mhurhangee/ep-ind-claims huggingface dataset:
A machine for preparing beverages, the machine comprising a cold-water tank, a system for producing and dispensing hot water (6, 5b), a showerhead that is powered by said system, a capsule support, and a receptacle support, the showerhead and the capsule support forming an infusion chamber, the showerhead being arranged vertically in register with the receptacle support, said machine being characterized in that it further comprises a control device having at least one function for preparing a milk beverage in a receptacle, while keeping said receptacle on the receptacle support throughout preparation, the control device including an electronic control board that includes at least first and second programs that: - on launching of the first program, actuates said system (6, 5b) so as to dispense a first predetermined volume of hot water, the capsule support being removed so that the showerhead produces a jet of hot water directly into the receptacle containing a milk product; and - on launching of the second program, consecutively after launching of the first program, actuates said system (6, 5b) so as to dispense a second predetermined volume of hot water, the capsule support being positioned with a capsule so that the showerhead produces a jet of hot water into the infusion chamber. - on launching of the first program, actuates said system (6, 5b) so as to dispense a first predetermined volume of hot water, the capsule support being removed so that the showerhead produces a jet of hot water directly into the receptacle containing a milk product; and - on launching of the second program, consecutively after launching of the first program, actuates said system (6, 5b) so as to dispense a second predetermined volume of hot water, the capsule support being positioned with a capsule so that the showerhead produces a jet of hot water into the infusion chamber.
Process for producing solids from salts of silanols, of their hydrolysis/condensation products, or of silanols together with their hydrolysis/condensation products and cations selected from alkali metal ions in which the molar ratio of cation to silicon is from 0.1 to 3, wherein in a first step alkoxysilanes, their hydrolysis/condensation products, or alkoxysilanes together with their hydrolysis/condensation products, wherein the alkoxy group is selected from methoxy, ethoxy, 1-propoxy and 2-propoxy group, are hydrolyzed with alkali metal hydroxide and water, and in a second step the water present in the hydrolyzate and the alcohol present are evaporated out of the hydrolyzate prepared in the first step in a fixed bed, and solids are obtained.
A circuit to manage memory between a first microprocessor and a second microprocessor each of which is coupled to a control circuit, comprising: first local memory circuit and second local memory circuit; a switch circuit coupled to the first local memory circuit, the second local memory circuit, and memory interfaces of the first and second microprocessors (102, 104), the switch circuit having a mode signal as input; characterized in that it further comprises a control circuit configured to selectively couple the first microprocessor and the second microprocessor to a main memory circuit, a cache memory and the switch circuit, the control circuit having processor mode select signal as an input, wherein the switch circuit and the control circuit are configured to selectively operate in one of a first mode or a second mode based on the mode signals such that, in the first mode, the switch circuit and the control circuit couple the first local memory circuit to the memory interface of the first microprocessor and the second local memory circuit to the memory interface of the second microprocessor and, in the second mode, the switch circuit and the control circuit selectively couple the first or second local memory circuits to the memory interface of either the first or second microprocessor. first local memory circuit and second local memory circuit; a switch circuit coupled to the first local memory circuit, the second local memory circuit, and memory interfaces of the first and second microprocessors (102, 104), the switch circuit having a mode signal as input; characterized in that it further comprises a control circuit configured to selectively couple the first microprocessor and the second microprocessor to a main memory circuit, a cache memory and the switch circuit, the control circuit having processor mode select signal as an input, wherein the switch circuit and the control circuit are configured to selectively operate in one of a first mode or a second mode based on the mode signals such that, in the first mode, the switch circuit and the control circuit couple the first local memory circuit to the memory interface of the first microprocessor and the second local memory circuit to the memory interface of the second microprocessor and, in the second mode, the switch circuit and the control circuit selectively couple the first or second local memory circuits to the memory interface of either the first or second microprocessor.
A treatment device for a surface to be treated using a dielectric barrier plasma, comprising a housing which has an end wall (14, 14') and comprising an electrode (18, 33) which is shielded from the surface to be treated by a dielectric (19, 34) that forms at least one part of the end wall (14, 14') and which electrode (18, 33) can be connected to a high-voltage generator, wherein the end wall (14, 14') has at least one spacer (29, 29') by means of which at least one gas chamber is formed when the at least one spacer (29, 29') rests against the surface to be treated, and the dielectric barrier plasma is formed in the gas chamber for the treatment process, characterized in that a ring-shaped storage chamber (25, 25') which can be filled with a treatment agent is arranged on the side of the end wall (14, 14') facing away from the surface to be treated, the end wall (14, 14') has a plurality of passage openings (28, 28'), and the volume of the storage chamber (25, 25') can be reduced in such a way that treatment agent reaches the region of the surface to be treated through the passage openings (28, 28') when the volume is reduced.
A method for compressing packet traffic associated with a user equipment in a network, the method comprising the steps of: estimating (A1; B1, B5; C2; D2) a compression ratio for a packet in the packet traffic based on a compression length for compressing the packet; comparing (A2; B2; C3-C5; D3-D4) the estimated compression ratio with a target compression ratio; adjusting (A3; B3; C7; D5-D6) the compression length when the estimated compression ratio has not reached at least the target compression ratio; and using (A4; B6; C8; D8) the adjusted compression length as the compression length for compressing the packet traffic. estimating (A1; B1, B5; C2; D2) a compression ratio for a packet in the packet traffic based on a compression length for compressing the packet; comparing (A2; B2; C3-C5; D3-D4) the estimated compression ratio with a target compression ratio; adjusting (A3; B3; C7; D5-D6) the compression length when the estimated compression ratio has not reached at least the target compression ratio; and using (A4; B6; C8; D8) the adjusted compression length as the compression length for compressing the packet traffic.
An image processing apparatus for processing multi-valued image data with a line format for each line, wherein the processing includes a binarization process using image data of a plurality of adjacent lines in accordance with an error diffusion method, comprising: compression means adapted to compress error data and concatenate an identifier to each of the compressed error data for identifying compressed data from non-compressed data; a memory adapted to store the compressed error data and concatenated identifiers; decompression means adapted to read out the compressed error data and concatenated identifiers stored in said memory and decompress the compressed error data; and image processing means adapted to perform an image process using the error data decompressed by said decompression means and image data of a next line adjacent to a line of processed image data; characterized by change means adapted to swap for each pixel the position where the identifier is concatenated to the respective compressed error data, in accordance with a process direction of image data of said next line; in that the memory is adapted to store the compressed error data whose concatenation position has been changed by said change means; and in that the decompression means is adapted to read out the compressed error data and concatenated identifiers stored in said memory in accordance with a process direction of image data of the respective line. compression means adapted to compress error data and concatenate an identifier to each of the compressed error data for identifying compressed data from non-compressed data; a memory adapted to store the compressed error data and concatenated identifiers; decompression means adapted to read out the compressed error data and concatenated identifiers stored in said memory and decompress the compressed error data; and image processing means adapted to perform an image process using the error data decompressed by said decompression means and image data of a next line adjacent to a line of processed image data; characterized by change means adapted to swap for each pixel the position where the identifier is concatenated to the respective compressed error data, in accordance with a process direction of image data of said next line; in that the memory is adapted to store the compressed error data whose concatenation position has been changed by said change means; and in that the decompression means is adapted to read out the compressed error data and concatenated identifiers stored in said memory in accordance with a process direction of image data of the respective line.
An airfoil (66, 166, 266) for a gas turbine engine comprising: an airfoil section (66A, 166A, 266A) extending from a root section (66B, 266B), the airfoil section (66A, 166A, 266A) extending between a leading edge and a trailing edge in a chordwise direction and extending between a tip portion (66C, 266C) and the root section (66B, 266B) in a radial direction, and the airfoil section (66A, 166A, 266A) defining a pressure side and a suction side separated in a thickness direction; characterized in that the airfoil section (66A, 166A, 266A) includes a metallic sheath (72, 172, 272) that receives a composite core (74, 174, 274), and the core (74, 174, 274) includes first and second ligaments (76A, 76B) received in respective internal channels (72C, 72D, 172C, 172D) defined by the sheath (72, 172, 272) such that the first and second ligaments (76A, 76B) are spaced apart along the root section (66B, 266B) with respect to the chordwise direction; and wherein each one of the first and second ligaments (76A, 76B) includes at least one interface portion (78, 178, 278) in the root section (66B, 266B), and the at least one interface portion (78, 178, 278) of the first ligament (76A, 76B) and the at least one interface portion (78, 178, 278) of the second ligament (76A, 76B) define respective sets of bores aligned to receive a common retention pin (68, 168). an airfoil section (66A, 166A, 266A) extending from a root section (66B, 266B), the airfoil section (66A, 166A, 266A) extending between a leading edge and a trailing edge in a chordwise direction and extending between a tip portion (66C, 266C) and the root section (66B, 266B) in a radial direction, and the airfoil section (66A, 166A, 266A) defining a pressure side and a suction side separated in a thickness direction; characterized in that the airfoil section (66A, 166A, 266A) includes a metallic sheath (72, 172, 272) that receives a composite core (74, 174, 274), and the core (74, 174, 274) includes first and second ligaments (76A, 76B) received in respective internal channels (72C, 72D, 172C, 172D) defined by the sheath (72, 172, 272) such that the first and second ligaments (76A, 76B) are spaced apart along the root section (66B, 266B) with respect to the chordwise direction; and wherein each one of the first and second ligaments (76A, 76B) includes at least one interface portion (78, 178, 278) in the root section (66B, 266B), and the at least one interface portion (78, 178, 278) of the first ligament (76A, 76B) and the at least one interface portion (78, 178, 278) of the second ligament (76A, 76B) define respective sets of bores aligned to receive a common retention pin (68, 168).
A respiratory access assembly (10, 210, 310), comprising: a distal plate (12, 212, 312) having a port (16, 216, 316), the port (16, 216, 316) adapted to be positioned in operable communication with an artificial airway of a patient; a proximal plate (14, 214, 314) including a first port (20, 220, 320) and a second port (22, 222, 322), the distal plate (12, 212, 312) positioned against the proximal plate (14, 214, 314) in a stacked configuration, each plate configured to move relative to each other; and an actuator positioned adjacent to at least one of the plates (12, 212, 312, 14, 214, 314) the actuator cooperating with at least one of the plates (12, 212, 312, 14, 214, 314) to permit movement of at least one of the plates (12, 212, 312, 14, 214, 314) when the actuator is positioned in a movement-enabling position, the actuator cooperating with both plates (12, 212, 312, 14, 214, 314) to lock the plates in a fixed position when the actuator is positioned in a locked position, such that the plates are locked into a predetermined position relative to each other, characterized in that the actuator includes a blocking portion which is configured to extend into at least one of the ports (16, 216, 316, 20, 220, 320, 22, 222, 322) when the actuator is positioned in the movement-enabling position, and to withdraw from said at least one port (16, 216, 316, 20, 220, 320, 22, 222, 322) when the actuator is positioned in the locked position. a distal plate (12, 212, 312) having a port (16, 216, 316), the port (16, 216, 316) adapted to be positioned in operable communication with an artificial airway of a patient; a proximal plate (14, 214, 314) including a first port (20, 220, 320) and a second port (22, 222, 322), the distal plate (12, 212, 312) positioned against the proximal plate (14, 214, 314) in a stacked configuration, each plate configured to move relative to each other; and an actuator positioned adjacent to at least one of the plates (12, 212, 312, 14, 214, 314) the actuator cooperating with at least one of the plates (12, 212, 312, 14, 214, 314) to permit movement of at least one of the plates (12, 212, 312, 14, 214, 314) when the actuator is positioned in a movement-enabling position, the actuator cooperating with both plates (12, 212, 312, 14, 214, 314) to lock the plates in a fixed position when the actuator is positioned in a locked position, such that the plates are locked into a predetermined position relative to each other, characterized in that the actuator includes a blocking portion which is configured to extend into at least one of the ports (16, 216, 316, 20, 220, 320, 22, 222, 322) when the actuator is positioned in the movement-enabling position, and to withdraw from said at least one port (16, 216, 316, 20, 220, 320, 22, 222, 322) when the actuator is positioned in the locked position.
A compound or a pharmaceutically acceptable salt thereof, wherein the compound conforms to the formula: wherein X is selected from the group consisting of O, NH, NMe; and R is selected from the group consisting of Me, Et, i-Pr, phenyl, and benzyl. X is selected from the group consisting of O, NH, NMe; and R is selected from the group consisting of Me, Et, i-Pr, phenyl, and benzyl.
A nucleic acid comprising a promoter which includes (i) a -10 region from a meningococcal porA gene promoter, and (ii) a -35 region from a meningococcal porA gene promoter, wherein the -10 region and the -35 region are separated by an intervening sequence of 12-20 nucleotides, and wherein the intervening sequence either contains no poly-G sequence or includes a poly-G sequence having no more than eight consecutive G nucleotides; wherein the nucleic acid comprises a protein coding gene operably linked to the promoter; wherein the protein coding gene encodes an outer membrane protein; wherein the promoter replaces the native promoter of the protein coding gene; and wherein the promoter comprises or consists of a nucleic acid sequence selected from the group consisting of SEQ ID NO: 32, SEQ ID NO: 33, SEQ ID NO: 34 and SEQ ID NO: 38. (i) a -10 region from a meningococcal porA gene promoter, and (ii) a -35 region from a meningococcal porA gene promoter,
A method of additive manufacturing of one or more three-dimensional objects, comprising: sequentially dispensing and solidifying layers, the layers comprising: (i) at least one stack of model layers arranged in configured patterns corresponding to shapes of the one or more of the objects and being made of one or more modeling materials; (ii) an intermediate layer surrounding said at least one stack and comprising at least a support material; (iii) a flexible overlay surrounding said intermediate layer and object; and removing the stack of model layers from the flexible overlay by application of pressure to the flexible overlay. (i) at least one stack of model layers arranged in configured patterns corresponding to shapes of the one or more of the objects and being made of one or more modeling materials; (ii) an intermediate layer surrounding said at least one stack and comprising at least a support material; (iii) a flexible overlay surrounding said intermediate layer and object; and removing the stack of model layers from the flexible overlay by application of pressure to the flexible overlay.
An in vitro method of determining HR deficiency status of a patient, comprising: determining, in a sample comprising a cancer cell of a patient, the number of Indicator LOH Regions, Indicator TAI Regions, and Indicator LST Regions in at least one pair of human chromosomes of the cancer cell, wherein (a) an Indicator LOH Region is an LOH Region that is longer than 1.5 megabases in length but shorter than the entire length of the respective chromosome within which the LOH Region is located; (b) an Indicator TAI Region is a TAI Region with allelic imbalance that (i) extends to one of the subtelomeres, (ii) does not cross the centromere and, and (iii) is longer than 1.5 megabases in length; (c) an Indicator LST Region is a somatic copy number breakpoint along the length of a chromosome that is between two regions of at least 10 megabases in length after filtering out regions shorter than 3 megabases in length; combining the number of Indicator LOH Regions, Indicator TAI Regions, and Indicator LST Regions to provide a test value, wherein a test value greater than a reference value of 32 identifies the patient as HR deficient. determining, in a sample comprising a cancer cell of a patient, the number of Indicator LOH Regions, Indicator TAI Regions, and Indicator LST Regions in at least one pair of human chromosomes of the cancer cell, wherein (a) an Indicator LOH Region is an LOH Region that is longer than 1.5 megabases in length but shorter than the entire length of the respective chromosome within which the LOH Region is located; (b) an Indicator TAI Region is a TAI Region with allelic imbalance that (i) extends to one of the subtelomeres, (ii) does not cross the centromere and, and (iii) is longer than 1.5 megabases in length; (c) an Indicator LST Region is a somatic copy number breakpoint along the length of a chromosome that is between two regions of at least 10 megabases in length after filtering out regions shorter than 3 megabases in length; (a) an Indicator LOH Region is an LOH Region that is longer than 1.5 megabases in length but shorter than the entire length of the respective chromosome within which the LOH Region is located; (b) an Indicator TAI Region is a TAI Region with allelic imbalance that (i) extends to one of the subtelomeres, (ii) does not cross the centromere and, and (iii) is longer than 1.5 megabases in length; (c) an Indicator LST Region is a somatic copy number breakpoint along the length of a chromosome that is between two regions of at least 10 megabases in length after filtering out regions shorter than 3 megabases in length; combining the number of Indicator LOH Regions, Indicator TAI Regions, and Indicator LST Regions to provide a test value, wherein a test value greater than a reference value of 32 identifies the patient as HR deficient.
A method for repetitively manufacturing aircraft, the method comprising: fractionally pulsing a constituent part down an assembly line, wherein the fractional pulsing comprises periodically advancing the constituent part down the assembly line by less than a length of the constituent part, wherein the fractional pulsing comprises fractionally pulsing two or more constituent parts in parallel with one another down two or more different assembly lines, wherein the two or more different assembly lines are located in different manufacturing zones; and merging the two or more different assembly lines to form a common assembly line, wherein the fractionally pulsing the two or more constituent parts in parallel with one another down the two or more different assembly lines comprises fractionally pulsing the two or more constituent parts at a same average line velocity such that the two or more constituent parts are provided to the common assembly line at approximately the same time; wherein a first assembly line is included in a first manufacturing zone and is configured to propel constituent parts of a first aircraft subassembly through at least a portion of the first manufacturing zone, wherein a second assembly line is included in a second manufacturing zone and is configured to propel constituent parts of a second aircraft subassembly through at least a portion of the second manufacturing zone, wherein a third assembly line is included in a third manufacturing zone and is configured to propel constituent parts of an aircraft assembly through at least a portion of the third manufacturing zone. fractionally pulsing a constituent part down an assembly line, wherein the fractional pulsing comprises periodically advancing the constituent part down the assembly line by less than a length of the constituent part, wherein the fractional pulsing comprises fractionally pulsing two or more constituent parts in parallel with one another down two or more different assembly lines, wherein the two or more different assembly lines are located in different manufacturing zones; and merging the two or more different assembly lines to form a common assembly line, wherein the fractionally pulsing the two or more constituent parts in parallel with one another down the two or more different assembly lines comprises fractionally pulsing the two or more constituent parts at a same average line velocity such that the two or more constituent parts are provided to the common assembly line at approximately the same time; wherein a first assembly line is included in a first manufacturing zone and is configured to propel constituent parts of a first aircraft subassembly through at least a portion of the first manufacturing zone, wherein a second assembly line is included in a second manufacturing zone and is configured to propel constituent parts of a second aircraft subassembly through at least a portion of the second manufacturing zone, wherein a third assembly line is included in a third manufacturing zone and is configured to propel constituent parts of an aircraft assembly through at least a portion of the third manufacturing zone.