mhurhangee/patent-ind-claim-en huggingface dataset:
A profile adjustment method of adjusting a profile to be used to convert first coordinate values of a first color space (CS4) into second coordinate values of a second color space (CS5), the profile adjustment method comprising: (ST1) accepting a first input profile defining a correspondence relationship between the first coordinate values and third coordinate values of a profile connection space (CS3), as a first component combined with an output profile defining a correspondence relationship between the third coordinate values and the second coordinate values; (ST2) accepting at least one of (i) a second input profile defining a correspondence relationship between the first coordinate values and the third coordinate values, and (ii) a spot color expressed with the third coordinate values, as a second component combined with the output profile; (ST3) accepting a first target of adjustment values at coordinates indicating an adjustment target color when the first coordinate values are converted into the second coordinate values according to the first component and the output profile; (ST4) accepting a second target of adjustment values at coordinates indicating an adjustment target color when at least one of the first coordinate values and the third coordinate values is converted into the second coordinate values according to the second component and the output profile; and (ST7) adjusting the output profile based on both of the accepted first and second targets to provide an adjusted output profile which has been adjusted based on both of the accepted first and second targets. (ST1) accepting a first input profile defining a correspondence relationship between the first coordinate values and third coordinate values of a profile connection space (CS3), as a first component combined with an output profile defining a correspondence relationship between the third coordinate values and the second coordinate values; (ST2) accepting at least one of (i) a second input profile defining a correspondence relationship between the first coordinate values and the third coordinate values, and (ii) a spot color expressed with the third coordinate values, as a second component combined with the output profile; (ST3) accepting a first target of adjustment values at coordinates indicating an adjustment target color when the first coordinate values are converted into the second coordinate values according to the first component and the output profile; (ST4) accepting a second target of adjustment values at coordinates indicating an adjustment target color when at least one of the first coordinate values and the third coordinate values is converted into the second coordinate values according to the second component and the output profile; and (ST7) adjusting the output profile based on both of the accepted first and second targets to provide an adjusted output profile which has been adjusted based on both of the accepted first and second targets.
A co-fired generator comprising: a first heat exchanger ; an annulus configured to contain a first fluid, the annulus having an interior surface and an exterior surface , the interior surface in thermal communication with the first heat exchanger and positioned to transfer heat to the annulus via the interior surface; and a second heat exchanger having an inlet and an outlet , in thermal communication with the exterior surface of the annulus by surrounding said annulus, configured to provide a thin layer of heat transfer liquid or gas and positioned to transfer heat to the annulus via the exterior surface; the inlet coupling the second heat exchanger to a heating device for providing a heated second fluid to the second heat exchanger in order to heat the first fluid from the exterior as the first heat exchanger heats the first fluid from the interior; and a control system comprising a controller , a pump , and one or more temperature sensors , wherein the control system is configured to circulate the heated second fluid through the second heat exchanger via the pump when a temperature of the heated second fluid is above a temperature of the exterior surface of the annulus based on data from the one or more temperature sensors . a first heat exchanger ; an annulus configured to contain a first fluid, the annulus having an interior surface and an exterior surface , the interior surface in thermal communication with the first heat exchanger and positioned to transfer heat to the annulus via the interior surface; and a second heat exchanger having an inlet and an outlet , in thermal communication with the exterior surface of the annulus by surrounding said annulus, configured to provide a thin layer of heat transfer liquid or gas and positioned to transfer heat to the annulus via the exterior surface; the inlet coupling the second heat exchanger to a heating device for providing a heated second fluid to the second heat exchanger in order to heat the first fluid from the exterior as the first heat exchanger heats the first fluid from the interior; and a control system comprising a controller , a pump , and one or more temperature sensors , wherein the control system is configured to circulate the heated second fluid through the second heat exchanger via the pump when a temperature of the heated second fluid is above a temperature of the exterior surface of the annulus based on data from the one or more temperature sensors .
A mould tool temperature management system comprising: a first fluid-based temperature control assembly configured to control the temperature of a first zone of a workpiece , the first fluid-based temperature control assembly having a first in-line fluid heater and a fluid exhaust, a second fluid-based temperature control assembly arranged to control the temperature of a second zone of a workpiece, in which the second fluid-based temperature control assembly has an input in fluid communication with the exhaust of the first fluid-based temperature control assembly via a first fluid transfer conduit such that exhaust fluid from the first fluid-based temperature control assembly is reused in the second fluid-based temperature control assembly, in which the first fluid transfer conduit comprises a second in-line fluid heater . a first fluid-based temperature control assembly configured to control the temperature of a first zone of a workpiece , the first fluid-based temperature control assembly having a first in-line fluid heater and a fluid exhaust, a second fluid-based temperature control assembly arranged to control the temperature of a second zone of a workpiece, in which the second fluid-based temperature control assembly has an input in fluid communication with the exhaust of the first fluid-based temperature control assembly via a first fluid transfer conduit such that exhaust fluid from the first fluid-based temperature control assembly is reused in the second fluid-based temperature control assembly, in which the first fluid transfer conduit comprises a second in-line fluid heater .
A twirling flame heater , comprising: a glass tube with a vertical flow path; a central mechanism with a gas distributor distributing combustible gas into the glass tube ; an ignitor installed on the central mechanism with igniting terminals communicably disposed in the vertical flow path of the glass tube ; a plurality of air channels with a plurality of horizontal flow paths in the central mechanism wherein the horizontal flow paths are communicably connected to the vertical flow path of the glass tube ; wherein upon igniting a spark between the igniting terminals , the combustible gas combusted into a flame generating a heat wave in the glass tube ; and wherein the heat wave rises along the vertical flow path and air enters from the plurality of air channels along the plurality of horizontal flow paths into the glass tube to create a flow turbulence producing the twirling flame , wherein the central mechanism comprises a chamber formed by a circular top layer with a center circular opening, and a circular sublayer both surrounded by a cylindrical exterior surface . a glass tube with a vertical flow path; a central mechanism with a gas distributor distributing combustible gas into the glass tube ; an ignitor installed on the central mechanism with igniting terminals communicably disposed in the vertical flow path of the glass tube ; a plurality of air channels with a plurality of horizontal flow paths in the central mechanism wherein the horizontal flow paths are communicably connected to the vertical flow path of the glass tube ; wherein upon igniting a spark between the igniting terminals , the combustible gas combusted into a flame generating a heat wave in the glass tube ; and wherein the heat wave rises along the vertical flow path and air enters from the plurality of air channels along the plurality of horizontal flow paths into the glass tube to create a flow turbulence producing the twirling flame , wherein the central mechanism comprises a chamber formed by a circular top layer with a center circular opening, and a circular sublayer both surrounded by a cylindrical exterior surface .
Sports shoe comprising: • an external bottom assembly having a damping layer extending over substantially the entire length (L33) of the external bottom assembly, • an upper fixed to the external bottom assembly, the upper having ∘ an envelope intended to surround part of the user's foot and ∘ an inextensible flexible panel fixed to the envelope at a portion of the lateral join between the upper and the external sole, wherein the sports shoe moreover comprises a reinforcement composed of a rigid plastics material having a Shore D hardness greater than 40, the reinforcement having a lateral wing fixed to part of a lateral edge of the damping layer and to an external face of the flexible panel. • an external bottom assembly having a damping layer extending over substantially the entire length (L33) of the external bottom assembly, • an upper fixed to the external bottom assembly, the upper having ∘ an envelope intended to surround part of the user's foot and ∘ an inextensible flexible panel fixed to the envelope at a portion of the lateral join between the upper and the external sole, ∘ an envelope intended to surround part of the user's foot and ∘ an inextensible flexible panel fixed to the envelope at a portion of the lateral join between the upper and the external sole,
A temperature detection material comprising a temperature-indicating material including a leuco dye, a color developer, and a color eraser, and a matrix material , wherein the matrix material is a nonpolar material; wherein a melting point of the matrix material is higher than a melting point of the temperature-indicating material ; wherein the matrix material is such that the leuco dye, the color developer, and the color eraser do not dissolve in the matrix material ; characterised in that the matrix material is in a solid state at the operating temperature of the temperature detection material , and wherein the temperature detection material forms a phase separation structure which is a structure formed by dispersing a phase including the leuco dye, the color developer, and the color eraser in the matrix material ; and wherein the phase separation structure is configured to have a long diameter of a phase including the temperature-indicating material dispersed in the Hitachi Industrial Equipment Systems Co., Ltd. 213160PCEP matrix material of 100 nm to 1 mm, and wherein the long diameter of a phase including the temperature-indicating material is the long diameter of an approximate ellipse obtained by approximating the phase including the temperature-indicating material to an ellipse. wherein the matrix material is a nonpolar material; wherein a melting point of the matrix material is higher than a melting point of the temperature-indicating material ; wherein the matrix material is such that the leuco dye, the color developer, and the color eraser do not dissolve in the matrix material ; characterised in that the matrix material is in a solid state at the operating temperature of the temperature detection material , and wherein the temperature detection material forms a phase separation structure which is a structure formed by dispersing a phase including the leuco dye, the color developer, and the color eraser in the matrix material ; and wherein the phase separation structure is configured to have a long diameter of a phase including the temperature-indicating material dispersed in the Hitachi Industrial Equipment Systems Co., Ltd. 213160PCEP matrix material of 100 nm to 1 mm, and wherein the long diameter of a phase including the temperature-indicating material is the long diameter of an approximate ellipse obtained by approximating the phase including the temperature-indicating material to an ellipse.
A process for isolating cells of interest from a sample mixture (M) comprising polluting cells comprising one or more known surface markers , the process comprising a filtration step (S1) through a membrane , wherein the sample mixture (M) is passing through a membrane following a filtration flow (F1), wherein the membrane is provided with pores and with linkers , characterized in that the process comprises a crosslinking step (S3) allowing to bind the polluting cells to the membrane by the mean of a crosslinking element and to maintain the cells of interest unbound and a retrieving step (S5), allowing to collect the cells of interest , wherein said crosslinking element comprises at least one binding element able to specifically bind to said one or more surface marker of the polluting cells or a subpopulation of polluting cells , and at least one linking element adapted to cooperate with the linkers of the membrane and wherein the filtration step (S1) provides a waste mixture (M1) eluted through the membrane and a retrieved mixture (M2) remaining within the membrane , and in that the size and the shape of the pores are determined in a way to maintain the cells of interest within the retrieved mixture (M2).
A hood with a condenser for a commercial oven, in particular a combination steam-convection oven, comprising a housing , an air inlet for supplying cooling air from the outside, a fan drawing in the cooling air through the air inlet, a cooling air outlet for expelling the air drawn in by the fan , a steam condenser in the form of a heat exchanger with a coil having at least one inlet opening for supplying steam from the inside of a commercial oven to the coil and at least one outlet opening for draining the condensate coming out of the coil , whereas a radial fan blows cooling air radially onto the at least one coil , characterised in that the heat exchanger comprises at least one coil surrounding the fan , wherein the at least one coil has an external finning .
A dry powder formulation for inhalation comprising: - vilanterol or a pharmaceutically acceptable salt thereof, - coarse carrier, - fine carrier, and - magnesium stearate, characterized in that the ratio of the volume median diameter of the fine carrier to the volume median diameter of the magnesium stearate is 1:1 and the volume median diameter of the magnesium stearate is between 1μm and 120 μm. - vilanterol or a pharmaceutically acceptable salt thereof, - coarse carrier, - fine carrier, and - magnesium stearate,
A heat-dissipation lamp cup, comprising a light source board , a heat transfer layer and an insulation layer made from heat conductive plastic, the insulation layer being disposed on a periphery of the heat transfer layer , the heat transfer layer comprises a heat conductive portion and a heat transfer portion , a thermal communication is established between the heat conductive portion and the light source board , and the heat conductive portion is disposed to be inclined relative to the heat transfer portion ; wherein the heat-dissipation lamp cup further comprises a heat transfer wall , a thermal communication is established between one end of the heat transfer wall and the heat conductive portion , and a thermal communication is established between the other end of the heat transfer wall and the heat transfer portion , and the insulation layer is disposed outside of the heat transfer layer and heat transfer wall , characterized in that an opening is provided in the heat transfer wall , and the insulation layer , disposed outside of the heat transfer layer and the heat transfer wall , extends into the opening .
A vehicle comprising an imaging system , the imaging system comprising: an image sensor ; an electrowetting lens (30; 30a) positioned in front of the image sensor and configured to change at least one optical characteristic in response to an electrical stimulus so as to change a field of view of the image sensor; and a controller coupled to the electrowetting lens (30; 30a) and configured to select a field of view of the image sensor by selecting the electrical stimulus to be applied to the electrowetting lens (30; 30a), the imaging system characterized in that the imaging system is an interior vision camera of the vehicle, wherein the controller selects two different electrical stimuli so as to alternate the field of view of the image sensor back and forth to obtain a first image stream with a first field of view and a second image stream with a second field of view, wherein the controller either supplies the first image stream to a first display and supplies the second image stream to a second display , or supplies the first image stream and the second image stream to the first display to be displayed simultaneously in different display areas of the first display , wherein the interior vision camera is configured to capture images inside the vehicle and to display the first image stream and the second image stream to a driver or occupants of the vehicle, and wherein a change in the field of view is effectuated by automatic control. an image sensor ; an electrowetting lens (30; 30a) positioned in front of the image sensor and configured to change at least one optical characteristic in response to an electrical stimulus so as to change a field of view of the image sensor; and a controller coupled to the electrowetting lens (30; 30a) and configured to select a field of view of the image sensor by selecting the electrical stimulus to be applied to the electrowetting lens (30; 30a), the imaging system characterized in that the imaging system is an interior vision camera of the vehicle, wherein the controller selects two different electrical stimuli so as to alternate the field of view of the image sensor back and forth to obtain a first image stream with a first field of view and a second image stream with a second field of view, wherein the controller either supplies the first image stream to a first display and supplies the second image stream to a second display , or supplies the first image stream and the second image stream to the first display to be displayed simultaneously in different display areas of the first display , wherein the interior vision camera is configured to capture images inside the vehicle and to display the first image stream and the second image stream to a driver or occupants of the vehicle, and wherein a change in the field of view is effectuated by automatic control.
A latch for use with a remotely adjustable decking system to selectively position a bracket upon a track , comprising: a rotating portion rotatably mounted upon the bracket and is biased by a first spring ; characterized in that the latch further comprises: a guide rotatably connected to the rotating portion and biased toward the rotating portion by a second spring .
A nonaqueous electrolytic solution prepared by dissolving a quaternary ammonium salt represented by General Formula (I) : wherein X - represents a counter ion selected from the group consisting of PF 6 - , BF 4 - , AsF 6 - , N(CF 3 SO 3 ) 2 - , N(FSO 3 ) 2 - , SbF 6 - , and RfSO 3 wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, as an electrolyte in a nonaqueous solvent, the nonaqueous electrolytic solution comprising: a diethylpyrrolidinium salt represented by General Formula (II-1): wherein Y - represents a counter ion selected from the group consisting of PF 6 - , BF 4 - , AsF 6 - , N(CF 3 SO 3 ) 2 - , N(FSO 3 ) 2 - , SbF 6 - , and RfSO 3 - wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, and may be the same as or different from the counter ion (X - ) contained in General Formula (I)); and/or a 1-ethyl-1,3-dimethylpyrrolidinium salt represented by General Formula (II-2): wherein Z - represents a counter ion selected from the group consisting of PF 6 - , BF 4 - , AsF 6 - , N(CF 3 SO 3 ) 2 - , N(FSO 3 ) 2 - , SbF 6 - , and Rf SO 3 - wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, and may be the same as or different from the counter ion (X - ) contained in General Formula (I), wherein the diethylpyrrolidinium salt represented by General Formula (II-1) and/or the 1-ethyl-1,3-dimethylpyrrolidinium salt represented by General Formula (II-2) are comprised at a concentration of 0.1 ppm to 30,000 ppm. wherein Y - represents a counter ion selected from the group consisting of PF 6 - , BF 4 - , AsF 6 - , N(CF 3 SO 3 ) 2 - , N(FSO 3 ) 2 - , SbF 6 - , and RfSO 3 - wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, and may be the same as or different from the counter ion (X - ) contained in General Formula (I)); and/or a 1-ethyl-1,3-dimethylpyrrolidinium salt represented by General Formula (II-2):
Polyisocyanurate foam obtainable by reacting a mixture in the presence of a catalyst and optionally an initiator, comprising: A) a polyisocyanate component comprising at least one aliphatic polyisocyanate; B) an isocyanate-reactive component comprising at least one polyol and/or an alcohol and also optionally an amine; C) at least one blowing agent; D) at least one foam stabilizer and E) optionally at least one additive, characterized in that the mixture has an index of at least 500. A) a polyisocyanate component comprising at least one aliphatic polyisocyanate; B) an isocyanate-reactive component comprising at least one polyol and/or an alcohol and also optionally an amine; C) at least one blowing agent; D) at least one foam stabilizer and E) optionally at least one additive, characterized in that the mixture has an index of at least 500. characterized in that the mixture has an index of at least 500.
A method for guiding a motor vehicle on the basis of image data when autonomously driving the motor vehicle in platooning formation following a leading vehicle, by a steering controller coupled to a steering system, and a headway controller controlling a vehicle's interdistance relative to the leading vehicle, said method comprising: controlling, by the steering controller, the vehicle's lateral distance relative to a first lane side, said steering controller receiving inputs from a first lane side detector mounted on a vehicle's first front side location, and from a second lane side detector mounted on a vehicle's second front side location opposing said vehicle's first front side location, wherein said first and second detectors are spaced apart over a distance equal or wider than the vehicle's width.