wherein said first and second partial volume are in fluid communication and wherein said opening is arranged on said first side, wherein said fluid communication is provided by means of a fluid passageway at least partly formed by said partitioning element, characterized in that said sealing arrangement comprises an outer seal and an inner seal, and wherein said inner seal form said partitioning element such that said fluid passageway is provided by means of a channel delimited by said outer seal and said inner seal.
A method of processing meat comprising the steps of: removing an individual anatomical meat muscle from a carcass within 90 minutes post exsanguination; vacuum packing the removed individual muscle prior to onset of rigor mortis; and moulding the vacuum packed individual muscle in a mould into a defined shape; characterised in that, the vacuum packing is carried out in a manner that substantially avoids release of steam vapour from the muscle and in that the method comprises conditioning the moulded vacuum packed individual muscle in the mould by circulating air around the moulded vacuum packed individual muscle until rigor mortis is complete, in which the air is circulated at a speed of from 1 to 3 metres per second and is maintained at an air temperature in the range of 0°C to 15°C for an initial period of from 8 to 12 hours and at a reduced temperature for a further period. removing an individual anatomical meat muscle from a carcass within 90 minutes post exsanguination; vacuum packing the removed individual muscle prior to onset of rigor mortis; and moulding the vacuum packed individual muscle in a mould into a defined shape; characterised in that, the vacuum packing is carried out in a manner that substantially avoids release of steam vapour from the muscle and in that the method comprises conditioning the moulded vacuum packed individual muscle in the mould by circulating air around the moulded vacuum packed individual muscle until rigor mortis is complete, in which the air is circulated at a speed of from 1 to 3 metres per second and is maintained at an air temperature in the range of 0°C to 15°C for an initial period of from 8 to 12 hours and at a reduced temperature for a further period.
A method for assessing a liver pathology of a subject selected from hepatocellular carcinoma, cholangiocarcinoma, and primary sclerosing cholangitis, using a biological sample from said subject comprising: quantifying fucosylated protein in or from said biological sample, wherein said protein is kininogen, and, comparing the quantified fucosylated protein value with a reference fucosylation value for said protein in or from a comparable biological sample in order to determine the absence or presence of one said liver pathology selected from hepatocellular carcinoma, cholangiocarcinoma and primary sclerosing cholangitis, in said subject. quantifying fucosylated protein in or from said biological sample, wherein said protein is kininogen, and, comparing the quantified fucosylated protein value with a reference fucosylation value for said protein in or from a comparable biological sample in order to determine the absence or presence of one said liver pathology selected from hepatocellular carcinoma, cholangiocarcinoma and primary sclerosing cholangitis, in said subject.
A flying insect trap (100, 200) for attracting and catching a flying insect, comprising: a sticky sheet for sticking to the flying insect; a main part on which the sticky sheet is placed; a cover part which is attached to cover the sticky sheet; and an entrance provided in the cover part, configured so that the flying insect enters through the entrance, wherein the flying insect trap (100, 200) is configured so that, when the cover part is attached to the main part, an internal space which accommodates the sticky sheet is formed between the main part and the cover part, and the internal space is in communication with an external environment infested with the flying insect through the entrance, characterized in that the sticky sheet has an islands-in-sea pattern including a background region having a color of Hue No. n 1 having a value of 4 (reddish orange) to 5 (orange) of the PCCS color wheel, and a plurality of island-like portions having a color of Hue No. having a value of n 1 +2 to n 1 +4 and being limited to a color of Hue No. 7 (reddish yellow) to 9 (greenish yellow) of the PCCS color wheel. a sticky sheet for sticking to the flying insect; a main part on which the sticky sheet is placed; a cover part which is attached to cover the sticky sheet; and an entrance provided in the cover part, configured so that the flying insect enters through the entrance, wherein the flying insect trap (100, 200) is configured so that, when the cover part is attached to the main part, an internal space which accommodates the sticky sheet is formed between the main part and the cover part, and the internal space is in communication with an external environment infested with the flying insect through the entrance, characterized in that the sticky sheet has an islands-in-sea pattern including a background region having a color of Hue No. n 1 having a value of 4 (reddish orange) to 5 (orange) of the PCCS color wheel, and a plurality of island-like portions having a color of Hue No. having a value of n 1 +2 to n 1 +4 and being limited to a color of Hue No. 7 (reddish yellow) to 9 (greenish yellow) of the PCCS color wheel.
A digital camera, comprising: a) an optical lens module (200, 2000) including N ≥ 3 lens elements L i having a first optical axis, each lens element comprising a respective front surface S 2i-1 and a respective rear surface S 2i, the lens element surfaces marked S k where 1≤ k ≤ 2N, wherein the optical lens module is a front aperture lens, wherein each lens element surface has a clear aperture value CA(S k) and a clear height value CH(S k), and wherein CA is the clear aperture value of surface S1, b) an image sensor having a sensor diagonal SD; and c) an optical path folding element (OPFE) for providing a folded optical path between an object and the lens elements, wherein a ratio CA(S 2N)/SD between the clear aperture value of a last lens element CA(S 2N) and SD is smaller than 0.8, characterised in that the clear aperture value CA of surface S1 is greater than a clear aperture value of each of surfaces S2 to S2N, wherein CA(S 1) ≥ 1.2 × CA(S k) for 3≤ k ≤2N or in that CA(S 1) is greater than CA(S k) for 2 ≤ k ≤ 2N-1 and is equal to CA(S 2N). a) an optical lens module (200, 2000) including N ≥ 3 lens elements L i having a first optical axis, each lens element comprising a respective front surface S 2i-1 and a respective rear surface S 2i, the lens element surfaces marked S k where 1≤ k ≤ 2N, wherein the optical lens module is a front aperture lens, wherein each lens element surface has a clear aperture value CA(S k) and a clear height value CH(S k), and wherein CA is the clear aperture value of surface S1, b) an image sensor having a sensor diagonal SD; and c) an optical path folding element (OPFE) for providing a folded optical path between an object and the lens elements, wherein a ratio CA(S 2N)/SD between the clear aperture value of a last lens element CA(S 2N) and SD is smaller than 0.8, characterised in that the clear aperture value CA of surface S1 is greater than a clear aperture value of each of surfaces S2 to S2N, wherein CA(S 1) ≥ 1.2 × CA(S k) for 3≤ k ≤2N or in that CA(S 1) is greater than CA(S k) for 2 ≤ k ≤ 2N-1 and is equal to CA(S 2N).
Treatment agent for a cosmetic powder containing a reactive organosiloxane represented by the following general formula as a main ingredient: wherein each R 1 is independently an alkyl group having 1 to 30 carbon atoms; each R 2 is independently an alkyl group having 1 to 20 carbon atoms; R 3 is a divalent alkylene group having 3 to 18 carbons; n is an integer of 1 to 200; and p is an integer of 1 to 3.
Actuator (1; 100; 1000) for aeronautical applications, in particular for a rotor blade adjustment of a helicopter, comprising an electromechanical drive device and a downstream gearing (7; 700), the drive device being connected to an output via the gearing (7; 700), the drive device being divided into sub-drives (3, 4, 5, 6) that can be operated independently of one another, at least two sub-drives (3, 4, 5, 6) being spatially separated from one another by providing the gearing (7; 700) between said sub-drives (3, 4, 5, 6), wherein the gearing (7, 700) is formed by at least two strain-wave gearings (10, 20, 30, 40) that are coupled to one another by means of at least one first coupling element, a first strain-wave gearing being arranged within a non-rotatable first housing, and a second strain-wave gearing being arranged within a rotatable second housing, the second housing being connected to the output, characterised in that the actuator further comprises a third strain-wave gearing and a fourth strain-wave gearing which are arranged axially between the first strain-wave gearing and the second strain-wave gearing, wherein a second coupling element is now provided instead of the first coupling element, the second coupling element coupling the first and the third strain-wave gearings (10; 30) with one another, wherein a third coupling element is provided, the third coupling element coupling the second and the fourth strain-wave gearings with one another, and wherein the second and the third coupling elements are interconnected for conjoint rotation.
A human-machine interaction computer-implemented method of determining an intended target of an object in relation to a user interface, comprising: determining a three-dimensional location of the object at a plurality of time intervals; determining a metric associated with each of a plurality of items of the user interface, the metric indicative of the respective item being the intended target of the object, wherein the metric is determined based upon a model and the location of the object in three dimensions at the plurality of time intervals; and determining, using a Bayesian reasoning process, the intended target from the plurality of items of the user interface based on the metric associated with each of the plurality of items; characterised by: receiving one or more items of environmental information, wherein the environmental information comprises one or more of: information indicative of acceleration of a vehicle, information indicative of a state of the vehicle and image data indicative of surroundings of the vehicle; and wherein the model models movement of the object with respect to the plurality of items and unintentional perturbations of the object movement and the determination of the metric is based on the one or more items of environmental information, and/or wherein the model is selected based on the one or more items of environmental information. determining a three-dimensional location of the object at a plurality of time intervals; determining a metric associated with each of a plurality of items of the user interface, the metric indicative of the respective item being the intended target of the object, wherein the metric is determined based upon a model and the location of the object in three dimensions at the plurality of time intervals; and determining, using a Bayesian reasoning process, the intended target from the plurality of items of the user interface based on the metric associated with each of the plurality of items; receiving one or more items of environmental information, wherein the environmental information comprises one or more of: information indicative of acceleration of a vehicle, information indicative of a state of the vehicle and image data indicative of surroundings of the vehicle; and wherein the model models movement of the object with respect to the plurality of items and unintentional perturbations of the object movement and the determination of the metric is based on the one or more items of environmental information, and/or wherein the model is selected based on the one or more items of environmental information.
A guide for evaluating at least the processing accuracy of an envelope machine capable of producing folded envelopes from sheets of envelope stock, the guide comprising a sheet (100,500) of envelope stock having first indicia on the seal flap and second indicia on the bottom flap, the first and second indicia being position such that the first and second indicia are aligned if the envelope has been accurately processed.
A method for transmitting data streams (20,22) between a terminal and a portable security module having a web server, wherein the method comprises the following steps executed by the security module utilizing the web server: - receiving a first request announcing a processing data stream, - receiving a second request containing the processing data stream, - generating a result data stream based on the already received data of the processing data stream during the receipt of the processing data stream, - sending a first response to the first request during the generation of the result data stream, wherein the first response contains the result data stream. - receiving a first request announcing a processing data stream, - receiving a second request containing the processing data stream, - generating a result data stream based on the already received data of the processing data stream during the receipt of the processing data stream, - sending a first response to the first request during the generation of the result data stream, wherein the first response contains the result data stream.
Method for determining an extrinsic information item for a symbol hypothesis for a symbol at a particular instant, which symbol is supplied to differential phase modulation and transmitted via a transmission channel with a time-variant phase, wherein the a-posteriori probability of the phase in the case of a symbol with positive real coding and in the case of a known sequence of samples of a received signal corresponds to a sum of Tikhonov distributions for the phase that are each weighted with a weighting factor and each dependent on a complex coefficient, characterized in that the extrinsic information item used for the symbol hypothesis at each instant is a logarithmized extrinsic information item and in that in order to ascertain the logarithmized extrinsic information item for the symbol hypothesis at the instant a logarithmized weighting factor at the previous instant, determined with a recursion running in the positive time direction from the logarithmized weighting factor ascertained at the instant before last, and the complex coefficient of the Tikhonov distribution at the previous instant, determined with a recursion running in the positive time direction from the complex coefficient of the Tikhonov distribution that is ascertained at the instant before last, are used.
Electrohydraulic pressure control device for vehicle brake systems, comprising at least one electronic control unit, at least one hydraulic unit and at least one electric motor for driving a hydraulic pump, wherein the electronic control unit is mechanically connected to the hydraulic unit and is sealed off from an external environment in at least one zone of connection to the hydraulic unit by means of a circumferential, in particular flexible, sealing material, and the electronic control unit comprises a housing and at least one plug having a plurality of contact pins and/or at least one connection line for electrical contacting by means of at least one connection plug, wherein the plug is arranged on a side of the housing of the electronic control unit which faces away from the hydraulic unit, and the housing of the electronic control unit surrounds at least one valve coil for controlling hydraulic valves and at least one circuit board for holding electrical and/or electronic components, wherein the contact pins and the valve coil and at least one terminal of the electric motor are each connected in an electrically conductive manner to the circuit board, characterized in that the sealing material extends along an edge of the substantially cuboid-shaped hydraulic unit, wherein the edge is formed by a cuboid face of the hydraulic unit which faces the electronic control unit and at least one cuboid face of the hydraulic unit which does not face the electronic control unit, and the sealing material at least partially covers both cuboid faces in the zone of connection and/or sealing zone.
An aviation gasoline formed by blending (i) an unleaded base fuel having a MON of at least 94, with (ii) at least one aromatic amine in an amount from 11 weight percent to 12 weight percent by weight of the unleaded fuel to provide the unleaded base fuel with a final MON of at least 104, the aromatic amine having the formula wherein Rx is C1-C10 alkyl, a halogen or a mixture thereof, n is an integer from zero to 3 and wherein when n is 1, 2 or 3 and Rx is an alkyl group, the alkyl group occupies the meta and/or para position on the phenyl ring, wherein the aviation gasoline contains 0 to 6 wt% toluene. wherein Rx is C1-C10 alkyl, a halogen or a mixture thereof, n is an integer from zero to 3 and wherein when n is 1, 2 or 3 and Rx is an alkyl group, the alkyl group occupies the meta and/or para position on the phenyl ring, wherein the aviation gasoline contains 0 to 6 wt% toluene.
A method of binding an anesthetic agent comprising: contacting a gas comprising an anesthetic agent with a non-covalent organic framework comprising a compound of: wherein said compound forms a porous supramolecular structure; and adsorbing said anesthetic agent within the pores of a compound of Formula 1, wherein said framework has a weight adsorption capacity of 50% to 75% for said anesthetic agent.
An antenna module, comprising: a resonant tuned circuit configured to operate in a first configuration and a second configuration, the first configuration being characterized as resonating at a compensation resonant frequency and the second configuration being characterized as resonating at an actual resonant frequency of the resonant tuned circuit; and a tuning control module configured to cause the resonant tuned circuit to operate in the first configuration for a first period of time and in the second configuration for a second period of time, wherein the tuning control module is further configured to cause the resonant tuned circuit to continuously switch between the first configuration and the second configuration such that, on average, a resonant frequency of the resonant tuned circuit is approximately equal to an expected resonant frequency of the resonant tuned circuit. a resonant tuned circuit configured to operate in a first configuration and a second configuration, the first configuration being characterized as resonating at a compensation resonant frequency and the second configuration being characterized as resonating at an actual resonant frequency of the resonant tuned circuit; and a tuning control module configured to cause the resonant tuned circuit to operate in the first configuration for a first period of time and in the second configuration for a second period of time, wherein the tuning control module is further configured to cause the resonant tuned circuit to continuously switch between the first configuration and the second configuration such that, on average, a resonant frequency of the resonant tuned circuit is approximately equal to an expected resonant frequency of the resonant tuned circuit.