mhurhangee/patent-ind-claim-en huggingface dataset:
A cold compressed gas storage and transportation vehicle comprising: a vehicle ; a compressed gas storage vessel supported by the vehicle ; a hydraulic fluid reservoir supported by the vehicle ; a passageway connecting the hydraulic fluid reservoir to the compressed gas storage vessel ; a pump disposed in the passageway and configured to selectively pump hydraulic fluid through the passageway from the reservoir into the compressed gas storage vessel ; and an insulated space supported by the vehicle , wherein the vessel is disposed in the insulated space characterized by a carbon-dioxide-refrigerant-based refrigeration unit supported by the vehicle and configured to cool the insulated space ; wherein the refrigeration unit is configured to deposit solid carbon dioxide into the insulated space ; wherein the refrigeration unit is configured to provide passive, sublimation-based cooling to the insulated space when solid carbon dioxide is in the insulated space , even when the refrigeration unit is off; and wherein the refrigeration unit is configured to maintain a temperature within the insulated space between -58.7 and -98.5 degrees C. a vehicle ; a compressed gas storage vessel supported by the vehicle ; a hydraulic fluid reservoir supported by the vehicle ; a passageway connecting the hydraulic fluid reservoir to the compressed gas storage vessel ; a pump disposed in the passageway and configured to selectively pump hydraulic fluid through the passageway from the reservoir into the compressed gas storage vessel ; and an insulated space supported by the vehicle , wherein the vessel is disposed in the insulated space characterized by a carbon-dioxide-refrigerant-based refrigeration unit supported by the vehicle and configured to cool the insulated space ; wherein the refrigeration unit is configured to deposit solid carbon dioxide into the insulated space ; wherein the refrigeration unit is configured to provide passive, sublimation-based cooling to the insulated space when solid carbon dioxide is in the insulated space , even when the refrigeration unit is off; and wherein the refrigeration unit is configured to maintain a temperature within the insulated space between -58.7 and -98.5 degrees C.
A control system for an internal combustion engine that can use a plurality of kinds of fuel including compressed natural gas, the control system being characterized by comprising: determination means for determining whether or not properties of compressed natural gas, including the concentration of inert gas in the compressed natural gas, need to be learned; learning means for executing a learning processing when the determination means determines that the properties of the compressed natural gas need to be learned, the learning processing being a processing of learning the properties of the compressed natural gas; prohibition means for prohibiting a changeover from the compressed natural gas to another fuel from being made until one of a first period and a second period ends, when a request for the changeover is made during said one of a first period and a second period, the first period being a period from a time when the compressed natural gas is used for a first time after start of the internal combustion engine to a time when the determination means determines that the properties of the compressed natural gas do not need to be learned, and the second period being a period from the time when the compressed natural gas is used for the first time after the start of the internal combustion engine to a time when the learning process that is executed after the determination means determines that the properties of the compressed natural gas need to be learned is completed. determination means for determining whether or not properties of compressed natural gas, including the concentration of inert gas in the compressed natural gas, need to be learned; learning means for executing a learning processing when the determination means determines that the properties of the compressed natural gas need to be learned, the learning processing being a processing of learning the properties of the compressed natural gas; prohibition means for prohibiting a changeover from the compressed natural gas to another fuel from being made until one of a first period and a second period ends, when a request for the changeover is made during said one of a first period and a second period, the first period being a period from a time when the compressed natural gas is used for a first time after start of the internal combustion engine to a time when the determination means determines that the properties of the compressed natural gas do not need to be learned, and the second period being a period from the time when the compressed natural gas is used for the first time after the start of the internal combustion engine to a time when the learning process that is executed after the determination means determines that the properties of the compressed natural gas need to be learned is completed.
A wearable device comprising: a frame portion ; and a body portion ; wherein the frame portion is formed from a metallic material and the body portion is formed from a non-metallic material, the frame portion being configured to partially surround the body portion , the body portion supporting at least one passive or active tag thereon such that the tag is operable through an opening in the frame portion , characterized in that the frame portion comprises first and second spaced apart side frame elements (104 1-2 , 204 1-2 , 414 1-2 , 904 1-2 ), the opening being provided between the first and second spaced apart side frame elements (104 1-2 , 204 1-2 , 414 1-2 , 904 1-2 ), and wherein the wearable device further comprises releasable coupling elements for coupling together the first and second side frame elements (104 1-2 , 204 1-2 , 414 1-2 , 904 1-2 ). a frame portion ; and a body portion ; wherein the frame portion is formed from a metallic material and the body portion is formed from a non-metallic material, the frame portion being configured to partially surround the body portion , the body portion supporting at least one passive or active tag thereon such that the tag is operable through an opening in the frame portion , characterized in that the frame portion comprises first and second spaced apart side frame elements (104 1-2 , 204 1-2 , 414 1-2 , 904 1-2 ), the opening being provided between the first and second spaced apart side frame elements (104 1-2 , 204 1-2 , 414 1-2 , 904 1-2 ), and wherein the wearable device further comprises releasable coupling elements for coupling together the first and second side frame elements (104 1-2 , 204 1-2 , 414 1-2 , 904 1-2 ).
Heat exchanger comprising a plurality of plates arranged in parallel so as to define a first series of passages for channelling at least one first fluid (F1) and a second series of passages for channelling at least one second fluid (F2) which is to be brought into a heat-exchanging arrangement with at least said first fluid (F1), a mixer device being arranged in said at least one passage of the first series and comprising: - at least one first channel for the flow of a first phase of the first fluid (F1) along a direction of flow (z), - at least one second channel for the flow of a second phase of the first fluid (F1), and - at least one opening fluidically connecting the first channel to the at least one second channel , characterised in that said at least one opening comprises a first portion leading into the at least one first channel , said first portion having a first cross-section, and a second portion arranged between the first portion and the at least one second channel , said second portion having a second cross-section, the first cross-section being higher than the second cross-section. - at least one first channel for the flow of a first phase of the first fluid (F1) along a direction of flow (z), - at least one second channel for the flow of a second phase of the first fluid (F1), and - at least one opening fluidically connecting the first channel to the at least one second channel ,
A kit for reshaping a heart, comprising: a guide catheter; a first delivery catheter configured for insertion into the guide catheter; a first plurality of tissue anchors slidably coupled to a first tether and configured for loading into the first delivery catheter ; characterized by a second delivery catheter configured for insertion into the guide catheter; and a second plurality of tissue anchors slidably coupled to a second tether and configured for loading into the second delivery catheter; wherein the first delivery catheter is made from a shape memory material with a helical geometry that can be reversibly straightened with a movable stiffening wire or element, whereby the first plurality of tissue anchors and first tether form a helical ventriculoplasty implant when the first delivery catheter has assumed a helical configuration, the first delivery catheter being configured to assume the helical configuration such that surface contact between the first delivery catheter and a heart wall may be maintained once a distal end of the implant is stabilized and the stiffening wire or element is removed. a guide catheter; a first delivery catheter configured for insertion into the guide catheter; a first plurality of tissue anchors slidably coupled to a first tether and configured for loading into the first delivery catheter ; characterized by a second delivery catheter configured for insertion into the guide catheter; and a second plurality of tissue anchors slidably coupled to a second tether and configured for loading into the second delivery catheter; wherein the first delivery catheter is made from a shape memory material with a helical geometry that can be reversibly straightened with a movable stiffening wire or element, whereby the first plurality of tissue anchors and first tether form a helical ventriculoplasty implant when the first delivery catheter has assumed a helical configuration, the first delivery catheter being configured to assume the helical configuration such that surface contact between the first delivery catheter and a heart wall may be maintained once a distal end of the implant is stabilized and the stiffening wire or element is removed.
A method for actively canceling steering wheel nibble in an electric power steering system comprising the steps of: (a) calculating an active nibble canceling torque based upon a detected wheel speed including filtering the wheel speed with a digital filter, wherein the digital filter is an anti-notch filter ; (b) using an electric motor in an electric power steering system to apply the active nibble canceling torque to eliminate steering wheel nibble; and (c) using a lag-lead phase compensator filter concatenated to the anti-notch filter , connected between the anti-notch filter and a multiplication block , for adding more phase lag to an Active Disturbance Rejection (ADR) dynamic response in order to reduce amplification of a closed loop magnitude of the steering system , wherein the phase lag is induced ahead of wheel frequency resonant peaks in order to accumulate enough phase lag as the anti-notch filter reaches wheel frequency peaks, wherein the lag-lead compensator filter is operative as a function of wheel frequency and a damping factor, wherein the phase lag is modified without causing pole-zero cancellation, wherein poles of the lag-lead compensator filter are shifted to a lower frequency by adding a gain multiplier (K) to initiate the phase lag ahead of the wheel frequencies. (a) calculating an active nibble canceling torque based upon a detected wheel speed including filtering the wheel speed with a digital filter, wherein the digital filter is an anti-notch filter ; (b) using an electric motor in an electric power steering system to apply the active nibble canceling torque to eliminate steering wheel nibble; and (c) using a lag-lead phase compensator filter concatenated to the anti-notch filter , connected between the anti-notch filter and a multiplication block , for adding more phase lag to an Active Disturbance Rejection (ADR) dynamic response in order to reduce amplification of a closed loop magnitude of the steering system , wherein the phase lag is induced ahead of wheel frequency resonant peaks in order to accumulate enough phase lag as the anti-notch filter reaches wheel frequency peaks, wherein the lag-lead compensator filter is operative as a function of wheel frequency and a damping factor, wherein the phase lag is modified without causing pole-zero cancellation,
A method for transmitting an uplink signal by a user equipment, UE , in a cellular communication system, the method comprising: receiving first information for scheduling a repetition of a transmission of a first uplink signal, wherein the first uplink signal is scheduled on a plurality of uplink resources used for the repetition of the transmission of the first uplink signal, based on the first information; receiving second information for scheduling a second uplink signal, and characterized in that : wherein the second uplink signal is scheduled on a first uplink resource of the plurality of resources, based on the second information; transmitting, through the first uplink resource, the second uplink signal; and transmitting, through a second uplink resource of the plurality of uplink resources the first uplink signal, wherein the second uplink resource is included in the plurality of uplink resources and different from the first uplink resource. receiving first information for scheduling a repetition of a transmission of a first uplink signal, wherein the first uplink signal is scheduled on a plurality of uplink resources used for the repetition of the transmission of the first uplink signal, based on the first information; receiving second information for scheduling a second uplink signal, and characterized in that : wherein the second uplink signal is scheduled on a first uplink resource of the plurality of resources, based on the second information; transmitting, through the first uplink resource, the second uplink signal; and transmitting, through a second uplink resource of the plurality of uplink resources the first uplink signal, wherein the second uplink resource is included in the plurality of uplink resources and different from the first uplink resource. wherein the second uplink signal is scheduled on a first uplink resource of the plurality of resources, based on the second information; transmitting, through the first uplink resource, the second uplink signal; and transmitting, through a second uplink resource of the plurality of uplink resources the first uplink signal, wherein the second uplink resource is included in the plurality of uplink resources and different from the first uplink resource.
An immunochromatographic test strip for detecting digoxin, comprising a bottom plate, and a sample pad, a glass fiber mat, a nitrocellulose membrane and a water absorbing paper which are sequentially overlapped on the bottom plate, wherein the glass fiber mat is sprayed with a digoxin-specific antibody-fluorescent microsphere complex; and the nitrocellulose membrane is sequentially provided with a detection line coated with digoxin protein conjugate and a quality control line coated with a secondary antibody; the digoxin-specific antibody-fluorescent microsphere complex is obtained by conjugation between a digoxin monoclonal antibody or a digoxin polyclonal antibody and a fluorescent microsphere; the mass percentage concentration of the digoxin-specific antibody-fluorescent microsphere complex is 0.01-0.1%; and the spraying amount of the digoxin-specific antibody-fluorescent microsphere complex on the glass fiber mat is 1-10 μL/cm; and the digoxin protein conjugate comprises a digoxin-conjugated rabbit albumin or a digoxin-conjugated rabbit ovalbumin; the concentration of the digoxin-conjugated rabbit albumin is 1 mg/mL; the concentration of the digoxin-conjugated rabbit ovalbumin is 3 mg/mL; and the spraying amount of the digoxin protein conjugate on the nitrocellulose membrane is 1-5 μL/cm; and the secondary antibody comprises a goat anti-mouse IgG antibody; and the sample pad comprises a glass fiber, a polyester film, a cellulose filter paper, and a nonwoven fabric. the digoxin-specific antibody-fluorescent microsphere complex is obtained by conjugation between a digoxin monoclonal antibody or a digoxin polyclonal antibody and a fluorescent microsphere; the mass percentage concentration of the digoxin-specific antibody-fluorescent microsphere complex is 0.01-0.1%; and the spraying amount of the digoxin-specific antibody-fluorescent microsphere complex on the glass fiber mat is 1-10 μL/cm; and the digoxin protein conjugate comprises a digoxin-conjugated rabbit albumin or a digoxin-conjugated rabbit ovalbumin; the concentration of the digoxin-conjugated rabbit albumin is 1 mg/mL; the concentration of the digoxin-conjugated rabbit ovalbumin is 3 mg/mL; and the spraying amount of the digoxin protein conjugate on the nitrocellulose membrane is 1-5 μL/cm; and the secondary antibody comprises a goat anti-mouse IgG antibody; and the sample pad comprises a glass fiber, a polyester film, a cellulose filter paper, and a nonwoven fabric.
A pharmaceutical composition characterized by comprising at least the following components: 1) a compound of formula (I): , its pharmaceutically acceptable salt or solvate thereof, 2) sodium chloride of 1.5 to 4.0 mole equivalent to component 1), 3) sucrose of 1.0 to 3.0 mole equivalent to component 1), and 4) sodium p-toluenesulfonic acid of 0.25 to 2.5 mole equivalent to component 1) and sodium sulphate of 0.05 to 2.0 mole equivalent to component 1). 1) a compound of formula (I): , its pharmaceutically acceptable salt or solvate thereof, 2) sodium chloride of 1.5 to 4.0 mole equivalent to component 1), 3) sucrose of 1.0 to 3.0 mole equivalent to component 1), and 4) sodium p-toluenesulfonic acid of 0.25 to 2.5 mole equivalent to component 1) and sodium sulphate of 0.05 to 2.0 mole equivalent to component 1).
Method for obtaining an ornament component comprising at least 80% by mass of platinum, the method comprising: providing a raw material comprising at least 80.0% by mass of platinum and having a first hardness; carrying out a step of work hardening of the alloy in order to obtain a semi-finished product having a second hardness that is higher than the first hardness; and carrying out a step of machining of the semi-finished product to obtain the component; characterized in that the work hardening step comprises at least one cycle of severe plastic deformation brought about by equal-channel angular extrusion such that the crystallographic structure of the alloy is transformed into a structure having grains smaller than 1 μm, and preferably smaller than 500 nm. providing a raw material comprising at least 80.0% by mass of platinum and having a first hardness; carrying out a step of work hardening of the alloy in order to obtain a semi-finished product having a second hardness that is higher than the first hardness; and carrying out a step of machining of the semi-finished product to obtain the component; characterized in that the work hardening step comprises at least one cycle of severe plastic deformation brought about by equal-channel angular extrusion such that the crystallographic structure of the alloy is transformed into a structure having grains smaller than 1 μm, and preferably smaller than 500 nm.
A compound selected from - 5,6-Dimethyl-2-((4-methyl-7-(2-morpholinoethoxy)quinazolin-2-yl)amino)pyrimidin-4 -one and wherein: R 1 and R 2 are independently selected from H, CH 3 (Methyl), Cl (Chlorine), and a thiosugar, and R 3 is R 4 is H, CH 3 wherein: (Methyl), C 2 H 6 (Ethyl), n-Propyl, N(CH 2 ) 4 or N(CH 2 ) 5 , Z is CH 2 or C=O, n is 1, 2 or 3, and X is O, N or CH, for use as a medicament. - 5,6-Dimethyl-2-((4-methyl-7-(2-morpholinoethoxy)quinazolin-2-yl)amino)pyrimidin-4 -one and wherein: R 1 and R 2 are independently selected from H, CH 3 (Methyl), Cl (Chlorine), and a thiosugar, and R 3 is R 4 is H, CH 3 wherein: (Methyl), C 2 H 6 (Ethyl), n-Propyl, N(CH 2 ) 4 or N(CH 2 ) 5 , Z is CH 2 or C=O, n is 1, 2 or 3, and X is O, N or CH, for use as a medicament. R 1 and R 2 are independently selected from H, CH 3 (Methyl), Cl (Chlorine), and a thiosugar, and R 3 is R 4 is H, CH 3 wherein: (Methyl), C 2 H 6 (Ethyl), n-Propyl, N(CH 2 ) 4 or N(CH 2 ) 5 , Z is CH 2 or C=O, n is 1, 2 or 3, and X is O, N or CH, for use as a medicament.
A method for amplifying NK cells, comprising the steps of: preparing a cell population which comprises NK cells from umbilical cord blood or peripheral blood; removing T cells from the cell population which comprises NK cells; and after removal of T cells, cultivating the remaining cells without feeder cells in a medium supplemented with 2500 to 2813 IU/mL of IL-2, wherein the method comprises a step of removing hematopoietic progenitor cells from the cell population, and wherein the step of removing T cells is implemented by a step of removing CD3-positive cells, and the step of removing hematopoietic progenitor cells from the cell population is implemented by a step of removing CD34-positive cells. preparing a cell population which comprises NK cells from umbilical cord blood or peripheral blood; removing T cells from the cell population which comprises NK cells; and after removal of T cells, cultivating the remaining cells without feeder cells in a medium supplemented with 2500 to 2813 IU/mL of IL-2, wherein the method comprises a step of removing hematopoietic progenitor cells from the cell population, and wherein the step of removing T cells is implemented by a step of removing CD3-positive cells, and the step of removing hematopoietic progenitor cells from the cell population is implemented by a step of removing CD34-positive cells.
Front landing gear module for aircraft, the module being a one-piece module, namely forming an individual assembly, capable of being mounted directly on the aircraft, said module comprising an open box having an aerodynamic outer wall , said box furthermore being provided with at least one door configured to be able to be opened and closed, said box containing a deployable front landing gear configured to be able to be deployed through said door , said front landing gear module comprising an attachment system intended to attach said front landing gear module on the aircraft (AC).
A compactor for waste material comprising: a housing for receipt of a bag, the housing comprising sidewalls including at least one openable sidewall ; and a compacting press comprising an actuator to force material into the bag when it is housed in the housing, characterised in that at least one of the sidewalls comprises two adjacent panels connected by articulation means allowing the at least one sidewall to fold during a compaction operation in response to pressures exerted on the bag/housing to change the geometry of the housing during compaction. a housing for receipt of a bag, the housing comprising sidewalls including at least one openable sidewall ; and a compacting press comprising an actuator to force material into the bag when it is housed in the housing,
A protein expression system for use in a prokaryotic host comprising: a) an expression cassette comprising a nucleic acid sequence encoding a protein of interest operably linked to a T7 RNA polymerase-dependent promoter; and b) an expression cassette comprising a nucleic acid sequence encoding T7 RNA polymerase operably linked to a host polymerase-dependent λ phage promoter and a single perfect palindrome operator sequence; wherein the expression cassette for T7 RNA polymerase is located on the chromosome of a host cell. a) an expression cassette comprising a nucleic acid sequence encoding a protein of interest operably linked to a T7 RNA polymerase-dependent promoter; and b) an expression cassette comprising a nucleic acid sequence encoding T7 RNA polymerase operably linked to a host polymerase-dependent λ phage promoter and a single perfect palindrome operator sequence;