mhurhangee/ep-ind-claims huggingface dataset:
Method for transferring a pattern from a stamping surface of a stamp to a receiving surface of a substrate, wherein at least one of the stamping surface and the receiving surface is flexible, wherein successive transfer areas, in which the stamp locally transfers the pattern to the substrate, are created for a period of time and subsequently removed by applying at least one actuation unit (25, 30, 35) having actuating means (27, 32, 37) for moving a portion of a flexible one of the stamping surface and the receiving surface in a direction toward another of the stamping surface and the receiving surface, wherein the actuation unit (25, 30, 35) and the partially actuated surface (11, 21) are moved with respect to each other.
A temperature detector (601, 602) attachable to an object for temperature detection starting from an initial state temperature T on, comprising: a first region printed with a first ink having a first decoloring initiating temperature T a1 at which decoloring initiates when temperature of the first ink increases, and a first color developing initiating temperature T d1 at which color developing initiates when temperature of the first ink decreases, and a second region printed with a second ink having a second decoloring initiating temperature T a2 at which decoloring initiates when temperature of the second ink increases, and a second color developing initiating temperature T d2 at which color developing initiates when temperature of the second ink decreases, said temperature detector (601, 602) being characterised in that the first decoloring initiating temperature T a1, the first color developing initiating temperature T d1, the second decoloring initiating temperature T a2 the second color developing initiating temperature T d2 and the initial state temperature T have the relationship of T d1 < T d2 < T < T a1 < T a2, and in that in the initial state the first ink is colored and the second ink is decolored. a first region printed with a first ink having a first decoloring initiating temperature T a1 at which decoloring initiates when temperature of the first ink increases, and a first color developing initiating temperature T d1 at which color developing initiates when temperature of the first ink decreases, and a second region printed with a second ink having a second decoloring initiating temperature T a2 at which decoloring initiates when temperature of the second ink increases, and a second color developing initiating temperature T d2 at which color developing initiates when temperature of the second ink decreases, said temperature detector (601, 602) being characterised in that the first decoloring initiating temperature T a1, the first color developing initiating temperature T d1, the second decoloring initiating temperature T a2 the second color developing initiating temperature T d2 and the initial state temperature T have the relationship of T d1 < T d2 < T < T a1 < T a2, and in that in the initial state the first ink is colored and the second ink is decolored.
A track suspension comprising a drive wheel, a yoke plate carrier, a front rocker assembly, a rear rocker assembly, a front suspension spring assembly and a rear suspension spring assembly, wherein the drive wheel is rotatably affixed to and driven by a vehicle final drive axle assembly, wherein the yoke plate carrier is affixed to a yoke assembly, wherein the rear wishbone member is rotatably affixed to the yoke assembly wherein the front rocker assembly is comprised of a front rocker beam, a front idler wheel and a front roller wheel, wherein the rear rocker assembly is comprised of a rear rocker beam, a rear roller wheel and a rear idler wheel, characterized by being comprised of a front wishbone member and a rear wishbone member, wherein the rear wishbone member is rotatably affixed to the yoke plate carrier through a rear wishbone joint, wherein the front wishbone member is rotatably affixed to the rear wishbone member through a front wishbone joint, wherein the front rocker beam is rotatably affixed to the front wishbone through a front rocker joint, wherein the rear rocker beam is rotatably affixed to the rear wishbone member through a rear rocker joint, wherein a front suspension spring assembly is affixed between the yoke assembly and the front wishbone member, and wherein a rear suspension spring assembly is affixed between the yoke assembly and the rear wishbone member.
Hybrid layer consisting of or comprising two base materials, where both base materials are jointly selected from the group consisting of silicones and polyurethanes, characterized in that the first base material in pure form after curing is a solid having a Shore A hardness ≤ 1 and the second base material in pure form after curing is a solid of Shore A hardness from 25 to 48, preferably from 30 to 45, more preferably from 35 to 42 and very preferably of 41. the first base material in pure form after curing is a solid having a Shore A hardness ≤ 1 and the second base material in pure form after curing is a solid of Shore A hardness from 25 to 48, preferably from 30 to 45, more preferably from 35 to 42 and very preferably of 41.
A method performed by a dual-bearer Radio Access Network, RAN, (102, 302) or by a single bearer RAN (106, 306), the method comprising: receiving, from a User Equipment, UE, a measurement report indicating that a signal threshold has been satisfied; in response to receiving the measurement report, initiating (318, 404, 502) handover of a communication session associated with the UE from a first core network (304, 210, 212) associated with the dual-bearer Radio Access Network, RAN, (102, 302) or the single bearer RAN (106, 306) to a second core network (308, 210, 212) associated with the single bearer RAN (106, 306) or the dual-bearer Radio Access Network, RAN, (102, 302) respectively; receiving a message confirming that the communication session has been handed over from the first core network to the second core network; and in response to receiving the message, initiating (322, 406), handover of the communication session between a single radio bearer associated with a first Radio Access Technology, RAT, and a dual radio bearer (112, 206, 208) associated with the first RAT and a second RAT; the single radio bearer being provided by the single bearer RAN (106, 306) and the dual radio bearer being provided by the dual-bearer RAN, (102, 302). receiving, from a User Equipment, UE, a measurement report indicating that a signal threshold has been satisfied; in response to receiving the measurement report, initiating (318, 404, 502) handover of a communication session associated with the UE from a first core network (304, 210, 212) associated with the dual-bearer Radio Access Network, RAN, (102, 302) or the single bearer RAN (106, 306) to a second core network (308, 210, 212) associated with the single bearer RAN (106, 306) or the dual-bearer Radio Access Network, RAN, (102, 302) respectively; receiving a message confirming that the communication session has been handed over from the first core network to the second core network; and in response to receiving the message, initiating (322, 406), handover of the communication session between a single radio bearer associated with a first Radio Access Technology, RAT, and a dual radio bearer (112, 206, 208) associated with the first RAT and a second RAT; the single radio bearer being provided by the single bearer RAN (106, 306) and the dual radio bearer being provided by the dual-bearer RAN, (102, 302).
A method for a user to receive a location-based service on a mobile device without having to divulge a current location of the user unless the user is near a user approved location, the method comprising: determining, by the mobile device, a current location of the user based on a grid cell identifier; creating, by the mobile device, a blinded current location using the determined grid cell identifier and a random number; sending, by the mobile device, the blinded current location to a server; receiving, by the mobile device, a first digital signature generated by the server for the blinded current location; processing, by the mobile device, the first digital signature for the blinded current location using the random number to obtain a second digital signature for the grid cell identifier; comparing, by the mobile device, the second digital signature for the grid cell identifier to digital signatures for grid cell identifiers in which user approved locations are located that are stored in the mobile device; determining, by the mobile device, that the user is near a user approved location when the second digital signature of the grid cell identifier matches a digital signature for a user approved location that is stored in the mobile device; sending, by the mobile device, the current location of the user to the server; and receiving, by the mobile device, a location-based service based on the current location of the user. determining, by the mobile device, a current location of the user based on a grid cell identifier; creating, by the mobile device, a blinded current location using the determined grid cell identifier and a random number; sending, by the mobile device, the blinded current location to a server; receiving, by the mobile device, a first digital signature generated by the server for the blinded current location; processing, by the mobile device, the first digital signature for the blinded current location using the random number to obtain a second digital signature for the grid cell identifier; comparing, by the mobile device, the second digital signature for the grid cell identifier to digital signatures for grid cell identifiers in which user approved locations are located that are stored in the mobile device; determining, by the mobile device, that the user is near a user approved location when the second digital signature of the grid cell identifier matches a digital signature for a user approved location that is stored in the mobile device; sending, by the mobile device, the current location of the user to the server; and receiving, by the mobile device, a location-based service based on the current location of the user.
A method comprising: (a) contacting the liquid hydrocarbon with an aqueous solution comprising an oxidizing agent selected from t-butyl hydroperoxide to form a reaction mixture comprising an aqueous component and a hydrocarbon component, wherein the liquid hydrocarbon comprises at least an alkene (C4-30), and a trialky lphosphine (C≤90); (b) reacting the oxidizing agent selected from t-butyl hydroperoxide with the trialkylphosphine (C≤30) to form the corresponding phosphine oxide (C≤30); (c) removing the aqueous component from the hydrocarbon component, thereby removing the trialkylphosphine oxide (C≤30) from the liquid hydrocarbon. (a) contacting the liquid hydrocarbon with an aqueous solution comprising an oxidizing agent selected from t-butyl hydroperoxide to form a reaction mixture comprising an aqueous component and a hydrocarbon component, wherein the liquid hydrocarbon comprises at least an alkene (C4-30), and a trialky lphosphine (C≤90); (b) reacting the oxidizing agent selected from t-butyl hydroperoxide with the trialkylphosphine (C≤30) to form the corresponding phosphine oxide (C≤30); (c) removing the aqueous component from the hydrocarbon component, thereby removing the trialkylphosphine oxide (C≤30) from the liquid hydrocarbon.
Non-therapeutic use of a glycosyl hesperetin composition in combination with a saccharide or an organic acid in an external dermal agent to reduce skin yellowness already generated in the skin; wherein said glycosyl hesperetin composition comprises one or more members selected from the group consisting of hesperidin, α-glycosyl hesperidin, and 7-O-β-glucosyl hesperetin; wherein said saccharide is one or more saccharides selected from the group consisting of maltose, maltotetraose, and glycosyl trehalose; and wherein said organic acid is one or more organic acids selected from the group consisting of ferulic acid, glucuronic acid, acetic acid, sorbic acid, glycine, and sodium glutamate. wherein said glycosyl hesperetin composition comprises one or more members selected from the group consisting of hesperidin, α-glycosyl hesperidin, and 7-O-β-glucosyl hesperetin; wherein said saccharide is one or more saccharides selected from the group consisting of maltose, maltotetraose, and glycosyl trehalose; and wherein said organic acid is one or more organic acids selected from the group consisting of ferulic acid, glucuronic acid, acetic acid, sorbic acid, glycine, and sodium glutamate.
A modular conveying assembly module comprising: a body having a top surface; a first driven axle (42, 142', 242', 342', 442') mounted to the body for conveyance therewith; a first roller (44, 142', 244', 344', 444') fixed to the first driven axle; a first driven surface (58, 154', 254', 354', 458') fixed to the first driven axle and configured to be selectively engaged by a first driving member (62, 462) to affect rotation of the first driven axle, characterized by a second driven axle (142", 242", 342", 442") coaxial to the first driven axle; a second roller (144", 244", 344", 444") fixed to the second driven axle; and a second driven surface (154", 254", 354", 458") fixed to the second driven axle and configured to be selectively engaged by a second driving member to affect rotation of the second driven axle. a body having a top surface; a first driven axle (42, 142', 242', 342', 442') mounted to the body for conveyance therewith; a first roller (44, 142', 244', 344', 444') fixed to the first driven axle; a first driven surface (58, 154', 254', 354', 458') fixed to the first driven axle and configured to be selectively engaged by a first driving member (62, 462) to affect rotation of the first driven axle, characterized by a second driven axle (142", 242", 342", 442") coaxial to the first driven axle; a second roller (144", 244", 344", 444") fixed to the second driven axle; and a second driven surface (154", 254", 354", 458") fixed to the second driven axle and configured to be selectively engaged by a second driving member to affect rotation of the second driven axle.
An organic electrolyte capacitor including a positive electrode, a negative electrode and an electrolyte capable of transferring lithium ions, wherein the positive electrode contains a substance capable of carrying lithium ions and/or anions reversibly as a positive electrode active material, the negative electrode contains a substance capable of carrying lithium ions reversibly as a negative electrode active material, wherein each of the positive and negative electrodes includes the positive or negative electrode active material layer (1, 2), respectively, on an electrode substrate, wherein the electrode substrate is a three-layer laminate provided by forming a first conductive layer, which is made of a conductive material (1b, 2b) and has many through-holes, on a surface of an imperforate metal foil, and a second conductive layer, which is made of a conductive material (1b, 2b) and has holes or no holes, on the other surface of the imperforate metal foil, wherein through-holes are formed in the imperforate metal foil by etching, and wherein the metal foil forms an electrode current collector, wherein the through-holes penetrate the front and rear surfaces of said collector (1a, 2a), and wherein the negative electrode electrochemically carries lithium ions. wherein the positive electrode contains a substance capable of carrying lithium ions and/or anions reversibly as a positive electrode active material, the negative electrode contains a substance capable of carrying lithium ions reversibly as a negative electrode active material, wherein each of the positive and negative electrodes includes the positive or negative electrode active material layer (1, 2), respectively, on an electrode substrate, wherein the electrode substrate is a three-layer laminate provided by forming a first conductive layer, which is made of a conductive material (1b, 2b) and has many through-holes, on a surface of an imperforate metal foil, and a second conductive layer, which is made of a conductive material (1b, 2b) and has holes or no holes, on the other surface of the imperforate metal foil, wherein through-holes are formed in the imperforate metal foil by etching, and wherein the metal foil forms an electrode current collector, wherein the through-holes penetrate the front and rear surfaces of said collector (1a, 2a), and wherein the negative electrode electrochemically carries lithium ions.
A method of synthesizing a compound of Formula (I-a): or a pharmaceutically acceptable salt thereof; wherein each R is independently selected from the group consisting of C 1-4 alkyl, halogen, C 1-4 alkoxy and cyano; and n is an integer from 0 to 3; comprising: (a) reacting a compound of Formula (II-a), wherein PG is a nitrogen protecting group, with 6-aminoisoquinoline to form a compound of Formula (III-a) wherein each R is independently selected from the group consisting of C 1-4 alkyl, halogen, C 1-4 alkoxy and cyano; and n is an integer from 0 to 3; and (b) removing the nitrogen protecting group to form the compound of Formula (I-a). (a) reacting a compound of Formula (II-a), wherein PG is a nitrogen protecting group, with 6-aminoisoquinoline to form a compound of Formula (III-a) wherein each R is independently selected from the group consisting of C 1-4 alkyl, halogen, C 1-4 alkoxy and cyano; and n is an integer from 0 to 3; and (b) removing the nitrogen protecting group to form the compound of Formula (I-a).
Rail vehicle, in particular power car or locomotive, - with driving means and with braking means, - with a drive controller for controlling the driving means and braking means of the rail vehicle, - with an operating facility for the drive controller, wherein the operating facility comprises means for changing the operating mode of the rail vehicle, wherein the operating facility comprises an operating lever which can be used by the vehicle driver of the rail vehicle to operate the drive controller, wherein the function of the operating lever is dependent on the operating mode of the rail vehicle, wherein the operating lever can be moved in a first movement direction for operating the drive controller and wherein the operating lever serves to change the operating mode, characterised in that the operating lever can be moved in a second movement direction, which differs from the first direction and preferably runs perpendicularly to the first direction, for changing the operating mode, wherein the operating lever can only be moved out of a defined lever position in this second movement direction, wherein this lever position can be assumed by the operating lever by way of a movement in the first movement direction. - with driving means and with braking means, - with a drive controller for controlling the driving means and braking means of the rail vehicle, - with an operating facility for the drive controller, wherein the operating facility comprises means for changing the operating mode of the rail vehicle, wherein the operating facility comprises an operating lever which can be used by the vehicle driver of the rail vehicle to operate the drive controller, wherein the function of the operating lever is dependent on the operating mode of the rail vehicle, wherein the operating lever can be moved in a first movement direction for operating the drive controller and wherein the operating lever serves to change the operating mode, characterised in that the operating lever can be moved in a second movement direction, which differs from the first direction and preferably runs perpendicularly to the first direction, for changing the operating mode, wherein the operating lever can only be moved out of a defined lever position in this second movement direction, wherein this lever position can be assumed by the operating lever by way of a movement in the first movement direction.
A composition comprising: a blend of monomers comprising at least one of a cyclic imide-containing acrylate or a cyclic imide-containing methacrylate; and an organoborane complex. a blend of monomers comprising at least one of a cyclic imide-containing acrylate or a cyclic imide-containing methacrylate; and an organoborane complex.
A polyester resin composition for a reflective material comprising: a polyester resin containing an alicyclic dicarboxylic acid component unit derived from an alicyclic dicarboxylic acid and an aliphatic diol component unit derived from an aliphatic diol; and a white pigment, wherein an amount of the alicyclic dicarboxylic acid component unit is 50% by mole or more based on an amount of a total dicarboxylic acid component unit (a) in the polyester resin, an amount of the aliphatic diol component unit is 50% by mole or more based on an amount of a total diol component unit (b) in the polyester resin, the aliphatic diol component unit contains an alicyclic diol component unit (bl') derived from an alicyclic diol, the alicyclic diol component unit (b1') contains cis-trans isomers in cis-form and trans-form, and a proportion of the cis-form measured by NMR, relative to the total of the cis-form and the trans-form of the alicyclic diol component unit (b1'), is 20% by mole or more and 50% by mole or less, and the alicyclic dicarboxylic acid component unit contains cis-trans isomers in cis-form and trans-form, and a proportion of the cis-form measured by NMR, relative to the total of the cis-form and the trans-form of the alicyclic dicarboxylic acid component unit, is 20% by mole or more. an amount of the alicyclic dicarboxylic acid component unit is 50% by mole or more based on an amount of a total dicarboxylic acid component unit (a) in the polyester resin, an amount of the aliphatic diol component unit is 50% by mole or more based on an amount of a total diol component unit (b) in the polyester resin, the aliphatic diol component unit contains an alicyclic diol component unit (bl') derived from an alicyclic diol, the alicyclic diol component unit (b1') contains cis-trans isomers in cis-form and trans-form, and a proportion of the cis-form measured by NMR, relative to the total of the cis-form and the trans-form of the alicyclic diol component unit (b1'), is 20% by mole or more and 50% by mole or less, and the alicyclic dicarboxylic acid component unit contains cis-trans isomers in cis-form and trans-form, and a proportion of the cis-form measured by NMR, relative to the total of the cis-form and the trans-form of the alicyclic dicarboxylic acid component unit, is 20% by mole or more.
A method for forming laser color security images, from an assembly comprising a transparent protective layer, a printed latent image made up of colored sub-pixels separated by non-printed surfaces, security patterns, a laserable layer, reflective means and a laser beam that forms, in the laserable layer, the grey levels of a definitive customized image, the assembly being laminated on a support, characterized in that the printed surface of the sub-pixels does not cover the surface of the security patterns that are made in this non-printed surface, and in that the grey levels of the customized image are not etched by the laser in this non-printed surface.