mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement for the conversion of at least one detected force from the movement of a sensing unit into an auditory signal, comprising: a) at least one sensor, for generating a force signal from the at least one detected force; b) a processing unit, configured for converting the force signal into a digital auditory signal; c) an output unit, for converting the digital auditory signal into an auditory signal; d) a first casing, wherein the at least one sensor and the processing unit is housed; e) a second casing, wherein the output unit is housed, and f) a data exchange unit for wirelessly transferring said digital auditory signal between the processing unit and the output unit, wherein said first casing and said second casing are arranged to be detachably combinable with each other, in particular by means of a form fit, with either or both of the casing coming equipped with an element that provides means for attaching it to the other casing, and wherein the digital auditory signal comprises information on acceleration, strength and duration of a single detected force, and wherein said processor is adapted at converting the force signal into a digital auditory signal with a latency between 5 and 35 ms, in particular between 10 and 20 ms and even more particularly lower than 20 ms, and wherein the processing unit is adapted to recognize a pre-learned movement sequence out of the force signal(s), in particular by applying a machine learning algorithm, and converting said movement sequence into a digital auditory signal, in particular a MIDI-signal. a) at least one sensor, for generating a force signal from the at least one detected force; b) a processing unit, configured for converting the force signal into a digital auditory signal; c) an output unit, for converting the digital auditory signal into an auditory signal; d) a first casing, wherein the at least one sensor and the processing unit is housed; e) a second casing, wherein the output unit is housed, and f) a data exchange unit for wirelessly transferring said digital auditory signal between the processing unit and the output unit, wherein said first casing and said second casing are arranged to be detachably combinable with each other, in particular by means of a form fit, with either or both of the casing coming equipped with an element that provides means for attaching it to the other casing, and wherein the digital auditory signal comprises information on acceleration, strength and duration of a single detected force, and wherein said processor is adapted at converting the force signal into a digital auditory signal with a latency between 5 and 35 ms, in particular between 10 and 20 ms and even more particularly lower than 20 ms, and wherein the processing unit is adapted to recognize a pre-learned movement sequence out of the force signal(s), in particular by applying a machine learning algorithm, and converting said movement sequence into a digital auditory signal, in particular a MIDI-signal.
A method for producing 1,3-butadiene from a fraction produced in separation and recovery of 1,3-butadiene from a C 4 hydrocarbon mixture, comprising: adding a diluent to a high VA fraction containing vinylacetylene to produce a diluted fraction having a lower vinylacetylene concentration than the high VA fraction; and subjecting the diluted fraction to hydrogenation treatment to hydrogenate vinylacetylene in the diluted fraction and produce 1,3-butadiene, wherein substantially only a low VA fraction is used as the diluent, and the low VA fraction is a fraction that is produced in separation and recovery of 1,3-butadiene from the C 4 hydrocarbon mixture and has a lower vinylacetylene concentration than the high VA fraction, and a fraction that is distilled in extractive distillation of the C 4 hydrocarbon mixture using a solvent and contains hydrocarbon compounds that have lower solubility than butadiene with respect to the solvent, a fraction distilled in removal of impurities having a lower boiling point than 1,3-butadiene from a fraction containing butadiene in high concentration that is obtained through extractive distillation of the C 4 hydrocarbon mixture, and a fraction distilled in removal of impurities having a higher boiling point than 1,3-butadiene from the fraction containing butadiene in high concentration are used as the low VA fraction. adding a diluent to a high VA fraction containing vinylacetylene to produce a diluted fraction having a lower vinylacetylene concentration than the high VA fraction; and subjecting the diluted fraction to hydrogenation treatment to hydrogenate vinylacetylene in the diluted fraction and produce 1,3-butadiene, wherein substantially only a low VA fraction is used as the diluent, and the low VA fraction is a fraction that is produced in separation and recovery of 1,3-butadiene from the C 4 hydrocarbon mixture and has a lower vinylacetylene concentration than the high VA fraction, and a fraction that is distilled in extractive distillation of the C 4 hydrocarbon mixture using a solvent and contains hydrocarbon compounds that have lower solubility than butadiene with respect to the solvent, a fraction distilled in removal of impurities having a lower boiling point than 1,3-butadiene from a fraction containing butadiene in high concentration that is obtained through extractive distillation of the C 4 hydrocarbon mixture, and a fraction distilled in removal of impurities having a higher boiling point than 1,3-butadiene from the fraction containing butadiene in high concentration are used as the low VA fraction.
A method of controlling a refrigeration system , wherein the refrigeration system comprises a refrigerant disposed within a fluid-tight circulation loop including a compressor , a condenser and an evaporator , the refrigerant being capable of existing in a liquefied state, a gaseous state and a two-phase state comprising both refrigerant in the liquefied state and refrigerant in the gaseous state, the evaporator having at least one continuous length of tubing , an outlet port and at least three evaporator zones (Zone A, Zone B, Zone C, Zone D), each evaporator zone having an evaporator zone inlet port , the method comprising the steps of: (a) compressing refrigerant in a gaseous state within the compressor and cooling the refrigerant within the condenser to yield refrigerant in the liquefied state; (b) flowing refrigerant from the condenser into the evaporator via the inlet ports of each evaporator zone (Zone A, Zone B, Zone C, Zone D), wherein the refrigerant partially exists in a two-phase state; (c) flowing refrigerant from the evaporator to the compressor ; (d) repeating steps (a) - (c); (e) measuring the condition of the refrigerant with a refrigerant condition sensor disposed within the evaporator upstream of the outlet port ; characterized in that ; the at least one continuous length of tubing comprises the least three evaporator zones (Zone A, Zone B, Zone C, Zone D) and the least three evaporator zones (Zone A, Zone B, Zone C, Zone D) include one upstream-most evaporator zone (Zone A), one downstream-most evaporator zone (Zone D) and at least one intermediate evaporator zone (Zone B, Zone C), the method further comprising (f) controlling with a controller the flow rate of refrigerant to the evaporator in step (b) based upon the measured condition of the refrigerant condition of the refrigerant from step (e). (a) compressing refrigerant in a gaseous state within the compressor and cooling the refrigerant within the condenser to yield refrigerant in the liquefied state; (b) flowing refrigerant from the condenser into the evaporator via the inlet ports of each evaporator zone (Zone A, Zone B, Zone C, Zone D), wherein the refrigerant partially exists in a two-phase state; (c) flowing refrigerant from the evaporator to the compressor ; (d) repeating steps (a) - (c); (e) measuring the condition of the refrigerant with a refrigerant condition sensor disposed within the evaporator upstream of the outlet port ; characterized in that ; the at least one continuous length of tubing comprises the least three evaporator zones (Zone A, Zone B, Zone C, Zone D) and the least three evaporator zones (Zone A, Zone B, Zone C, Zone D) include one upstream-most evaporator zone (Zone A), one downstream-most evaporator zone (Zone D) and at least one intermediate evaporator zone (Zone B, Zone C), the method further comprising (f) controlling with a controller the flow rate of refrigerant to the evaporator in step (b) based upon the measured condition of the refrigerant condition of the refrigerant from step (e).
A combination comprising an anti-progastrin (anti-hPG) monoclonal antibody and an immune checkpoint inhibitor, wherein said anti-hPG antibody comprises a heavy chain comprising CDR-H1, CDR-H2 and CDR-H3 of amino acid sequences SEQ ID N°28, 29 and 30, respectively, and a light chain comprising CDR-L1, CDR-L2 and CDR-L3 of amino acid sequences SEQ ID N°31, 32 and 33, respectively, and wherein said immune checkpoint inhibitor is an anti-PD1 antibody.
A method for determining a subframe in a radio frame of Time Division Multiplexing, TDD system, comprising: receiving , by a user equipment, control information from a first device, wherein the control information is used to indicate at least two special subframes used by the first device in a broadcast control channel modification period, and guard period GP durations of the at least two special subframes are different; and determining , by the user equipment, the at least two special subframes according to the control information. receiving , by a user equipment, control information from a first device, wherein the control information is used to indicate at least two special subframes used by the first device in a broadcast control channel modification period, and guard period GP durations of the at least two special subframes are different; and determining , by the user equipment, the at least two special subframes according to the control information.
A gas turbine engine component, comprising: an airfoil that includes a pressure sidewall and a suction sidewall that meet together at both a leading edge and a trailing edge , said airfoil extending to a tip ; a tip pocket formed in said tip and terminating prior to said trailing edge ; and a heat transfer augmentation device formed in said tip pocket ; wherein said tip pocket terminates near a mid-span of said airfoil relative to the leading and trailing edges , and said heat transfer augmentation device includes a ramp , characterized in that : said ramp divides a floor of said tip pocket into radially offset floor portions ; and the component further comprises a plurality of cooling holes that fluidly connect said tip pocket to at least one internal cooling cavity formed inside said airfoil . an airfoil that includes a pressure sidewall and a suction sidewall that meet together at both a leading edge and a trailing edge , said airfoil extending to a tip ; a tip pocket formed in said tip and terminating prior to said trailing edge ; and a heat transfer augmentation device formed in said tip pocket ; wherein said tip pocket terminates near a mid-span of said airfoil relative to the leading and trailing edges , and said heat transfer augmentation device includes a ramp , characterized in that : said ramp divides a floor of said tip pocket into radially offset floor portions ; and the component further comprises a plurality of cooling holes that fluidly connect said tip pocket to at least one internal cooling cavity formed inside said airfoil .
A wind turbine system comprising: - a plurality of wind turbine modules mounted to a support structure including a tower , the support structure comprises arms extending outwards from the tower, wherein each of the plurality of wind turbine modules is mounted on a part of a corresponding arm, the wind turbine modules comprise: - a rotor , - a power generation system driven by the rotor, and - a rotor blade pitch adjustment system for pitching of a plurality of rotor blades ; - an input arrangement for receiving load data (s1, s2, s3) associated with the plurality of wind turbines modules and/or the support structure, and - a control system operably connected to said input arrangement for receiving load data, the control system being configured to determine a lift command for a particular wind turbine module of the plurality of wind turbines modules ; characterized in that the control system is arranged for applying the lift command to the corresponding rotor blade pitch adjustment system of said particular wind turbine module so as to create a lift force ( F_up ) in the opposite direction of gravity on the said particular wind turbine module mounted on the support structure, and wherein the control system is further arranged so that a resulting lift forces ( F_up_L ) created for one, or more, wind turbine modules on one side of the tower is compared to a resulting lift forces ( F_up_R ) created for one, or more, wind turbine modules on an opposite side of the tower so as to compensate, at least partly, for any asymmetric moments on the tower. - a plurality of wind turbine modules mounted to a support structure including a tower , the support structure comprises arms extending outwards from the tower, wherein each of the plurality of wind turbine modules is mounted on a part of a corresponding arm, the wind turbine modules comprise: - a rotor , - a power generation system driven by the rotor, and - a rotor blade pitch adjustment system for pitching of a plurality of rotor blades ; - a rotor , - a power generation system driven by the rotor, and - a rotor blade pitch adjustment system for pitching of a plurality of rotor blades ; - an input arrangement for receiving load data (s1, s2, s3) associated with the plurality of wind turbines modules and/or the support structure, and - a control system operably connected to said input arrangement for receiving load data, the control system being configured to determine a lift command for a particular wind turbine module of the plurality of wind turbines modules ;
A method comprising, - detecting (310-1) by a base station a plurality of preambles sent by devices through a physical random access channel, PRACH; - launching (310-2) by the base station a Random Access, RA, procedure for at least one device for which a preamble has been detected; - decoding (310-3) by the base station at least one Radio Resource Control, RRC, connection request received in the context of a launched RA procedure; - determining by the base station a first metric and a second metric, wherein the first metric is the number of RRC connection request successfully decoded over a period of time, wherein the second metric is the number of preambles detected over the same period of time and for which a RA procedure has been launched; - determining whether there is a suspicion of storm attack over the PRACH based on a result of a comparison of the first metric with the second metric. - detecting (310-1) by a base station a plurality of preambles sent by devices through a physical random access channel, PRACH; - launching (310-2) by the base station a Random Access, RA, procedure for at least one device for which a preamble has been detected; - decoding (310-3) by the base station at least one Radio Resource Control, RRC, connection request received in the context of a launched RA procedure; - determining by the base station a first metric and a second metric, wherein the first metric is the number of RRC connection request successfully decoded over a period of time, wherein the second metric is the number of preambles detected over the same period of time and for which a RA procedure has been launched; - determining whether there is a suspicion of storm attack over the PRACH based on a result of a comparison of the first metric with the second metric.
A display device capable of displaying an aerial image as an image in the air using retroreflection, the display device comprising: a transparent light guide plate including a light guide plate image formed on a bottom portion of the light guide plate and configured to reflect light as an original video (P1) of the aerial image ; a light source configured to emit light from a side portion of the light guide plate toward the inside of the light guide plate ; a polarization beam splitter disposed parallel to the light guide plate and above the light guide plate ; a λ/4 plate disposed below the light guide plate ; and a retroreflective member disposed in parallel with the light guide plate and below the λ/4 plate , wherein the display device retroreflects the original video (P1) to display the aerial image . a transparent light guide plate including a light guide plate image formed on a bottom portion of the light guide plate and configured to reflect light as an original video (P1) of the aerial image ; a light source configured to emit light from a side portion of the light guide plate toward the inside of the light guide plate ; a polarization beam splitter disposed parallel to the light guide plate and above the light guide plate ; a λ/4 plate disposed below the light guide plate ; and a retroreflective member disposed in parallel with the light guide plate and below the λ/4 plate , wherein the display device retroreflects the original video (P1) to display the aerial image .
A processor for a multiple-input, multiple-output (MIMO) security system, the processor comprising: a transmitter configured to emit a first signal into a first leaky coaxial cable in time-multiplexed relation to another signal emitted into the first leaky coaxial cable by another device wherein said first leaky coaxial cable emits a radio frequency, RF, field; a receiver configured to receive a second signal from a second leaky coaxial cable parallel to the first leaky coaxial cable, wherein the second signal corresponds to a contra-directionally coupled signal coupled into the second leaky coaxial cable from the RF field emitted by the first leaky coaxial cable , and wherein the RF field emitted by the first leaky coaxial cable couples into the second leaky coaxial cable as a co-directionally coupled signal ; and circuitry configured to classify a target in terms of position and target size when said target moves in proximity of the first leaky coaxial cable, the second leaky coaxial cable, or both, said classification in terms of position based on a relative timing of the onset of the first signal and a contra-directionally coupled response of the first signal on the second leaky coaxial cable, said classification of target size based on a relative timing of the contra-directionally coupled and a co-directionally coupled response of the first signal on the second leaky coaxial cable , said contra-directionally coupled and co-directionally coupled responses determined from the second signal . a transmitter configured to emit a first signal into a first leaky coaxial cable in time-multiplexed relation to another signal emitted into the first leaky coaxial cable by another device wherein said first leaky coaxial cable emits a radio frequency, RF, field; a receiver configured to receive a second signal from a second leaky coaxial cable parallel to the first leaky coaxial cable, wherein the second signal corresponds to a contra-directionally coupled signal coupled into the second leaky coaxial cable from the RF field emitted by the first leaky coaxial cable , and wherein the RF field emitted by the first leaky coaxial cable couples into the second leaky coaxial cable as a co-directionally coupled signal ; and circuitry configured to classify a target in terms of position and target size when said target moves in proximity of the first leaky coaxial cable, the second leaky coaxial cable, or both, said classification in terms of position based on a relative timing of the onset of the first signal and a contra-directionally coupled response of the first signal on the second leaky coaxial cable, said classification of target size based on a relative timing of the contra-directionally coupled and a co-directionally coupled response of the first signal on the second leaky coaxial cable , said contra-directionally coupled and co-directionally coupled responses determined from the second signal .
Macrophage treated with insulin-like growth factor-2 (IGF-2) for use in the treatment of an autoimmune disease.
A powder form part material for printing three-dimensional parts with an electrophotography-based additive manufacturing system, the powder form part material comprising: a copolymer comprising acrylonitrile units, butadiene units, and aromatic units, a charge control agent, and a heat absorber, wherein the part material is provided in a powder form having a D90/D50 particle size distribution and a D50/D10 particle size distribution that are within about 10% or less of each other and wherein the D90/D50 particle size distribution and the D50/D10 particle size distribution each range from about 1.00 to about 1.40, and wherein the part material is configured for use in an electrophotography-based additive manufacturing system having a layer transfusion assembly for printing the three-dimensional parts in a layer-by-layer manner. a copolymer comprising acrylonitrile units, butadiene units, and aromatic units, a charge control agent, and a heat absorber, wherein the part material is provided in a powder form having a D90/D50 particle size distribution and a D50/D10 particle size distribution that are within about 10% or less of each other and wherein the D90/D50 particle size distribution and the D50/D10 particle size distribution each range from about 1.00 to about 1.40, and wherein the part material is configured for use in an electrophotography-based additive manufacturing system having a layer transfusion assembly for printing the three-dimensional parts in a layer-by-layer manner.
A skincare composition, comprising: a. at least one clay, b. at least one first binding agent, being a polyethylene glycol (PEG) polymer or co-polymer with M n of less than 1300; and c. at least one second binding agent, being a polybutene with M n of less than 3000 wherein M n means the number average molecular weight. a. at least one clay, b. at least one first binding agent, being a polyethylene glycol (PEG) polymer or co-polymer with M n of less than 1300; and c. at least one second binding agent, being a polybutene with M n of less than 3000 wherein M n means the number average molecular weight.
Tined weeder consisting of a frame and a number of tines (2; 12) attached thereto, which are inclined backwards in the direction of travel and can pivot about a first pivot point (3; 13) in a vertical plane containing the direction of travel and are each acted upon by a spring (4; 14) in the direction of an increase in the ground pressure (F1), which tines form a lever, characterized in that the spring (4; 14) is a spring leaf subjected to bending stress, which is clamped with a first end in an abutment (5; 15) fastened to the frame and acts with the other, second, end (7; 17) on the tine (2; 12) at a point which depends on the angular position of the tine (2; 12), wherein the spring leaf (4; 14) is shorter than the distance between the first pivot point (3; 13) and the abutment .