mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (102, 202, 300) for mounting a thermostatic device (101, 201) to a hydronic heating/cooling system, the apparatus comprising: a male section (301, 501, 651) comprising a flange and an indentation (604, 702) around the male section below and along the flange, the flange located at an upper end of the male section; and a female section (302, 652) comprising a main body (507, 601), a slide sleeve (502, 605), and a latching mechanism, the female section configured to attach to the male section by the latching mechanism locking onto the indentation of the male section in a lock state when the slide sleeve is in a lower position along the main body, the latching mechanism releasing from the indentation of the male section in a release state when the slide sleeve is in an upper position along the main body, the female section configured to attach to the thermostatic device, characterized in that; the male section comprises a threaded lower end and is configured to attach to a component (103, 203) of the hydronic heating/cooling system by threading the threaded lower end onto the component of the hydronic heating/cooling system, and the female section comprises a retention mechanism configured to maintain the apparatus in the lock state by generating a downward force on the latching mechanism. a male section (301, 501, 651) comprising a flange and an indentation (604, 702) around the male section below and along the flange, the flange located at an upper end of the male section; and a female section (302, 652) comprising a main body (507, 601), a slide sleeve (502, 605), and a latching mechanism, the female section configured to attach to the male section by the latching mechanism locking onto the indentation of the male section in a lock state when the slide sleeve is in a lower position along the main body, the latching mechanism releasing from the indentation of the male section in a release state when the slide sleeve is in an upper position along the main body, the female section configured to attach to the thermostatic device, characterized in that; the male section comprises a threaded lower end and is configured to attach to a component (103, 203) of the hydronic heating/cooling system by threading the threaded lower end onto the component of the hydronic heating/cooling system, and the female section comprises a retention mechanism configured to maintain the apparatus in the lock state by generating a downward force on the latching mechanism.
Package for products of the tobacco industry, having an inner pack for receiving the pack content, and an outer pack for receiving the inner pack, wherein the inner pack is designed as a (tobacco) pouch which has a resealable opening, and wherein the opening is resealable by a resealable, strip-shaped closure means; and wherein the inner pack in the region of lateral ends of the closure means has pouch corners; and wherein the outer pack has a tray for at least partially receiving the inner pack, and that the tray has retaining elements for the pouch corners, which are specified to secure the pouch corners in a folded position in which the pouch corners bear on lateral walls of the tray, characterized in that the first retaining elements are deactivatable, specifically able to be transferred from a configuration in which they secure the pouch corners in the folded position, to a configuration in which they do not secure the pouch corners in the folded position, so as to transfer the pouch corners from the folded position to an open position in which the closure means for retrieving the pack content is to be opened in such a manner that the first retaining elements are able to be separated from the respective lateral walls, or are able to be folded out of the plane of the respective lateral walls.
A process for producing a mixture of 2 to 40% by weight of glycols dissolved in water with a ratio of between 1: 0.2 to 1: 8 for the selectivity for glycerol: the combined selectivity for ethylene glycol and propylene glycol, of the reaction products produced by said process, which process comprises feeding to a pressurized, continuously stirred tank reactor hydrogen and an aqueous feed solution comprising water and a carbohydrate, wherein the reactor contains a catalyst system which comprises a homogeneous catalyst comprising a tungsten compound and a heterogeneous catalyst comprising a hydrogenolysis metal selected from the groups 8, 9 or 10 of the Periodic Table of the Elements, characterized in that the carbohydrate in the aqueous feed comprises at least 80% of sucrose, by weight based on the total amount of carbohydrate in the aqueous feed.
A process for preparing 2-chloro-3,3,3-trifluoropropene comprising reacting, in the absence of a catalyst, at least one chlorine-containing compound selected from chloropropane of formula, chloropropene of formula and chloropropene of formula: CClX 2 -CHCl-CH 2 Cl CClY 2 -CCl=CH 2 CZ 2 =CCl-CH 2 Cl wherein each of X, Y and Z each independently is Cl or F, with HF under heating in a gas phase at a temperature of 350-450°C.
A display device which is loaded on a vehicle, comprising: a display part that displays a display image which includes a notification image to notify a state of the vehicle in a display region; a frame body that is positioned on the display region of the display part, and is configured to include a plurality of components; and a movement unit that causes at least one component of the plurality of components to move, wherein the display device being characterised in that the frame body is segmented (31, 32) in such a way that at least the one component is moved by the movement unit, and is configured to surround one region of the display region of the display part before segmentation is performed, and in that the display part displays the display image which differs depending on before and after the segmentation is performed on the frame body, and displays the notification image in accordance with a form of the frame body at least one of before and after the segmentation is performed on the frame body. a display part that displays a display image which includes a notification image to notify a state of the vehicle in a display region; a frame body that is positioned on the display region of the display part, and is configured to include a plurality of components; and a movement unit that causes at least one component of the plurality of components to move, wherein the display device being characterised in that the frame body is segmented (31, 32) in such a way that at least the one component is moved by the movement unit, and is configured to surround one region of the display region of the display part before segmentation is performed, and in that the display part displays the display image which differs depending on before and after the segmentation is performed on the frame body, and displays the notification image in accordance with a form of the frame body at least one of before and after the segmentation is performed on the frame body.
A method for the delivery of a catalyst to a polymerization reactor, comprising heating a fluid comprising an inert liquid hydrocarbon in a heat exchanger to vaporize at least a portion of the inert liquid hydrocarbon and form an inert hydrocarbon in gaseous form; contacting a catalyst with a carrier fluid comprising the inert hydrocarbon, the inert hydrocarbon having a normal boiling point of -1°C to 81°C; and flowing the carrier fluid to the polymerization reactor such that the carrier fluid transports the catalyst to the polymerization reactor, wherein the inert hydrocarbon is present in the carrier fluid in a gaseous form or a combination of liquid and gaseous form. heating a fluid comprising an inert liquid hydrocarbon in a heat exchanger to vaporize at least a portion of the inert liquid hydrocarbon and form an inert hydrocarbon in gaseous form; contacting a catalyst with a carrier fluid comprising the inert hydrocarbon, the inert hydrocarbon having a normal boiling point of -1°C to 81°C; and flowing the carrier fluid to the polymerization reactor such that the carrier fluid transports the catalyst to the polymerization reactor, wherein the inert hydrocarbon is present in the carrier fluid in a gaseous form or a combination of liquid and gaseous form.
System (100, 200) for controlling a heat treatment furnace or an endothermic gas generator, the system comprising: a heat treatment furnace or an endothermic gas generator; a controller coupled to the furnace or the gas generator for controlling one or more operating parameters thereof as a function of a set point value of carbon potential or dew point; and a human machine interface coupled to the controller; wherein the human machine interface is adapted to enable the user to enter a measured value of an actual carbon potential or dew point of the furnace or gas generator; said controller characterized by including a memory storing computer-executable instructions that, when executed, generate a compensation factor, the controller adjusting at least one of the one or more operating parameters based on the compensation factor, the computer-executable instructions comprising: transforming a numerical equation for calculating the compensation factor into a homogeneous form; after said transforming, iteratively solving the transformed equation to determine a value of the compensation factor that minimizes a difference between the set point value of carbon potential or dew point and the actual carbon potential or dew point entered directly via the human machine interface. a heat treatment furnace or an endothermic gas generator; a controller coupled to the furnace or the gas generator for controlling one or more operating parameters thereof as a function of a set point value of carbon potential or dew point; and a human machine interface coupled to the controller; wherein the human machine interface is adapted to enable the user to enter a measured value of an actual carbon potential or dew point of the furnace or gas generator; said controller characterized by including a memory storing computer-executable instructions that, when executed, generate a compensation factor, the controller adjusting at least one of the one or more operating parameters based on the compensation factor, the computer-executable instructions comprising: transforming a numerical equation for calculating the compensation factor into a homogeneous form; after said transforming, iteratively solving the transformed equation to determine a value of the compensation factor that minimizes a difference between the set point value of carbon potential or dew point and the actual carbon potential or dew point entered directly via the human machine interface. transforming a numerical equation for calculating the compensation factor into a homogeneous form; after said transforming, iteratively solving the transformed equation to determine a value of the compensation factor that minimizes a difference between the set point value of carbon potential or dew point and the actual carbon potential or dew point entered directly via the human machine interface.
A cosmetic composition, comprising: - an oil phase in an amount of 20 % by weight or more, preferably from 25 % to 50 % by weight, and more preferably from 28 % to 45 % by weight, relative to the total weight of the composition, said oil phase including at least one non-volatile oil, preferably at least one non-volatile hydrocarbon-based oil and/or at least one non-volatile silicone oil, - a pulverulent phase in an amount of 40 % by weight or more, preferably from 50 % to 75 % by weight, and more preferably from 55 % to 70 % by weight, relative to the total weight of the composition, - at least one hydrophobic film-forming polymer, - the cosmetic composition is obtained by a process comprising the steps of: - mixing said oil phase, said hydrophobic film-forming polymer(s), said pulverulent phase, and at least one additional solvent selected from volatile solvents to prepare a slurry; and - shaping said slurry in a container by compression and/or aspiration to prepare the cosmetic composition, and - drying the cosmetic composition. - an oil phase in an amount of 20 % by weight or more, preferably from 25 % to 50 % by weight, and more preferably from 28 % to 45 % by weight, relative to the total weight of the composition, said oil phase including at least one non-volatile oil, preferably at least one non-volatile hydrocarbon-based oil and/or at least one non-volatile silicone oil, - a pulverulent phase in an amount of 40 % by weight or more, preferably from 50 % to 75 % by weight, and more preferably from 55 % to 70 % by weight, relative to the total weight of the composition, - at least one hydrophobic film-forming polymer, - the cosmetic composition is obtained by a process comprising the steps of: - mixing said oil phase, said hydrophobic film-forming polymer(s), said pulverulent phase, and at least one additional solvent selected from volatile solvents to prepare a slurry; and - shaping said slurry in a container by compression and/or aspiration to prepare the cosmetic composition, and - drying the cosmetic composition. - mixing said oil phase, said hydrophobic film-forming polymer(s), said pulverulent phase, and at least one additional solvent selected from volatile solvents to prepare a slurry; and - shaping said slurry in a container by compression and/or aspiration to prepare the cosmetic composition, and - drying the cosmetic composition.
A method for transmitting two modulated signals A 1 +jA 2; jB 1 +B 2 over an optical channel, comprising the steps o f - generating a first mixed carrier signal L 1 +jL 2 comprising a first optical carrier signal L 1 having a first frequency f 1 and a second optical carrier signal L 2 having a second frequency f 1; - generating a second mixed carrier signal jL 1 +L 2 also comprising the first optical carrier signal L 1 and the second optical carrier signal L 2, wherein the first and the second mixed optical carrier signals L 1 +jL 2; jL 1 +L 2 are orthogonal to each other; - modulating the first mixed carrier signal L 1 +jL 2 with a first modulation signal a(t) generating a first modulated signal A 1 +jA 2 and modulating the second mixed carrier signal jL 1 +L 2 with a second modulation signal b(t) generating a second modulated jB 1 +B 2 signal, - combining the modulated signals A 1 +jA 2; jB 1 +B 2 and emitting the combined modulated signal as transmission signal X(t); X A (t); X D (t). - generating a first mixed carrier signal L 1 +jL 2 comprising a first optical carrier signal L 1 having a first frequency f 1 and a second optical carrier signal L 2 having a second frequency f 1; - generating a second mixed carrier signal jL 1 +L 2 also comprising the first optical carrier signal L 1 and the second optical carrier signal L 2, wherein the first and the second mixed optical carrier signals L 1 +jL 2; jL 1 +L 2 are orthogonal to each other; - modulating the first mixed carrier signal L 1 +jL 2 with a first modulation signal a(t) generating a first modulated signal A 1 +jA 2 and modulating the second mixed carrier signal jL 1 +L 2 with a second modulation signal b(t) generating a second modulated jB 1 +B 2 signal, - combining the modulated signals A 1 +jA 2; jB 1 +B 2 and emitting the combined modulated signal as transmission signal X(t); X A (t); X D (t).
A downlink control information, DCI, transmission method, wherein the method comprises: receiving, by a terminal, first DCI, wherein the first DCI comprises first indication information, and the first indication information indicates a first antenna port; and determining, by the terminal based on the first antenna port and antenna port configuration information, whether second DCI exists; wherein a second antenna port indicated by the second DCI and the first antenna port belong to different code division multiplexing, CDM, groups or belong to different antenna port groups; wherein the configuration information comprises an index of a CDM group to which each of a plurality of antenna ports belongs and a maximum quantity of CDM groups that is supported by the terminal; and wherein the determining, by the terminal based on the first antenna port and the configuration information, whether the second DCI exists comprises: determining, by the terminal based on an index of the first antenna port and the index of the CDM group to which each antenna port belongs, information about a CDM group to which the first antenna port belongs; and determining, by the terminal based on the information about the CDM group to which the first antenna port belongs and the maximum quantity of CDM groups that is supported by the terminal, whether the second DCI exists. receiving, by a terminal, first DCI, wherein the first DCI comprises first indication information, and the first indication information indicates a first antenna port; and determining, by the terminal based on the first antenna port and antenna port configuration information, whether second DCI exists; wherein a second antenna port indicated by the second DCI and the first antenna port belong to different code division multiplexing, CDM, groups or belong to different antenna port groups; wherein the configuration information comprises an index of a CDM group to which each of a plurality of antenna ports belongs and a maximum quantity of CDM groups that is supported by the terminal; and wherein the determining, by the terminal based on the first antenna port and the configuration information, whether the second DCI exists comprises: determining, by the terminal based on an index of the first antenna port and the index of the CDM group to which each antenna port belongs, information about a CDM group to which the first antenna port belongs; and determining, by the terminal based on the information about the CDM group to which the first antenna port belongs and the maximum quantity of CDM groups that is supported by the terminal, whether the second DCI exists. determining, by the terminal based on an index of the first antenna port and the index of the CDM group to which each antenna port belongs, information about a CDM group to which the first antenna port belongs; and determining, by the terminal based on the information about the CDM group to which the first antenna port belongs and the maximum quantity of CDM groups that is supported by the terminal, whether the second DCI exists.
A method comprising: receiving two or more overlapping images depicting a landscape underneath an airborne unmanned aerial vehicle, UAV,; generating, based on the two or more overlapping images, a depth map for the landscape; identifying, based on the depth map, regions of the landscape having a depth variance below a threshold value; determining, for each of the regions of the landscape having a depth variance below the threshold value, a landing zone quality score indicative of the depth variance and a semantic type of the region of the landscape; identifying, based on the landing zone quality scores, a suitable location for landing the UAV; and causing the UAV to automatically navigate toward and land on the suitable location, characterized in that generating the depth map comprises: predicting, based on a first pose of the UAV, a first image of the two or more overlapping images captured at the first pose of the UAV, and a second image of the two or more overlapping images, a second pose of the UAV; and determining, based on the first pose, the first image, the second pose, and the second image, a depth of the landscape depicted in the first image. receiving two or more overlapping images depicting a landscape underneath an airborne unmanned aerial vehicle, UAV,; generating, based on the two or more overlapping images, a depth map for the landscape; identifying, based on the depth map, regions of the landscape having a depth variance below a threshold value; determining, for each of the regions of the landscape having a depth variance below the threshold value, a landing zone quality score indicative of the depth variance and a semantic type of the region of the landscape; identifying, based on the landing zone quality scores, a suitable location for landing the UAV; and causing the UAV to automatically navigate toward and land on the suitable location, characterized in that generating the depth map comprises: predicting, based on a first pose of the UAV, a first image of the two or more overlapping images captured at the first pose of the UAV, and a second image of the two or more overlapping images, a second pose of the UAV; and determining, based on the first pose, the first image, the second pose, and the second image, a depth of the landscape depicted in the first image. predicting, based on a first pose of the UAV, a first image of the two or more overlapping images captured at the first pose of the UAV, and a second image of the two or more overlapping images, a second pose of the UAV; and determining, based on the first pose, the first image, the second pose, and the second image, a depth of the landscape depicted in the first image.
A structured substrate comprising: a substrate body having an active side, the substrate body including reaction cavities (106, 664) that open along the active side and interstitial regions that separate the reaction cavities (106, 664); and an ensemble amplifier (120, 602, 668, 668A, 668B) positioned within each of the reaction cavities (106, 664), the ensemble amplifier (120, 602, 668, 668A, 668B) including a plurality of nanostructures (116, 604, 606) configured to at least one of amplify electromagnetic energy that propagates into the corresponding reaction cavity (106, 664) or amplify electromagnetic energy that is generated within the corresponding reaction cavity (106, 664); wherein the ensemble amplifier (120, 602, 668, 668A, 668B) is a polarized amplifier that is configured to preferentially respond to electromagnetic energy of a predetermined polarization; wherein the electromagnetic energy is light energy; and wherein the reaction cavities (106, 664) include a first set of reaction cavities and a second set of reaction cavities, the first set of reaction cavities preferentially responding to a first polarized light over a second polarized light and the second set of reaction cavities preferentially responding to the second polarized light over the first polarized light. a substrate body having an active side, the substrate body including reaction cavities (106, 664) that open along the active side and interstitial regions that separate the reaction cavities (106, 664); and an ensemble amplifier (120, 602, 668, 668A, 668B) positioned within each of the reaction cavities (106, 664), the ensemble amplifier (120, 602, 668, 668A, 668B) including a plurality of nanostructures (116, 604, 606) configured to at least one of amplify electromagnetic energy that propagates into the corresponding reaction cavity (106, 664) or amplify electromagnetic energy that is generated within the corresponding reaction cavity (106, 664); wherein the ensemble amplifier (120, 602, 668, 668A, 668B) is a polarized amplifier that is configured to preferentially respond to electromagnetic energy of a predetermined polarization; wherein the electromagnetic energy is light energy; and wherein the reaction cavities (106, 664) include a first set of reaction cavities and a second set of reaction cavities, the first set of reaction cavities preferentially responding to a first polarized light over a second polarized light and the second set of reaction cavities preferentially responding to the second polarized light over the first polarized light.