mhurhangee/ep-ind-claims huggingface dataset:
A vehicle comprising: a processor; and non-transitory memory storing instructions executed by the processor, wherein the processor is configured to: determine a first operation mode of a convenience device based on external environment information obtained by a sensor device when converting to an autonomous driving state; determine a second operation mode of the convenience device based on an input of a convenience device manipulator; compare the first operation mode with the second operation mode; and control the convenience device in the first operation mode or the second operation mode based on a comparison result. a processor; and non-transitory memory storing instructions executed by the processor, wherein the processor is configured to: determine a first operation mode of a convenience device based on external environment information obtained by a sensor device when converting to an autonomous driving state; determine a second operation mode of the convenience device based on an input of a convenience device manipulator; compare the first operation mode with the second operation mode; and control the convenience device in the first operation mode or the second operation mode based on a comparison result. determine a first operation mode of a convenience device based on external environment information obtained by a sensor device when converting to an autonomous driving state; determine a second operation mode of the convenience device based on an input of a convenience device manipulator; compare the first operation mode with the second operation mode; and control the convenience device in the first operation mode or the second operation mode based on a comparison result.
A process for preparing 2-(5-(4-(2-morpholinoethoxy)phenyl)pyridin-2-yl)- N- benzylacetamide comprising the step of: reacting methyl 2-(5-(4-(2-morpholinoethoxy)phenyl)pyridin-2-yl)acetate with benzylamine to yield 2-(5-(4-(2-morpholinoethoxy)phenyl)pyridin-2-yl)- N -benzylacetamide. reacting methyl 2-(5-(4-(2-morpholinoethoxy)phenyl)pyridin-2-yl)acetate with benzylamine to yield 2-(5-(4-(2-morpholinoethoxy)phenyl)pyridin-2-yl)- N -benzylacetamide.
A single-panel type color imaging device configured by arranging color filters of a certain color filter array on a plurality of pixels that are configured by photometric conversion elements that are arranged in a horizontal direction and a vertical direction, wherein the color filter array includes subarrays (27a-d, 35a-d) in which the color filters are arrayed in an array pattern corresponding to MxN, wherein MxN is 4x6 or 2x4, pixels and the subarrays are repeatedly arranged in the horizontal direction and the vertical direction, the color filters include a first filter corresponding to a first color that contributes most to obtain a brightness signal and second filters corresponding to second colors (R, B) of two or more colors different from the first color, and a ratio of a number of pixels of the first color corresponding to the first filter is larger than each ratio of a number of pixels of the second colors (R, B) corresponding to the second filters, and the first filter is arranged in a checkered pattern in the subarrays such that an arrangement of the first filter in one of the subarrays that are adjacent to each other in the horizontal direction or the vertical direction and an arrangement of the first filter in another one of these subarrays have a mirror image relationship, and wherein one or more of the second filters corresponding to each color of the second colors (R, B) are respectively arranged in each line in the horizontal direction and the vertical direction of the color filter array in a basic array pattern (P1, P4a) which is repeatedly arranged in the horizontal direction and the vertical direction in the color filter array and which includes four of the subarrays being arranged in a matrix manner so as to be mutually adjacent in the horizontal direction and the vertical direction, wherein the four subarrays form two sets of subarrays that are adjacent to each other along the horizontal direction and have a mirror image relationship in the arrangement of the first filter, the second filters corresponding to each color of the second colors (R, B) of the two or more colors are repeatedly arranged in the horizontal direction and the vertical direction with a cyclic nature, wherein the four subarrays in the basic array pattern have a mirror image relationship in the arrangement of the first filter between the adjacent subarrays.
A cleaning device for cleaning an interior of a device to be cleaned, wherein the cleaning device comprises: an adapter for mounting the device to be cleaned; a cleaning medium reception chamber for receiving cleaning medium driven through the device to be cleaned when mounted on the adapter; a drive unit for driving cleaning medium from a cleaning medium reservoir through the device to be cleaned, when mounted on the adapter, and into the cleaning medium reception chamber; and a detection unit for detecting information indicative of a flow rate and/or a pressure of cleaning medium driven through the device to be cleaned, when mounted on the adapter, characterised in that the detection unit is configured for detecting information indicative of a temperature of the cleaning medium and is configured for correcting flow rate information under consideration of a viscosity of the cleaning medium at the detected temperature. an adapter for mounting the device to be cleaned; a cleaning medium reception chamber for receiving cleaning medium driven through the device to be cleaned when mounted on the adapter; a drive unit for driving cleaning medium from a cleaning medium reservoir through the device to be cleaned, when mounted on the adapter, and into the cleaning medium reception chamber; and a detection unit for detecting information indicative of a flow rate and/or a pressure of cleaning medium driven through the device to be cleaned, when mounted on the adapter, characterised in that the detection unit is configured for detecting information indicative of a temperature of the cleaning medium and is configured for correcting flow rate information under consideration of a viscosity of the cleaning medium at the detected temperature.
A quality parameter measurement device for a long sheet material that comprises multiple infrared light sources (1110; 1112; 715) and a plurality of infrared area cameras (1102, 1103, 1104, 1105, 1106; 712), and is configured to measure, by using infrared light sources (1110; 1112; 715) and the plurality of infrared area cameras (1102, 1103, 1104, 1105, 1106; 712) configured to receive infrared light, a quality parameter of the long sheet material when moving toward a winder of a machine, the long sheet material having a length and a width and moving toward the winder in the length direction, wherein a plurality of the infrared light sources (1110; 1112; 715) and the plurality of infrared area cameras (1102, 1103, 1104, 1105, 1106; 712) are arranged in a machine cross direction, corresponding to the width of the long sheet material, so as to cover the entire width of the long sheet material, and fields of view of adjacent infrared area cameras overlap each other, and a number of the infrared light sources (1110; 1112; 715), each configured to emit infrared light having a different wavelength, are arranged in a machine direction, corresponding to the length of the long sheet material so as to provide irradiation areas within the field of view of the same infrared area camera (1102, 1103, 1104, 1105, 1106; 712), wherein the number of the infrared light sources (1110; 1112; 715) are arranged so that infrared light emitted from each of the number of the infrared light sources (1110; 1112; 715) and traveling via the long sheet material is measured simultaneously at the same infrared area camera (1102, 1103, 1104, 1105, 1106; 712), and so that irradiation areas of the number of the infrared light sources (1110; 1112; 715) do not overlap each other. a plurality of the infrared light sources (1110; 1112; 715) and the plurality of infrared area cameras (1102, 1103, 1104, 1105, 1106; 712) are arranged in a machine cross direction, corresponding to the width of the long sheet material, so as to cover the entire width of the long sheet material, and fields of view of adjacent infrared area cameras overlap each other, and a number of the infrared light sources (1110; 1112; 715), each configured to emit infrared light having a different wavelength, are arranged in a machine direction, corresponding to the length of the long sheet material so as to provide irradiation areas within the field of view of the same infrared area camera (1102, 1103, 1104, 1105, 1106; 712), wherein the number of the infrared light sources (1110; 1112; 715) are arranged so that infrared light emitted from each of the number of the infrared light sources (1110; 1112; 715) and traveling via the long sheet material is measured simultaneously at the same infrared area camera (1102, 1103, 1104, 1105, 1106; 712), and so that irradiation areas of the number of the infrared light sources (1110; 1112; 715) do not overlap each other.
A thermal analysis device comprising a sample holder and a holding device with a support surface for the sample holder, to which at least one temperature detection means is assigned, wherein the support surface and/or the sample holder comprise elevations or depressions forming contact points, which define a relevant heat flow zone assigned to the support surface, and wherein a temperature detection region of the temperature detection means is arranged within the relevant heat flow zone, characterised in that the support surface itself is constituted as the temperature detection means, wherein the temperature detection means is constituted as a thermocouple comprising two elements (A, B) made of different metals and an interface of the two elements (A, B) forms the temperature detection region.
A brim attachment for a prosthetic socket, the socket defining an opening and inner and outer surfaces (136, 135), the brim attachment having tensioned and relaxed positions, the brim attachment comprising: a cuff section defining an upper portion of the brim attachment and arranged to extend about and upwardly from the socket opening, the cuff section configured to move between tensioned and relaxed positions, wherein in the tensioned position the cuff section is arranged to fold away from the socket opening, wherein in the relaxed position the cuff section is arranged to extend above the socket opening and generally concentric with the outer surface of the socket; an interface section defining a lower portion of the brim attachment and arranged to extend along a surface (136, 135) of the socket; a seal element arranged to protrude toward a central axis (A-A) of the socket from an inner surface of the brim attachment when the brim attachment is in the relaxed position; characterized in that the seal element is configured such that in the tensioned position, the seal element protrudes upwardly from the socket opening and generally concentrically with the outer surface of the socket; in the relaxed position, the seal element is arranged to flexibly bias into the socket opening and extends obliquely toward the central axis (A-A); and wherein the seal element is arranged to move into the relaxed and tensioned positions as a result of moving the cuff section between the relaxed and tensioned positions. a cuff section defining an upper portion of the brim attachment and arranged to extend about and upwardly from the socket opening, the cuff section configured to move between tensioned and relaxed positions, wherein in the tensioned position the cuff section is arranged to fold away from the socket opening, wherein in the relaxed position the cuff section is arranged to extend above the socket opening and generally concentric with the outer surface of the socket; an interface section defining a lower portion of the brim attachment and arranged to extend along a surface (136, 135) of the socket; a seal element arranged to protrude toward a central axis (A-A) of the socket from an inner surface of the brim attachment when the brim attachment is in the relaxed position; characterized in that the seal element is configured such that in the tensioned position, the seal element protrudes upwardly from the socket opening and generally concentrically with the outer surface of the socket; in the relaxed position, the seal element is arranged to flexibly bias into the socket opening and extends obliquely toward the central axis (A-A); and wherein the seal element is arranged to move into the relaxed and tensioned positions as a result of moving the cuff section between the relaxed and tensioned positions.
A composition for the removal of an organic photoresist from a substrate, which comprises: aryl sulfonic acid or alkylaryl sulfonic acid or mixtures thereof in an amount from 20 to 40 % by weight based on the total weight of the composition; 1,3-dihydroxybenzene (resorcinol) or sorbitol or mixtures thereof in an amount from 0.2 to 3.5 weight percent based on the total weight of the composition; a hydrocarbon solvent having a flash point of greater than 65°C in an amount from 60 to 85 percent by weight based on the total weight of the composition; and greater than 0.08 % by weight sulfuric acid based on the total weight of the composition. aryl sulfonic acid or alkylaryl sulfonic acid or mixtures thereof in an amount from 20 to 40 % by weight based on the total weight of the composition; 1,3-dihydroxybenzene (resorcinol) or sorbitol or mixtures thereof in an amount from 0.2 to 3.5 weight percent based on the total weight of the composition; a hydrocarbon solvent having a flash point of greater than 65°C in an amount from 60 to 85 percent by weight based on the total weight of the composition; and greater than 0.08 % by weight sulfuric acid based on the total weight of the composition.
Method for producing a steel component coated with an anticorrosion coating, comprising the following operating steps: a) providing a flat steel product coated with an aluminum-based anticorrosion coating, b) heat-treating a blank formed from the coated flat steel product, in a furnace, where: 0.0034 ° C / min ≤ Q ≤ 0.021°C/min with Q = T * d / t * L, where T = furnace temperature in °C, d = blank thickness in mm, t = dwell time of the blank in the furnace in min, L = furnace length in mm c) shaping the blank in a shaping tool to form a steel component. a) providing a flat steel product coated with an aluminum-based anticorrosion coating, b) heat-treating a blank formed from the coated flat steel product, in a furnace, where: 0.0034 ° C / min ≤ Q ≤ 0.021°C/min with Q = T * d / t * L, where T = furnace temperature in °C, d = blank thickness in mm, t = dwell time of the blank in the furnace in min, L = furnace length in mm with Q = T * d / t * L, where T = furnace temperature in °C, d = blank thickness in mm, t = dwell time of the blank in the furnace in min, L = furnace length in mm c) shaping the blank in a shaping tool to form a steel component.
A method comprising: executing, by a processor, a program, the program comprising functions, each function comprising respective code for respective functions and calls invoking the functions, the executing comprising: maintaining a call stack comprised of frames corresponding to respective invocations of the functions by the calls, each frame comprising a corresponding return address and memory for local variables and parameters; maintaining a shadow stack, the maintaining comprising adding/removing return addresses to/from the shadow stack in correspondence with adding/removing the frames to/from the call stack, the shadow stack comprising return addresses that respectively correspond to the return addresses in the call stack; and receiving a request to capture a stack trace, and based thereon, using the return addresses in the shadow stack in combination with the call stack to capture and store the stack trace, wherein the return addresses in the shadow stack are correlated with frames and return addresses in the call stack to obtain local variables and parameters. maintaining a call stack comprised of frames corresponding to respective invocations of the functions by the calls, each frame comprising a corresponding return address and memory for local variables and parameters; maintaining a shadow stack, the maintaining comprising adding/removing return addresses to/from the shadow stack in correspondence with adding/removing the frames to/from the call stack, the shadow stack comprising return addresses that respectively correspond to the return addresses in the call stack; and receiving a request to capture a stack trace, and based thereon, using the return addresses in the shadow stack in combination with the call stack to capture and store the stack trace, wherein the return addresses in the shadow stack are correlated with frames and return addresses in the call stack to obtain local variables and parameters.
A method for performing hash based database operations for a symmetric multiprocessing, SMP, database, comprising: receiving at the SMP database a database query; creating a plurality of execution workers comprising multiple threads for processing the query; and building by the execution workers a hash table from a database table, the database table being partitioned according to a degree of parallelism, DOP, of the SMP database into a plurality of partitions and each execution worker being assigned a respective partition, or the database table including a plurality of scan units and each execution worker being assigned a number of scan units, the hash table being shared by the execution workers; wherein in case: each execution worker scans its respective partition and adds entries to the hash table; and in case: each execution worker scans an unprocessed one of its assigned scan units, wherein each scan unit is a plurality of data pages of the database table, adds entries to the hash table according to the scanned scan unit and subsequently scans another unprocessed one of its assigned scan units until the whole database table is scanned and the execution workers performing the scanning and the adding in a parallel manner wherein each scan unit is only processed by one execution worker. receiving at the SMP database a database query; creating a plurality of execution workers comprising multiple threads for processing the query; and building by the execution workers a hash table from a database table, the database table being partitioned according to a degree of parallelism, DOP, of the SMP database into a plurality of partitions and each execution worker being assigned a respective partition, or the database table including a plurality of scan units and each execution worker being assigned a number of scan units, the hash table being shared by the execution workers; wherein in case: each execution worker scans its respective partition and adds entries to the hash table; and in case: each execution worker scans an unprocessed one of its assigned scan units, wherein each scan unit is a plurality of data pages of the database table, adds entries to the hash table according to the scanned scan unit and subsequently scans another unprocessed one of its assigned scan units until the whole database table is scanned and the execution workers performing the scanning and the adding in a parallel manner wherein each scan unit is only processed by one execution worker.
Process for the production of a three-dimensional object, the external area of which comprises at least one area section which is produced in that an area section in two-dimensional form is first produced by means of an additive manufacturing process, in particular a layer-by-layer shaping process, on a flat base plate, comprising the following steps: I) application of at least one hardenable polymer or hardenable reactive resin in flowable form in the form of lines of material onto a flat base plate by means of a layer-by-layer shaping process for the production of a first layer; II) application of a second layer onto the first layer, produced by means of a layer-by-layer shaping process; III) optionally application of from 1 to 198 further layers produced as in step II), where respectively a new layer is applied onto the respective preceding layer; IV) hardening of the layers; V) separation of the hardened area section from the flat base plate; and VI) molding of the hardened area section to give a three-dimensional object by means of deep-draw or thermoforming; where at least one layer is produced via application of at least one hardenable polymer or hardenable reactive resin in flowable form in the form of lines of material onto the respective substrate with respectively a modulus of elasticity in the cured state of ≥ 500 MPa in accordance with EN ISO 527-1, latest issue dated April 1996, current ISO version of February 2012. I) application of at least one hardenable polymer or hardenable reactive resin in flowable form in the form of lines of material onto a flat base plate by means of a layer-by-layer shaping process for the production of a first layer; II) application of a second layer onto the first layer, produced by means of a layer-by-layer shaping process; III) optionally application of from 1 to 198 further layers produced as in step II), where respectively a new layer is applied onto the respective preceding layer; IV) hardening of the layers; V) separation of the hardened area section from the flat base plate; and VI) molding of the hardened area section to give a three-dimensional object by means of deep-draw or thermoforming;
A composition comprising ligustroflavone, rhoifolin and hyperin, the molecular formula of the ligustroflavone is C 33 H 40 O 18, the molecular weight is 724.2 and the structural formula being as follows: The molecular formula of the rhoifolin is C 27 H 30 O 14, the molecular weight being 578.52 and the structural formula is as follows: The molecular formula of the hyperin is C 21 H 20 O 12, the molecular weight being 464.38 and the structural formula is as follows: the composition comprising ligustroflavone, rhoifolin and hyperin being prepared according to rational weight ratio: 40% to 80% ligustroflavone, 5% to 45% rhoifolin and 1% to 40% hyperin.
A method of connecting functional elements to a shaft comprising the following steps: a. formation of protruberances to receive the functional elements, wherein the protruberances are machined from the shaft by material removal, b. welding of the functional elements to the protruberances on the shaft. a. formation of protruberances to receive the functional elements, wherein the protruberances are machined from the shaft by material removal, b. welding of the functional elements to the protruberances on the shaft.