mhurhangee/ep-ind-claims huggingface dataset:
A handheld lighter for igniting a combustible material comprising: an ignition mechanism for generating a heat source; an actuating means for activating the ignition mechanism; a metallic shield positioned adjacent to the ignition mechanism and at a distance to the ignition mechanism such that the metallic shield is heated by the heat source when the handheld lighter is operated; and a housing comprising the ignition mechanism, the actuating means and the metallic shield; wherein the metallic shield comprises a thermochromic coating comprising: (a) an electron-donative organic compound (component (a)), (b) an electron-accepting compound (component (b)), and (c) a reaction medium enabling a reversible electron transfer reaction between the components (a) and (b) above the melting or softening point of the reaction medium (component (c)); and wherein the thermochromic coating is configured to reversibly change color in response to an increase of the temperature of the metallic shield to a first temperature of about 60 °C or above and to reversibly change color in response to a decrease of the temperature of the metallic shield to a second temperature which is about 0 to about 20 °C below the first temperature. an ignition mechanism for generating a heat source; an actuating means for activating the ignition mechanism; a metallic shield positioned adjacent to the ignition mechanism and at a distance to the ignition mechanism such that the metallic shield is heated by the heat source when the handheld lighter is operated; and a housing comprising the ignition mechanism, the actuating means and the metallic shield; wherein the metallic shield comprises a thermochromic coating comprising: (a) an electron-donative organic compound (component (a)), (b) an electron-accepting compound (component (b)), and (c) a reaction medium enabling a reversible electron transfer reaction between the components (a) and (b) above the melting or softening point of the reaction medium (component (c)); and (a) an electron-donative organic compound (component (a)), (b) an electron-accepting compound (component (b)), and (c) a reaction medium enabling a reversible electron transfer reaction between the components (a) and (b) above the melting or softening point of the reaction medium (component (c)); and wherein the thermochromic coating is configured to reversibly change color in response to an increase of the temperature of the metallic shield to a first temperature of about 60 °C or above and to reversibly change color in response to a decrease of the temperature of the metallic shield to a second temperature which is about 0 to about 20 °C below the first temperature.
Use of texturized dairy proteins, obtainable by or obtained by (a) a mixture consisting of 25 to 75 percent by weight casein or caseinates, and 75 to 25 percent by weight of a plant protein and/or a fibre material, with the proviso that the quantities add up to 100 percent by weight, (b) extruding the mixture in the presence of water or whey while applying a temperature gradient of 20 to 200 °C and a pressure in the range of 100000 Pa (1 bar) to 20000000 Pa (200 bar), and (c) subsequently expanding the extrudate, as a substitute for carbohydrates and a source of protein in food. (a) a mixture consisting of 25 to 75 percent by weight casein or caseinates, and 75 to 25 percent by weight of a plant protein and/or a fibre material, with the proviso that the quantities add up to 100 percent by weight, 25 to 75 percent by weight casein or caseinates, and 75 to 25 percent by weight of a plant protein and/or a fibre material, with the proviso that the quantities add up to 100 percent by weight, (b) extruding the mixture in the presence of water or whey while applying a temperature gradient of 20 to 200 °C and a pressure in the range of 100000 Pa (1 bar) to 20000000 Pa (200 bar), and (c) subsequently expanding the extrudate,
A server for determining usage on a wireless network, comprising: a connection detecting means operative to detect a plurality of radio network-packet network connections established between the server and a packet control function executed by at least one processing system of the radio network by a mobile station, wherein each radio network-packet network connection is associated with a respective application executed by the mobile station and a connection type corresponding to a usage class from a classification comprising at least the classes high and low bandwidth uses and always-on and intermittent uses; a classifying means operatively connected with the connection detecting means and operative to determine the connection type of each radio network-packet network connection; and a usage tracking means operative to determine usage information for each radio network-packet network connection based on the connection type, wherein the server corresponds to a Packet Data Serving Node. a connection detecting means operative to detect a plurality of radio network-packet network connections established between the server and a packet control function executed by at least one processing system of the radio network by a mobile station, wherein each radio network-packet network connection is associated with a respective application executed by the mobile station and a connection type corresponding to a usage class from a classification comprising at least the classes high and low bandwidth uses and always-on and intermittent uses; a classifying means operatively connected with the connection detecting means and operative to determine the connection type of each radio network-packet network connection; and a usage tracking means operative to determine usage information for each radio network-packet network connection based on the connection type, wherein the server corresponds to a Packet Data Serving Node.
A device, which is an organic electroluminescence device comprising, - a substrate, and provided thereon - a pair of electrodes (3, 9), and - disposed between the electrodes, organic layers including at least (i) a light emitting layer containing a phosphorescent emitting material of formula (C-1): wherein Q 1 -Q 4 each independently are a ligand which is coordinated to Pt, and L 1 -L 3 each independently are a single bond or a divalent linking group, and whereby Q 3 and Q 4 are not linked; and (ii) contained in a layer directly adjacent to the light emitting layer, a compound of formula (Cz)p-L- q wherein Cz is an optionally substituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or an optionally substituted arylene, cycloalkylene or heteroaryl group, A is an optionally substituted N-containing six-membered heteroaromatic ring, and p, q each independently are an integer of 1-6. - a substrate, and provided thereon - a pair of electrodes (3, 9), and - disposed between the electrodes, organic layers including at least (i) a light emitting layer containing a phosphorescent emitting material of formula (C-1): wherein Q 1 -Q 4 each independently are a ligand which is coordinated to Pt, and L 1 -L 3 each independently are a single bond or a divalent linking group, and whereby Q 3 and Q 4 are not linked; and (ii) contained in a layer directly adjacent to the light emitting layer, a compound of formula (Cz)p-L- q wherein Cz is an optionally substituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or an optionally substituted arylene, cycloalkylene or heteroaryl group, A is an optionally substituted N-containing six-membered heteroaromatic ring, and p, q each independently are an integer of 1-6. (i) a light emitting layer containing a phosphorescent emitting material of formula (C-1): wherein Q 1 -Q 4 each independently are a ligand which is coordinated to Pt, and L 1 -L 3 each independently are a single bond or a divalent linking group, and whereby Q 3 and Q 4 are not linked; and (ii) contained in a layer directly adjacent to the light emitting layer, a compound of formula (Cz)p-L- q wherein Cz is an optionally substituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or an optionally substituted arylene, cycloalkylene or heteroaryl group, A is an optionally substituted N-containing six-membered heteroaromatic ring, and p, q each independently are an integer of 1-6. Cz is an optionally substituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or an optionally substituted arylene, cycloalkylene or heteroaryl group, A is an optionally substituted N-containing six-membered heteroaromatic ring, and p, q each independently are an integer of 1-6.
Medical implant which is vacuum-packed within an air tight cover material, wherein the medical implant comprises one or more cords which extend through a sealing seam area of the cover material, wherein the cover material comprises a sealing seam having been created on the cover material at least in the sealing seam area through which the one or more cords extend.
A positive temperature coefficient unit for a vehicle heater comprising: a heat generation part which includes positive temperature coefficient elements; and a heat radiation part which is provided on at least one surface of the heat generation part and includes a heat radiation base material and a heat radiation film provided on at least a portion of an outer surface of the heat radiation base material to improve heat radiation performance characterised in that the heat radiation film is a heat radiation coating layer that is formed through an insulating heat radiation coating composition which includes a coating layer-forming component including a main resin, and an insulating heat radiation filler included in an amount of 25-70 parts by weight with respect to 100 parts by weight of the main resin, and wherein the insulating heat radiation filler has an average particle diameter of 10 nm to 15 μm and a D50 to D97 ratio of the insulating heat radiation filler is less than or equal to 1:4.5. a heat generation part which includes positive temperature coefficient elements; and a heat radiation part which is provided on at least one surface of the heat generation part and includes a heat radiation base material and a heat radiation film provided on at least a portion of an outer surface of the heat radiation base material to improve heat radiation performance characterised in that the heat radiation film is a heat radiation coating layer that is formed through an insulating heat radiation coating composition which includes a coating layer-forming component including a main resin, and an insulating heat radiation filler included in an amount of 25-70 parts by weight with respect to 100 parts by weight of the main resin, and wherein the insulating heat radiation filler has an average particle diameter of 10 nm to 15 μm and a D50 to D97 ratio of the insulating heat radiation filler is less than or equal to 1:4.5.
A method for oxidizing carbon monoxide in a gas stream containing carbon monoxide, hydrogen and oxygen, comprising contacting the gas stream at a temperature less than 300°C with a catalytic material being obtained by: wetting a refractory inorganic oxide support material with a bivalent platinum solution and iron solution and drying and calcining the wetted support material under oxidizing conditions at a temperature in the range of from 200°C up to 300°C, wherein the catalytic material is substantially free of at least one metal selected from the group consisting of palladium, rhodium and cerium. wetting a refractory inorganic oxide support material with a bivalent platinum solution and iron solution and drying and calcining the wetted support material under oxidizing conditions at a temperature in the range of from 200°C up to 300°C, wherein the catalytic material is substantially free of at least one metal selected from the group consisting of palladium, rhodium and cerium.
A sensor assembly comprising: a camera configured to capture an image based on a light wave received from a camera field of view (18, 46); a radar sensor configured to emit a radar beam toward a radar field of view (16, 48) and receive a reflected radar signal from the radar field of view (16, 48), wherein said radar field of view (16, 48) corresponds to the camera field of view (18, 46) so that objects forward of the sensor assembly may be detected by both the camera and the radar sensor; and a housing (26, 50) configured to enclose partially the camera (22, 42) and the radar sensor (24, 44), characterized in that a section of the housing (26, 50) defines a partial radome that partially intrudes into the radar field of view (16, 48) such that a first portion of the radar beam passes through the partial radome and a second portion of the radar beam does not pass through the partial radome, wherein the housing is configured to provide a glare shield for the camera, wherein the glare shield is part of the partial radome. a camera configured to capture an image based on a light wave received from a camera field of view (18, 46); a radar sensor configured to emit a radar beam toward a radar field of view (16, 48) and receive a reflected radar signal from the radar field of view (16, 48), wherein said radar field of view (16, 48) corresponds to the camera field of view (18, 46) so that objects forward of the sensor assembly may be detected by both the camera and the radar sensor; and a housing (26, 50) configured to enclose partially the camera (22, 42) and the radar sensor (24, 44),
A composition for use in a method of modifying behavior in an animal comprising: administering the composition to the animal for a period of time, the composition comprising between 0.001% and 1% (w/w) 2-methylbut-2-enal and between 0.5% and 99.99% (w/w) of at least one carrier solvent, wherein the amount of 2-methylbut-2-enal administered to the animal is between 1.0 pg/mL to 1.0 g/mL, wherein anxiety, stress and aggressiveness in the animal is reduced, and wherein the animal is a dog or a cat.
A drive power transmission system in which a dry clutch that disconnects the transmitting of drive power is disposed inside a sealed space, the dry clutch comprising: a first clutch plate that is joined by splines to a clutch hub; a second clutch plate that is joined by splines to a clutch drum; and a friction facing that is provided on the first clutch plate or second clutch plate, a friction surface pressing against the other plate face during clutch engagement; characterized by a cover member having an external air intake hole through which external air is taken into the sealed space and an external air discharge hole through which the air flow is discharged from inside the sealed space to the external air; the external air intake hole is provided on the cover member disposed on a side face of the dry clutch so as to pass axially through radially inwardly from the two clutch plates (71, 72), and the external air discharge hole is provided on the cover member disposed on a side face of the dry clutch so as to pass axially through radially outwardly from the two clutch plates (71, 72). a first clutch plate that is joined by splines to a clutch hub; a second clutch plate that is joined by splines to a clutch drum; and a friction facing that is provided on the first clutch plate or second clutch plate, a friction surface pressing against the other plate face during clutch engagement; characterized by a cover member having an external air intake hole through which external air is taken into the sealed space and an external air discharge hole through which the air flow is discharged from inside the sealed space to the external air; the external air intake hole is provided on the cover member disposed on a side face of the dry clutch so as to pass axially through radially inwardly from the two clutch plates (71, 72), and the external air discharge hole is provided on the cover member disposed on a side face of the dry clutch so as to pass axially through radially outwardly from the two clutch plates (71, 72).
Casement assembly comprising a stationary frame, a casement that is pivotally mounted on the frame and a load-transfer device (18, 118, 218) for introducing at least part of the casement load into the frame, the load-transfer device (18, 118, 218) comprising a force-transmission element (20, 120) for transmitting force between a first, casement-side brace (22, 122) and a second, frame-side brace (24, 124), and comprising a spring assembly (26, 126) that applies a force to the force-transmission element (20, 120) and is attached on the casement side or the frame side by means of a retaining element, the spring assembly (26, 126) being pivotally coupled to the retaining element (28, 128), characterised in that the retaining element (28, 128) comprises an angled portion (42, 142) which forms a first guide portion (44, 144) and on which a second guide portion (46, 146) of the spring assembly (26, 126) is guided such that, by pivoting the casement, the spring assembly (26, 126) is pivoted about an axis (52, 152) arranged in the end region of the spring assembly (26, 126) remote from the force-transmission element (20, 120), and in that, by pivoting the casement, an end of the spring assembly (26, 126) close to the force-transmission element (20, 120) is moved between a first position in which it abuts the retaining element (28, 128) or rests on the retaining element (28, 128) and a second position in which it is further away from the retaining element (28, 128).
Aircraft fuel dumping system, the system comprising: - an emptying nozzle for aircraft fuel dumping piping, comprising an essentially cylindrical flexible tube, and a rigid part designed to form an interface between the cylindrical tube and the structure of the aircraft, the system being characterized in that said rigid part has a diameter that generally increases from the structure of the aircraft towards the cylindrical tube, and in that the system comprises: - a device for connecting to the emptying nozzle for aircraft fuel dumping piping, comprising: a) an adapter designed to fit around the rigid part, b) an evacuation pipe having at a first end an internal diameter that is greater than the external diameter of the cylindrical tube, said pipe comprising at this first end a sleeve bearing means for reversible attachment on the adapter, and, in the internal portion of said first end, means (23, 24, 28, 29) for sealing around the cylindrical tube. - an emptying nozzle for aircraft fuel dumping piping, comprising an essentially cylindrical flexible tube, and a rigid part designed to form an interface between the cylindrical tube and the structure of the aircraft, the system being characterized in that said rigid part has a diameter that generally increases from the structure of the aircraft towards the cylindrical tube, and in that the system comprises: - a device for connecting to the emptying nozzle for aircraft fuel dumping piping, comprising: a) an adapter designed to fit around the rigid part, b) an evacuation pipe having at a first end an internal diameter that is greater than the external diameter of the cylindrical tube, said pipe comprising at this first end a sleeve bearing means for reversible attachment on the adapter, and, in the internal portion of said first end, means (23, 24, 28, 29) for sealing around the cylindrical tube. - a device for connecting to the emptying nozzle for aircraft fuel dumping piping, comprising: a) an adapter designed to fit around the rigid part, b) an evacuation pipe having at a first end an internal diameter that is greater than the external diameter of the cylindrical tube, said pipe comprising at this first end a sleeve bearing means for reversible attachment on the adapter, and, in the internal portion of said first end, means (23, 24, 28, 29) for sealing around the cylindrical tube. a) an adapter designed to fit around the rigid part, b) an evacuation pipe having at a first end an internal diameter that is greater than the external diameter of the cylindrical tube, said pipe comprising at this first end a sleeve bearing means for reversible attachment on the adapter, and, in the internal portion of said first end, means (23, 24, 28, 29) for sealing around the cylindrical tube.
Apparatus for treating a human body to reduce hyperhidrosis comprising: a source of laser light energy; and a controller for controlling the laser light source wherein the controller causes the laser light source to apply laser light energy at 970nm plus or minus 10nm to target and disrupt sweat glands in the human body, wherein the controller controls the laser light energy to be pulsed and wherein the controller controls the laser light source to operate at the following parameters (a) fluence of 5-50 j/cm2; (b) pulse width of 10-60ms; (c) number of pulses of 1-20; (d) repetition rate of 0.3 - 5Hz. a source of laser light energy; and a controller for controlling the laser light source wherein the controller causes the laser light source to apply laser light energy at 970nm plus or minus 10nm to target and disrupt sweat glands in the human body, wherein the controller controls the laser light energy to be pulsed and wherein the controller controls the laser light source to operate at the following parameters (a) fluence of 5-50 j/cm2; (b) pulse width of 10-60ms; (c) number of pulses of 1-20; (d) repetition rate of 0.3 - 5Hz. (a) fluence of 5-50 j/cm2; (b) pulse width of 10-60ms; (c) number of pulses of 1-20; (d) repetition rate of 0.3 - 5Hz.
A process for coupling PEG to IFN β comprising the following steps: (a) adding activated PEG to a purified IFN β solution in a reaction vessel to form a mixture of activated PEG and IFN β, wherein the purified IFN β solution has a concentration of IFN β from 1.75 mg/ml to 3.3 mg/ml and a temperature of from 2° C to 30° C, wherein the amount of activated PEG added is sufficient to provide a molar ratio of activated PEG to IFN β in a PEG coupling reaction mixture from 1:1 to 20:1 and wherein the pH of the mixture is from 4.0 to 6.0; (b) optionally adding a Lewis acid catalyst to the mixture, wherein the amount of Lewis acid catalyst when added is sufficient to provide a concentration of Lewis acid catalyst in the PEG coupling reaction mixture from 0.1 mM to 2.2 mM; (c) adding NaCNBH 3 to the mixture to form the PEG coupling reaction mixture with stirring over a period of 5 minutes to 600 minutes, wherein the amount of NaCNBH 3 added is sufficient to provide a concentration of NaCNBH 3 in the PEG coupling reaction mixture from 15 mM to 25 mM; and (d) after step (c), incubating the PEG coupling reaction mixture for 10 minutes to 24 hours to produce preferentially mono-PEG IFN β. (a) adding activated PEG to a purified IFN β solution in a reaction vessel to form a mixture of activated PEG and IFN β, wherein the purified IFN β solution has a concentration of IFN β from 1.75 mg/ml to 3.3 mg/ml and a temperature of from 2° C to 30° C, wherein the amount of activated PEG added is sufficient to provide a molar ratio of activated PEG to IFN β in a PEG coupling reaction mixture from 1:1 to 20:1 and wherein the pH of the mixture is from 4.0 to 6.0; (b) optionally adding a Lewis acid catalyst to the mixture, wherein the amount of Lewis acid catalyst when added is sufficient to provide a concentration of Lewis acid catalyst in the PEG coupling reaction mixture from 0.1 mM to 2.2 mM; (c) adding NaCNBH 3 to the mixture to form the PEG coupling reaction mixture with stirring over a period of 5 minutes to 600 minutes, wherein the amount of NaCNBH 3 added is sufficient to provide a concentration of NaCNBH 3 in the PEG coupling reaction mixture from 15 mM to 25 mM; and (d) after step (c), incubating the PEG coupling reaction mixture for 10 minutes to 24 hours to produce preferentially mono-PEG IFN β.