mhurhangee/ep-ind-claims huggingface dataset:
A modular system comprising a first component comprising an LED driver, a second component comprising a light engine and characterised in that the modular system further comprises a third component comprising an interface module, the interface module comprising: - an input terminal for connecting to an output terminal of the LED driver; - an output terminal for connecting to an input terminal of the light engine; - a switch assembly for controlling a current received via the input terminal from the LED driver and provided to the light engine via the output terminal; - a control unit having an input terminal for receiving a set point representing a desired illumination characteristic of the light engine, the control unit further having a processing unit for processing the set point and determining control signals for the switch assembly, wherein the control unit is configured to determine a current modulation scheme and a duty cycle modulation scheme for the LED driver, suitable for the light engine, based on the set point. - an input terminal for connecting to an output terminal of the LED driver; - an output terminal for connecting to an input terminal of the light engine; - a switch assembly for controlling a current received via the input terminal from the LED driver and provided to the light engine via the output terminal; - a control unit having an input terminal for receiving a set point representing a desired illumination characteristic of the light engine, the control unit further having a processing unit for processing the set point and determining control signals for the switch assembly, wherein the control unit is configured to determine a current modulation scheme and a duty cycle modulation scheme for the LED driver, suitable for the light engine, based on the set point.
A video decoding apparatus comprising: a dequantization portion for dequantizing and normalizing a matrix of quantized values L[i][j], to derive a matrix of integer transform coefficients K[i][j]; an inverse integer transformation portion for inverse integer transforming the matrix of the integer transform coefficients K[i][j], where the basis functions of the inverse integer transformation have different norms, and a normalization portion for further normalising the inverse integer transformed coefficients using a single scalar value 2 N, thereby obtaining decoded video samples, characterized in that: the matrix of the integer transform coefficients K[i][j] is derived by multiplying the matrix of the quantized values L[i][j] by a mantissa portion Bm [i][j] of a combined dequantization and normalization matrix B [i][j] and by an exponential portion 2 Be [j][j] of the combined dequantization and normalization matrix, wherein the mantissa portion Bm [i][j] is a periodic function of QP with period P, where P is an integer and a constant, wherein Be [i][j] is a function of QP, is independent of i, j and QP in the range [0,P-1], and has the structure Be [i][j] = Be + QP/P, where QP/P represents the integer obtained truncating towards zero the result of dividing QP by P, and where Be is a constant, and wherein the combined dequantization and normalization matrix B [i][j] = Bm [i][j]*2 Be [i][j] is defined so that all integer transform coefficients K[i][j] have the same normalization and has values that are doubled each period P. a dequantization portion for dequantizing and normalizing a matrix of quantized values L[i][j], to derive a matrix of integer transform coefficients K[i][j]; an inverse integer transformation portion for inverse integer transforming the matrix of the integer transform coefficients K[i][j], where the basis functions of the inverse integer transformation have different norms, and a normalization portion for further normalising the inverse integer transformed coefficients using a single scalar value 2 N, thereby obtaining decoded video samples, characterized in that: the matrix of the integer transform coefficients K[i][j] is derived by multiplying the matrix of the quantized values L[i][j] by a mantissa portion Bm [i][j] of a combined dequantization and normalization matrix B [i][j] and by an exponential portion 2 Be [j][j] of the combined dequantization and normalization matrix, wherein the mantissa portion Bm [i][j] is a periodic function of QP with period P, where P is an integer and a constant, wherein Be [i][j] is a function of QP, is independent of i, j and QP in the range [0,P-1], and has the structure Be [i][j] = Be + QP/P, where QP/P represents the integer obtained truncating towards zero the result of dividing QP by P, and where Be is a constant, and wherein the combined dequantization and normalization matrix B [i][j] = Bm [i][j]*2 Be [i][j] is defined so that all integer transform coefficients K[i][j] have the same normalization and has values that are doubled each period P.
An arc welding system, comprising: a welding power supply comprising a switching type power converter; a welding electrode operatively connected to the switching type power converter to receive electrical energy from the switching type power converter and produce an electric arc from the arc welding system; characterized in a first variable-frequency auxiliary power supply for supplying electrical energy to an auxiliary load through an auxiliary power output of the arc welding system, the first auxiliary power supply comprising an inverter; an engine-generator operatively connected to the welding power supply and the first variable-frequency auxiliary power supply, to supply electrical energy to the welding power supply to produce the electric arc, and to supply further electrical energy to the inverter of the first variable-frequency auxiliary power supply; and a controller operatively connected to the first variable-frequency auxiliary power supply and configured to control an output voltage frequency of the first variable-frequency auxiliary power supply according to an auxiliary power supply frequency setting, wherein the output voltage frequency of the first variable-frequency auxiliary power supply is independent from an engine speed of the engine-generator. a welding power supply comprising a switching type power converter; a welding electrode operatively connected to the switching type power converter to receive electrical energy from the switching type power converter and produce an electric arc from the arc welding system; characterized in a first variable-frequency auxiliary power supply for supplying electrical energy to an auxiliary load through an auxiliary power output of the arc welding system, the first auxiliary power supply comprising an inverter; an engine-generator operatively connected to the welding power supply and the first variable-frequency auxiliary power supply, to supply electrical energy to the welding power supply to produce the electric arc, and to supply further electrical energy to the inverter of the first variable-frequency auxiliary power supply; and a controller operatively connected to the first variable-frequency auxiliary power supply and configured to control an output voltage frequency of the first variable-frequency auxiliary power supply according to an auxiliary power supply frequency setting, wherein the output voltage frequency of the first variable-frequency auxiliary power supply is independent from an engine speed of the engine-generator.
A Tenacibaculum isolate involved in the development of tenacibaculosis in farmed fish, wherein said isolate is deposited under the Budapest Treaty with the Leibniz Institute DSMZ-German Collection of Microorganisms and Cell Cultures (DSMZ) on 4 th March 2014 under deposit number DSM 28541.
A stern duct mounted in front of a propeller mounted on a stern of a ship's hull, characterised in that a duct body is formed into an arc shape of an angle range (β) from 90° to 140°, a radius (Rr) of a rear end arc portion formed on a rear end of the duct body is set to 50% or less and 20% or more of a radius of the propeller, and the duct body is mounted on the stern by support means such that a duct center line (Yd) of the duct body inclines in a rotation direction of the propeller with respect to a propeller center line (Xv) in a vertical direction of the propeller in a state where the ship's hull is forwardly viewed from backward. a duct body is formed into an arc shape of an angle range (β) from 90° to 140°, a radius (Rr) of a rear end arc portion formed on a rear end of the duct body is set to 50% or less and 20% or more of a radius of the propeller, and the duct body is mounted on the stern by support means such that a duct center line (Yd) of the duct body inclines in a rotation direction of the propeller with respect to a propeller center line (Xv) in a vertical direction of the propeller in a state where the ship's hull is forwardly viewed from backward.
A two-stroke type internal-combustion engine comprising at least one cylinder with a combustion chamber, at least one exhaust means with an exhaust manifold controlled by an exhaust valve, air intake channels wherein supercharged intake air circulates and which open into said chamber through ports, comprising mobile means for multi-directional orientation of the supercharged air stream into combustion chamber, characterized in that the mobile multi-directional orientation means comprise an angularly mobile nozzle.
Polypeptide or multivalent construct comprising or essentially consisting of at least two amino acid sequences that are directed against and can specifically bind to RANK-L chosen from the group consisting of SEQ ID NO: 572 and SEQ ID NO's: 750-756.
A washable baseball cap comprising: a stretchable scalp wrapper to secure the user's hair to the user's scalp; an outer cap, which provides an air chamber between the user's scalp and the roof of the outer cap; characterized in that the outer cap comprises shutters, each shutter comprising: an open close mechanism to regulate the level of ventilation around the user's scalp. an open close mechanism to regulate the level of ventilation around the user's scalp.
A device (DISP) for aiding in improving the posture of a user including: ▪ a belt comprising a front part and a rear part, ▪ a first side tensioner comprising a first end and a second end and a second side tensioner comprising a first end and a second end, the first ends (201, 301) of the first side tensioner and second side tensioner joining each other at a stimulation zone, ▪ an elastic connection comprising a first end attached to the rear part of the belt and a second end attached to the stimulation zone, said elastic connection being built and arranged so that when the rear part of the belt is positioned on the posterior-superior iliac spines of the user, the stimulation zone is positioned between the third lumbar vertebra and fifth lumbar vertebra of the user characterised in that it includes an element positioned on the stimulation zone, said element having an apex positioned on the fifth lumbar vertebra L5 when the device (DISP) is worn by the user. ▪ a belt comprising a front part and a rear part, ▪ a first side tensioner comprising a first end and a second end and a second side tensioner comprising a first end and a second end, the first ends (201, 301) of the first side tensioner and second side tensioner joining each other at a stimulation zone, ▪ an elastic connection comprising a first end attached to the rear part of the belt and a second end attached to the stimulation zone, said elastic connection being built and arranged so that when the rear part of the belt is positioned on the posterior-superior iliac spines of the user, the stimulation zone is positioned between the third lumbar vertebra and fifth lumbar vertebra of the user
A method of printing comprising the steps of i) providing a substrate, ii) printing a first layer on the substrate provided in step i) using a first printing medium by means of inkjet printing, iii) irradiating the first layer printed in step ii) with UV radiation to effect at least partial curing of said first layer, iv) printing at least one further layer on the first layer at least partially cured in step iii) using a second printing medium by means of inkjet printing, wherein the second printing medium does not essentially comprise a photoinitiator, and v) irradiating the at least one further layer printed in step iv) with UV radiation to effect curing of said at least one further layer, characterized in that the first printing medium comprises at least one compound which is a stable radical or forms a stable radical, wherein the stable radical is present in the form of the free radical at least for the duration of the printing process, wherein the at least one compound which is a stable radical or forms a stable radical is a photoinitiator, and wherein the at least one compound which is a stable radical or forms a stable radical is selected from radical organic N-oxides, carbon radicals and radical organic nitrogen compounds. i) providing a substrate, ii) printing a first layer on the substrate provided in step i) using a first printing medium by means of inkjet printing, iii) irradiating the first layer printed in step ii) with UV radiation to effect at least partial curing of said first layer, iv) printing at least one further layer on the first layer at least partially cured in step iii) using a second printing medium by means of inkjet printing, wherein the second printing medium does not essentially comprise a photoinitiator, and v) irradiating the at least one further layer printed in step iv) with UV radiation to effect curing of said at least one further layer, characterized in that the first printing medium comprises at least one compound which is a stable radical or forms a stable radical, wherein the stable radical is present in the form of the free radical at least for the duration of the printing process, wherein the at least one compound which is a stable radical or forms a stable radical is a photoinitiator, and wherein the at least one compound which is a stable radical or forms a stable radical is selected from radical organic N-oxides, carbon radicals and radical organic nitrogen compounds. the first printing medium comprises at least one compound which is a stable radical or forms a stable radical, wherein the stable radical is present in the form of the free radical at least for the duration of the printing process, wherein the at least one compound which is a stable radical or forms a stable radical is a photoinitiator, and wherein the at least one compound which is a stable radical or forms a stable radical is selected from radical organic N-oxides, carbon radicals and radical organic nitrogen compounds.
Refrigerated transport container equipped with a transport refrigeration unit, a cargo box, a compressor, a condenser/gas cooler module isolated from the cargo box by a partition wall, and an evaporator module in air flow communication with the cargo box, through a return air opening and a supply air opening in a back panel of the transport refrigeration unit forming a front wall of the cargo box; wherein the condenser/gas cooler module includes a condenser/gas cooler heat exchanger functioning as a refrigerant heat rejection heat exchanger and positioned in association with one or more condenser/gas cooler fans for drawing ambient air from outside the cargo box and for passing that air through the condenser/gas cooler heat exchanger and exhausting that air back into the environment outside the cargo box; wherein the evaporator module includes an evaporator heat exchanger constituting a refrigerant heat absorption heat exchanger, and one or more evaporator fans configured to draw a first flow of air from the cargo box through the return air opening to pass through the evaporator heat exchanger and to supply the conditioned air back into the cargo box through the supply air opening; and a regenerative scrubber system through which the first flow of air from within the cargo box is circulated for removing carbon dioxide from the atmosphere within the cargo box, the regenerative scrubber system comprising a scrubber module containing an adsorbent material; an actuator for moving the scrubber module to pass the adsorbent material alternately between the first flow of air, and a second flow of air formed by the ambient air drawn by a dedicated fan separate from the condenser/gas cooler fan from an environment outside the cargo box for regenerating the adsorbent material by removing collected carbon dioxide from the adsorbent material and exhausting the collected carbon dioxide into the atmosphere outside the cargo box; wherein the compressor, the condenser/gas cooler heat exchanger and the evaporator heat exchanger are disposed in refrigeration cycle arrangement; and wherein the refrigerated transport container is configured such that the second flow of air is drawn by the dedicated fan separate from the condenser/gas cooler fan and passes through the adsorbent material; characterized in that the adsorbent material is a carbon dioxide adsorbent material; and the refrigerated transport container is configured such that the first flow of air passes first through the carbon dioxide adsorbent material and then through the evaporator heat exchanger.
An image processing apparatus for forming an image on a recording medium, the image processing apparatus comprising: a setting means configured to set whether gloss processing for reproducing a metallic luster is to be executed on a partial area of an image expressed by input image data, based on the input image data; and a recording means configured (a) to record on the partial area a second color material, which is to reduce internal scattering light scattering inside the ink layers and which corresponds to any of a complementary color of the partial area, black, or gray and to record thereon a first color material for reproducing the color of the partial area in a case where the setting means sets execution of the gloss processing, (b) and to record on an other area, being other than the partial area, the first color material for reproducing the color of the other area without having recorded thereunder the second color material in a case where the setting means sets not to execute the gloss processing. a setting means configured to set whether gloss processing for reproducing a metallic luster is to be executed on a partial area of an image expressed by input image data, based on the input image data; and a recording means configured (a) to record on the partial area a second color material, which is to reduce internal scattering light scattering inside the ink layers and which corresponds to any of a complementary color of the partial area, black, or gray and to record thereon a first color material for reproducing the color of the partial area in a case where the setting means sets execution of the gloss processing, (b) and to record on an other area, being other than the partial area, the first color material for reproducing the color of the other area without having recorded thereunder the second color material in a case where the setting means sets not to execute the gloss processing.
A method for electrolytically converting molecular nitrogen (N 2) to ammonia (NH 3) in an electrochemical cell comprising an anode, a cathode, and an alkaline electrolyte, the method comprising: exposing an anode comprising a first conducting component to a molecular hydrogen (H 2) containing fluid at a first pressure and first temperature, wherein the first conducting component is active toward adsorption and oxidation of H 2; exposing a cathode comprising a second conducting component to a second fluid containing molecular nitrogen (N 2) and water at a second pressure and second temperature, wherein the second conducting component is active toward adsorption and reduction of N 2 to form NH 3; and applying a voltage between the anode exposed to the H 2 -containing fluid and the cathode exposed to the molecular N 2 -containing fluid so as to facilitate adsorption of hydrogen onto the anode and adsorption of nitrogen onto the cathode; wherein the voltage is sufficient to simultaneously oxidize the H 2 and reduce the N 2; wherein the first and second pressures are independently equal to or less than 10 atmospheres (atm) to 1 atm; and wherein the first and second temperatures are greater than 25°C and less than 205°C, characterized in that the alkaline electrolyte is a gel electrolyte or a liquid and gel electrolyte, the alkaline electrolyte having a pH of at least 8, and in that the second fluid is provided by the step of passing nitrogen through a humidifier, the amount of water in said second fluid being controlled by the humidification of said N 2. exposing an anode comprising a first conducting component to a molecular hydrogen (H 2) containing fluid at a first pressure and first temperature, wherein the first conducting component is active toward adsorption and oxidation of H 2; exposing a cathode comprising a second conducting component to a second fluid containing molecular nitrogen (N 2) and water at a second pressure and second temperature, wherein the second conducting component is active toward adsorption and reduction of N 2 to form NH 3; and applying a voltage between the anode exposed to the H 2 -containing fluid and the cathode exposed to the molecular N 2 -containing fluid so as to facilitate adsorption of hydrogen onto the anode and adsorption of nitrogen onto the cathode; wherein the voltage is sufficient to simultaneously oxidize the H 2 and reduce the N 2; wherein the first and second pressures are independently equal to or less than 10 atmospheres (atm) to 1 atm; and wherein the first and second temperatures are greater than 25°C and less than 205°C, characterized in that the alkaline electrolyte is a gel electrolyte or a liquid and gel electrolyte, the alkaline electrolyte having a pH of at least 8, and in that the second fluid is provided by the step of passing nitrogen through a humidifier, the amount of water in said second fluid being controlled by the humidification of said N 2.