mhurhangee/ep-ind-claims huggingface dataset:
A storage cell comprising: a negative electrode comprising liquid alkali metal; a positive oxygen electrode comprising: a porous mixed metal oxide matrix, a dense separation element which conducts oxygen ions and electrons and which is formed of a first mixed metal oxide which conducts oxygen ions and electrons; and a source of oxygen-containing gas; wherein the dense oxygen ion- and electron-conducting separation element is intermediate between the porous matrix and the source of oxygen-containing gas; and a dense alkali metal cation-conductive solid electrolyte which is positioned between the negative electrode and the porous matrix and which is formed from a second mixed metal oxide which conducts the alkali metal cation; wherein the porous matrix of the positive electrode is positioned between the solid electrolyte and the dense mixed metal oxide separation element for receiving oxygen anions and alkali metal cations, the porous matrix not being in direct contact with the oxygen-containing gas or liquid alkali metal, the porous matrix being formed from the first and second mixed metal oxides and containing one or more regions which conduct the alkali metal cation and the oxygen anions, wherein the alkali metal and the oxygen ions can react to form discharge product which is retained within the porous matrix. a negative electrode comprising liquid alkali metal; a positive oxygen electrode comprising: a porous mixed metal oxide matrix, a dense separation element which conducts oxygen ions and electrons and which is formed of a first mixed metal oxide which conducts oxygen ions and electrons; and a source of oxygen-containing gas; wherein the dense oxygen ion- and electron-conducting separation element is intermediate between the porous matrix and the source of oxygen-containing gas; and a dense alkali metal cation-conductive solid electrolyte which is positioned between the negative electrode and the porous matrix and which is formed from a second mixed metal oxide which conducts the alkali metal cation; wherein the porous matrix of the positive electrode is positioned between the solid electrolyte and the dense mixed metal oxide separation element for receiving oxygen anions and alkali metal cations, the porous matrix not being in direct contact with the oxygen-containing gas or liquid alkali metal, the porous matrix being formed from the first and second mixed metal oxides and containing one or more regions which conduct the alkali metal cation and the oxygen anions, wherein the alkali metal and the oxygen ions can react to form discharge product which is retained within the porous matrix. a porous mixed metal oxide matrix, a dense separation element which conducts oxygen ions and electrons and which is formed of a first mixed metal oxide which conducts oxygen ions and electrons; and a source of oxygen-containing gas;
Osteoinductive implant free from a carrier comprising a coherent mass of milled and lyophilized demineralized bone matrix fibers comprising autograft or allograft bone; wherein the fibers are elongated and curled; wherein the fibers include frayed and/or hooked portions along the edges; wherein the fibers forming the coherent mass are porous allowing liquid to pass through the coherent mass and are molded into a cylindrical shape including a first end having a first diameter and a second end having a second diameter, the first diameter being wider or the same as the second diameter; wherein hydration channels extend through at least a portion of the coherent mass, the hydration channels being configured to facilitate entrance of a hydrating liquid; and wherein the hydration channels include a rounded inner surface formed from drilling or pressing. wherein the fibers are elongated and curled; wherein the fibers include frayed and/or hooked portions along the edges; wherein the fibers forming the coherent mass are porous allowing liquid to pass through the coherent mass and are molded into a cylindrical shape including a first end having a first diameter and a second end having a second diameter, the first diameter being wider or the same as the second diameter; wherein hydration channels extend through at least a portion of the coherent mass, the hydration channels being configured to facilitate entrance of a hydrating liquid; and wherein the hydration channels include a rounded inner surface formed from drilling or pressing.
Contactless integrated circuit reader, comprising a magnetic field emission antenna allowing communication with a contactless integrated circuit, means for detecting the presence of a contactless integrated circuit within a perimeter of communication of said reader and a contactless integrated circuit reading circuit, said detection means comprising: - means for measuring a capacitance, providing information concerning the proximity of said contactless integrated circuit, which means comprise: - a capacitive sensor; - a circuit for measuring a capacitance obtained by said capacitive sensor providing said proximity information when the measured capacitance exceeds a predetermined threshold; - means for activating said contactless integrated circuit reading circuit as a function of said proximity information, said contactless integrated circuit reader being characterised in that said capacitive sensor is formed using at least one portion of a shield of said magnetic field emission antenna, said shield protecting electronic circuits of said contactless integrated circuit. - means for measuring a capacitance, providing information concerning the proximity of said contactless integrated circuit, which means comprise: - a capacitive sensor; - a circuit for measuring a capacitance obtained by said capacitive sensor providing said proximity information when the measured capacitance exceeds a predetermined threshold; - a capacitive sensor; - a circuit for measuring a capacitance obtained by said capacitive sensor providing said proximity information when the measured capacitance exceeds a predetermined threshold; - means for activating said contactless integrated circuit reading circuit as a function of said proximity information, said contactless integrated circuit reader being characterised in that said capacitive sensor is formed using at least one portion of a shield of said magnetic field emission antenna, said shield protecting electronic circuits of said contactless integrated circuit.
A cosmetic container comprising: a cosmetic having flowability and containing an ultraviolet absorber; and a cosmetic carrier, the cosmetic carrier impregnating and holding the cosmetic, wherein the cosmetic carrier is formed of a fibrous aggregate having a core-sheath structure, wherein the fibers having a core-sheath structure comprise an eccentric core-sheath type conjugate fiber, characterized in that the core portion of the core-sheath type conjugate fibers consists of polypropylene, and the sheath portion of the core-sheath type conjugate fibers consists of polybutene-1. wherein the cosmetic carrier is formed of a fibrous aggregate having a core-sheath structure, wherein the fibers having a core-sheath structure comprise an eccentric core-sheath type conjugate fiber, characterized in that the core portion of the core-sheath type conjugate fibers consists of polypropylene, and the sheath portion of the core-sheath type conjugate fibers consists of polybutene-1.
A biochip in which a biologically relevant substance(s) selected from the group consisting of polypeptides, nucleic acids, saccharides, lipids, a complex thereof and a derivative thereof is/are immobilized as probes on each of a plurality of reaction spots disposed on a substrate for biochips, wherein the biologically relevant substance(s) is/are bound to the surface of the substrate through a covalent bond wherein said substrate comprises a substrate and a plurality of reaction spots disposed on the substrate, a plurality of grooves which surround each of said reaction spots individually and independently are provided on the substrate, the grooves each surrounding a different reaction spot do not intersect or come into contact with one another, and at least the surface of said substrate is composed of carbon, wherein the carbon is amorphous carbon or diamond-like carbon.
An apparatus for penetrating a downhole target within a wellbore having an axis, wherein the apparatus comprises: a body having a longitudinal axis, a first end, and a second end; a medium associated with the body; a nozzle at the first end of the body, wherein the nozzle projects the medium in a direction generally parallel to the longitudinal axis, and wherein the nozzle comprises a surface that is adapted to face the downhole target, wherein the surface comprises at least two elongated slots (112A, 112C) extending radially in a direction from the longitudinal axis of the body, and oriented in a geometry to project the medium in a pattern adapted to separate the downhole target into at least two portions; and an actuator in communication with the medium, wherein actuation of the actuator causes projection of the medium through the nozzle in the pattern, in the direction generally parallel to the longitudinal axis of the body and generally parallel to the axis of the wellbore for affecting the downhole target. a body having a longitudinal axis, a first end, and a second end; a medium associated with the body; a nozzle at the first end of the body, wherein the nozzle projects the medium in a direction generally parallel to the longitudinal axis, and wherein the nozzle comprises a surface that is adapted to face the downhole target, wherein the surface comprises at least two elongated slots (112A, 112C) extending radially in a direction from the longitudinal axis of the body, and oriented in a geometry to project the medium in a pattern adapted to separate the downhole target into at least two portions; and an actuator in communication with the medium, wherein actuation of the actuator causes projection of the medium through the nozzle in the pattern, in the direction generally parallel to the longitudinal axis of the body and generally parallel to the axis of the wellbore for affecting the downhole target.
A pressure sensor having a housing with a control and evaluation unit, wherein a plurality of pressure ports are arranged at the housing of the pressure sensor, wherein a pressure measuring cell is associated with every pressure port, wherein the pressure measurement cells are connected to the control and evaluation unit, and wherein the pressure sensor has at least one digital output interface, wherein at least one pressure port is a port for inserting a pressure line, with the pressure line being installable without tools actuated by hand and with the pressure line being surrounded by a seal of the pressure port and being secured against being pulled out wherein at least one further pressure port is a G1⁄4 IG, G1⁄4 AG or 1⁄4" NPT pressure port and different pressure ports are associated with different pressure ranges.
A method of estimating a baseline of a proximity sensor on an electronic device, wherein the proximity sensor includes an infrared light source and a sensor that receives infrared light, the method comprising: collecting proximity sensor data at the electronic device using the proximity sensor; collecting second data using a data source at the electronic device, wherein collecting second data using the data source at the electronic device includes collecting ambient light readings using a light sensor at the electronic device; obtaining a sample of the proximity sensor data at the electronic device when it is determined that no object is proximal to a first face of the electronic device, wherein the determination is based on the proximity sensor data and the second data, and wherein obtaining the sample of the proximity sensor data at the electronic device comprises: gathering at least one burst of a predetermined number of proximity sensor readings and a predetermined number of ambient light readings, and validating the proximity sensor readings based on the ambient light readings; and approximating the baseline of the proximity sensor using the obtained sample, wherein approximating the baseline of the proximity sensor using the obtained sample comprises averaging weighted samples of a number of valid bursts of proximity sensor readings based on the ambient light readings. collecting proximity sensor data at the electronic device using the proximity sensor; collecting second data using a data source at the electronic device, wherein collecting second data using the data source at the electronic device includes collecting ambient light readings using a light sensor at the electronic device; obtaining a sample of the proximity sensor data at the electronic device when it is determined that no object is proximal to a first face of the electronic device, wherein the determination is based on the proximity sensor data and the second data, and wherein obtaining the sample of the proximity sensor data at the electronic device comprises: gathering at least one burst of a predetermined number of proximity sensor readings and a predetermined number of ambient light readings, and validating the proximity sensor readings based on the ambient light readings; and approximating the baseline of the proximity sensor using the obtained sample, wherein approximating the baseline of the proximity sensor using the obtained sample comprises averaging weighted samples of a number of valid bursts of proximity sensor readings based on the ambient light readings.
A lubricant base stock comprising: a) at least 10 wt% of a first polyalkylene glycol block co-polymer having an block structure and having a kinematic viscosity at 40°C of at most 150 mm 2 /s (cSt); and b) at least 10 wt% of a second polyalkylene glycol block co-polymer having an block structure and having a kinematic viscosity at 40°C different to that of the first polyalkylene glycol block co-polymer; wherein the total wt% of polyalkylene glycol block co-polymers in the lubricant base stock is at least 87 wt%; wherein the lubricant base stock comprises less than 8 wt% water; and wherein the lubricant base stock has a kinematic viscosity at 40°C from 70 mm 2 /s (cSt) to 250 mm 2 /s; and wherein the lubricant base stock is insoluble when added at 1 wt% to seawater at a temperature of at least 40°C; and wherein the lubricant base stock has a density of at least 1028 kg/m 3 at 20 °C and at most 1022 kg/m 3 at 40 °C. a) at least 10 wt% of a first polyalkylene glycol block co-polymer having an block structure and having a kinematic viscosity at 40°C of at most 150 mm 2 /s (cSt); and b) at least 10 wt% of a second polyalkylene glycol block co-polymer having an block structure and having a kinematic viscosity at 40°C different to that of the first polyalkylene glycol block co-polymer; wherein the total wt% of polyalkylene glycol block co-polymers in the lubricant base stock is at least 87 wt%; wherein the lubricant base stock comprises less than 8 wt% water; and wherein the lubricant base stock has a kinematic viscosity at 40°C from 70 mm 2 /s (cSt) to 250 mm 2 /s; and wherein the lubricant base stock is insoluble when added at 1 wt% to seawater at a temperature of at least 40°C; and wherein the lubricant base stock has a density of at least 1028 kg/m 3 at 20 °C and at most 1022 kg/m 3 at 40 °C. wherein the total wt% of polyalkylene glycol block co-polymers in the lubricant base stock is at least 87 wt%; wherein the lubricant base stock comprises less than 8 wt% water; and wherein the lubricant base stock has a kinematic viscosity at 40°C from 70 mm 2 /s (cSt) to 250 mm 2 /s; and wherein the lubricant base stock is insoluble when added at 1 wt% to seawater at a temperature of at least 40°C; and wherein the lubricant base stock has a density of at least 1028 kg/m 3 at 20 °C and at most 1022 kg/m 3 at 40 °C.
Operating-fluid container for a motor vehicle, comprising a container body which is assembled from at least two mutually complementary injection-moulded shells (2, 2a, 2b) which consist of thermoplastic material and are welded together in an encircling manner to form a substantially closed hollow body, wherein at least one of the shells (2a, 2b) comprises multiple two-dimensional regions consisting of thermoplastic materials having different strengths, wherein at least one part-region is formed from a thermoplastic material having a fibrous filling, wherein the shell (2a, 2b) has been obtained by way of a co-injection process during injection moulding.
Crush Chamber (1, 20) for measuring the hardness of a test sample (10, 29), comprising a fixed jaw (3, 22) as well as a pressing jaw (4, 23) opposite thereto, wherein the crush chamber (1, 20) comprises a bottom (8, 27), wherein a first abutment (9, 28) is provided that delimits the crush chamber (1, 20) toward one side and extends from the fixed jaw (3, 22) in the direction toward the pressing jaw (4, 23) with the abutment (9, 28) being substantially disposed at a right angle to the fixed jaw (3, 22) as well as to the pressing jaw (4, 23), wherein the bottom (8, 27) is formed by at least a portion of a plate element (7, 26, 54, 75, 92, 128, 118) characterized in that at least one drive (35, 36, 50, 55, 56, 89, 103, 123, 133) is provided that is in connection with the plate element (7, 26, 54, 75, 92, 128, 118), wherein the plate element (7, 26, 54, 75, 92, 128, 118) can be set into a first directed vibration with a first drive and, after reversal of the polarity of the first drive (50, 89, 103, 123, 133) can be set into a second directed vibration or wherein the plate element (7, 26, 54, 75, 92, 128, 118) can be set into a first directed vibration with the first drive [50, 89,103, 123, 133] and, by putting into operation a second drive, can be set into a second directed vibration, wherein the test sample (10, 29) located on the plate element (7, 26, 75, 92, 128, 118) is movable through the first directed vibration into a first direction of motion and through the second directed vibration into a second direction of motion, with the first direction of motion of the test sample (10, 29) being opposite to the second direction of motion, whereby the test sample (10, 29) is positionable in the crush chamber (1, 20).
A crystal of sodium diacetate, which has a median size from 300 to 3000 μm and has a powder X-ray diffraction pattern having a combination of peaks selected from 11.16, 13.65, 15.77, 19.33, 20.19, 20.90, 21.66, 22.38, 23.73, 25.04, 26.28, 27.47, 28.61, 29.80, 30.78, 31.82, 33.83, 34.76, 35.69, 36.60, 38.38, 39.22 o (respectively ± 0.2 o) within the scanning range of the diffraction angle 2θ from 4.0 to 40.0 o.
A propulsion system for an aircraft, the propulsion system comprising: a combustion engine; a propulsor positioned spaced apart from the combustion engine such that they each ingest a different airstream; and an electric machine configured to drive the propulsor, the electric machine defining an axis and comprising: a rotor extending along and rotatable about the axis; and a stator comprising a first winding assembly and a second winding assembly spaced along the axis of the electric machine; wherein the first winding assembly is operable with the rotor independently of the second winding assembly during operation of the electric machine; wherein the rotor comprises a plurality of permanent magnets, and characterised in that the plurality of permanent magnets extends continuously between the first winding assembly and the second winding assembly along the axis. a combustion engine; a propulsor positioned spaced apart from the combustion engine such that they each ingest a different airstream; and an electric machine configured to drive the propulsor, the electric machine defining an axis and comprising: a rotor extending along and rotatable about the axis; and a stator comprising a first winding assembly and a second winding assembly spaced along the axis of the electric machine; wherein the first winding assembly is operable with the rotor independently of the second winding assembly during operation of the electric machine; wherein the rotor comprises a plurality of permanent magnets, and characterised in that the plurality of permanent magnets extends continuously between the first winding assembly and the second winding assembly along the axis. a rotor extending along and rotatable about the axis; and a stator comprising a first winding assembly and a second winding assembly spaced along the axis of the electric machine; wherein the first winding assembly is operable with the rotor independently of the second winding assembly during operation of the electric machine; wherein the rotor comprises a plurality of permanent magnets, and characterised in that the plurality of permanent magnets extends continuously between the first winding assembly and the second winding assembly along the axis.
A wearable device that monitors movements of a user comprising: a sensor configured to sense movement and generate sensor data; a processor connected to the sensor and programmed with computer-executable instructions that, when executed by the processor, cause the device to perform the steps of: (a) identifying when a connection to a flash memory is available; (b) when a connection to the flash memory is available sending the sensor data to the flash memory via a first set of traces (516, 518, 520); and (c) when the connection to the flash memory is not available, storing sensor data in a RAM of the processor. a sensor configured to sense movement and generate sensor data; a processor connected to the sensor and programmed with computer-executable instructions that, when executed by the processor, cause the device to perform the steps of: (a) identifying when a connection to a flash memory is available; (b) when a connection to the flash memory is available sending the sensor data to the flash memory via a first set of traces (516, 518, 520); and (c) when the connection to the flash memory is not available, storing sensor data in a RAM of the processor. (a) identifying when a connection to a flash memory is available; (b) when a connection to the flash memory is available sending the sensor data to the flash memory via a first set of traces (516, 518, 520); and (c) when the connection to the flash memory is not available, storing sensor data in a RAM of the processor.
An antifouling structure comprising an oxide layer, a surface modification layer that modifies a surface of the oxide layer, and an antifouling liquid retained in the surface modification layer; wherein the surface modification layer is a modification layer derived from a silane coupling agent, which is capable of generating silanol, which is Si-OH, by hydrolysis; the antifouling liquid includes a first antifouling liquid satisfying Equation below and a second antifouling liquid satisfying Equation below, the first and second antifouling agents including a fluoropolyether oil and/or a perfluoroether oil; and a volume ratio (first antifouling liquid / second antifouling liquid) of the first antifouling liquid to the second antifouling liquid is from 1/2 to 100/1: Y ≤ 3 X + 2000 Y > 3 X + 2000 in which, in Equations and, Y represents an average molecular weight of the antifouling liquid, and X represents a kinematic viscosity (cSt) at 20°C of the antifouling liquid. wherein the surface modification layer is a modification layer derived from a silane coupling agent, which is capable of generating silanol, which is Si-OH, by hydrolysis; the antifouling liquid includes a first antifouling liquid satisfying Equation below and a second antifouling liquid satisfying Equation below, the first and second antifouling agents including a fluoropolyether oil and/or a perfluoroether oil; and a volume ratio (first antifouling liquid / second antifouling liquid) of the first antifouling liquid to the second antifouling liquid is from 1/2 to 100/1: Y ≤ 3 X + 2000 Y > 3 X + 2000 in which, in Equations and, Y represents an average molecular weight of the antifouling liquid, and X represents a kinematic viscosity (cSt) at 20°C of the antifouling liquid.