mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigeration cycle apparatus that includes a power feeding system and a refrigerant circuit in which a compressor , a condenser, an expansion device , and an evaporator are connected by pipes to circulate refrigerant and performs operation by receiving supply of DC power from the power feeding system , the refrigeration cycle apparatus comprising: a compressor inverter device that performs DC-AC conversion and supplies power to a compressor motor ; a fan motor inverter device that performs DC-AC conversion and supplies power to a fan motor ; and a voltage detection device that detects an applied DC voltage; characterized in that the refrigeration cycle apparatus further comprises a controller configured to perform processing to determine an upper limit value of a driving frequency output from at least one of the compressor inverter device and the fan motor inverter device , based on the voltage detected by the voltage detection device , and in that the power feeding system includes a plurality of power sources including a battery, the controller is connected to the power feeding system to be able to communicate with the power feeding system , the power feeding system being configured to supply power to the refrigeration cycle apparatus, the controller being configured to determine the upper limit value to be a preset upper limit value of the driving frequency when determining that the power supplied from the power feeding system is power from the battery, and the controller is configured to control driving of the compressor motor and the fan motor such that the driving frequency does not exceed the upper limit value. a compressor inverter device that performs DC-AC conversion and supplies power to a compressor motor ; a fan motor inverter device that performs DC-AC conversion and supplies power to a fan motor ; and a voltage detection device that detects an applied DC voltage; characterized in that the refrigeration cycle apparatus further comprises a controller configured to perform processing to determine an upper limit value of a driving frequency output from at least one of the compressor inverter device and the fan motor inverter device , based on the voltage detected by the voltage detection device , and in that the power feeding system includes a plurality of power sources including a battery, the controller is connected to the power feeding system to be able to communicate with the power feeding system , the power feeding system being configured to supply power to the refrigeration cycle apparatus, the controller being configured to determine the upper limit value to be a preset upper limit value of the driving frequency when determining that the power supplied from the power feeding system is power from the battery, and the controller is configured to control driving of the compressor motor and the fan motor such that the driving frequency does not exceed the upper limit value.
A thermal demand adjustment device adapted to adjust a thermal demand of an energy network including a plurality of heat-source devices , a fluid path , a plurality of air conditioners to which heat from the plurality of heat-source devices is transmitted through the fluid path , in which the plurality of heat-source devices are operated as a number of units according to a number of operating units notification signal and operated so as to set fluid in the fluid path to a predetermined value, and the plurality of air conditioners are operated to exchange thermal energy with the fluid path so as to approach an instruction value, the thermal demand adjustment device characterized by comprising: number of units notification means adapted to generate the number of operating units notification signal indicating which heat-source device is to be operated among the plurality of heat-source devices ; a refrigerator characteristics database adapted to record, for every of the plurality of heat-source devices , rated output information of a plurality of heat-source devices and operation efficiency information with respect to a load factor of the plurality of heat-source devices ; demand calculation means adapted to calculate the thermal demand exchanged in the air conditioners ; and instruction value generation means adapted to generate the instruction value to each of the plurality of air conditioners so as to improve efficiency of the plurality of heat-source devices , wherein the instruction value generation means is adapted to generate the instruction value based on load characteristics of the plurality of heat-source devices according to the calculated thermal demand. number of units notification means adapted to generate the number of operating units notification signal indicating which heat-source device is to be operated among the plurality of heat-source devices ; a refrigerator characteristics database adapted to record, for every of the plurality of heat-source devices , rated output information of a plurality of heat-source devices and operation efficiency information with respect to a load factor of the plurality of heat-source devices ; demand calculation means adapted to calculate the thermal demand exchanged in the air conditioners ; and instruction value generation means adapted to generate the instruction value to each of the plurality of air conditioners so as to improve efficiency of the plurality of heat-source devices , wherein the instruction value generation means is adapted to generate the instruction value based on load characteristics of the plurality of heat-source devices according to the calculated thermal demand.
A refrigerant composition consisting of: (A) four components, wherein a first component is nitrogen in the range of 5 mol. % to 35 mol. %, a second component is methane in the range of 20 mol. % to 40 mol. %, a third component is ethane or ethylene in the range of 10 mol. % to 45 mol. %, and a fourth component is one of 1- butene, n-butane, isobutane, n-pentane or isopentane in the range of 10 mol. % to 35 mol. % or propane or propylene in the range of 10 mol. % to 45 mol. % provided that the sum of the concentrations of the above-mentioned components does not exceed 100 mol%; (B) five components, wherein a first component is nitrogen in the range of 5 mol. % to 35 mol. %, a second component is methane in the range of 20 mol. % to 40 mol. %, a third component is ethane or ethylene in the range of 10 mol. % to 45 mol. %, a fourth component is one of 1- butene, n-butane, isobutane, n-pentane or isopentane in the range of 10 mol. % to 35 mol. % or propane or propylene in the range of 10 mol. % to 45 mol. %, and a fifth component is one of n-butane, isobutane, propane, propylene, n-pentane and isopentane, wherein said the fifth component is different from said fourth component. provided that the sum of the concentrations of the above-mentioned components does not exceed 100 mol%. (A) four components, wherein a first component is nitrogen in the range of 5 mol. % to 35 mol. %, a second component is methane in the range of 20 mol. % to 40 mol. %, a third component is ethane or ethylene in the range of 10 mol. % to 45 mol. %, and a fourth component is one of 1- butene, n-butane, isobutane, n-pentane or isopentane in the range of 10 mol. % to 35 mol. % or propane or propylene in the range of 10 mol. % to 45 mol. % provided that the sum of the concentrations of the above-mentioned components does not exceed 100 mol%; (B) five components, wherein a first component is nitrogen in the range of 5 mol. % to 35 mol. %, a second component is methane in the range of 20 mol. % to 40 mol. %, a third component is ethane or ethylene in the range of 10 mol. % to 45 mol. %, a fourth component is one of 1- butene, n-butane, isobutane, n-pentane or isopentane in the range of 10 mol. % to 35 mol. % or propane or propylene in the range of 10 mol. % to 45 mol. %, and a fifth component is one of n-butane, isobutane, propane, propylene, n-pentane and isopentane, wherein said the fifth component is different from said fourth component. provided that the sum of the concentrations of the above-mentioned components does not exceed 100 mol%.
A method for monitoring a subject undergoing a treatment or therapy for an aberrant immune response to determine whether the subject is responsive to the treatment or therapy comprising detecting a level of expression, activity and/or function of a signature gene or one or more products of a signature gene in the absence of the treatment or therapy and comparing the level of expression, activity and/or function of a signature gene or one or more products of a signature gene in the presence of the treatment or therapy, wherein a difference in the level of expression, activity and/or function of the signature gene or one or more products of the signature gene in the presence of the treatment or therapy indicates whether the patient is responsive to the treatment or therapy, wherein the signature gene is IL17A and wherein the treatment or therapy is specific for CD5L and is an anti-CD5L antibody.
An exterior vision unit fastening construction for a motor vehicle, comprising a base part which can be fixedly connected with a vehicle, and a rotation part which is couplable with the base part and which in coupled condition forms a central shaft for pivotally bearing-mounting a housing of an exterior vision unit, wherein the base part and the rotation part are provided with at least one cam and groove pair cooperating as a bayonet catch , such that in a first angular position (α1) of the rotation part with respect to the base part , the rotation part for the purpose of coupling can be displaced along a geometric axis to the base part to align the cam and groove pair for cooperation and the rotation part is pivotable about the geometric axis from the first angular position (α1) to a second angular position (α2) in which the cam and groove pair cooperate, characterised in that the cam and groove pair cooperate via a forcible filling element , so that the rotation part can rotate under forced displacement of material of the filling element from the second angular position (α2) about the geometric axis to a third angular position (α3), and the rotation part is locked with respect to the base part axially along the geometric axis .
A wing with an upper surface, a lower surface, a wing tip and a chord plane, and including a winglet which includes separate extensions above and below the chord plane; wherein the separate extensions are: i) an upward sloping winglet element including a primary surface that has the geometric characteristics of a blended winglet including a near-planar outer panel (B), tip configuration (C) and a transition section (AB, BC) between the winglet outer panel (B) and where (A) the primary surface is attached to the wing , and ii) a downward canted ventral fin element which serves to counter vortices generated between the wingtip and the lower wing surface, the ventral fin element projecting from the transition section A-B below the wing chord plane and including a ventral surface (D); the winglet being an integrated split blended winglet that attaches as a single unit to the wing tip. i) an upward sloping winglet element including a primary surface that has the geometric characteristics of a blended winglet including a near-planar outer panel (B), tip configuration (C) and a transition section (AB, BC) between the winglet outer panel (B) and where (A) the primary surface is attached to the wing , and ii) a downward canted ventral fin element which serves to counter vortices generated between the wingtip and the lower wing surface, the ventral fin element projecting from the transition section A-B below the wing chord plane and including a ventral surface (D);
A negative electrode comprising: a negative electrode current collector; and a first negative electrode active material layer disposed on the negative electrode current collector, wherein the negative electrode current collector includes: a first metal substrate; and a coating layer disposed on the first metal substrate and containing a second metal, the second metal having a greater Mohs hardness than the first metal. a negative electrode current collector; and a first negative electrode active material layer disposed on the negative electrode current collector, wherein the negative electrode current collector includes: a first metal substrate; and a coating layer disposed on the first metal substrate and containing a second metal, the second metal having a greater Mohs hardness than the first metal.
A moving robot , comprising: a movable main body ; a travel drive unit having a plurality of drive wheels to move the main body ; an image acquisition unit configured to acquire images of surroundings; a storage configured to store acquisition images received through the image acquisition unit and a map of a travel area; and a controller configured to recognize a current position to control the travel drive unit and perform cleaning, characterized in that the controller is further configured to: when a cleaning command is received, determine whether a position on the map and the current position matches according to whether a position of the main body is jumped while the moving robot is traveling; recover the position on the map to the jumped current position of the main body; set a moving path from the recovered position to a designated area; and control the travel drive unit to move to the designated area in response to the cleaning command and perform cleaning. a movable main body ; a travel drive unit having a plurality of drive wheels to move the main body ; an image acquisition unit configured to acquire images of surroundings; a storage configured to store acquisition images received through the image acquisition unit and a map of a travel area; and a controller configured to recognize a current position to control the travel drive unit and perform cleaning, characterized in that the controller is further configured to: when a cleaning command is received, determine whether a position on the map and the current position matches according to whether a position of the main body is jumped while the moving robot is traveling; recover the position on the map to the jumped current position of the main body; set a moving path from the recovered position to a designated area; and control the travel drive unit to move to the designated area in response to the cleaning command and perform cleaning. when a cleaning command is received, determine whether a position on the map and the current position matches according to whether a position of the main body is jumped while the moving robot is traveling; recover the position on the map to the jumped current position of the main body; set a moving path from the recovered position to a designated area; and control the travel drive unit to move to the designated area in response to the cleaning command and perform cleaning.
Method of noise reduction, comprising determining dynamic control parameters selected from a group consisting of a current vehicle speed, tire pressure, vehicle on- or off-road status, dynamic driving modes, door/rooftop/trunk open/close states, windows/sunroof open/close states or an infotainment/entertainment operation/audio level; filtering reference signals x k [n], k = 1, .., K, K being an integer, representing noise by an adaptive filtering means comprising filter coefficients to obtain actuator driving signals y m [n], m = 1, .., M, M being an integer; outputting the actuator driving signals y m [n] by M loudspeakers to obtain loudspeaker signals; detecting the loudspeaker signals by L microphones , L being an integer; filtering the reference signals by estimated transfer functions representing the transfer of the loudspeaker signals output by the M loudspeakers to the L microphones to obtain filtered reference signals; and updating the filter coefficients of the adaptive filtering means based on the filtered reference signals and previously updated filter coefficients of the adaptive filtering means multiplied by leakage factors; and wherein the updating of the filter coefficients of the adaptive filtering means is at least partly performed in the frequency domain and by multiplying a matrix of the Fourier transformed previously updated filter coefficients by a matrix of leakage coefficients; and wherein adaptation step sizes of the updating of the filter coefficients of the adaptive filtering means are given by a time-dependent and frequency-dependent matrix μ SP k,m [k] comprising values of the adaptation step sizes that depend on the determined dynamic control parameters; and wherein values of the adaptation step sizes that exceed a maximum value are reduced to the maximum value and values of the adaptation step sizes that lie below a minimum value are increased to that minimum value.
A rotating cosmetics case, intended to receive a cosmetics product, such as a stick of lipstick or lip cream, comprising a metal jacket fitted on a sheath of synthetic material, the metal jacket and the sheath of synthetic material being held mechanically in a form-fitting manner, that is, one of the parts comprises at least one protruding profile, while the other comprises at least one recessed profile, the recessed and protruding profiles being arranged correspondingly, the metal jacket forms said at least one protrusion profile, said at least one protrusion profile being a recess which collaborates with said at least one recessed profile, said at least one recessed profile being a counter form at level of the wall of the sheath of synthetic material, the counter form and the recess producing a protrusion coming into a complimentary fitting, ensuring mechanical support of the assembly, characterized in that the recess is realized by a recess process, resulting in a partial cutting of the sheath, the recess being at least open upwards.
Control system for an air-conditioning plant , comprising: a plurality of sensors (Sn) for detecting physical parameters regarding a body to be air-conditioned and/or an environment surrounding said body, and for generating corresponding detection signals; a control-command module (MCP) configured to modify regulation laws as a function of detection signals, and to generate command signals to be supplied to actuator modules (ATT) of an air-conditioning plant for the body; characterized in that : the plurality of sensors (Sn) comprises: a net radiometer (RADn) configured to supply a first detection signal representative of a difference between a first electromagnetic radiation from the sky and a second electromagnetic radiation from a surface of said body to be air-conditioned; and further characterized in that the control-command module (MCP) is configured to modify one of said regulation laws and/or define regulation laws such to reprogram turn-on and/or turn-off and/or attenuation times of said actuator modules (ATT) with reference to an energy stored or lost from the body, obtained from the first detection signal. a plurality of sensors (Sn) for detecting physical parameters regarding a body to be air-conditioned and/or an environment surrounding said body, and for generating corresponding detection signals; a control-command module (MCP) configured to modify regulation laws as a function of detection signals, and to generate command signals to be supplied to actuator modules (ATT) of an air-conditioning plant for the body; characterized in that : the plurality of sensors (Sn) comprises: a net radiometer (RADn) configured to supply a first detection signal representative of a difference between a first electromagnetic radiation from the sky and a second electromagnetic radiation from a surface of said body to be air-conditioned; and further characterized in that the control-command module (MCP) is configured to modify one of said regulation laws and/or define regulation laws such to reprogram turn-on and/or turn-off and/or attenuation times of said actuator modules (ATT) with reference to an energy stored or lost from the body, obtained from the first detection signal. the plurality of sensors (Sn) comprises: a net radiometer (RADn) configured to supply a first detection signal representative of a difference between a first electromagnetic radiation from the sky and a second electromagnetic radiation from a surface of said body to be air-conditioned; and further characterized in that the control-command module (MCP) is configured to modify one of said regulation laws and/or define regulation laws such to reprogram turn-on and/or turn-off and/or attenuation times of said actuator modules (ATT) with reference to an energy stored or lost from the body, obtained from the first detection signal.
A composite material having the Formula 2: M x 1 M a 2 M 1 − x − a 3 y / C , (a) wherein y represents the total weight percent (wt%) of an alloy of Formula 1: M x 1 M a 2 M 1 − x − a 3 , (i) wherein M x 1 M a 2 M 1 − x − a 3 represents the nominal composition of the alloy; (ii) M x 1 comprises platinum (Pt); (iii) M a 2 comprises copper (Cu); (iv) M 1 − x − a 3 comprises ruthenium (Ru); (v) the total atomic percent of platinum (Pt) and ruthenium (Ru) in the alloy is from 10 to 50 defined as (1-a) = from 0.1 to 0.5; (vi) the composition comprises nanoparticles; (vii) a structure of the alloy at a surface of the nanoparticles comprises a non-structured portion having the structure of the Fm 3 m space group; and (b) wherein C comprises activated carbon. (a) wherein y represents the total weight percent (wt%) of an alloy of Formula 1: M x 1 M a 2 M 1 − x − a 3 , (i) wherein M x 1 M a 2 M 1 − x − a 3 represents the nominal composition of the alloy; (ii) M x 1 comprises platinum (Pt); (iii) M a 2 comprises copper (Cu); (iv) M 1 − x − a 3 comprises ruthenium (Ru); (v) the total atomic percent of platinum (Pt) and ruthenium (Ru) in the alloy is from 10 to 50 defined as (1-a) = from 0.1 to 0.5; (vi) the composition comprises nanoparticles; (vii) a structure of the alloy at a surface of the nanoparticles comprises a non-structured portion having the structure of the Fm 3 m space group; and (i) wherein M x 1 M a 2 M 1 − x − a 3 represents the nominal composition of the alloy; (ii) M x 1 comprises platinum (Pt); (iii) M a 2 comprises copper (Cu); (iv) M 1 − x − a 3 comprises ruthenium (Ru); (v) the total atomic percent of platinum (Pt) and ruthenium (Ru) in the alloy is from 10 to 50 defined as (1-a) = from 0.1 to 0.5; (vi) the composition comprises nanoparticles; (vii) a structure of the alloy at a surface of the nanoparticles comprises a non-structured portion having the structure of the Fm 3 m space group; and (b) wherein C comprises activated carbon.
A chimeric antigen receptor (CAR) having antigenic specificity for CD30, the CAR comprising: (a) an anti-CD30 antigen binding domain comprising the human heavy chain complementarity determining region (CDR) 1 amino acid sequence of SEQ ID NO: 1, the human heavy chain CDR2 amino acid sequence of SEQ ID NO: 2, the human heavy chain CDR3 amino acid sequence of SEQ ID NO: 3, the human light chain CDR1 amino acid sequence of SEQ ID NO: 4, the human light chain CDR2 amino acid sequence of SEQ ID NO: 5, and the human light chain CDR3 amino acid sequence of SEQ ID NO: 6; (b) a human hinge domain; (c) a human transmembrane domain; and (d) one or both of (i) a human intracellular T cell signaling domain and (ii) a human T cell costimulatory domain. (a) an anti-CD30 antigen binding domain comprising the human heavy chain complementarity determining region (CDR) 1 amino acid sequence of SEQ ID NO: 1, the human heavy chain CDR2 amino acid sequence of SEQ ID NO: 2, the human heavy chain CDR3 amino acid sequence of SEQ ID NO: 3, the human light chain CDR1 amino acid sequence of SEQ ID NO: 4, the human light chain CDR2 amino acid sequence of SEQ ID NO: 5, and the human light chain CDR3 amino acid sequence of SEQ ID NO: 6; (b) a human hinge domain; (c) a human transmembrane domain; and (d) one or both of (i) a human intracellular T cell signaling domain and (ii) a human T cell costimulatory domain.