mhurhangee/ep-ind-claims huggingface dataset:
A memory access device which is adapted to calculate a number of pixels in one burst access by dividing a number of bits obtained in one burst access to a memory storing an image frame by number of bits per pixel and discarding fraction thereof, to arrange a rectangular area having a number of pixels equal to or less than the calculated number of pixels in the image frame as a cell, to access to the memory by using the cell, and to read a block of a part of the image frame, comprising: - a first look-up table adapted for outputting a result of dividing a horizontal component of a pixel address in the block by a number of pixels in a horizontal component of the cell; - a second look-up table adapted for outputting a result of dividing a vertical component of a pixel address in the block by a number of pixels in a vertical component of the cell; - a third look-up table adapted for outputting a residue as a result of dividing a horizontal component of a pixel address in the block by a number of pixels in a horizontal component of the cell; and - a fourth look-up table adapted for outputting a residue as a result of dividing a vertical component of a pixel address in the block by a number of pixels in a vertical component of the cell, - wherein the output value of the first look-up table and the output value of the second look-up table are addresses of the cell for burst access to the memory, and the output value of the third look-up table and the output value of the fourth look-up table are usable as pixel addresses in the cell. - a first look-up table adapted for outputting a result of dividing a horizontal component of a pixel address in the block by a number of pixels in a horizontal component of the cell; - a second look-up table adapted for outputting a result of dividing a vertical component of a pixel address in the block by a number of pixels in a vertical component of the cell; - a third look-up table adapted for outputting a residue as a result of dividing a horizontal component of a pixel address in the block by a number of pixels in a horizontal component of the cell; and - a fourth look-up table adapted for outputting a residue as a result of dividing a vertical component of a pixel address in the block by a number of pixels in a vertical component of the cell, - wherein the output value of the first look-up table and the output value of the second look-up table are addresses of the cell for burst access to the memory, and
A light-emitting apparatus, comprising: at least one light guide member (110, 110A, 110B); at least one light source unit (120-1, 120-2, 120A-1, 120A-2, 120B-1, 120B-2) disposed at least one of two opposite end portions of the light guide member; a first reflection unit disposed on a first inner surface portion of the light guide member; and a plurality of light output units (LO1 to LON, ALO1 to ALON, BLO1 to BLON) disposed on a second inner surface portion of the light guide member, located opposite the first inner surface portion, while being spaced apart from each other, wherein each of the plurality of light output units includes: a second reflection unit, the first and second reflection units being disposed in an interior of the light guide member; and a wavelength conversion unit disposed on the second reflection unit to convert a wavelength of light which has passed through the second reflection unit and to output converted light, wherein the wavelength conversion unit is disposed at an exterior of the light guide member, and wherein the first and second reflection units face each other without interposing the wavelength conversion unit therebetween. at least one light guide member (110, 110A, 110B); at least one light source unit (120-1, 120-2, 120A-1, 120A-2, 120B-1, 120B-2) disposed at least one of two opposite end portions of the light guide member; a first reflection unit disposed on a first inner surface portion of the light guide member; and a plurality of light output units (LO1 to LON, ALO1 to ALON, BLO1 to BLON) disposed on a second inner surface portion of the light guide member, located opposite the first inner surface portion, while being spaced apart from each other, wherein each of the plurality of light output units includes: a second reflection unit, the first and second reflection units being disposed in an interior of the light guide member; and a wavelength conversion unit disposed on the second reflection unit to convert a wavelength of light which has passed through the second reflection unit and to output converted light, a second reflection unit, the first and second reflection units being disposed in an interior of the light guide member; and a wavelength conversion unit disposed on the second reflection unit to convert a wavelength of light which has passed through the second reflection unit and to output converted light, wherein the wavelength conversion unit is disposed at an exterior of the light guide member, and wherein the first and second reflection units face each other without interposing the wavelength conversion unit therebetween.
A low-alcohol or alcohol-free beer with an alcohol content of no more than 1.2% (vol/vol) having an isoamyl acetate content of at least 0.5 ppm (mg/L) which comprises Pichia kluyveri as the only species of yeast strain added.
A process for treating hydrocarbon feed in a steam cracker furnace, the process comprising: (a) heating hydrocarbon feed to provide a heated feed, (b) adding water in a sparger and dilution steam in another sparger to the heated feed to form a mixture, the water being added in an amount of at least 1% based on water and dilution steam by weight, wherein both water and dilution steam are added and the water is added prior to the addition of the dilution steam (c) heating the mixture to provide a heated mixture, and (d) feeding the heated mixture from (c) to the furnace, wherein the ratio of water to steam added to the heated feed is varied according to fluctuations in the temperature of flue gas exiting the furnace and/or the temperature in a convection section of the furnace.
An electrochemical cell comprising: an anode comprising Zn; a cathode comprising a silver material; a separator comprising cellulose; and an electrolyte comprising an alkyl-capped PEG; an alkaline agent; and water, wherein the electrolyte comprises from 62 wt% to 80 wt% of water by weight of the electrolyte. an anode comprising Zn; a cathode comprising a silver material; a separator comprising cellulose; and an electrolyte comprising an alkyl-capped PEG; an alkaline agent; and water,
A device for separating liquid from gas comprising: a fluid inlet configured to receive a fluid that comprises a liquid and a gas; a gas outlet; a deflector (410, 540) positioned between the fluid inlet and the gas outlet, the deflector (410, 540) obstructing a path from the fluid inlet to the gas outlet; and a liquid channel adjacent to a liquid outlet (350, 570); wherein the deflector (410, 540) is configured to deflect the liquid to the liquid channel; wherein the device is configured such that the liquid deflected to the liquid channel exits the device through the liquid outlet (350, 570); and the gas flows around the deflector (410, 540) and exits the device through the gas outlet; wherein the fluid inlet, the gas outlet, and the liquid channel are each rotationally symmetrical about a common rotational axis, and wherein the deflector (410, 540) is conical and centered about the rotational axis; characterized in that the liquid outlet (350, 570) further comprises a valve for preventing the gas from escaping, wherein the valve is a thermo-electric valve. a fluid inlet configured to receive a fluid that comprises a liquid and a gas; a gas outlet; a deflector (410, 540) positioned between the fluid inlet and the gas outlet, the deflector (410, 540) obstructing a path from the fluid inlet to the gas outlet; and a liquid channel adjacent to a liquid outlet (350, 570); wherein the deflector (410, 540) is configured to deflect the liquid to the liquid channel; wherein the device is configured such that the liquid deflected to the liquid channel exits the device through the liquid outlet (350, 570); and the gas flows around the deflector (410, 540) and exits the device through the gas outlet; wherein the fluid inlet, the gas outlet, and the liquid channel are each rotationally symmetrical about a common rotational axis, and wherein the deflector (410, 540) is conical and centered about the rotational axis; characterized in that the liquid outlet (350, 570) further comprises a valve for preventing the gas from escaping, wherein the valve is a thermo-electric valve.
A method, comprising: operating a superjunction transistor device in a diode state, wherein operating the superjunction transistor device in the diode state comprises applying a bias voltage (V DEP) different from zero between a drift region of at least one transistor cell of the transistor device and a compensation region of a doping type complementary to a doping type of the drift region, wherein the compensation region adjoins the drift region, wherein a polarity of the bias voltage (V DEP) is such that a pn-junction between the drift region and the compensation region is reverse biased, and wherein operating the transistor device in the diode state further comprises applying a voltage between a source node and a drain node such that a pn-junction between the body region and the drift region of the at least one transistor cell is forward biased. operating a superjunction transistor device in a diode state, wherein operating the superjunction transistor device in the diode state comprises applying a bias voltage (V DEP) different from zero between a drift region of at least one transistor cell of the transistor device and a compensation region of a doping type complementary to a doping type of the drift region, wherein the compensation region adjoins the drift region, wherein a polarity of the bias voltage (V DEP) is such that a pn-junction between the drift region and the compensation region is reverse biased, and wherein operating the transistor device in the diode state further comprises applying a voltage between a source node and a drain node such that a pn-junction between the body region and the drift region of the at least one transistor cell is forward biased.
Valve device with a valve housing, through which a fluid channel passes, which extends from an inlet connection to an outlet connection, wherein a valve member is received in the fluid channel so as to be movable between a closed position for blocking the fluid channel and an open position for releasing the fluid channel, and wherein a valve seat (48, 94) is formed in the fluid channel, which is designed for a sealing abutment of a sealing section of the valve member in the closed position, and having a guide device (4, 5) which is designed for guiding the sealing section along a guide track extending between the closed position and the open position, the guide track having at least two guide track sections (57, 58) with different curvature, the valve seat (48, 94) comprising a circumferential, radially inwardly oriented sealing surface and the sealing section comprising a circumferential, radially outwardly oriented outer peripheral surface, the valve member comprising a base body, the sealing section being formed on a front wall of the base body, a first pivot axis and a third pivot axis penetrating side walls (35, 36) of the base body which are oriented parallel and opposite to one another and respectively adjoining the front wall, wherein a bottom region of the base body being formed adjacent to the front wall and to the side walls (35, 36) of the base body, characterized in that an envelope geometry for the fluid channel between the inlet connection and the outlet connection is formed as a curved pipe bend, and in that the bottom region of the base body partially delimits the envelope geometry in the open position.
A method for making spherical polymer particles, the method comprising: providing a polymer solution comprising a polymer in an amount of less than 10% by weight, based on the total weight of the polymer solution, and an organic solvent having a boiling point below 100°C; combining the polymer solution, deionized water, and a first surfactant to provide an emulsification composition having an organic solvent fraction of 0.60 or higher by volume; forming an emulsion from the emulsification composition; and adding the emulsion into deionized receiving water maintained at a temperature above the boiling point of the organic solvent for a period sufficient to evaporate the organic solvent, wherein the emulsion is added to the receiving water dropwise to form an aqueous slurry comprising spherical polymer particles having a Dv100 (volume-based diameter) of 10 micrometers or less, as measured by laser diffraction in water after sonication for five minutes and having an average sphericity of 0.85 to 1. providing a polymer solution comprising a polymer in an amount of less than 10% by weight, based on the total weight of the polymer solution, and an organic solvent having a boiling point below 100°C; combining the polymer solution, deionized water, and a first surfactant to provide an emulsification composition having an organic solvent fraction of 0.60 or higher by volume; forming an emulsion from the emulsification composition; and adding the emulsion into deionized receiving water maintained at a temperature above the boiling point of the organic solvent for a period sufficient to evaporate the organic solvent, wherein the emulsion is added to the receiving water dropwise to form an aqueous slurry comprising spherical polymer particles having a Dv100 (volume-based diameter) of 10 micrometers or less, as measured by laser diffraction in water after sonication for five minutes and having an average sphericity of 0.85 to 1.
An assembly for cooling a motor vehicle engine, comprising a radiator fan which is drivingly connected to the motor vehicle engine and which includes a fan inlet and a fan outlet and generates an air flow in an air flow direction from the fan inlet to the fan outlet, comprising an engine radiator adapted for air flow therethrough, for cooling a coolant of a motor vehicle engine, the engine radiator having an air flow cross-section (A 2) and being arranged adjacent to the fan inlet of the radiator fan, and comprising a cooling module of a vehicle air-conditioning system, having a ventilator which includes an air inlet and an air outlet and generates an air flow in an air flow direction from the air inlet to the air outlet, and a condenser adapted for bidirectional air flow therethrough, for condensing a refrigerant of the vehicle air-conditioning system, the condenser being arranged upstream of, and adjacent to, the engine radiator, the condenser having an air flow cross-section (A 1) and being arranged adjacent to the air outlet of the ventilator, the air flow cross-section (A 1) having a first partial cross-section and a second partial cross-section that is different from the first partial cross-section, the air outlet of the ventilator being exclusively assigned to the first partial cross-section and supplying the total air flow of the ventilator to the first partial cross-section in the air flow direction, and the cooling module cooperating with the radiator fan, characterized in that the condenser of the cooling module has a distance (d) from the engine radiator in the air flow direction, where: d > 6 mm, and the radiator fan is driven in a driving operation with the motor vehicle engine running and is deactivated when the motor vehicle engine has been turned off, which constitutes a parking state, and an air flow flows through the second partial cross-section of the air flow cross-section (A 1) of the condenser in the air flow direction in the driving operation and contrary to the air flow direction in the parking state, the latter being effected in that the air conveyed by the ventilator through the condenser in the air flow direction flows at least partly back again through the second partial cross-section.
A planar biofiltration system characterized in that it comprises: - a first three-dimensional structure that is filled with a substrate. - a hydrophilic fabric that closes the sides and the base of the first three-dimensional structure, - a second empty three-dimensional structure with support or gripping elements to be secured to a wall or face depending on the subsequent placement thereof, secured to the assembly formed by the first three-dimensional structure and the hydrophilic fabric covering the base and sides of the first three-dimensional structure, that aims to create a gap to prevent moisture from the substrate from spreading to the support of the system, wherein the first structure and the second structure both are hollow structures leaving several inner spaces allowing, on one hand, the substrate to be arranged inside the first three-dimensional structure, whereas, the second structure allows the passage of air allowing the contact of the air with the rhizosphere of the roots where the associated microorganisms can remove the contaminants from the air. - a first three-dimensional structure that is filled with a substrate. - a hydrophilic fabric that closes the sides and the base of the first three-dimensional structure, - a second empty three-dimensional structure with support or gripping elements to be secured to a wall or face depending on the subsequent placement thereof, secured to the assembly formed by the first three-dimensional structure and the hydrophilic fabric covering the base and sides of the first three-dimensional structure, that aims to create a gap to prevent moisture from the substrate from spreading to the support of the system,
A method for rolling an electrode, the method comprising: preparing an electrode specimen by applying an electrode slurry containing an electrode active material on a current collector; measuring a rheological property of the electrode specimen according to a temperature; deriving an appropriate temperature condition for rolling an electrode from the rheological property of the electrode specimen according to the temperature; and manufacturing the electrode and rolling the electrode under the appropriate temperature condition, wherein the appropriate temperature condition corresponds to a temperature range between a beta transition temperature and an alpha transition temperature (Tcr), the alpha transition temperature is the highest temperature among three inflection points or peaks which appear by measuring the rheological property of the electrode according to the temperature, the beta transition temperature is the middle temperature among three inflection points or peaks which appears by measuring the rheological property of the electrode according to the temperature, wherein the rheological property is a phase angle which is expressed as a following formula 1: δ = tan − 1 G " / G ′, wherein G' denotes a storage modulus, and G" denotes a loss modulus, and wherein the G' and the G" are measured by a rheometer which vibrates in a range of 0.1 to 10 Hz. preparing an electrode specimen by applying an electrode slurry containing an electrode active material on a current collector; measuring a rheological property of the electrode specimen according to a temperature; deriving an appropriate temperature condition for rolling an electrode from the rheological property of the electrode specimen according to the temperature; and manufacturing the electrode and rolling the electrode under the appropriate temperature condition, wherein the appropriate temperature condition corresponds to a temperature range between a beta transition temperature and an alpha transition temperature (Tcr), the alpha transition temperature is the highest temperature among three inflection points or peaks which appear by measuring the rheological property of the electrode according to the temperature, the beta transition temperature is the middle temperature among three inflection points or peaks which appears by measuring the rheological property of the electrode according to the temperature, wherein the rheological property is a phase angle which is expressed as a following formula 1: δ = tan − 1 G " / G ′, wherein G' denotes a storage modulus, and G" denotes a loss modulus, and wherein the G' and the G" are measured by a rheometer which vibrates in a range of 0.1 to 10 Hz.
A cosmetic spray composition comprising ethanol, DME, and water in proportions of from 11% to 24% by weight ethanol, from 33% to 55% by weight DME, and from 27% to 50% by weight water based upon the total weight of ethanol, DME, and water present in the composition, the weight ratio of DME to ethanol being from 2:1 to 3.5:1, characterised in that it comprises two or more additional deodorant actives including at least one fragrance and at least one anti-microbial agent and in that a particular additional cosmetic active is present in an amount of from 0.1% and the total amount of additional cosmetic actives is 5% or less and in that the ethanol, DME, and water represent at least 95%, all percentages being by weight of the total composition.
A heat dissipation material capable of being arranged between a heat generation unit such as a battery cell, and a heat dissipation unit such as a heat dissipation plate, the heat dissipation material comprising: a plurality of elastic foam pad members; and a graphite member which surrounds the elastic foam pad members for heat conduction, the plurality of elastic foam members being capable of buffering the graphite member from an external force and allowing the graphite member to be in close contact with both the heat generation unit and the heat dissipation unit, wherein the graphite member surrounds each of the plurality of elastic foam pad members, and wherein the graphite member is provided to surround each of a pair of the elastic foam pad members, so that one of both side ends of the graphite member surrounds any one of the pair of elastic foam pad members, and the other of both side ends of the graphite member surrounds the other one of the pair of elastic foam pad members, so that heat transfer efficiency is improved. a plurality of elastic foam pad members; and a graphite member which surrounds the elastic foam pad members for heat conduction, the plurality of elastic foam members being capable of buffering the graphite member from an external force and allowing the graphite member to be in close contact with both the heat generation unit and the heat dissipation unit, wherein the graphite member surrounds each of the plurality of elastic foam pad members, and wherein the graphite member is provided to surround each of a pair of the elastic foam pad members, so that one of both side ends of the graphite member surrounds any one of the pair of elastic foam pad members, and the other of both side ends of the graphite member surrounds the other one of the pair of elastic foam pad members, so that heat transfer efficiency is improved.