mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: at a first device configured to be in communication with a second device in a digital communication system, receiving an orthogonal frequency division multiplexed, OFDM, ranging signal from the second device, wherein the OFDM ranging signal comprises a plurality of OFDM symbols that encode a known bit sequence within a subset of available OFDM subcarriers and a subset of available time slots, the method being characterized by that each of the plurality of OFDM symbols is duplicated in time without a guard time or cyclic prefix between consecutive duplicates of the plurality of the OFDM symbols in order to ensure that each of the consecutive duplicates of the plurality of OFDM symbols received at the first device overlaps a respective scheduled single symbol receive period duration; analyzing the OFDM ranging signal to determine a timing offset for the second device due to a time for signals to travel between the first device and the second device over a communication channel based on misalignment of at least one of the consecutive duplicates of the plurality of OFDM symbols and the respective non-overlapped scheduled single symbol receive period duration; and transmitting a message from the first device to the second device, the message including information configured to indicate the timing offset. at a first device configured to be in communication with a second device in a digital communication system, receiving an orthogonal frequency division multiplexed, OFDM, ranging signal from the second device, wherein the OFDM ranging signal comprises a plurality of OFDM symbols that encode a known bit sequence within a subset of available OFDM subcarriers and a subset of available time slots, the method being characterized by that each of the plurality of OFDM symbols is duplicated in time without a guard time or cyclic prefix between consecutive duplicates of the plurality of the OFDM symbols in order to ensure that each of the consecutive duplicates of the plurality of OFDM symbols received at the first device overlaps a respective scheduled single symbol receive period duration; analyzing the OFDM ranging signal to determine a timing offset for the second device due to a time for signals to travel between the first device and the second device over a communication channel based on misalignment of at least one of the consecutive duplicates of the plurality of OFDM symbols and the respective non-overlapped scheduled single symbol receive period duration; and transmitting a message from the first device to the second device, the message including information configured to indicate the timing offset.
A bispecific antibody that comprises a first variable domain that can bind an extracellular part of human epidermal growth factor receptor (EGFR) and a second variable domain that can bind an extracellular part of human MET Proto-Oncogene, Receptor Tyrosine Kinase (cMET), wherein the first variable domain comprises a heavy chain variable region with a CDR1 sequence SYGIS; a CDR2 sequence WISAYNGNTNYAQKLQG and a CDR3 comprising the sequence DRHWHWWLDAFDY; and wherein the second variable domain comprises a heavy chain variable region with a CDR1 sequence SYSMN; a CDR2 sequence WINTYTGDPTYAQGFTG and a CDR3 sequence ETYYYDRGGYPFDP; or wherein the first variable domain comprises a heavy chain variable region with a CDR1 sequence SYGIS; a CDR2 sequence WISAYNANTNYAQKLQG and a CDR3 comprising the sequence DRHWHWWLDAFDY and wherein the second variable domain comprises a heavy chain variable region with a CDR1 sequence TYSMN; a CDR2 sequence WINTYTGDPTYAQGFTG and a CDR3 comprising the sequence ETYFYDRGGYPFDP; and wherein the first and second variable domains further comprise a light chain comprising a CDR1 sequence QSISSY, a CDR2 sequence AAS, and a CDR3 sequence QQSYSTP. wherein the first variable domain comprises a heavy chain variable region with a CDR1 sequence SYGIS; a CDR2 sequence WISAYNGNTNYAQKLQG and a CDR3 comprising the sequence DRHWHWWLDAFDY; and wherein the second variable domain comprises a heavy chain variable region with a CDR1 sequence SYSMN; a CDR2 sequence WINTYTGDPTYAQGFTG and a CDR3 sequence ETYYYDRGGYPFDP; or wherein the first variable domain comprises a heavy chain variable region with a CDR1 sequence SYGIS; a CDR2 sequence WISAYNANTNYAQKLQG and a CDR3 comprising the sequence DRHWHWWLDAFDY and wherein the second variable domain comprises a heavy chain variable region with a CDR1 sequence TYSMN; a CDR2 sequence WINTYTGDPTYAQGFTG and a CDR3 comprising the sequence ETYFYDRGGYPFDP; and wherein the first and second variable domains further comprise a light chain comprising a CDR1 sequence QSISSY, a CDR2 sequence AAS, and a CDR3 sequence QQSYSTP.
A projector type vehicle headlamp including: a metal supporting member that has an upper surface to which a light-emitting device is mounted; a circuit board ; a projection lens ; a reflector that reflects light (B1) of the light-emitting device toward the vicinity of a rearward focal point (S1) of the projection lens ; a shade ; and a cooling fan that faces a lower surface of the metal supporting member is provided below the metal supporting member , the cooling fan is configured to generate wind, characterized in that circuit board , to which the light-emitting device is mounted, is mounted on the upper surface of the metal supporting member , the shade is a movable shade including a respective driving source , the shade being arranged near the rearward focal point (S1) of the projection lens , or removed from near the rearward focal point (S1), by the driving source , wherein the driving source is provided in front of the metal supporting member , such that convection of air formed by the wind generated by the cooling fan moves around the driving source of the movable shade .
A lighting device, comprising: a circuit board ; light emitting devices mounted on the circuit board ; a light guide plate having a protruding portion protruding to a remaining region except for a region in which the light emitting devices are disposed; wherein the protruding portion further comprises projections formed on the surface toward the circuit board or the light emitting device , wherein the projections are made of at least one of a resin material, a non-conductive material, and a material having lower conductivity than that of the circuit board , characterised in that the light guide plate is configured such that the projections come into contact with the circuit board only when the light guide plate expands due to heat of the light emitting device . a circuit board ; light emitting devices mounted on the circuit board ; a light guide plate having a protruding portion protruding to a remaining region except for a region in which the light emitting devices are disposed; wherein the protruding portion further comprises projections formed on the surface toward the circuit board or the light emitting device , wherein the projections are made of at least one of a resin material, a non-conductive material, and a material having lower conductivity than that of the circuit board , characterised in that the light guide plate is configured such that the projections come into contact with the circuit board only when the light guide plate expands due to heat of the light emitting device .
A method for treating a refrigerant fluid that performs a refrigeration cycle in a refrigeration machine , comprising the consecutive steps of a. compressing the refrigerant fluid in a compressor of said refrigeration machine , b. cooling the refrigerant fluid in a main cooling unit of the refrigeration machine , c. expanding the refrigerant fluid in an expander of the refrigeration machine , d. placing the refrigerant fluid in a heat exchange with a fluid to be cooled, in a main heat exchanger of the refrigeration machine , e. cooling adiabatically an air flow f. placing in a heat exchange the adiabatically cooled air flow with the refrigerant fluid, at least step f. being performed between steps b. and c.. a. compressing the refrigerant fluid in a compressor of said refrigeration machine , b. cooling the refrigerant fluid in a main cooling unit of the refrigeration machine , c. expanding the refrigerant fluid in an expander of the refrigeration machine , d. placing the refrigerant fluid in a heat exchange with a fluid to be cooled, in a main heat exchanger of the refrigeration machine , e. cooling adiabatically an air flow f. placing in a heat exchange the adiabatically cooled air flow with the refrigerant fluid,
An apparatus for visual ametropia correction, comprising: a. means for obtaining topographic information of an anterior surface and topographic information of a posterior surface of a cornea of an eye; b. means for obtaining a desired focusing point within the eye, wherein the means for obtaining the desired focusing point is adapted to determine the desired focusing point based on the topographic information of the anterior surface and of the posterior surface of the cornea, and based on refractive aberration information for the eye; wherein the means for obtaining the desired focusing point is further adapted to determine the desired focusing point by ray tracing of a set of light rays parallel to an optical axis of the eye refracted according to the topographic information of the anterior surface and of the posterior surface of the cornea, and according to optical means that correspond to a correction of the refractive aberration information for the eye; c. means for determining correction information relating to the anterior surface of the cornea, such as to optimize focusing onto the determined desired focusing point, based on the topographic information of the anterior surface and of the posterior surface of the cornea. a. means for obtaining topographic information of an anterior surface and topographic information of a posterior surface of a cornea of an eye; b. means for obtaining a desired focusing point within the eye, wherein the means for obtaining the desired focusing point is adapted to determine the desired focusing point based on the topographic information of the anterior surface and of the posterior surface of the cornea, and based on refractive aberration information for the eye; wherein the means for obtaining the desired focusing point is further adapted to determine the desired focusing point by ray tracing of a set of light rays parallel to an optical axis of the eye refracted according to the topographic information of the anterior surface and of the posterior surface of the cornea, and according to optical means that correspond to a correction of the refractive aberration information for the eye; c. means for determining correction information relating to the anterior surface of the cornea, such as to optimize focusing onto the determined desired focusing point, based on the topographic information of the anterior surface and of the posterior surface of the cornea.
A top cover of a power battery comprising a top cover plate , a first electrode unit and a second electrode unit , wherein the top cover plate is provided with a deformable plate connecting hole and an insulation piece accommodating portion , wherein the first electrode unit comprises a deformable plate , a conductive plate and a first insulation piece , wherein the deformable plate seals the deformable plate connecting hole , wherein the conductive plate is located underneath the deformable plate , and is electrically connected with the deformable plate , wherein the first insulation piece comprises a top cover plate connecting portion and a conductive plate connecting portion , wherein the top cover plate connecting portion extends into the insulation piece accommodating portion and is fixed with the insulation piece accommodating portion , wherein the conductive plate is insulated from and fixed with the top cover plate through the conductive plate connecting portion , and wherein the deformable plate deforms and is insulated from the conductive plate when a pressure in an interior of the power battery exceeds a reference pressure.
A polypeptide having amylase activity comprising an amino acid sequence having at least 78 % sequence identity to the amino acid sequence of SEQ ID NO: 1, and wherein the polypeptide comprises an amino acid substitution at position 42, wherein the amino acid substitution is 42K/A/V/N/I/H/F, with reference to the position numbering of the sequence shown as SEQ ID NO: 1; wherein the polypeptide has improved thermostability compared to the amylase of SEQ ID NO: 1.
An artificial blood vessel which comprises one proximal-end and at least one distal-end communicating with said proximal-end , wherein the artificial blood vessel further comprises an inserting port positioned between said proximal-end and said distal-end , sai d inserting port being provided with a check valve , wherein said check valve is configured to permit an intravascular curing device to pass through up to said proximal-end and also prevent body fluid from flowing out from said artificial blood vessel , in which said check valve has a first valve component that prevents body fluid from flowing out when the intravascular curing device is inserted through the inserting port and a second valve component that prevents body fluid from flowing out when the intravascular curing device is not inserted through the inserting port .
A data cut-over method, comprising: obtaining a model mapping relationship between a source Operation Maintenance Module, OMM, and a target OMM of different system versions (S101); obtaining a base station which is designated by a user to be cut over to the target OMM and data associated with the base station that needs to be modified during the data cut-over designated by the user, and generating a data cut-over plan file (S102), wherein the data cut-over plan file describes which base stations need to be cut over from the source OMM to the target OMM and which data needs to be modified according to an engineering plan; exporting a source OMM data file from the source OMM (S103); exporting a target OMM data file from the target OMM (S104); generating an interface data file according to the model mapping relationship, the source OMM data file, the target OMM data file and the data cut-over plan file (S105), wherein the interface data file is used for importing on the target OMM to complete cut-over; importing the interface data file into the target OMM (S106); completing cut-over of the base station from the source OMM to the target OMM according to the interface data. obtaining a model mapping relationship between a source Operation Maintenance Module, OMM, and a target OMM of different system versions (S101); obtaining a base station which is designated by a user to be cut over to the target OMM and data associated with the base station that needs to be modified during the data cut-over designated by the user, and generating a data cut-over plan file (S102), wherein the data cut-over plan file describes which base stations need to be cut over from the source OMM to the target OMM and which data needs to be modified according to an engineering plan; exporting a source OMM data file from the source OMM (S103); exporting a target OMM data file from the target OMM (S104); generating an interface data file according to the model mapping relationship, the source OMM data file, the target OMM data file and the data cut-over plan file (S105), wherein the interface data file is used for importing on the target OMM to complete cut-over; importing the interface data file into the target OMM (S106); completing cut-over of the base station from the source OMM to the target OMM according to the interface data.
A composition comprising a pharmaceutically acceptable carrier and a GHRH antagonist for use in treating sarcoidosis.
A composition comprising mesoporous silica rods comprising an immune cell recruitment compound, wherein said recruitment compound comprises granulocyte macrophage-colony stimulating factor (GM-CSF), chemokine (C-C motif) ligand 21 (CCL-21), chemokine (C-C motif) ligand 19 (CCL-19), or a FMS-like tyrosine kinase 3 (Flt-3) ligand; and an immune cell activation compound comprising a TLR agonist, wherein the TLR agonist comprises monophosphoryl lipid A (MPLA), a cytosine-guanosine oligonucleotide (CpG-ODN), poly(ethylenimine) (PEI)-condensed CpG-ODN, polycytidylic acid (poly I:C), PEI-poly (I:C), polyadenylic-polyuridylic acid (poly(A:U)), PEI-poly (A:U), or lipopolysaccharide (LPS), wherein said rods comprise a length of 5 μm to 500 μm.
Process for the production of an elastomer agglomerate composition wherein the process comprises the steps in this order: (a) providing a slurry comprising elastomeric particles having an average particle size of ≤ 150 nm in water; and (b) forcing the slurry from (a) through an aperture at a flow velocity of at least 500 m/s; wherein the elastomeric particles are selected from polybutadiene particles, poly(styrene-butadiene) particles, and poly(acrylonitrile butadiene) particles; and wherein the average particle size is the D 50 particle size as determined in accordance with ISO 9276-2:2014. (a) providing a slurry comprising elastomeric particles having an average particle size of ≤ 150 nm in water; and (b) forcing the slurry from (a) through an aperture at a flow velocity of at least 500 m/s; wherein the elastomeric particles are selected from polybutadiene particles, poly(styrene-butadiene) particles, and poly(acrylonitrile butadiene) particles; and wherein the average particle size is the D 50 particle size as determined in accordance with ISO 9276-2:2014. wherein the elastomeric particles are selected from polybutadiene particles, poly(styrene-butadiene) particles, and poly(acrylonitrile butadiene) particles; and wherein the average particle size is the D 50 particle size as determined in accordance with ISO 9276-2:2014.
A magnetizing system for magnetizing a needle, and a needle , the system comprising: a magnetizer including at least one permanent magnet and a body ; the at least one permanent magnet disposed within the body , the body defining a needle receptacle included with the magnetizer, the needle receptacle configured to receive the needle ; a first key feature associated with the magnetizer ; and a needle cover configured to removably cover the needle, the needle cover including a second key feature configured to fit with the first key feature, the first key feature and second key feature configured to guide a user so as to place the needle in a predetermined position with respect to the at least one permanent magnet when the needle is received at the needle receptacle. a magnetizer including at least one permanent magnet and a body ; the at least one permanent magnet disposed within the body , the body defining a needle receptacle included with the magnetizer, the needle receptacle configured to receive the needle ; a first key feature associated with the magnetizer ; and a needle cover configured to removably cover the needle, the needle cover including a second key feature configured to fit with the first key feature, the first key feature and second key feature configured to guide a user so as to place the needle in a predetermined position with respect to the at least one permanent magnet when the needle is received at the needle receptacle.
A hair colorant composition comprising: (a) 2,6-diaminopyridine coupler; (b) 2-methoxymethyl-1,4-diaminobenzene developer; and (c) an oxidizing agent; wherein the hair colorant composition comprises by weight, based on the weight of the hair colorant composition: - from 0.001% to 6% of said coupler; - from 0.001% to 6% of said developer; and - from 0.1% to 10% of said oxidizing agent. (a) 2,6-diaminopyridine coupler; (b) 2-methoxymethyl-1,4-diaminobenzene developer; and (c) an oxidizing agent; - from 0.001% to 6% of said coupler; - from 0.001% to 6% of said developer; and - from 0.1% to 10% of said oxidizing agent.
A control system , comprising: a plurality of sensors configured to: (i) be arranged on or around a part of a user's body and (ii) record a plurality of neuromuscular signals from the user ; and at least one computer processor programmed to: provide as input to a trained statistical model , the plurality of neuromuscular signals and/or information based on the plurality of neuromuscular signals; predict , based on an output of the trained statistical model , whether an onset of a motor task performed by the user will occur within a threshold amount of time; and send a control signal to at least one device based, at least in part, on the prediction, wherein the control signal is sent to the at least one device prior to completion of the motor task performed by the user , wherein the at least one computer processor is further programmed to: determine a set of features based on the plurality of neuromuscular signals; and provide as input to the trained statistical model , the set of features as information based on the plurality of neuromuscular signals, wherein predicting , based on an output of the trained statistical model , that the onset of the motor task performed by the user will occur within the threshold amount of time comprises classifying the set of features using the trained statistical model . a plurality of sensors configured to: (i) be arranged on or around a part of a user's body and (ii) record a plurality of neuromuscular signals from the user ; and at least one computer processor programmed to: provide as input to a trained statistical model , the plurality of neuromuscular signals and/or information based on the plurality of neuromuscular signals; predict , based on an output of the trained statistical model , whether an onset of a motor task performed by the user will occur within a threshold amount of time; and send a control signal to at least one device based, at least in part, on the prediction, wherein the control signal is sent to the at least one provide as input to a trained statistical model , the plurality of neuromuscular signals and/or information based on the plurality of neuromuscular signals; predict , based on an output of the trained statistical model , whether an onset of a motor task performed by the user will occur within a threshold amount of time; and send a control signal to at least one device based, at least in part, on the prediction, wherein the control signal is sent to the at least one device prior to completion of the motor task performed by the user , determine a set of features based on the plurality of neuromuscular signals; and provide as input to the trained statistical model , the set of features as information based on the plurality of neuromuscular signals, wherein predicting , based on an output of the trained statistical model , that the onset of the motor task performed by the user will occur within the threshold amount of time comprises classifying the set of features using the trained statistical model .