mhurhangee/ep-ind-claims huggingface dataset:
A counterweight of a washing machine, comprising: at least one counterweight cavity (51, 52, 53), wherein a water entering port for connecting a water entering pipeline and a water draining port for connecting a water draining pipeline are formed on a wall of each of the at least one counterweight cavity (51, 52, 53), and at least one water pressurizing structure, disposed in each of the at least one counterweight cavity (51, 52, 53), and configured to enable water entering each of the at least one counterweight cavity (51, 52, 53) to be in an air-free sealed cavity; each of the at least one water pressurizing structure comprises: a water pressurizing plate, wherein the water pressurizing plate is capable of being moved in each of the at least one counterweight cavity (51, 52, 53), and separates a cavity of each of the at least one counterweight cavity (51, 52, 53) into a first cavity and a second cavity each having a changeable volume; and the water entering port and the water draining port respectively communicate with the first cavity; and a pressure assembly, configured to apply a pressure on the water pressurizing plate, so that the water pressurizing plate is moved toward a direction in which a volume of the first cavity is shrunk. at least one counterweight cavity (51, 52, 53), wherein a water entering port for connecting a water entering pipeline and a water draining port for connecting a water draining pipeline are formed on a wall of each of the at least one counterweight cavity (51, 52, 53), and at least one water pressurizing structure, disposed in each of the at least one counterweight cavity (51, 52, 53), and configured to enable water entering each of the at least one counterweight cavity (51, 52, 53) to be in an air-free sealed cavity; each of the at least one water pressurizing structure comprises: a water pressurizing plate, wherein the water pressurizing plate is capable of being moved in each of the at least one counterweight cavity (51, 52, 53), and separates a cavity of each of the at least one counterweight cavity (51, 52, 53) into a first cavity and a second cavity each having a changeable volume; and the water entering port and the water draining port respectively communicate with the first cavity; and a pressure assembly, configured to apply a pressure on the water pressurizing plate, so that the water pressurizing plate is moved toward a direction in which a volume of the first cavity is shrunk. a water pressurizing plate, wherein the water pressurizing plate is capable of being moved in each of the at least one counterweight cavity (51, 52, 53), and separates a cavity of each of the at least one counterweight cavity (51, 52, 53) into a first cavity and a second cavity each having a changeable volume; and the water entering port and the water draining port respectively communicate with the first cavity; and a pressure assembly, configured to apply a pressure on the water pressurizing plate, so that the water pressurizing plate is moved toward a direction in which a volume of the first cavity is shrunk.
A process for the production of an N-deacylated cephalosporin of the general formula wherein R 0 is hydrogen or C 1-3 alkoxy; Y is CH 2, oxygen, sulphur, or an oxidised form of sulphur; R 1 is selected from the group consisting of • hydrogen, • hydroxy, • halogen, • saturated or unsaturated, straight or branched alkyl (1-5 carbon atoms; optionally replaced by one or more heteroatoms), optionally substituted with hydroxy, halogen, aryl, alkoxy (1-3 carbon atoms), or acyl; • alkoxy (1-3 carbon atoms; optionally replaced by one or more heteroatoms), optionally substituted with hydroxy or halogen; or • cycloalkyl (3-8 carbon atoms) optionally substituted with hydroxy, halogen, amino; • aryl; • heteroaryl, comprising: a) fermenting a microorganism capable of producing an N-acylated cephalosporin compound wherein the acyl group is selected from the group consisting of adipyl, succinyl, glutaryl, pimelyl, suberyl, 2-(carboxyethylthio)acetyl, 3-(carboxy-ethylthio)propionyl, higher alkyl saturated and higher alkyl unsaturated dicarboxylic acids and wherein the fermentation broth additionally may comprise N-acylated penicillins and 6-APA; and b) recovering the N-acylated cephalosporin compound from the fermentation broth obtained in step a) at a pH between 4 and 9; and c) converting the N-acylated cephalosporin compound obtained in step b) to the corresponding N-deacylated cephalosporin compound in the presence of a deacylating enzyme; and d) precipitating the N-deacylated cephalosporin compound characterized in that a β-lactamase is added in step a) and/or step b). • hydrogen, • hydroxy, • halogen, • saturated or unsaturated, straight or branched alkyl (1-5 carbon atoms; optionally replaced by one or more heteroatoms), optionally substituted with hydroxy, halogen, aryl, alkoxy (1-3 carbon atoms), or acyl; • alkoxy (1-3 carbon atoms; optionally replaced by one or more heteroatoms), optionally substituted with hydroxy or halogen; or • cycloalkyl (3-8 carbon atoms) optionally substituted with hydroxy, halogen, amino; • aryl; • heteroaryl, a) fermenting a microorganism capable of producing an N-acylated cephalosporin compound wherein the acyl group is selected from the group consisting of adipyl, succinyl, glutaryl, pimelyl, suberyl, 2-(carboxyethylthio)acetyl, 3-(carboxy-ethylthio)propionyl, higher alkyl saturated and higher alkyl unsaturated dicarboxylic acids and wherein the fermentation broth additionally may comprise N-acylated penicillins and 6-APA; and b) recovering the N-acylated cephalosporin compound from the fermentation broth obtained in step a) at a pH between 4 and 9; and c) converting the N-acylated cephalosporin compound obtained in step b) to the corresponding N-deacylated cephalosporin compound in the presence of a deacylating enzyme; and d) precipitating the N-deacylated cephalosporin compound characterized in that a β-lactamase is added in step a) and/or step b).
A honeycomb structure comprising: a honeycomb base material including a porous partition wall parent material to partition and form a plurality of cells which become through channels of a fluid; plugged portions arranged in open frontal areas of predetermined cells in an end surface on an inflow side of the fluid and open frontal areas of the remaining cells in an end surface on an outflow side of the fluid; and a porous collecting layer disposed on the surface of the partition wall parent material in the remaining cells, wherein a melting point of a material constituting the collecting layer is higher than that of a material constituting the partition wall parent material, a pore surface area per unit volume of the collecting layer is 2.0 times or more a pore surface area per unit volume of the partition wall parent material, and a thickness of a portion of the collecting layer which penetrates into pores of the partition wall parent material is 6% or smaller of that of each of partition walls including the partition wall parent material and the collecting layer, wherein, in a cross section orthogonal to an extending direction of the cells, the honeycomb structure does not include: a shape of the cells being a rectangular shape or a square shape, and a thickness of a portion of the collecting layer which is positioned in each of corner portions of each of the cells being from one to three times that of a portion of the collecting layer which is positioned in the center of each of sides of the cell. plugged portions arranged in open frontal areas of predetermined cells in an end surface on an inflow side of the fluid and open frontal areas of the remaining cells in an end surface on an outflow side of the fluid; and a porous collecting layer disposed on the surface of the partition wall parent material in the remaining cells, wherein a melting point of a material constituting the collecting layer is higher than that of a material constituting the partition wall parent material, a pore surface area per unit volume of the collecting layer is 2.0 times or more a pore surface area per unit volume of the partition wall parent material, and a thickness of a portion of the collecting layer which penetrates into pores of the partition wall parent material is 6% or smaller of that of each of partition walls including the partition wall parent material and the collecting layer, wherein, in a cross section orthogonal to an extending direction of the cells, the honeycomb structure does not include: a shape of the cells being a rectangular shape or a square shape, and a thickness of a portion of the collecting layer which is positioned in each of corner portions of each of the cells being from one to three times that of a portion of the collecting layer which is positioned in the center of each of sides of the cell.
Printing process in which a substrate to be printed is disposed opposite an ink carrier having an ink layer, wherein the ink layer is regionally heated in such a way that bulges are formed in the ink layer, wherein the bulges contact the substrate and wherein ink splitting is brought about by relative movement between substrate and ink carrier.
Use of a two-component adhesive for an endoscope, the adhesive comprising a base and a curing agent, wherein the base includes at least one epoxy resin selected from the group consisting of bisphenol A epoxy resins, bisphenol F epoxy resins, and phenol novolac epoxy resins, and the curing agent includes a tertiary amine compound, the tertiary amine compound accounting for 60 mass% or more of a curing component included in the curing agent. wherein the base includes at least one epoxy resin selected from the group consisting of bisphenol A epoxy resins, bisphenol F epoxy resins, and phenol novolac epoxy resins, and the curing agent includes a tertiary amine compound, the tertiary amine compound accounting for 60 mass% or more of a curing component included in the curing agent.
A production system for processing and inspecting tubes to form filtration tubes, the system comprising a laser cutting system configured to cut a plurality of slots, holes, and/or pores into and through a wall of the tube to form a filtration tube that is configured to filter solids from fluid; said production system being characterised by: a six-axis robotic arm configured to move each tube between a plurality of sub-systems, the sub-systems comprising: a tube input-output subsystem configured to hold a plurality of tubes, the robotic arm being configured to withdraw a tube for processing from the tube input-output subsystem; an inspection system (122,124, 126) configured to receive and inspect the tube placed therein by the robotic arm, the inspection system (122,124, 126) configured to inspect the tube by scanning a surface of the tube to determine presence of abnormalities, defects, and/or quality issues; and a laser cutting system configured to receive the tube via the robotic arm moving said tube to the laser cutting system. a tube input-output subsystem configured to hold a plurality of tubes, the robotic arm being configured to withdraw a tube for processing from the tube input-output subsystem; an inspection system (122,124, 126) configured to receive and inspect the tube placed therein by the robotic arm, the inspection system (122,124, 126) configured to inspect the tube by scanning a surface of the tube to determine presence of abnormalities, defects, and/or quality issues; and a laser cutting system configured to receive the tube via the robotic arm moving said tube to the laser cutting system.
An imaging apparatus comprising: a tilt control unit that performs tilt control by driving at least one of an imaging device and an imaging optical system; a focus lens driving unit that drives a focus lens; and a control unit that selects one of a plurality of control modes for performing focus control using at least one of the tilt control unit and the focus lens driving unit in accordance with the number of subject areas in an image, characterized in that in a case in which the number of subject areas in the image is one, the control unit selects a first control mode in which focus control is performed using one of the tilt control unit and the focus lens driving unit, and in a case in which the number of subject areas in the image is equal to or larger than two, the control unit selects a second control mode in which focus control is performed using the tilt control unit and the focus lens driving unit. a tilt control unit that performs tilt control by driving at least one of an imaging device and an imaging optical system; a focus lens driving unit that drives a focus lens; and a control unit that selects one of a plurality of control modes for performing focus control using at least one of the tilt control unit and the focus lens driving unit in accordance with the number of subject areas in an image, characterized in that in a case in which the number of subject areas in the image is one, the control unit selects a first control mode in which focus control is performed using one of the tilt control unit and the focus lens driving unit, and in a case in which the number of subject areas in the image is equal to or larger than two, the control unit selects a second control mode in which focus control is performed using the tilt control unit and the focus lens driving unit.
A computer-implemented method for authenticating a user device (Bm) allocated to a user in the process of logging onto a server, the user device (Bm) belonging to a user device group (B1-Bn) known to the server and having both a user ID (IDBm) and a password (PBm) known to the server, comprising the following steps: a) the server generates prompts (Et1-Etx) for every time (t1-tx) each valid during a defined period of time only, and displays each of these prompts (Et1-Etx) successively and individually in a login screen, b) the user device (Bm) reads in the prompt displayed at the point of time of logging on and calculates a response (ABm) using this prompt, its password (PBm), and the current time, c) the user device (Bm) transmits the calculated response (ABm) to the login screen, d) the response (ABm) is transmitted from the login screen to the server, e) the server, at least for a part of the user device group (B1-Bn), calculates a respective response (AS1-ASn) using the prompt displayed at the point of time of logging on, the respective password (PB1-PBn) as well as the current time and compares the responses (AS1-ASn) calculated by it to the response (ABm) transmitted by the user device (Bm), and f) the server confirms the authentication for that user device (Bm) for which the response (ASm) calculated by the server corresponds to the response (ABm) transmitted by the user device (Bm). a) the server generates prompts (Et1-Etx) for every time (t1-tx) each valid during a defined period of time only, and displays each of these prompts (Et1-Etx) successively and individually in a login screen, b) the user device (Bm) reads in the prompt displayed at the point of time of logging on and calculates a response (ABm) using this prompt, its password (PBm), and the current time, c) the user device (Bm) transmits the calculated response (ABm) to the login screen, d) the response (ABm) is transmitted from the login screen to the server, e) the server, at least for a part of the user device group (B1-Bn), calculates a respective response (AS1-ASn) using the prompt displayed at the point of time of logging on, the respective password (PB1-PBn) as well as the current time and compares the responses (AS1-ASn) calculated by it to the response (ABm) transmitted by the user device (Bm), and f) the server confirms the authentication for that user device (Bm) for which the response (ASm) calculated by the server corresponds to the response (ABm) transmitted by the user device (Bm).
An aqueous coating composition comprising - at least one type of organic polymer particles having a Z-average particle size of 10 to 1000 nm, measured by means of dynamic light scattering, comprising isocyanate-reactive polymers, - one or more ketoxime- and/or pyrazole-blocked polyisocyanates, comprising at least one aromatic hydrocarbyl radical or at least one cycloaliphatic hydrocarbyl radical, - at least one polyanionic polymer, - at least one complex fluoride selected from the group consisting of hexa- or tetrafluorides of the metallic elements of groups IVb, Vb and VIb of the Periodic Table of the Elements, and - at least one aminosilane comprising a silyl group of the formula Si(OR 7) 3-i (R 8) i in which R 7 is an alkyl radical having 1 to 4 carbon atoms or is an O=C-CH 3 group, R 8 is an alkyl radical having 1 to 4 carbon atoms and i is 0 or 1, wherein the aqueous coating composition - has a pH of 3 to 5, and - has a total solids content (1 g sample, 60 min, 125°C) of 5% to 35% by weight. - at least one type of organic polymer particles having a Z-average particle size of 10 to 1000 nm, measured by means of dynamic light scattering, comprising isocyanate-reactive polymers, - one or more ketoxime- and/or pyrazole-blocked polyisocyanates, comprising at least one aromatic hydrocarbyl radical or at least one cycloaliphatic hydrocarbyl radical, - at least one polyanionic polymer, - at least one complex fluoride selected from the group consisting of hexa- or tetrafluorides of the metallic elements of groups IVb, Vb and VIb of the Periodic Table of the Elements, and - at least one aminosilane comprising a silyl group of the formula Si(OR 7) 3-i (R 8) i in which R 7 is an alkyl radical having 1 to 4 carbon atoms or is an O=C-CH 3 group, R 8 is an alkyl radical having 1 to 4 carbon atoms and i is 0 or 1, wherein the aqueous coating composition - has a pH of 3 to 5, and - has a total solids content (1 g sample, 60 min, 125°C) of 5% to 35% by weight.
A laser processing method forforming a hole in a sheet-like object to be processed made of silicon, the method comprising: a depression forming step of forming a depression in a part corresponding to the hole on each of a laser light entrance surface side of the object and a surface side opposite to the laser light entrance surface side of the object, the depression opening to the laser light entrance surface and the surface opposite to the laser light entrance surface, wherein each depression has a sloped surface tilted with respect to a thickness direction of the object as the inner face of the depression; a modified region forming step of forming a modified region along the part corresponding to the hole in the object by converging a laser light at the object after the depression forming step; and an etching step of anisotropically etching the object after the modified region forming step so as to advance the etching selectively along the modified region and form the hole in the object; wherein, in the modified region forming step, the modified region or a fracture extending from the modified region is exposed to the sloped surface the depressions; the modified region connects the depressions on the laser light entrance surface side and surface side opposite to the laser light entrance surface side of the object to each other; and in the etching step, the fracture included in the modified region or the fracture from the modified region is impregnated with an etchant so as to advance the etching selectively along the fracture. a depression forming step of forming a depression in a part corresponding to the hole on each of a laser light entrance surface side of the object and a surface side opposite to the laser light entrance surface side of the object, the depression opening to the laser light entrance surface and the surface opposite to the laser light entrance surface, wherein each depression has a sloped surface tilted with respect to a thickness direction of the object as the inner face of the depression; a modified region forming step of forming a modified region along the part corresponding to the hole in the object by converging a laser light at the object after the depression forming step; and an etching step of anisotropically etching the object after the modified region forming step so as to advance the etching selectively along the modified region and form the hole in the object; wherein, in the modified region forming step, the modified region or a fracture extending from the modified region is exposed to the sloped surface the depressions; the modified region connects the depressions on the laser light entrance surface side and surface side opposite to the laser light entrance surface side of the object to each other; and in the etching step, the fracture included in the modified region or the fracture from the modified region is impregnated with an etchant so as to advance the etching selectively along the fracture.
An actuator device comprising at least first and second actuators (50, 60) provided with means for connecting them respectively to first and second control circuits (51, 61) and to the first and second monitoring circuits (52, 62); and calculation means having two independent calculation channels, comprising: · a first and second control and monitoring card (31, 41) each respectively provided with a first and a second control module (32, 42) and with a first and a second monitoring module (33, 43), the first and second monitoring and control cards (31, 41) being identical; · the first and second control modules (32, 42) being connected respectively to the first and second control circuits (51, 61); · the first monitoring module being connected to the second monitoring circuit; and · the second monitoring module being connected to the first monitoring circuit. · a first and second control and monitoring card (31, 41) each respectively provided with a first and a second control module (32, 42) and with a first and a second monitoring module (33, 43), the first and second monitoring and control cards (31, 41) being identical; · the first and second control modules (32, 42) being connected respectively to the first and second control circuits (51, 61); · the first monitoring module being connected to the second monitoring circuit; and · the second monitoring module being connected to the first monitoring circuit.
A semi-rigid coating for traffic surfaces from a mortar slurry filled into an asphalt support framework, characterized in that, after the mortar slurry has been introduced into the asphalt support framework, a retarder has been applied to the surface of the mortar slurry and an upper layer with delayed hardening has been mechanically removed after hardening of the remaining mortar slurry.
A process for the preparation of a solution of glyceryl glucoside, comprising the reaction between glycerol and a glucose source, catalyzed by an enzyme suitable for the α-glucosylation of glycerol, wherein said glucose source is glucose or a glucose derivative which supplies the glucose unit that binds to glycerol to form glyceryl glucoside, characterised in that said reaction is carried out in an aqueous fruit extract containing zinc, copper, iron, manganese, sodium, calcium and magnesium as trace elements.
A vehicle retention system, comprising at least one post, at least one guardrail (4, 5) whose rail profile comprises a middle rail web and rail limbs (9, 10) which adjoin the rail web at the top and bottom, and at least one spacer provided between the post and the guardrail (4, 5), which spacer comprises a first holding limb which is rigidly connected to the post and a second holding limb which is rigidly connected to the guardrail (4, 5), wherein the spacer is formed as a dual-limb angle bracket whose first holding limb is rigidly connected above the middle rail web to the post, characterized in that the second holding limb of the angle bracket is rigidly connected beneath the middle rail web to the guard rail (4, 5).