mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical cell (10, 10A), which comprises: a) a casing comprising a container having a sidewall extending to an opening closed by a lid; b) an anode positioned inside the casing and comprising lithium supported on an anode current collector; c) a cathode of a material selected from silver vanadium oxide, copper silver vanadium oxide, V 2 O 5, MnO 2, LiCoO 2, LiNiO 2, LiMn 2 O 4, TiS 2, Cu 2 S, FeS, FeS 2, Ag 2 O, Ag 2 O 2, CuF 2, Ag 2 CrO 4, CF x, copper oxide, copper vanadium oxide, and mixtures thereof supported on a cathode current collector, wherein one of the anode current collector and the cathode current collector is connected to the casing serving as the respective negative or positive polarity terminal and the other of the anode current collector and the cathode current collector is connected to a terminal pin extend-ing through an opening in the casing and wherein the terminal pin is electrically insulated from the casing; d) at least one separator enveloping one of the anode and the cathode, wherein the separator prevents direct physical contact of the anode with the cathode; e) an electrolyte activating the anode and the cathode; and f) a glass wool material provided at an intermediate location between the negative polarity anode and the positive polarity cathode. a) a casing comprising a container having a sidewall extending to an opening closed by a lid; b) an anode positioned inside the casing and comprising lithium supported on an anode current collector; c) a cathode of a material selected from silver vanadium oxide, copper silver vanadium oxide, V 2 O 5, MnO 2, LiCoO 2, LiNiO 2, LiMn 2 O 4, TiS 2, Cu 2 S, FeS, FeS 2, Ag 2 O, Ag 2 O 2, CuF 2, Ag 2 CrO 4, CF x, copper oxide, copper vanadium oxide, and mixtures thereof supported on a cathode current collector, wherein one of the anode current collector and the cathode current collector is connected to the casing serving as the respective negative or positive polarity terminal and the other of the anode current collector and the cathode current collector is connected to a terminal pin extend-ing through an opening in the casing and wherein the terminal pin is electrically insulated from the casing; d) at least one separator enveloping one of the anode and the cathode, wherein the separator prevents direct physical contact of the anode with the cathode; e) an electrolyte activating the anode and the cathode; and f) a glass wool material provided at an intermediate location between the negative polarity anode and the positive polarity cathode.
Steel strip having an ultimate tensile strength Rm in the 600MPa steel category consisting of, in mass percent, the following elements: C 0.08-0.11 %; Mn 1.70-2.20%; Si at most 0.1 %; Cr 0.40-0.70%; Mo at most 0.3%; Ni at most 1.0%, Al 0.01-1.50%; Nb at most 0.005%; P optionally more than 0.005% and at most 0.05%; N equal to or less than 0.015%; Ti equal to or less than 0.1%; V equal to or less than 0.1%; B equal to or less than 0.01% wherein the sum of Cr, Mo and Ni is at least 0.5%; the balance being Fe and inevitable impurities; and having a microstructure consisting of: martensite 2-50%; ferrite 50-98%; and pearlite 0% or less than 3%. martensite 2-50%; ferrite 50-98%; and pearlite 0% or less than 3%.
A method for determining an instrument depending constant of a specific surface plasmon resonance, SPR, biosensor system, said specific SPR biosensor system comprising an instrument and a chip, wherein said instrument depending constant comprises the dimensional parameters of a flow cell of the instrument, said method comprising the steps of a) identifying an appropriate analyte sample for use in a calibration step, said analyte having known molecular weight, known diffusion constant, known refractive index increment and a known concentration in the sample and said analyte being able to bind to the chip under mass transport limited conditions; b) measuring the active concentration of the analyte sample by use of a specific SPR biosensor system according to a known method using the identified analyte sample and the chip to which the analyte can bind, said known method including the use of an instrument depending constant that is not adapted for the specific SPR instrument and chip combination; c) comparing the known concentration of the analyte in the sample with the active concentration measured in step b); and d) adjusting the instrument depending constant used in the known method for measuring active concentration in step b) according to the difference retrieved in step c) in order to achieve an adjusted instrument depending constant which is adjusted for the specific SPR biosensor system and chip that is used in step b). a) identifying an appropriate analyte sample for use in a calibration step, said analyte having known molecular weight, known diffusion constant, known refractive index increment and a known concentration in the sample and said analyte being able to bind to the chip under mass transport limited conditions; b) measuring the active concentration of the analyte sample by use of a specific SPR biosensor system according to a known method using the identified analyte sample and the chip to which the analyte can bind, said known method including the use of an instrument depending constant that is not adapted for the specific SPR instrument and chip combination; c) comparing the known concentration of the analyte in the sample with the active concentration measured in step b); and d) adjusting the instrument depending constant used in the known method for measuring active concentration in step b) according to the difference retrieved in step c) in order to achieve an adjusted instrument depending constant which is adjusted for the specific SPR biosensor system and chip that is used in step b).
Portable electronic device comprising - a light source, which comprises at least one luminescence diode and emits light during operation, and - an apparatus for detecting an object in the beam path of the light emitted by the light source during operation, characterized in that - the apparatus is designed to reduce the luminous flux of the light emitted by the light source during operation if the object is detected for a minimum duration within a minimum distance (d) from the light source in the beam path. - a light source, which comprises at least one luminescence diode and emits light during operation, and - an apparatus for detecting an object in the beam path of the light emitted by the light source during operation, characterized in that - the apparatus is designed to reduce the luminous flux of the light emitted by the light source during operation if the object is detected for a minimum duration within a minimum distance (d) from the light source in the beam path.
An image capture apparatus comprising: an image capture unit configured to capture an image by using a photo detector element which provides for each pixel an output value depending on a light reception volume; and a projector unit configured to project light to an area targeted for image capture by the image capture unit; the image capture apparatus characterized by further comprising an exposure control unit configured to control the image capture unit and the projector unit (i) to obtain two or more images without light projection in accordance with an exposure pattern and (ii) to obtain two or more images with light projection in accordance with the exposure pattern, wherein the exposure pattern defines two or more different exposure conditions; a processing unit configured to obtain for an exposure condition a processed image from an image obtained under the exposure condition with light projection and an image obtained under the exposure condition without light projection by subtracting the output values of the pixels of the image captured with no light projected by the projector unit, from the output values of the corresponding pixels of the image captured with light projected by the projector unit; and an image generation unit configured to generate an output image from two or more processed images, wherein the processed images are obtained for different exposure conditions and the output value at a pixel position of the output image is obtained from the output values at the corresponding pixel positions in the processed images without taking the lowest output value into account. an image capture unit configured to capture an image by using a photo detector element which provides for each pixel an output value depending on a light reception volume; and a projector unit configured to project light to an area targeted for image capture by the image capture unit;
An adapter for insertion into a valve cup of a gas cartridge incorporating a valve boss defining an axis (A-A), the adapter including an arrangement for non-rotatable securement relative to the gas cartridge about the axis (A-A) and at least one lug extending in an axial direction so as to be engageable in a corresponding formation on a gas appliance, the adapter comprising an at least partial ring shaped body portion arranged so as to at least partially encircle the valve boss, and wherein the at least one lug is provided at the radially outer periphery of the body portion and extends upwardly at right angles to the plane of the body portion.
Method of control for a balancing hoist comprising a lifting motor which is able to be operated by means of a control system and which, via a control handle having a force sensor, raises and lowers a load pick-up means, in which method, in a "balance" mode of operation, the load pick-up means, carrying or not carrying a load which has been picked up, is raised or lowered in response to a force from an operator by means of the control system, characterised in that a "pick up" mode of operation or a assembly mode of operation is selected, in which the load pick-up means is moved automatically in the raising or lowering direction by the control system as a function of the signals sensed by the force sensor, without being acted on by the force from an operator.
Component assembly comprising a first component and a second component, further comprising a plurality of connection pieces (1, 2), the connection pieces (1, 2) each penetrating the first component at least over the entire thickness of the first component, characterized in that that end of the connection pieces (1, 2) which faces towards the second component is welded to the second component or to further connection pieces fixed on the second component by means of a common reactive foil for the plurality of connection pieces (1, 2), in particular a nanofoil.
Method for preparing a ceramide-containing formulation comprising the method steps of A) melting a mixture comprising at least one wax and at least one ceramide, B) cooling the molten mixture to obtain a solidified melt comprising the at least one wax and the at least one ceramide, C) incorporating the solidified melt into an oil-containing formulation. A) melting a mixture comprising at least one wax and at least one ceramide, B) cooling the molten mixture to obtain a solidified melt comprising the at least one wax and the at least one ceramide, C) incorporating the solidified melt into an oil-containing formulation.
A monoclonal, humanized antibody that binds IL-5R for use in reducing the numbers of basophils in a human subject by parenteral administration of said antibody to said subject at from 0.01 to 0.25 mg/kg and wherein said antibody comprises the amino acid sequences of SEQ ID NO: 1 and 3 and an immunoglobulin Fc region comprising no fucose.
A method implemented in a user equipment, UE, (16, 18) used in a wireless communications network: receiving, from a base station, higher layer signaling enabling carrier aggregation; aggregating a plurality of component carriers, CCs, in accordance with the higher layer signaling; wherein the higher layer signaling indicates that a CC is a host CC, wherein a host CC is used for transmission of one or more Physical Downlink Control Channels, PDCCH, of one or more client CCs and its own PDCCHs. receiving, from a base station, higher layer signaling enabling carrier aggregation; aggregating a plurality of component carriers, CCs, in accordance with the higher layer signaling;
A drill bit, comprising: a shank having a threaded coupling formed at an upper end thereof; a bit body mounted to a lower end of the shank and having a plenum; a gage section forming an outer portion of the drill bit; and a cutting face forming a lower end of the drill bit and comprising: a core receptacle formed at a center of the cutting face, operable to receive a core of earth, and comprising: a concave core cutter mounted to a bottom of the bit body; and a core port extending from the plenum through the bottom of the bit body and operable to discharge drilling fluid onto the core and core cutter; a plurality of blades protruding from a bottom of the bit body and extending from a periphery of the core receptacle to the gage section; and a plurality of leading cutters mounted along each blade characterized in that: the concave core cutter comprises a superhard cutting table attached to a hard substrate at an interface; the cutting table has a second cutting face opposite to the interface; the second cutting face has a central crater; and the concave core cutter is operable to destroy the core of earth. a shank having a threaded coupling formed at an upper end thereof; a bit body mounted to a lower end of the shank and having a plenum; a gage section forming an outer portion of the drill bit; and a cutting face forming a lower end of the drill bit and comprising: a core receptacle formed at a center of the cutting face, operable to receive a core of earth, and comprising: a concave core cutter mounted to a bottom of the bit body; and a core port extending from the plenum through the bottom of the bit body and operable to discharge drilling fluid onto the core and core cutter; a plurality of blades protruding from a bottom of the bit body and extending from a periphery of the core receptacle to the gage section; and a plurality of leading cutters mounted along each blade a core receptacle formed at a center of the cutting face, operable to receive a core of earth, and comprising: a concave core cutter mounted to a bottom of the bit body; and a core port extending from the plenum through the bottom of the bit body and operable to discharge drilling fluid onto the core and core cutter; a concave core cutter mounted to a bottom of the bit body; and a core port extending from the plenum through the bottom of the bit body and operable to discharge drilling fluid onto the core and core cutter; a plurality of blades protruding from a bottom of the bit body and extending from a periphery of the core receptacle to the gage section; and a plurality of leading cutters mounted along each blade the concave core cutter comprises a superhard cutting table attached to a hard substrate at an interface; the cutting table has a second cutting face opposite to the interface; the second cutting face has a central crater; and the concave core cutter is operable to destroy the core of earth.
A contact point between a solid oxide cell and an interconnect of a solid oxide stack, said contact point comprising: - a ferritic stainless steel interconnect substrate covered by a chromium oxide layer, which is coated by a coating comprising an element that acts as a sintering aid, and - an oxygen electrode or an oxygen-side contact layer of a solid oxide cell, where the element functions as a sintering aid towards the oxygen electrode or oxygen-side contact layer materials, wherein the element that acts as a sintering aid is Cu, and wherein the voltage drop across the contact point is less than 25 mV, when measured in air at 750°C, under a de current density of 1.27 A/cm 2, under a compressive load of 3 MPa - a ferritic stainless steel interconnect substrate covered by a chromium oxide layer, which is coated by a coating comprising an element that acts as a sintering aid, and - an oxygen electrode or an oxygen-side contact layer of a solid oxide cell, where the element functions as a sintering aid towards the oxygen electrode or oxygen-side contact layer materials, wherein the element that acts as a sintering aid is Cu, and wherein the voltage drop across the contact point is less than 25 mV, when measured in air at 750°C, under a de current density of 1.27 A/cm 2, under a compressive load of 3 MPa
An implant system for a recipient patient, said implant system comprising: a planar implant coil housing for implanting under the skin of said patient containing a receiver coil for transcutaneous communication of an implant communication signal, and containing a first attachment magnet within the plane of the implant coil housing, an external coil housing for placement on the skin of the patient over said implant coil housing, said external coil housing comprising a second attachment magnet; characterized in that said first attachment magnet is rotatable in said plane of the implant coil housing, and has a magnetic dipole parallel to the plane of the implant coil housing for transcutaneous magnetic interaction with said second attachment magnet allowing to form a magnetic attraction connection between them in which the magnetic dipole of said first attachment magnet is parallel to said plane of the implant coil housing. a planar implant coil housing for implanting under the skin of said patient containing a receiver coil for transcutaneous communication of an implant communication signal, and containing a first attachment magnet within the plane of the implant coil housing, an external coil housing for placement on the skin of the patient over said implant coil housing, said external coil housing comprising a second attachment magnet; characterized in that said first attachment magnet is rotatable in said plane of the implant coil housing, and has a magnetic dipole parallel to the plane of the implant coil housing for transcutaneous magnetic interaction with said second attachment magnet allowing to form a magnetic attraction connection between them in which the magnetic dipole of said first attachment magnet is parallel to said plane of the implant coil housing.
An apparatus for estimating the magnitude of leakage of pressurized gas from a surgical tourniquet system, comprising: a pressure regulator assembly; an inflatable tourniquet cuff having a pneumatic tube for connecting the cuff to the pressure regulator assembly, thereby establishing a gas passageway between the cuff and the pressure regulator assembly, wherein the pressure regulator assembly is configured to supply pressurized gas to and from the cuff and passageway when actuated by an electrical signal, at a flow rate which varies as a function of the electrical current level of the applied electrical signal, to maintain pressure in the cuff within a reference pressure range during a time period; and a leak detector for estimating a magnitude of leakage of pressurized gas from the cuff or passageway characterised in that the leak detector is configured to monitor the level of the electrical signal throughout the time period, and in that the estimate of the magnitude of leakage is a predetermined function of the level of the electrical signal throughout the time period. a pressure regulator assembly; an inflatable tourniquet cuff having a pneumatic tube for connecting the cuff to the pressure regulator assembly, thereby establishing a gas passageway between the cuff and the pressure regulator assembly, wherein the pressure regulator assembly is configured to supply pressurized gas to and from the cuff and passageway when actuated by an electrical signal, at a flow rate which varies as a function of the electrical current level of the applied electrical signal, to maintain pressure in the cuff within a reference pressure range during a time period; and a leak detector for estimating a magnitude of leakage of pressurized gas from the cuff or passageway characterised in that the leak detector is configured to monitor the level of the electrical signal throughout the time period, and in that the estimate of the magnitude of leakage is a predetermined function of the level of the electrical signal throughout the time period.
A dryer cartridge for use with a detector system for detecting molecules in an air flow, the dryer cartridge comprising: an inlet configured to receive an air flow; an outlet configured to discharge the air flow; a capture portion between the inlet and the outlet, the capture portion comprising a housing having a housing coupling aperture defined in it and having a plurality of baffles defining a flow path between the inlet and the outlet, the capture portion further comprising a sieve material positioned between the plurality of baffles and configured to capture at least one of liquid particles and liquid vapors from the air flow along the flow path; and a coupling plate, the coupling plate having the inlet, the outlet and a plate coupling aperture defined therethrough, the plate coupling aperture and the housing coupling aperture configured to receive a fastener therethrough to removably couple the dryer cartridge to an outer surface of a housing of the detector system; the dryer cartridge configured to receive the air flow from a first component of the detector system and discharge the air flow into at least a second component of the detector system when the dryer cartridge is coupled to the detector system. an inlet configured to receive an air flow; an outlet configured to discharge the air flow; a capture portion between the inlet and the outlet, the capture portion comprising a housing having a housing coupling aperture defined in it and having a plurality of baffles defining a flow path between the inlet and the outlet, the capture portion further comprising a sieve material positioned between the plurality of baffles and configured to capture at least one of liquid particles and liquid vapors from the air flow along the flow path; and a coupling plate, the coupling plate having the inlet, the outlet and a plate coupling aperture defined therethrough, the plate coupling aperture and the housing coupling aperture configured to receive a fastener therethrough to removably couple the dryer cartridge to an outer surface of a housing of the detector system; the dryer cartridge configured to receive the air flow from a first component of the detector system and discharge the air flow into at least a second component of the detector system when the dryer cartridge is coupled to the detector system.