mhurhangee/patent-ind-claim-en huggingface dataset:
Laminated multi-phase busbar for conducting electric energy, comprising a base layer of an electrically insulating material, a first conducting layer of an electrically conducting material which is arranged on and mechanically connected to said base layer , a first intermediate insulating layer of an electrically insulating material which is arranged on and mechanically connected to said first conducting layer , a second conducting layer of an electrically conducting material which is arranged on and mechanically connected to said first intermediate layer and a cover layer of an electrically insulating material which is arranged on and mechanically connected to said second conducting layer , wherein at least one first pin hole is formed in said intermediate insulating layer , said second conducting layer and said cover layer , and that a first conducting pin for conducting electric energy to said first conducting layer is arranged inside said first pin hole , said first conducting pin being electrically connected to said first conducting layer and having a smaller diameter than said first pin hole in said second conducting layer , wherein the material of said first conducting layer and said second conducting layer is a sheet metal which is mechanically connected to the intermediate insulating layer by a thermally cured thermosetting resin characterized in that the electrically insulating material of said base layer , said first intermediate layer and said cover layer is a sheet molding compound including a thermosetting resin and reinforcing fibers, and that said first conducting pin is mechanically bonded to the intermediate insulating layer and to the cover layer by a material bridge of cured resin and fibers of said sheet molding compound of said first intermediate insulating layer and said insulating cover layer .
A system comprising: a refrigerant compressor including an electric motor ; a current sensor that is configured to measure current flow to the electric motor ; a switching device configured to close and open to allow and prevent current flow to the electric motor , respectively; a first maximum continuous current, MCC, device that includes a resistance corresponding to a maximum continuous current for the electric motor ; a second MCC device that includes a second resistance corresponding to a second maximum continuous current for the electric motor ; and a motor protection module that is configured to: communicate with the first MCC device , the second MCC device , the current sensor , and the switching device ; determine the resistance of the first MCC device ; determine a first MCC value for the electric motor as a function of the resistance of the first MCC device ; determine a second MCC value for the electric motor as a function of the second resistance ; selectively set a predetermined MCC value to the first MCC value; selectively set the predetermined MCC value to the second MCC value; and control the switching device based on a comparison of the current flow to the electric motor and the predetermined MCC value. a refrigerant compressor including an electric motor ; a current sensor that is configured to measure current flow to the electric motor ; a switching device configured to close and open to allow and prevent current flow to the electric motor , respectively; a first maximum continuous current, MCC, device that includes a resistance corresponding to a maximum continuous current for the electric motor ; a second MCC device that includes a second resistance corresponding to a second maximum continuous current for the electric motor ; and a motor protection module that is configured to: communicate with the first MCC device , the second MCC device , the current sensor , and the switching device ; determine the resistance of the first MCC device ; determine a first MCC value for the electric motor as a function of the resistance of the first MCC device ; determine a second MCC value for the electric motor as a function of the second resistance ; selectively set a predetermined MCC value to the first MCC value; selectively set the predetermined MCC value to the second MCC value; and control the switching device based on a comparison of the current flow to the electric motor and the predetermined MCC value. communicate with the first MCC device , the second MCC device , the current sensor , and the switching device ; determine the resistance of the first MCC device ; determine a first MCC value for the electric motor as a function of the resistance of the first MCC device ; determine a second MCC value for the electric motor as a function of the second resistance ; selectively set a predetermined MCC value to the first MCC value; selectively set the predetermined MCC value to the second MCC value; and control the switching device based on a comparison of the current flow to the electric motor and the predetermined MCC value.
A laser diode, comprising a substrate and a stacked layer on the substrate , the stacked layer comprising an N-type layer , an active layer , a P-type layer with a ridge-shaped strip on a surface thereof, and a laterally plated DBR cladding layer , characterized in that an end surface of the ridge-shaped strip along a length direction of the ridge-shaped strip is a first inclined surface which is inclined with respect to both a normal direction of a lower surface of the ridge-shaped strip and an emission end surface of the laser diode, and a contact surface of the ridge-shaped strip in contact with the DBR cladding layer comprises the first inclined surface .
A work gondola apparatus comprising: a work cage into which a worker boards; equipment mounting parts disposed on both outer sides of the work cage ; battery-driven elevating/lowering mechanisms which are mounted to the respective equipment mounting parts and which elevate/lower the work cage to a working location by means of cables that are being suspended; and batteries for driving the respective elevating/lowering mechanisms , wherein the battery is provided with an auxiliary battery and the auxiliary battery is configured to be capable of simultaneously driving the elevating/lowering mechanisms on both sides, and the equipment mounting parts are configured so as to substantially keep the weight balance between the right and left sides. a work cage into which a worker boards; equipment mounting parts disposed on both outer sides of the work cage ; battery-driven elevating/lowering mechanisms which are mounted to the respective equipment mounting parts and which elevate/lower the work cage to a working location by means of cables that are being suspended; and batteries for driving the respective elevating/lowering mechanisms , wherein the battery is provided with an auxiliary battery and the auxiliary battery is configured to be capable of simultaneously driving the elevating/lowering mechanisms on both sides, and the equipment mounting parts are configured so as to substantially keep the weight balance between the right and left sides.
A mechanism (M) for opening and closing the cover of a housing (H), the cover being adapted to be lifted by two opposite sides to allow access to the inside by either one or the other side , so that when one of the sides is lifted the other side remains fixed so that the cover pivots on one of a first (E1) or a second (E2) axes defined by the other side respectively, the mechanism comprising: - the cover , two end bearing surfaces (S1, S2) of two opposite ends being defined in the cover for leaning on two edges (B1, B2) adjacent the housing (H); - two guiding extensions (P1, P2) extending from the cover arranged adjacent the bearing surfaces (S1, S2) and adapted to be oriented towards the housing (H); - two guiding assemblies (G1, G2) arrangeable in the housing surfaces that are adjacent to the edges (B1, B2), so that the guiding assemblies (G1, G2) face the guiding extensions (P1, P2) when the cover leans on the two edges (B1, B2); characterized in that each guiding assembly (G1, G2) comprises at least a first groove (R1, R1') and a second groove (R2, R2'), both having a circular arc shape, and each guiding extension (P1, P2) comprises at least a first protrusion (W1, W2, U1, U2) that slides within the grooves (R1, R1', R2, R2'), wherein: - the center of the circle arc of the first groove (R1, R1') is located on the first axis (E1); - the center of the circle arc of the second groove (R2, R2') is located on the second axis (E2). - the cover , two end bearing surfaces (S1, S2) of two opposite ends being defined in the cover for leaning on two edges (B1, B2) adjacent the housing (H); - two guiding extensions (P1, P2) extending from the cover arranged adjacent the bearing surfaces (S1, S2) and adapted to be oriented towards the housing (H); - two guiding assemblies (G1, G2) arrangeable in the housing surfaces that are adjacent to the edges (B1, B2), so that the guiding assemblies (G1, G2) face the guiding extensions (P1, P2) when the cover leans on the two edges (B1, B2); - the center of the circle arc of the first groove (R1, R1') is located on the first axis (E1); - the center of the circle arc of the second groove (R2, R2') is located on the second axis (E2).
A plant cultivating substrate which is shape retentive and flexible and formed by reacting and curing at least water-retentive filling material, water, urethane prepolymer, wherein the urethane prepolymer has an isocyanate group at the end, and polyol.
A system for deploying a tool introducer in a body cavity for locking an interchangeable tool to a manipulator body having a distal end inserted into an inlet into said body cavity , the system comprising a trocar , the tool introducer , the manipulator body , and the interchangeable tool, said tool introducer includes a tubular section with a longitudinal axis and a distal portion arranged to protrude through said trocar into said body cavity ; wherein said tool introducer is connectable to said trocar by insertion of said tool introducer into said trocar for maneuvering and deploying said distal portion of said tool introducer in a 3D coordinate system to a determined depth and orientation with respect to said distal end of said manipulator body; and said system being characterized in that said manipulator body includes a compressible portion on said distal end, said distal end of said manipulator body sized to advance into and be captured by said distal portion of said tool introducer , and said compressible portion being expandable by retracting an inner shaft of said manipulator body relative to a sleeve of said manipulator body to lock said interchangeable tool to said manipulator body .
A measurement method of a stream of urine from a user during urination to identify a toilet user, the measuring method using a radar sensor and comprising at least the following steps: - emission by the radar sensor of at least one radar signal, in the direction of the urine stream, - reception by the radar sensor of a reflected radar signal, the received radar signal comprising reflections of the transmitted signal, the reflections being caused by at least the urine stream, - processing the received radar signal to determine at least one property relating to the urine stream, and - assigning the urine stream to one of a plurality of user profiles on the basis of the at least one property of the urine stream. - emission by the radar sensor of at least one radar signal, in the direction of the urine stream, - reception by the radar sensor of a reflected radar signal, the received radar signal comprising reflections of the transmitted signal, the reflections being caused by at least the urine stream, - processing the received radar signal to determine at least one property relating to the urine stream, and - assigning the urine stream to one of a plurality of user profiles on the basis of the at least one property of the urine stream.
A method for acoustically generating a droplet, comprising: (a) providing a reservoir containing (i) a lower layer comprised of a first fluid , and characterised by (ii) an upper layer comprised of a second fluid , the upper layer having a curved upper surface region ; and an aperture region being an area of the upper layer that exhibits a local thickness minimum; wherein the aperture region exhibits a thickness of no more than 10% of the thickness of the first fluid under the aperture region , and wherein the first and second fluids are immiscible; and (b) applying focused acoustic energy to the reservoir in a manner effective to eject a droplet from the reservoir, wherein the droplet is comprised of a predetermined volume of the first fluid propelled through the upper layer at the aperture region ; wherein the aperture region has a diameter of at least twice that of the ejected droplet . (a) providing a reservoir containing (i) a lower layer comprised of a first fluid , and characterised by (ii) an upper layer comprised of a second fluid , the upper layer having a curved upper surface region ; and an aperture region being an area of the upper layer that exhibits a local thickness minimum; wherein the aperture region exhibits a thickness of no more than 10% of the thickness of the first fluid under the aperture region , and wherein the first and second fluids are immiscible; and (i) a lower layer comprised of a first fluid , and characterised by (ii) an upper layer comprised of a second fluid , the upper layer having a curved upper surface region ; and an aperture region being an area of the upper layer that exhibits a local thickness minimum; wherein the aperture region exhibits a thickness of no more than 10% of the thickness of the first fluid under the aperture region , and wherein the first and second fluids are immiscible; and a curved upper surface region ; and an aperture region being an area of the upper layer that exhibits a local thickness minimum; wherein the aperture region exhibits a thickness of no more than 10% of the thickness of the first fluid under the aperture region , and wherein the first and second fluids are immiscible; and (b) applying focused acoustic energy to the reservoir in a manner effective to eject a droplet from the reservoir, wherein the droplet is comprised of a predetermined volume of the first fluid propelled through the upper layer at the aperture region ;
Connecting device for a fluid supply system comprising a female connecting part and a male connecting part , the female connecting part comprises : - a back support plate ; - a middle support plate ; - a front support plate ; wherein said front support plate comprises a fluid outlet port intended to be connected to a corresponding connecting element of the male connecting part , and said back , middle and front support plates each comprising an outlet hole connected to the outlet port , wherein the middle support plate is fastened to the back support plate and the front support plate is fastened to the middle support plate ; wherein the front support plate is configured to be able to move along a first axis (Y-Y), wherein the middle support plate is configured to be able to move along a second axis (X-X), the second axis (X-X) being transverse to the first axis (Y-Y), characterized in that the connecting device further comprises a support frame framing the back , middle and front support plates, wherein the middle support plate is connected to the support frame by at least two springs extending along the second axis (X-X), preferably four springs, and wherein the front support plate is connected to the support frame by at least two springs extending along the first axis (Y-Y), preferably four springs. - a back support plate ; - a middle support plate ; - a front support plate ;
Process for making a flexible sensor membrane defined by a prevalent development surface and comprising a sensitive layer , being piezoresistive fabric capable of varying a property when an external variable changes, extending mainly along said prevalent development surface , - said process being characterised by the fact of comprising - the deposition of conductive portions in solidifiable material at room temperature, on a transfer paper, - the transfer, by means of a transfer process, of said conductive portions directly onto said sensitive layer . - said process being characterised by the fact of comprising - the deposition of conductive portions in solidifiable material at room temperature, on a transfer paper, - the transfer, by means of a transfer process, of said conductive portions directly onto said sensitive layer .
A terminal device comprising: a transmit subsystem ; and a processor coupled to the transmit subsystem and configured to control a data transmission rate of the transmit subsystem ; wherein the processor is configured to determine a new data transmission rate which is constrained to decrease by a limited amount from a current data transmission rate; wherein the processor is configured to determine the new data transmission rate by determining a plurality of limiting rates and selecting a minimum of the limiting rates as the new data transmission rate; and a transmit queue, wherein the limiting rates comprise at least a data-justified rate corresponding to an amount of data in the transmit queue, an absolute maximum rate at which device can communicate, a maximum rate based upon the allowable power output of the device, and a maximum rate allowable based upon data rate ramp-up constraints. a transmit subsystem ; and a processor coupled to the transmit subsystem and configured to control a data transmission rate of the transmit subsystem ; wherein the processor is configured to determine a new data transmission rate which is constrained to decrease by a limited amount from a current data transmission rate; wherein the processor is configured to determine the new data transmission rate by determining a plurality of limiting rates and selecting a minimum of the limiting rates as the new data transmission rate; and a transmit queue, wherein the limiting rates comprise at least a data-justified rate corresponding to an amount of data in the transmit queue, an absolute maximum rate at which device can communicate, a maximum rate based upon the allowable power output of the device, and a maximum rate allowable based upon data rate ramp-up constraints.
An air conditioner comprising a heat source unit , the heat source unit housing inside a case : refrigeration cycle components including a heat exchanger in which the refrigerant flows and a compressor ; an electric part box housing electric parts and the like; and a blower driven by a motor , characterized in that a flammable refrigerant having a low global warming potential is used by the heat source unit ; and airflow is formed in the case by the blower , wherein the inside of the case is partitioned with a partition plate into an upstream space and a downstream space in the airflow, and the electric part box , electric parts such as a motor of the blower and the blower are arranged upstream from the refrigeration cycle components in the airflow in the upstream space , the refrigeration cycle components including the heat exchanger in which the refrigerant flows and the compressor are arranged in the airflow in the downstream space . refrigeration cycle components including a heat exchanger in which the refrigerant flows and a compressor ; an electric part box housing electric parts and the like; and a blower driven by a motor , characterized in that a flammable refrigerant having a low global warming potential is used by the heat source unit ; and airflow is formed in the case by the blower , wherein the inside of the case is partitioned with a partition plate into an upstream space and a downstream space in the airflow, and the electric part box , electric parts such as a motor of the blower and the blower are arranged upstream from the refrigeration cycle components in the airflow in the upstream space , the refrigeration cycle components including the heat exchanger in which the refrigerant flows and the compressor are arranged in the airflow in the downstream space .
A control device that performs position control of a control target by giving a feedforward manipulated value to the control target, wherein the control device is configured to: obtain (S11, S12), for each of a plurality of positions at which the control target is arranged, a first output response of the control target measured in response to a first manipulated value given to the control target; determine (S13) a reference output response as a reference of an output response of the control target when the first manipulated value is given to the control target, based on the first output responses obtained for each of the plurality of positions; determine (S14) a second manipulated value by arraying, in time series, values each of which is obtained by multiplying the first manipulated value by a corresponding coefficient; and set (S15) the feedforward manipulated value based on the determined second manipulated value, wherein the control device is configured to determine the second manipulated value by adjusting the corresponding coefficient for each of the arrayed values in time-series such that a difference between the second output response of the control target predicted when a provisional second manipulated value is given to the control target and a target response falls within an allowable range, the second output response being predicted based on a relationship between the first manipulated value and the reference output response. obtain (S11, S12), for each of a plurality of positions at which the control target is arranged, a first output response of the control target measured in response to a first manipulated value given to the control target; determine (S13) a reference output response as a reference of an output response of the control target when the first manipulated value is given to the control target, based on the first output responses obtained for each of the plurality of positions; determine (S14) a second manipulated value by arraying, in time series, values each of which is obtained by multiplying the first manipulated value by a corresponding coefficient; and set (S15) the feedforward manipulated value based on the determined second manipulated value, wherein the control device is configured to determine the second manipulated value by adjusting the corresponding coefficient for each of the arrayed values in time-series such that a difference between the second output response of the control target predicted when a provisional second manipulated value is given to the control target and a target response falls within an allowable range, the second output response being predicted based on a relationship between the first manipulated value and the reference output response.
A method of measuring the amount of TNF-related apoptosis-inducing ligand (TRAIL) polypeptide and CRP polypeptide in a fluid sample of a subject in need thereof, the method comprising: (a) flowing said sample through a lateral flow immunoassay (LFI) device which comprises a first labeled antibody against said TRAIL and a second labeled antibody against said CRP; and (b) determining the amount of said TRAIL polypeptide and said CRP polypeptide at a test band of said device. (a) flowing said sample through a lateral flow immunoassay (LFI) device which comprises a first labeled antibody against said TRAIL and a second labeled antibody against said CRP; and (b) determining the amount of said TRAIL polypeptide and said CRP polypeptide at a test band of said device.
A material for forming an organic film, comprising: (A) a compound for forming an organic film shown by the following general formula ; and (B) an organic solvent, wherein W 1 represents a tetravalent organic group, n1 represents an integer of 0 or 1, n2 represents an integer of 1 to 3, and R 1 represents an alkynyl group having 2 to 10 carbon atoms. (A) a compound for forming an organic film shown by the following general formula ; and (B) an organic solvent, wherein W 1 represents a tetravalent organic group, n1 represents an integer of 0 or 1, n2 represents an integer of 1 to 3, and R 1 represents an alkynyl group having 2 to 10 carbon atoms.