mhurhangee/ep-ind-claims huggingface dataset:
Switchable damper (1; 1a; 1b) comprising a. a housing (2; 2a; 2b) having a longitudinal axis, b. a plunger displaceable along the longitudinal axis, c. a piston arranged between the housing (2; 2a; 2b) and the plunger, d. a friction lining arranged on the piston, e. a switching unit (23; 23a; 23b) which is switchable between a blocking arrangement, in which the piston is blocked with respect to a displacement along the longitudinal axis, and a free-moving arrangement, in which the piston is released with respect to a displacement along the longitudinal axis characterized in that f. an exposed area of the friction lining can abut, with end faces, against longitudinal cap ribs or longitudinal base ribs such that the friction lining serves as a stop buffer. a. a housing (2; 2a; 2b) having a longitudinal axis, b. a plunger displaceable along the longitudinal axis, c. a piston arranged between the housing (2; 2a; 2b) and the plunger, d. a friction lining arranged on the piston, e. a switching unit (23; 23a; 23b) which is switchable between a blocking arrangement, in which the piston is blocked with respect to a displacement along the longitudinal axis, and a free-moving arrangement, in which the piston is released with respect to a displacement along the longitudinal axis characterized in that f. an exposed area of the friction lining can abut, with end faces, against longitudinal cap ribs or longitudinal base ribs such that the friction lining serves as a stop buffer.
Force sensor assembly for measuring an effective force, the force sensor assembly comprising: a force sensor mounted on a substrate, the force sensor for outputting a measurement signal based on the effective force; a force transducer for transducing an externally applied force to the force sensor; a spring element connected between the substrate and the force transducer, the spring element for providing a preload force pressing the force transducer to the force sensor; wherein the measurement signal depends on a superposition of the externally applied force and the preload force, a connecting part of the spring element is mounted to the substrate, a guiding element for guiding the transducing element, wherein the externally applied force acts opposite to the preload force, wherein the guiding element is a passage in the substrate or a sliding element on a circumferential edge of the substrate. a force sensor mounted on a substrate, the force sensor for outputting a measurement signal based on the effective force; a force transducer for transducing an externally applied force to the force sensor; a spring element connected between the substrate and the force transducer, the spring element for providing a preload force pressing the force transducer to the force sensor; wherein the measurement signal depends on a superposition of the externally applied force and the preload force, a connecting part of the spring element is mounted to the substrate, a guiding element for guiding the transducing element, wherein the externally applied force acts opposite to the preload force, wherein the guiding element is a passage in the substrate or a sliding element on a circumferential edge of the substrate.
A method of diagnosing endometrial cancer, the method comprising determining the level of expression of AGRIN in an uterine fluid sample from the female genital tract.
Pumping system for generating a vacuum, comprising a main vacuum pump which is a dry screw pump having a gas suction inlet connected to a vacuum chamber and a gas discharge outlet leading into a gas evacuation conduit in the direction of a gas exhaust outlet outside the pumping system, the pumping system further comprising: - a non-return valve positioned between the gas discharge outlet and the gas exhaust outlet, and - an auxiliary vacuum pump which has its motor and which is connected in parallel to the non-return valve, the pumping system being characterized in that the auxiliary vacuum pump is designed in such a way as to go into operation at the same time as the main vacuum pump and to pump all the while that the main vacuum pump pumps the gases contained in the vacuum chamber and all the while that the main vacuum pump maintains a defined pressure in the vacuum chamber. - a non-return valve positioned between the gas discharge outlet and the gas exhaust outlet, and - an auxiliary vacuum pump which has its motor and which is connected in parallel to the non-return valve,
An organic light emitting display device comprising: a substrate having a thickness of 5 μm to 50 μm; an organic light emitting diode on the substrate; and a protective substrate (110, 410) supporting the substrate, wherein the protective substrate (110, 410) includes a blocking layer (114, 413) configured to protect the substrate from moisture permeating through a bottom surface of the substrate, characterized in that the protective substrate further includes a base film and an adhesive layer that are both made of plastic, the adhesive layer is disposed on the base film and the adhesive layer contacts the bottom surface of the substrate, and either a bottom surface or a top surface of the base film is treated with CF2 plasma. a substrate having a thickness of 5 μm to 50 μm; an organic light emitting diode on the substrate; and a protective substrate (110, 410) supporting the substrate, wherein the protective substrate (110, 410) includes a blocking layer (114, 413) configured to protect the substrate from moisture permeating through a bottom surface of the substrate, characterized in that the protective substrate further includes a base film and an adhesive layer that are both made of plastic, the adhesive layer is disposed on the base film and the adhesive layer contacts the bottom surface of the substrate, and either a bottom surface or a top surface of the base film is treated with CF2 plasma.
A tire, comprising a tread surface divided into a plurality of land portions (3a, 3b, 3c) by at least one circumferential groove (2a, 2b) extending along a tire equator and tread edges, wherein at least an outline (LX, LY) on one side of the tire equator of the tread surface comprises a plurality of arcs (AR1, AR2, AR3, BR1, BR2, BR3) each having a different radius of curvature (ARcl, ARc2, ARc3, BRc1, BRc2, BRc3) in a width direction cross-sectional view of the tire; an arc having a minimum radius of curvature among the plurality of arcs (AR1, AR2, AR3, BR1, BR2, BR3) lies in a land portion having a maximum tread width direction length among the plurality of land portions (3a, 3b, 3c); an arc having a larger radius of curvature is disposed on a tread edge side of the arc having the minimum radius of curvature; the radii of curvature (ARcl, ARc2, ARc3) of the at least three arcs (AR1, AR2, AR3) satisfies a relationship of ARc1>ARc3>ARc2, when the at least three arcs (AR1, AR2, AR3) are disposed in an order of AR1, AR2 and AR3 from the tire equator toward the tread edge; and the tread edge refers to a ground end when a tire is mounted on an applicable rim, filled with a prescribed internal pressure and applied with a prescribed load.
Side channel blower, in particular a secondary air blower for an internal combustion engine, comprising a housing in which an inlet and an outlet are formed, a housing part in which a conveying duct is arranged that extends substantially in an annular shape, an impeller rotatably supported in the housing and having conveying blades cooperating with the opposite conveying duct, an interruption region between the inlet and the outlet, in which the conveying duct is interrupted in the circumferential direction, and a cross-section reducer reducing the depth of the conveying duct along a predetermined section, characterized in that the radial extension of the cross-section reducer (52; 58) increases constantly from the inlet to the outlet and, seen in cross section, the conveying duct (12; 14) has two shoulders to adjoining wall surfaces (54; 61) of the conveying duct (12; 14).
An imaging apparatus(10,110) comprising an imaging panel(11,111) formed by arranging imaging element units(20,120) included in one pixel or a plurality of pixels, in a two-dimensional matrix form, each of the imaging element units including an imaging element configured to convert an incident electromagnetic wave to a current, and a first power supply (23, 123), and a current/voltage conversion circuit(40A, 140A) configured to convert the current from the imaging element to a voltage; wherein the current/voltage conversion circuit includes an operational amplifier or a field effect transistor connected to the first power supply, and a capacitor section (42, 142), wherein the first end of the capacitor section is connected to either an output section of the operational amplifier or a source/drain region of the field effect transistor, characterised by: a first switch circuit (45, 145) and a second switch circuit (46, 146) wherein the output of the imaging element is connected to the second end of the capacitor section via the first switch circuit and is connected to a second power supply (22, 122) via the second switch circuit and the first switch circuit and the second switch circuit are configured to operate complementarily. a first switch circuit (45, 145) and a second switch circuit (46, 146) wherein the output of the imaging element is connected to the second end of the capacitor section via the first switch circuit and is connected to a second power supply (22, 122) via the second switch circuit and the first switch circuit and the second switch circuit are configured to operate complementarily.
A method for tracking the relative velocity between a vehicle and a target; comprising: a) determining a velocity of the vehicle based on inertial measurements acquired for the vehicle; b) determining a velocity vector signal of the vehicle along a line of sight of a laser Doppler vibrometer on the vehicle, wherein the laser Doppler vibrometer has a nominal window in the frequency domain centered around an operating frequency of the laser Doppler vibrometer; c) converting the velocity vector signal to a Doppler frequency velocity estimate; d) subtracting a Doppler frequency velocity error from the Doppler frequency velocity estimate to create a corrected Doppler frequency velocity estimate; e) creating an updated window by shifting the nominal window's center frequency by the corrected Doppler frequency velocity estimate of step d); f) acquiring velocity measurements of the vehicle relative to the target using the laser Doppler vibrometer on the vehicle; g) converting the laser Doppler vibrometer velocity measurements to frequency data; h) overlaying the updated window from step e) onto the frequency data from step g); i) determining from step h) which frequency within the updated window has the largest magnitude signal; and j) determining the Doppler frequency velocity error by subtracting the corrected Doppler frequency velocity estimate of step d) from the frequency within the updated window having the largest magnitude signal of step i). a) determining a velocity of the vehicle based on inertial measurements acquired for the vehicle; b) determining a velocity vector signal of the vehicle along a line of sight of a laser Doppler vibrometer on the vehicle, wherein the laser Doppler vibrometer has a nominal window in the frequency domain centered around an operating frequency of the laser Doppler vibrometer; c) converting the velocity vector signal to a Doppler frequency velocity estimate; d) subtracting a Doppler frequency velocity error from the Doppler frequency velocity estimate to create a corrected Doppler frequency velocity estimate; e) creating an updated window by shifting the nominal window's center frequency by the corrected Doppler frequency velocity estimate of step d); f) acquiring velocity measurements of the vehicle relative to the target using the laser Doppler vibrometer on the vehicle; g) converting the laser Doppler vibrometer velocity measurements to frequency data; h) overlaying the updated window from step e) onto the frequency data from step g); i) determining from step h) which frequency within the updated window has the largest magnitude signal; and j) determining the Doppler frequency velocity error by subtracting the corrected Doppler frequency velocity estimate of step d) from the frequency within the updated window having the largest magnitude signal of step i).
Internal combustion engine for a motor vehicle, with at least two combustion chambers, with an exhaust train having at least one exhaust flow assigned to the combustion chambers, through which exhaust gas can flow to be guided to a turbine of a turbocharger, with an exhaust gas recirculation line branching off the exhaust flow and with an adjustable locking element, by means of which a respective cross section of the exhaust gas recirculation line and of the exhaust flow through which exhaust gas can flow is adjustable, and with at least one third combustion chamber, the exhaust train having at least one second exhaust flow, which is assigned to the third combustion chamber and through which exhaust gas from the third combustion chamber can flow and which is at least partially separated fluidically from the exhaust flow, for guiding the exhaust gas to the turbine, characterised in that the internal combustion engine can be operated in a cylinder shut-down mode, in which an introduction of fuel into a first of the combustion chambers is stopped and takes place into the second combustion chamber and an introduction of fuel into the third combustion chamber takes place and the locking element can be adjusted between a first position and at least one second position, wherein the locking element is in the cylinder shut-down mode adjusted to the second position, in which the cross-section of the exhaust gas recirculation line is increased relative to the first position and the cross-section of the exhaust flow is reduced.
A topical ocular formulation, comprising: (a) a first active agent of Formula II: or a pharmaceutically acceptable salt thereof; (b) a second active agent, or a pharmaceutically acceptable salt thereof, wherein the second active agent is nicotinic acid, nicotinamide, or vitamin K, or a combination thereof; and (c) a pharmaceutically acceptable excipient; wherein the first active agent or the pharmaceutically acceptable salt is present in about 0.005% to about 5.0% w/v such that the formulation forms a solution or a suspension. (a) a first active agent of Formula II: or a pharmaceutically acceptable salt thereof; (b) a second active agent, or a pharmaceutically acceptable salt thereof, wherein the second active agent is nicotinic acid, nicotinamide, or vitamin K, or a combination thereof; and (c) a pharmaceutically acceptable excipient;
A method for manufacturing a circuit, of the type comprising the steps of: - providing an assembly comprising a first surface and a second surface substantially parallel with each other and a flank extending between the first surface and the second surface, - forming an electrical structure made in one piece in an electrically conducting material, comprising a structural element extending on the second surface and an interconnection element extending from the structural element along the flank as far as the first surface, wherein the flank has a height of more than 10μm, and the electrical structure is formed by depositing the electrically conducting material by simultaneously depositing the structural element on the second surface and the interconnection element on the flank, and wherein the step of forming the electrical structure successively comprises: - the deposition of a first metallization coating on the first surface and on the second surface; - the deposition of a second metallization coating on the flank; and - the deposition of the electrical structure by electrolytic growth, simultaneously on the first metallization coating and the second metallization coating. - providing an assembly comprising a first surface and a second surface substantially parallel with each other and a flank extending between the first surface and the second surface, - forming an electrical structure made in one piece in an electrically conducting material, comprising a structural element extending on the second surface and an interconnection element extending from the structural element along the flank as far as the first surface, - the deposition of a first metallization coating on the first surface and on the second surface; - the deposition of a second metallization coating on the flank; and - the deposition of the electrical structure by electrolytic growth, simultaneously on the first metallization coating and the second metallization coating.
A method for cooling livestock waste in a livestock farm, said method comprising the steps of: arranging a farm circuit to exchange heat with said livestock waste in said livestock farm by circulating a coolant through said farm circuit; initiating a first cooling procedure, wherein said coolant is cooled by exchanging heat with an evaporator of a heat pump circuit while cooling a condenser of said heat pump circuit by exchanging heat with a central heating fluid circulating a central heating system, when a central heating temperature of said central heating fluid is below a central heating threshold temperature; initiating a second cooling procedure, wherein said coolant is cooled by exchanging heat directly with an external environment, when an environment temperature of said external environment is below an environment threshold temperature; and initiating a third cooling procedure, wherein said coolant is cooled by exchanging heat with said evaporator while cooling said condenser by exchanging heat with said external environment, when said environment temperature is above said environment threshold temperature, when said central heating temperature is above said central heating threshold temperature, and when a predefined average cooling effect of said livestock waste has not been reached within a predefined period of time. arranging a farm circuit to exchange heat with said livestock waste in said livestock farm by circulating a coolant through said farm circuit; initiating a first cooling procedure, wherein said coolant is cooled by exchanging heat with an evaporator of a heat pump circuit while cooling a condenser of said heat pump circuit by exchanging heat with a central heating fluid circulating a central heating system, when a central heating temperature of said central heating fluid is below a central heating threshold temperature; initiating a second cooling procedure, wherein said coolant is cooled by exchanging heat directly with an external environment, when an environment temperature of said external environment is below an environment threshold temperature; and initiating a third cooling procedure, wherein said coolant is cooled by exchanging heat with said evaporator while cooling said condenser by exchanging heat with said external environment, when said environment temperature is above said environment threshold temperature, when said central heating temperature is above said central heating threshold temperature, and when a predefined average cooling effect of said livestock waste has not been reached within a predefined period of time.
A method of using a service provided by a device of a home network, wherein the method is performed by a client located outside of the home network, the method comprising: receiving information regarding the service of the device from a first server providing a remote access with respect to the service provided by the device of the home network; receiving a user interface, UI, for using the service from a second server based on the information regarding the service when the UI does not exist in the client; and transmitting to the first server a request related to the service of the device. receiving information regarding the service of the device from a first server providing a remote access with respect to the service provided by the device of the home network; receiving a user interface, UI, for using the service from a second server based on the information regarding the service when the UI does not exist in the client; and transmitting to the first server a request related to the service of the device.
A catalytic arrangement for an electrolyzer system or a fuel cell system, comprising a catalyst support unit and a catalyst layer, wherein the catalyst layer has a carbon matrix with a metal, non-metal and/or semi-metal doping, characterised in that the doping has one or more further metals, and in that the doping has aluminium (Al) and/or tin (Sn) as one or more further metals.
A soundproof sheet for a vehicle, comprising: a front side layer formed from a porous material and including an upper side layer portion and a lower side layer portion being extended from the upper side layer portion; an intermediate layer (70, 70a) formed by a film lamination body to be layered on the upper side layer portion of said front side layer; wherein the soundproof sheet further comprises a rear side layer including an upper side layer portion formed from a porous material to be layered on at least the upper side layer portion of said front side layer through said intermediate layer and including a lower side layer portion formed from a sound insulation material to be layered on the lower side layer portion of said front side layer, characterized in that the upper side layer portion of the rear side layer is formed from a forming material having a volume density lower than that of the material for forming the lower side layer portion of the rear side layer. a front side layer formed from a porous material and including an upper side layer portion and a lower side layer portion being extended from the upper side layer portion; an intermediate layer (70, 70a) formed by a film lamination body to be layered on the upper side layer portion of said front side layer; wherein the soundproof sheet further comprises a rear side layer including an upper side layer portion formed from a porous material to be layered on at least the upper side layer portion of said front side layer through said intermediate layer and including a lower side layer portion formed from a sound insulation material to be layered on the lower side layer portion of said front side layer,