mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: using at least one processing device: receiving activity data and physiological data from a plurality of sensors associated with at least a portion of an industrial process system, said plurality of sensors configured to monitor a response to alarms via an activity detection module and physiological assessment module, monitoring the activity data and physiological data from the plurality of sensors to identify a period of inactivity; and responsive to identifying the period of inactivity, issuing a first alarm; and characterized by generating a second alarm by an escalation module if the first alarm is not acknowledged beyond an acceptable duration. using at least one processing device: receiving activity data and physiological data from a plurality of sensors associated with at least a portion of an industrial process system, said plurality of sensors configured to monitor a response to alarms via an activity detection module and physiological assessment module, monitoring the activity data and physiological data from the plurality of sensors to identify a period of inactivity; and responsive to identifying the period of inactivity, issuing a first alarm; and characterized by receiving activity data and physiological data from a plurality of sensors associated with at least a portion of an industrial process system, said plurality of sensors configured to monitor a response to alarms via an activity detection module and physiological assessment module, monitoring the activity data and physiological data from the plurality of sensors to identify a period of inactivity; and responsive to identifying the period of inactivity, issuing a first alarm; and characterized by generating a second alarm by an escalation module if the first alarm is not acknowledged beyond an acceptable duration.
A cable guiding linkage for guiding and protecting a flexible cable between first and second structures (1,3,4), the second structure (3,4) being movable relative to the first structure, the linkage comprising a proximal arm; a proximal pivot joint for coupling the proximal arm to the first structure; and a distal arm which is coupled to the proximal arm by one or more intermediate pivot joints, characterised in that the distal arm is shaped as a three-dimensional curve along a majority of its length, wherein the three-dimensional curve does not lie in a single plane and appears curved when viewed in all directions.
A copper-based alloy, designated by the general formula Cu a Zn b Pb0, said alloy being characterized in that its chemical composition consists, in percentage by weight with respect to the total weight of said alloy, of a proportion a of copper (Cu) varying between 64.0 and 68.0%, a proportion b of zinc (Zn) varying between 23.0% and 32.0%, said alloy further including a proportion of tin (Sn) of less than 0.50%, a proportion of iron (Fe) varying between 0.4 and 1.2%, a proportion of nickel (Ni) of less than 0.50%, a proportion of aluminum (Al) varying between 1.5% and 2.3 %, a proportion of manganese (Mn) varying between 2.5% and 3.3% and a proportion of silicon (Si) of less than 1.0%, and in that said Cu a Zn b Pb0 alloy includes a proportion of lead of less than or equal to 0.10%.
A method for directly bonding at least one first electronic chip to a substrate or to at least one second electronic chip, including at least the steps of: - making, on each of a face of the first electronic chip and a first face of the substrate or of the second electronic chip, at least one first and one second part (105, 110, 106, 111) having a contact angle difference towards a first fluid which is higher than about 70° with respect to each other, such that the first parts (105, 110) have contact angles towards the first fluid lower than those of the second parts (106, 111) and have shapes and dimensions substantially similar with respect to each other, and such that, on each of the face of the first electronic chip and the first face of the substrate or of the second electronic chip, the first part (105, 110) is delimited by the second part (106, 111); - depositing the first fluid onto the first part of the first face of the substrate or of the second electronic chip; - depositing the first part of the face of the first electronic chip onto the first fluid; - removing the first fluid until a securement of the first part of the face of the first electronic chip with the first part of the first face of the substrate or of the second electronic chip is achieved; and further including, during at least part of the removal of the first fluid, emitting ultrasound in the first fluid through the substrate or the second electronic chip, the emitted ultrasound having a frequency higher than or equal to about 1 MHz, and wherein, during a first part of the removal of the first fluid, the ultrasound emitting power is such that cavitation bubbles are formed in the first fluid, and then, during a second part of the removal of the first fluid, the ultrasound emitting power is reduced in order to stop creating cavitation bubbles while exerting a mechanical pressure onto the first electronic chip. - making, on each of a face of the first electronic chip and a first face of the substrate or of the second electronic chip, at least one first and one second part (105, 110, 106, 111) having a contact angle difference towards a first fluid which is higher than about 70° with respect to each other, such that the first parts (105, 110) have contact angles towards the first fluid lower than those of the second parts (106, 111) and have shapes and dimensions substantially similar with respect to each other, and such that, on each of the face of the first electronic chip and the first face of the substrate or of the second electronic chip, the first part (105, 110) is delimited by the second part (106, 111); - depositing the first fluid onto the first part of the first face of the substrate or of the second electronic chip; - depositing the first part of the face of the first electronic chip onto the first fluid; - removing the first fluid until a securement of the first part of the face of the first electronic chip with the first part of the first face of the substrate or of the second electronic chip is achieved;
A separation type 3D unit pixel structure for an image sensor, each pixel comprising a back-illumination photodiode and plural transistors, the structure comprising: a first wafer having a semiconductor substrate and a pad, the substrate including only the photodiode which contains impurities of a type opposite to that of the semiconductor substrate and the pad being connected to the photodiode for transmitting photoelectric charge of the photodiode to outside; a color filter formed on the first wafer; a second wafer having a pixel array region and a peripheral circuit region, wherein the plural transistors of the pixel circuitry are arranged in the pixel array region of the second wafer, and a pad, the peripheral circuit region constituting an image sensor structure including the rest of the pixel elements apart from the pixel array, wherein, in the pixel array region of the second wafer, the rest of the circuit elements constituting a pixel namely a transmission transistor, a reset transistor, a source follower transistor, and a selection transistor are arranged; and a connecting means connecting the pad of the first wafer and the pad of the second wafer, so that the first and second wafers are arranged one above the other; and a transparent buffer layer disposed between the color filter and the semiconductor substrate. a first wafer having a semiconductor substrate and a pad, the substrate including only the photodiode which contains impurities of a type opposite to that of the semiconductor substrate and the pad being connected to the photodiode for transmitting photoelectric charge of the photodiode to outside; a color filter formed on the first wafer; a second wafer having a pixel array region and a peripheral circuit region, wherein the plural transistors of the pixel circuitry are arranged in the pixel array region of the second wafer, and a pad, the peripheral circuit region constituting an image sensor structure including the rest of the pixel elements apart from the pixel array, wherein, in the pixel array region of the second wafer, the rest of the circuit elements constituting a pixel namely a transmission transistor, a reset transistor, a source follower transistor, and a selection transistor are arranged; and a connecting means connecting the pad of the first wafer and the pad of the second wafer, so that the first and second wafers are arranged one above the other; and a transparent buffer layer disposed between the color filter and the semiconductor substrate.
A method comprising: receiving, by a data encoder, image data with luminance values representing absolute luminance values L to be encoded; accessing, via the data encoder, an OETF encode function for mapping absolute luminance values into digital code values; based on the receiving and the accessing, encoding, via the data encoder, the received image data into reference encoded image data; and outputting, via the data encoder, the reference encoded image data, wherein the luminance values of the received image data are represented by the digital code values in the reference encoded image data; characterized in that the OETF encode function is based at least in part on a functional model of: V = c 1 + c 2 Y n 1 + c 3 Y n m, wherein: Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, wherein: n = 2610 4096 x 1 4 ≃ 0.1593017578125; m = 2523 4096 x 128 ≃ 78.84375; c 1 = c 3 − c 2 + 1 = 3424 4096 ≃ 0.8359375; c 2 = 2413 4096 x 32 ≃ 18.8515625; and c 3 = 2392 4096 x 32 ≃ 18.6875. receiving, by a data encoder, image data with luminance values representing absolute luminance values L to be encoded; accessing, via the data encoder, an OETF encode function for mapping absolute luminance values into digital code values; based on the receiving and the accessing, encoding, via the data encoder, the received image data into reference encoded image data; and outputting, via the data encoder, the reference encoded image data, wherein the luminance values of the received image data are represented by the digital code values in the reference encoded image data; the OETF encode function is based at least in part on a functional model of: V = c 1 + c 2 Y n 1 + c 3 Y n m, wherein: Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values, Y is a normalized value of a corresponding one of the absolute luminance values L, wherein 0 ≤ Y ≤ 1, V is a normalized value of a corresponding one of the digital code values D that are output as reference encoded image data, wherein 0 ≤ V ≤ 1, and n, m, c 1, c 2, and c 3 are predetermined values,
An immunodeficient non-obese diabetic mouse homozygous for scid mutation and having an IL-2 receptor gamma chain deficiency, wherein the mouse is genetically modified to lack functional major histocompatibility complex I (MHC I) and functional major histocompatibility complex II (MHC II), wherein the mouse is a NOD.Cg- Prkdc scid H2-K1 tm1Bpe H2-Ab1 em1Mvw H2-D1 tm1Bpe Il2rg tm1Wjl /SzJ (NSG- (K b D b) null ( IA null)) mouse.
Binding device to bind documents in a deformable channel having a frame, having a manual lever which is able to swivel about a first pivot axis, which is fixed in the frame, in a actuation direction from an initial via an intermediate into an end position, having two clamping jaws (24, 26) to clamp and deform the channel, of which a first clamping jaw is mounted to be moveable in a feed direction towards the second clamping jaw in a linear manner in the frame, having a bed to support the channel between the clamping jaws (24, 26), wherein the intermediate position of the manual lever is defined by the clamping jaws (24, 26) reaching a distance apart corresponding to the width of the channel, and having a push lever which is able to swivel about a second pivot axis, which is fixed in the frame, and which has at least one gear segment on a first lever arm and a pressure piece on the second lever arm, characterised by a pressure strip mounted to be moveable in a linear manner at a distance to the first clamping jaw in the frame from an end stop in the feed direction to the first clamping jaw, said pressure strip having a side flank facing towards the first clamping jaw, the distance of which to the first clamping jaw is constantly reducing in a transverse direction running perpendicularly to the feed direction, and a pressure surface facing away from the first clamping jaw; and a spacer wedge which abuts onto the first clamping jaw and the side flank of the pressure strip and which is movable by movement of the manual lever in the actuation direction by means of a lever mechanism in the transverse direction, wherein the pressure piece is a pressure piece for the force loading of the pressure surface, wherein the at least one gear segment engages with at least one gear rack mounted in the frame and connected to the manual lever such that a movement of the manual lever in the actuation direction causes a movement of the pressure piece in the direction towards the pressure surface, and wherein the pressure piece is arranged such that it comes into contact with the pressure surface at or after the manual lever has reached the intermediate position.
An isolated human antibody or antigen-binding fragment thereof that specifically binds and neutralizes human TNF-like ligand 1A (hTL1A) activity, comprising an HCVR/LCVR sequence pair selected from the group consisting of SEQ ID NO: 2/10, 18/26, 34/42, 50/58, 66/74, 82/90, 98/106, 114/116, 118/126, 134/136, 138/146, 154/156, 158/166, 174/176, 178/186, 194/196, 198/206, 214/216, 218/226 and 234/236.
An associative mist control material comprising a 1:1 mixture of polymers, comprising at least two different complementary polymers each of said polymers having weight-average molecular weight of from 100 kg/mol to 1000 kg/mol comprising: at least one non-associative chain, said non-associative chain being selected to confer solubility to the polymer in a hydrocarbon fuel such that the non-polar hydrocarbon fuel and the mist control material remains as a homogenous single phase during storage and transport over a wide temperature range of from -40°C to +60°C, a plurality of associative groups disposed at either end of each of said non-associative chains, wherein the associative groups are selected such that the polymer does not self-associate, and wherein a plurality of associative groups separate each of said non-associative chains; wherein the associative groups of said polymers reversibly associate with an association sufficiently strong to provide association of the polymers into supramolecules at temperatures up to 60°C; and wherein the associative groups are a carboxylic acid/tertiary amine acid/base pair and wherein the non-associative chains are homopolymers or copolymers of different monomers selected from the group of isoprene, butadiene, ethylene, propylene, butene, norbornene, cyclobutene, cyclopentene, cyclooctene, cyclooctadiene, and trans, trans, cis-1, 5, 9-cyclododecatriene, wherein the associative groups of said polymers reversibly associate with an association strength less than that of covalent bond to form supramolecules designed to prevent misting of the medium. at least one non-associative chain, said non-associative chain being selected to confer solubility to the polymer in a hydrocarbon fuel such that the non-polar hydrocarbon fuel and the mist control material remains as a homogenous single phase during storage and transport over a wide temperature range of from -40°C to +60°C, a plurality of associative groups disposed at either end of each of said non-associative chains, wherein the associative groups are selected such that the polymer does not self-associate, and wherein a plurality of associative groups separate each of said non-associative chains; wherein the associative groups of said polymers reversibly associate with an association sufficiently strong to provide association of the polymers into supramolecules at temperatures up to 60°C; and wherein the associative groups are a carboxylic acid/tertiary amine acid/base pair and wherein the non-associative chains are homopolymers or copolymers of different monomers selected from the group of isoprene, butadiene, ethylene, propylene, butene, norbornene, cyclobutene, cyclopentene, cyclooctene, cyclooctadiene, and trans, trans, cis-1, 5, 9-cyclododecatriene, wherein the associative groups of said polymers reversibly associate with an association strength less than that of covalent bond to form supramolecules designed to prevent misting of the medium.
A method for stabilizing one or more biological components from a biological sample from a subject, the method comprising obtaining an integrated sample acquisition and sample stabilization device comprising: (i) a sample acquisition component, wherein the sample acquisition component comprises one or more piercing elements; and (ii) more than one paper stabilization matrix, wherein the more than one paper stabilization matrices are stacked, and wherein the more than one paper stabilization matrices do not contact each other; and moving the biological sample from an opening in the sample acquisition component through one channel onto the more than one paper stabilization matrices, wherein the one or more biological components from the biological sample are stabilized on the more than one paper stabilization matrices. obtaining an integrated sample acquisition and sample stabilization device comprising: (i) a sample acquisition component, wherein the sample acquisition component comprises one or more piercing elements; and (ii) more than one paper stabilization matrix, wherein the more than one paper stabilization matrices are stacked, and wherein the more than one paper stabilization matrices do not contact each other; and moving the biological sample from an opening in the sample acquisition component through one channel onto the more than one paper stabilization matrices, wherein the one or more biological components from the biological sample are stabilized on the more than one paper stabilization matrices.
Coating material cassette, comprising a container and a supply of coating material received therein, characterised in that the coating material is edge banding, wherein the container comprises a base side and a top side opposite the base side, wherein the base side and the top side are interconnected at least in portions by means of side walls and thus define a container interior, wherein the container is designed to receive, in the interior thereof, a supply of coating material for coating workpieces that consist preferably at least in portions of wood, wood-based materials, plastics material, aluminium or the like, and the base side of the container and/or the top side of the container comprises one or more perforation lines, wherein each perforation line defines a region in the base side and/or top side of the container that is detachable at least in portions. wherein the container comprises a base side and a top side opposite the base side, wherein the base side and the top side are interconnected at least in portions by means of side walls and thus define a container interior, wherein the container is designed to receive, in the interior thereof, a supply of coating material for coating workpieces that consist preferably at least in portions of wood, wood-based materials, plastics material, aluminium or the like, and the base side of the container and/or the top side of the container comprises one or more perforation lines, wherein each perforation line defines a region in the base side and/or top side of the container that is detachable at least in portions.
A method of deriving a sweetener from oats comprising: providing an oat component; milling the oat component to a particle size selected from the group consisting of 6.35μm, 125μm, and 420μm, and combinations thereof; mixing the oat component with an amount of liquid, such as water, to form a mixture, wherein the mixture comprises 5-40, and preferably 18-25, wt% solids on a dry matter basis; cooking the mixture at a temperature maintained below 71°C (160°F); hydrolyzing the mixture with enzyme to form a modified oat flour, wherein the hydrolyzing is carried out with 0.01 % to 1% by weight of the enzyme to form the modified oat flour; drying the modified oat flour to provide a sweetener composition; and processing the sweetener composition to form a sweetener, wherein the processing includes granulation, and wherein the sweetener composition has a Dextrose Equivalent value of 10-90. providing an oat component; milling the oat component to a particle size selected from the group consisting of 6.35μm, 125μm, and 420μm, and combinations thereof; mixing the oat component with an amount of liquid, such as water, to form a mixture, wherein the mixture comprises 5-40, and preferably 18-25, wt% solids on a dry matter basis; cooking the mixture at a temperature maintained below 71°C (160°F); hydrolyzing the mixture with enzyme to form a modified oat flour, wherein the hydrolyzing is carried out with 0.01 % to 1% by weight of the enzyme to form the modified oat flour; drying the modified oat flour to provide a sweetener composition; and processing the sweetener composition to form a sweetener, wherein the processing includes granulation, and wherein the sweetener composition has a Dextrose Equivalent value of 10-90.
A stable pharmaceutical composition of curcumin comprising oil, solvent, surfactant and optionally antioxidant, wherein the ratio of oil to solvent, surfactant to solvent and surfactant to curcumin is in the range of 0.83 to 10, 1 to 60 and 3 to 15, respectively with curcumin in the range of 2 to 20% w/w, wherein (i) oil is selected from: fractionated coconut oil, caprylic/capric triglyceride or an oil containing fatty acid triglycerides, preferably medium chain fatty acid triglycerides isopropyl myristate, isopropyl palmitate, ethyl linoleate or an oil containing ethyl oleate esters of fatty acids and monovalent alkanols propylene glycol dicaprylate, propylene glycol dilaurate or an oil containing propylene glycol di-fatty acid esters; (ii) surfactant is selected from polysorbate, vitamin E TPGS and cremophor R and (iii) solvent is selected from glycofurol, polyethylene glycol, glycerol, polypropylene glycol, propylene glycol, glycerin, N-methyl-2-pyrolidone and ethyl alcohol or mixture thereof. (i) oil is selected from: fractionated coconut oil, caprylic/capric triglyceride or an oil containing fatty acid triglycerides, preferably medium chain fatty acid triglycerides isopropyl myristate, isopropyl palmitate, ethyl linoleate or an oil containing ethyl oleate esters of fatty acids and monovalent alkanols propylene glycol dicaprylate, propylene glycol dilaurate or an oil containing propylene glycol di-fatty acid esters; (ii) surfactant is selected from polysorbate, vitamin E TPGS and cremophor R and (iii) solvent is selected from glycofurol, polyethylene glycol, glycerol, polypropylene glycol, propylene glycol, glycerin, N-methyl-2-pyrolidone and ethyl alcohol or mixture thereof.