mhurhangee/patent-ind-claim-en huggingface dataset:
Console for a motor vehicle intended to be mounted slidingly on the floor of the said vehicle along its longitudinal median axis, comprising : - a first box comprising an internal structure ; - a second box pivotally mounted on said internal structure about a first transverse articulation axis (A) and defining at least one vertical lateral housing ; and a second box pivotally mounted on said internal structure about a second transverse articulation axis (B) and defining at least one vertical lateral housing . - at least one tray movably mounted on said second box ; said console being able to pass : - a retracted configuration in which said second box occupies a folded position in which it extends in the rear extension of said first box , while said at least one tray occupies a stowed position in which it is received in a corresponding said vertical lateral housing ; - to a service configuration in which said second carcase has been pivoted upwardly into a raised position extending above and behind said first carcase , while said at least one top extends horizontally so as to form a table; characterised in that said first box comprises, for each said tray , a retaining finger taking root on the upper part of said internal structure pointing downwards and being arranged to be introduced, when said second box is pivoted down while said tray is in said stowed position, into a respective orifice provided on said tray . - a first box comprising an internal structure ; - a second box pivotally mounted on said internal structure about a first transverse articulation axis (A) and defining at least one vertical lateral housing ; and a second box pivotally mounted on said internal structure about a second transverse articulation axis (B) and defining at least one vertical lateral housing . - at least one tray movably mounted on said second box ; - a retracted configuration in which said second box occupies a folded position in which it extends in the rear extension of said first box , while said at least one tray occupies a stowed position in which it is received in a corresponding said vertical lateral housing ; - to a service configuration in which said second carcase has been pivoted upwardly into a raised position extending above and behind said first carcase , while said at least one top extends horizontally so as to form a table;
A multi-stage sample recovery system comprising: a screening array stage , wherein the screening array stage is controllable in two dimensions relative to a microscope objective and is configured for reversible association with a screening array; and a first recovery array stage , wherein the first recovery array stage is controllable in at least one dimension relative to the microscope objective and is configured for reversible association with a recovery array , wherein reversible association refers to the ability of the recovery array to be able to associate and dissociate with the recovery array stage; characterised in that the screening array stage and the first recovery array stage are controllable independently of one another, and in that multi-stage sample recovery system comprises an extraction beam generator, wherein the extraction beam generator is configured to generate an extraction beam optically coupled through an aperture in the screening array stage and directed from below the screening array stage, and wherein the first recovery array stage is positioned below the screening array stage. a screening array stage , wherein the screening array stage is controllable in two dimensions relative to a microscope objective and is configured for reversible association with a screening array; and a first recovery array stage , wherein the first recovery array stage is controllable in at least one dimension relative to the microscope objective and is configured for reversible association with a recovery array , wherein reversible association refers to the ability of the recovery array to be able to associate and dissociate with the recovery array stage; characterised in that the screening array stage and the first recovery array stage are controllable independently of one another, and in that multi-stage sample recovery system comprises an extraction beam generator, wherein the extraction beam generator is configured to generate an extraction beam optically coupled through an aperture in the screening array stage and directed from below the screening array stage, and wherein the first recovery array stage is positioned below the screening array stage.
A hollow probe enabling insertion and accommodation of endoscopic and other instruments, which advances within a lumen , comprising: an external central valve unit comprising a central bore having a proximal end and a distal end, and at least one valve for controlling the introduction and withdrawal of fluid into said central bore ; a sliding tubular sheath , an intermediate portion of which is movably disposed inside said central bore , wherein the central valve unit encircles the sheath at the intermediate portion thereof, and the sheath further comprises other proximal and distal portions; and a flexible sleeve , impermeable to said fluid and sealingly anchored to said central valve unit on both said distal end and said proximal end, said sleeve being folded over the sheath at the sheath tips and inverted to cover both the inside of the sheath and the outside of the proximal portion and the distal portion of said sheath to sealingly envelop said sheath and contain said fluid, together with said valve unit , while allowing sliding of said sheath through said central bore . an external central valve unit comprising a central bore having a proximal end and a distal end, and at least one valve for controlling the introduction and withdrawal of fluid into said central bore ; a sliding tubular sheath , an intermediate portion of which is movably disposed inside said central bore , wherein the central valve unit encircles the sheath at the intermediate portion thereof, and the sheath further comprises other proximal and distal portions; and a flexible sleeve , impermeable to said fluid and sealingly anchored to said central valve unit on both said distal end and said proximal end, said sleeve being folded over the sheath at the sheath tips and inverted to cover both the inside of the sheath and the outside of the proximal portion and the distal portion of said sheath to sealingly envelop said sheath and contain said fluid, together with said valve unit , while allowing sliding of said sheath through said central bore .
A wireless charger comprising: one or more wireless power transmission coils comprising a plurality of coil segments (CS1-CS3), wherein the coil segments (CS1-CS3) in the plurality of coil segments (CS1-CS3) are part of a single, monolithic coil and each of the coil segments (CS1-CS3) being arranged to transmit power at a different region of the wireless charger ; drive circuitry configured to apply a drive signal to the one or more wireless power transmission coils (CS1-CS3); bypass circuit paths (BP1-BP3) configured to route drive signals around the respective coil segments (CS1-CS3); switch elements (S1-S3) configured to enable and disable the bypass circuit paths (BP1-BP3); and control circuity configured to (i) detect the presence of devices to be charged at the different regions of the wireless charger , and (ii) control the switch elements (S1-S3) such that, when devices to be charged are detected for at least two of the different regions, the wireless charger alternates between charging the devices at the least two different regions. one or more wireless power transmission coils comprising a plurality of coil segments (CS1-CS3), wherein the coil segments (CS1-CS3) in the plurality of coil segments (CS1-CS3) are part of a single, monolithic coil and each of the coil segments (CS1-CS3) being arranged to transmit power at a different region of the wireless charger ; drive circuitry configured to apply a drive signal to the one or more wireless power transmission coils (CS1-CS3); bypass circuit paths (BP1-BP3) configured to route drive signals around the respective coil segments (CS1-CS3); switch elements (S1-S3) configured to enable and disable the bypass circuit paths (BP1-BP3); and control circuity configured to (i) detect the presence of devices to be charged at the different regions of the wireless charger , and (ii) control the switch elements (S1-S3) such that, when devices to be charged are detected for at least two of the different regions, the wireless charger alternates between charging the devices at the least two different regions.
A combination of a vehicular airbag device and an instrument panel comprising an airbag which opens an airbag door openably sealing an opening formed on the instrument panel , which deploys and expands rearward in a vehicle longitudinal direction from the opening toward an occupant sitting on a front seat of a vehicle, and which catches the occupant while being supported by the instrument panel , wherein an outer shape of the airbag when fully deployed and expanded is line-symmetrical with respect to a center line (#X-#X, X-X) of the opening in a vehicle left-right width direction, and a width dimension (#WC, WC) in the vehicle width direction at a center position of the opening in the vehicle longitudinal direction is greater than a width dimension (#WB, WB) in the vehicle width direction at a rear edge position of the instrument panel which is more rearward in the vehicle longitudinal direction than the center position of the opening in the vehicle longitudinal direction, characterized in that the width dimension (#WC, WC) in the vehicle width direction at the center position of the opening is greater than the maximum width dimension (#WA, WA) in the vehicle width direction which is more rearward in the vehicle longitudinal direction than the width dimension (#WB, WB) in the vehicle width direction at a rear edge of the instrument panel .
A handpiece for ocular surgery, comprising: a proximal portion having at least inlet ports for irrigation tubing and aspiration tubing, and providing an irrigation fluidic pathway extending therethrough from the irrigation tubing inlet port, and providing an aspiration fluidic pathway extending therethrough from the aspiration inlet port; a distal portion terminating in an emulsifying tip, and providing an aspiration pathway terminating in an aspiration output, and at least one irrigation pathway terminating in at least one irrigation output; and characterized by a swivel ball provided at a base of the proximal portion and having a first opening to the irrigation fluidic pathway, and a second opening to the aspiration fluidic pathway, which seats within a socket cup provided at an upper end of the distal portion, wherein the socket cup provides an irrigation opening that fluidically connects the first opening and the at least one irrigation pathway, and an aspiration opening that fluidically connects the second opening and the aspiration pathway; wherein the swivel ball is capable of both an axial angular rotation and a circumferential rotation within the socket cup while maintaining continuous fluidic communication from the irrigation tubing inlet port to the at least one irrigation output, and from the aspiration tubing inlet port to the aspiration output. a proximal portion having at least inlet ports for irrigation tubing and aspiration tubing, and providing an irrigation fluidic pathway extending therethrough from the irrigation tubing inlet port, and providing an aspiration fluidic pathway extending therethrough from the aspiration inlet port; a distal portion terminating in an emulsifying tip, and providing an aspiration pathway terminating in an aspiration output, and at least one irrigation pathway terminating in at least one irrigation output; and characterized by a swivel ball provided at a base of the proximal portion and having a first opening to the irrigation fluidic pathway, and a second opening to the aspiration fluidic pathway, which seats within a socket cup provided at an upper end of the distal portion, wherein the socket cup provides an irrigation opening that fluidically connects the first opening and the at least one irrigation pathway, and an aspiration opening that fluidically connects the second opening and the aspiration pathway; wherein the swivel ball is capable of both an axial angular rotation and a circumferential rotation within the socket cup while maintaining continuous fluidic communication from the irrigation tubing inlet port to the at least one irrigation output, and from the aspiration tubing inlet port to the aspiration output.
A power converting apparatus comprising: an inverter having a plurality of upper switching devices (Sa,Sb,Sc) and a plurality of lower switching devices (S'a,S'b,S'c) to output converted power to a motor ; an output current detector (E) disposed between the inverter and the motor to detect a current flowing to the motor ; a plurality of upper gate drivers (GDa,GDb,GDc) to output a gate drive signal to each of gate terminals of the plurality of upper switching devices (Sa,Sb,Sc); a plurality of upper ON resistors (Raon,Rbon,Rcon) disposed between the plurality of upper switching devices (Sa,Sb,Sc) and the plurality of upper gate drivers (GDa,GDb,GDc); a lower gate driver (GDx) to output a gate drive signal to gate terminals of the plurality of lower switching devices (S'a, S'b, S'c); and a plurality of lower ON resistors (Ra'on, Rb'on, Rc'on) disposed between the plurality of lower switching devices (S'a, S'b, S'c) and the lower gate driver (GDx), wherein resistance values of the upper ON resistors (Raon,Rbon,Rcon) are different from each other. an inverter having a plurality of upper switching devices (Sa,Sb,Sc) and a plurality of lower switching devices (S'a,S'b,S'c) to output converted power to a motor ; an output current detector (E) disposed between the inverter and the motor to detect a current flowing to the motor ; a plurality of upper gate drivers (GDa,GDb,GDc) to output a gate drive signal to each of gate terminals of the plurality of upper switching devices (Sa,Sb,Sc); a plurality of upper ON resistors (Raon,Rbon,Rcon) disposed between the plurality of upper switching devices (Sa,Sb,Sc) and the plurality of upper gate drivers (GDa,GDb,GDc); a lower gate driver (GDx) to output a gate drive signal to gate terminals of the plurality of lower switching devices (S'a, S'b, S'c); and a plurality of lower ON resistors (Ra'on, Rb'on, Rc'on) disposed between the plurality of lower switching devices (S'a, S'b, S'c) and the lower gate driver (GDx), wherein resistance values of the upper ON resistors (Raon,Rbon,Rcon) are different from each other.
A method of treating an apatite solid surface prior to first use in a chromatographic procedure, the method comprising: (a) prior to first use in a chromatographic procedure, contacting the apatite solid surface prior to first use with a phosphate buffered solution at a pH of 6.5; and then (b) contacting the apatite solid surface with a solution having a hydroxide; and then (c) purifying a target analyte from a sample with the apatite solid surface from step (b), wherein the purifying comprises contacting the apatite solid surface with the sample comprising the target analyte, thereby separating the target analyte from one or more contaminants; then (d) collecting the target analyte from the apatite solid surface; and then (e) regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution having a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the solution is at least 6.5; and then (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and then (iii) contacting the apatite solid surface with a solution having a hydroxide. (a) prior to first use in a chromatographic procedure, contacting the apatite solid surface prior to first use with a phosphate buffered solution at a pH of 6.5; and then (b) contacting the apatite solid surface with a solution having a hydroxide; and then (c) purifying a target analyte from a sample with the apatite solid surface from step (b), wherein the purifying comprises contacting the apatite solid surface with the sample comprising the target analyte, thereby separating the target analyte from one or more contaminants; then (d) collecting the target analyte from the apatite solid surface; and then (e) regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution having a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the solution is at least 6.5; and then (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and then (iii) contacting the apatite solid surface with a solution having a hydroxide. (i) contacting the apatite solid surface with a buffered calcium solution having a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the solution is at least 6.5; and then (ii) contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and then (iii) contacting the apatite solid surface with a solution having a hydroxide.
A method for estimating a load acting on a tire (T) mounted on a vehicle , the method comprising: a step (S 11) of detecting an acceleration waveform in a tire radial direction of each tire (T) from an output of each of acceleration sensors (101~112) disposed on an inner surface side of a tire tread of each tire (T) of the vehicle ; a step (S11) of calculating a total vehicle weight; a step (S13) of differentiating the acceleration waveform in the tire radial direction of each tire (T) to obtain a differential acceleration waveform; a step (S14) of calculating a ground contact time (Tc) and a rotation time (Tr) of the tire (T) from the differential acceleration waveform; a step (S15) of calculating, for each tire (T), a ground contact time ratio (CTRk) which is a ratio between the ground contact time (Tc) and the rotation time (Tr); and a step (S17) of estimating a load (wk) acting on a target tire (Tk), which is a target for estimation of the load, from the calculated ground contact time ratio (CTRk) of each tire (T), a maximum load capability of the target tire (Tk), the calculated total vehicle weight, and an inclination obtained in advance by approximating a maximum load capability ratio (Mk [%]) with a linear function of the ground contact time ratio (CTRk), wherein the maximum load capability ratio (Mk [%]) of the target tire (Tk) is a value obtained by normalizing the load (wk) acting on the target tire (Tk) with the maximum load capability of the target tire (Tk). a step (S 11) of detecting an acceleration waveform in a tire radial direction of each tire (T) from an output of each of acceleration sensors (101~112) disposed on an inner surface side of a tire tread of each tire (T) of the vehicle ; a step (S11) of calculating a total vehicle weight; a step (S13) of differentiating the acceleration waveform in the tire radial direction of each tire (T) to obtain a differential acceleration waveform; a step (S14) of calculating a ground contact time (Tc) and a rotation time (Tr) of the tire (T) from the differential acceleration waveform; a step (S15) of calculating, for each tire (T), a ground contact time ratio (CTRk) which is a ratio between the ground contact time (Tc) and the rotation time (Tr); and a step (S17) of estimating a load (wk) acting on a target tire (Tk), which is a target for estimation of the load, from the calculated ground contact time ratio (CTRk) of each tire (T), a maximum load capability of the target tire (Tk), the calculated total vehicle weight, and an inclination obtained in advance by approximating a maximum load capability ratio (Mk [%]) with a linear function of the ground contact time ratio (CTRk), wherein the maximum load capability ratio (Mk [%]) of the target tire (Tk) is a value obtained by normalizing the load (wk) acting on the target tire (Tk) with the maximum load capability of the target tire (Tk).
A fluid state test device, comprising an electrical connector and a frequency calculation unit , wherein the electrical connector comprises: a main body portion , connection portions (120,130; 420,430), a first temperature sensing element , and a second temperature sensing element , wherein the connection portions (120,130; 420,430) allow the main body portion to be electrically connected to an electric heating element provided in a flow channel of the fluid state test device; and the main body portion comprises a first side and a second side which are parallel to a flow direction of the fluid, and the first temperature sensing element and the second temperature sensing element are respectively provided at opposite positions on the first side and the second side in an electrically insulated manner; and the frequency calculation unit is configured to calculate a frequency of an alternating force applied by the fluid on the electrical connector in a direction perpendicular to the flow direction of the fluid, based on an alternating change of a measurement value of each of the first temperature sensing element and the second temperature sensing element . a main body portion , connection portions (120,130; 420,430), a first temperature sensing element , and a second temperature sensing element , wherein the connection portions (120,130; 420,430) allow the main body portion to be electrically connected to an electric heating element provided in a flow channel of the fluid state test device; and the main body portion comprises a first side and a second side which are parallel to a flow direction of the fluid, and the first temperature sensing element and the second temperature sensing element are respectively provided at opposite positions on the first side and the second side in an electrically insulated manner; and the frequency calculation unit is configured to calculate a frequency of an alternating force applied by the fluid on the electrical connector in a direction perpendicular to the flow direction of the fluid, based on an alternating change of a measurement value of each of the first temperature sensing element and the second temperature sensing element . the connection portions (120,130; 420,430) allow the main body portion to be electrically connected to an electric heating element provided in a flow channel of the fluid state test device; and the main body portion comprises a first side and a second side which are parallel to a flow direction of the fluid, and the first temperature sensing element and the second temperature sensing element are respectively provided at opposite positions on the first side and the second side in an electrically insulated manner; and the frequency calculation unit is configured to calculate a frequency of an alternating force applied by the fluid on the electrical connector in a direction perpendicular to the flow direction of the fluid, based on an alternating change of a measurement value of each of the first temperature sensing element and the second temperature sensing element .