mhurhangee/ep-ind-claims huggingface dataset:
Measuring device for triangulation measurement, having - a light transmitter for emitting illuminating light in a measurement mode, - a transmitting optical system (20, 25) for directing the illuminating light in a light pattern, in particular in a plurality of light strips, in the direction of an object, - a light receiver for recording an image, wherein, in the measurement mode, the image is a measurement image of the object, which is recorded by measuring light thrown back from the illuminated object areas, - a control and evaluation unit, which is designed, in a measurement mode, to determine form and position information of the object based on the measurement image, characterised in that the control and evaluation unit is designed to change over between the measurement mode and a data reading mode, wherein the control and evaluation unit is designed to evaluate the image, in the data reading mode, with respect to encoded parameter data and to use the parameter data read in this way in a subsequent measurement mode. - a light transmitter for emitting illuminating light in a measurement mode, - a transmitting optical system (20, 25) for directing the illuminating light in a light pattern, in particular in a plurality of light strips, in the direction of an object, - a light receiver for recording an image, wherein, in the measurement mode, the image is a measurement image of the object, which is recorded by measuring light thrown back from the illuminated object areas, - a control and evaluation unit, which is designed, in a measurement mode, to determine form and position information of the object based on the measurement image,
A valve assembly, comprising: a check valve; a shut off valve; and a lubricant communication path, wherein the check valve and the shut off valve are operative to influence communication of lubricant along the lubricant communication path, the valve assembly characterised in that: the check valve is configured to be moved radially from a position where at least a portion of the check valve is radially inwards of a flow path through a turbomachine to be accessed from a first position that is radially outboard the flow path; the shut off valve is configured to be accessed from a second position that is radially outboard the flow path; and the lubricant communication path extends between a first location that is radially outboard the flow path and a second location that is radially inboard the flow path. a check valve; a shut off valve; and a lubricant communication path, wherein the check valve and the shut off valve are operative to influence communication of lubricant along the lubricant communication path, the valve assembly characterised in that: the check valve is configured to be moved radially from a position where at least a portion of the check valve is radially inwards of a flow path through a turbomachine to be accessed from a first position that is radially outboard the flow path; the shut off valve is configured to be accessed from a second position that is radially outboard the flow path; and the lubricant communication path extends between a first location that is radially outboard the flow path and a second location that is radially inboard the flow path. the check valve is configured to be moved radially from a position where at least a portion of the check valve is radially inwards of a flow path through a turbomachine to be accessed from a first position that is radially outboard the flow path; the shut off valve is configured to be accessed from a second position that is radially outboard the flow path; and the lubricant communication path extends between a first location that is radially outboard the flow path and a second location that is radially inboard the flow path.
A semiconductor device, comprising: a first transistor having a gate electrode structure and recessed drain and source regions, said drain and source regions are provided in recessed portions of a semiconductor layer and extend to a buried insulating layer; a strained semiconductor alloy provided partially in said drain and source regions, said strained semiconductor alloy inducing a strain in a channel region of said first transistor, wherein a top surface of said strained semiconductor alloy opposite the buried insulating layer is recessed below an interface between a gate insulation layer and the channel region of the first transistor; a spacer structure having a width; a recess in one of the recessed source and drain regions; and an interlayer dielectric material formed above the top surface and in a recessed portion of said strained semiconductor alloy, wherein an edge of the recess is offset from a sidewall of the gate electrode structure by a distance corresponding to the width of the spacer structure. a first transistor having a gate electrode structure and recessed drain and source regions, said drain and source regions are provided in recessed portions of a semiconductor layer and extend to a buried insulating layer; a strained semiconductor alloy provided partially in said drain and source regions, said strained semiconductor alloy inducing a strain in a channel region of said first transistor, wherein a top surface of said strained semiconductor alloy opposite the buried insulating layer is recessed below an interface between a gate insulation layer and the channel region of the first transistor; a spacer structure having a width; a recess in one of the recessed source and drain regions; and an interlayer dielectric material formed above the top surface and in a recessed portion of said strained semiconductor alloy, wherein an edge of the recess is offset from a sidewall of the gate electrode structure by a distance corresponding to the width of the spacer structure.
Process for oxidation of alkanes to ketones or aldehydes using oxygen as oxidising agent, characterised in that at least two catalysts according to general formula I (catalyst 1), [M 2 (R-HPTB)X 3], and general formula II (catalyst 2) [M' 4 OX 6 L], both catalysts being chosen independently from each other, are applied sequentially or at the same time in order to catalyse the oxidation-reaction, whereat R-HPTB denotes multidentate N,N,N',N'-tetrakis(2-R-benzimidazolylmethyl)2-hydroxy-1,3-diaminopropane ligands and metal atoms M are respectively independently from each other chosen from the list comprising Fe, Co, Ni, and metal atoms M' are atoms of a metal chosen from the list comprising Cu, Ag, Au, and substituents R are independently from each other chosen from the list comprising H, methyl, ethyl, propyl, benzyl, 2-methyl-pyridyl, and X are halogen atoms, independently from each other chosen from the list comprising CI, Br, and ligands L are nitrogen-containing ligands, independently from each other chosen from the list comprising aliphatic amines, aromatic amines, methylaminobenzene as well as substituted methylaminobenzenes, whereat the process is performed in the presence or absence of a solvent or a mixture of solvents, depending on the reactivity of the educts as well as the reactivitiy of catalyst 1 and catalyst 2.
A surgical instrument comprising: a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member to translate the displacement member; a sensor configured to sense a thickness of a tissue grasped by an end effector; and a control circuit coupled to the motor and the sensor, the control circuit configured to: retrieve an expected thickness of the tissue; determine the thickness of the tissue via the sensor; and set a duty cycle for driving the motor, wherein the duty cycle depends on the thickness of the tissue relative to the expected thickness of the tissue; characterized in that the control circuit is configured to set the duty cycle to a default duty cycle when the thickness of the tissue is less than or equal to the expected thickness of the tissue and wherein if the thickness of the tissue is greater than the expected thickness of the tissue, the duty cycle is set so that the thicker the thickness of the tissue is relative to the expected thickness, the slower the displacement member is displaced. a displacement member configured to translate within the surgical instrument; a motor coupled to the displacement member to translate the displacement member; a sensor configured to sense a thickness of a tissue grasped by an end effector; and a control circuit coupled to the motor and the sensor, the control circuit configured to: retrieve an expected thickness of the tissue; determine the thickness of the tissue via the sensor; and set a duty cycle for driving the motor, wherein the duty cycle depends on the thickness of the tissue relative to the expected thickness of the tissue; characterized in that retrieve an expected thickness of the tissue; determine the thickness of the tissue via the sensor; and set a duty cycle for driving the motor, wherein the duty cycle depends on the thickness of the tissue relative to the expected thickness of the tissue; characterized in that the control circuit is configured to set the duty cycle to a default duty cycle when the thickness of the tissue is less than or equal to the expected thickness of the tissue and wherein if the thickness of the tissue is greater than the expected thickness of the tissue, the duty cycle is set so that the thicker the thickness of the tissue is relative to the expected thickness, the slower the displacement member is displaced.
A method of applying an abradable coating to an article, the method comprising: applying to a surface of the article a dry composite powder composition; and curing the applied composition, the dry composite powder composition being formed of a first component, including at least an uncured thermoset resin having a cure temperature, in combination with a second component, including at least 15 volume percent filler based on the volume of the resultant composite powder composition, wherein the filler is formed of a material which does not substantially melt at or below the cure temperature of the resin, the thermoset resin being selected from the group consisting of acrylic, polyester, epoxy, allyl, melamine formaldehyde, phenolic, polybutadiene, polycarbonate, polydicyclopentadiene, polyamide, polyurethane, and combinations thereof, said abradable coating exhibiting a mass of from 40 to 90 percent of the theoretical mass as calculated by geometric mass calculation. applying to a surface of the article a dry composite powder composition; and curing the applied composition, the dry composite powder composition being formed of a first component, including at least an uncured thermoset resin having a cure temperature, in combination with a second component, including at least 15 volume percent filler based on the volume of the resultant composite powder composition, wherein the filler is formed of a material which does not substantially melt at or below the cure temperature of the resin, the thermoset resin being selected from the group consisting of acrylic, polyester, epoxy, allyl, melamine formaldehyde, phenolic, polybutadiene, polycarbonate, polydicyclopentadiene, polyamide, polyurethane, and combinations thereof, said abradable coating exhibiting a mass of from 40 to 90 percent of the theoretical mass as calculated by geometric mass calculation.
A composition in the form of an oil-in-water or water-in-oil emulsion, comprising - water at a concentration between 30 and 80% by weight relative to the total weight of the composition - glycerol at a concentration between 10 and 20%, preferably between 13 and 17%, still preferably about 15% by weight relative to the total weight of the composition, - vaseline at a concentration between 3 and 20%, preferably between 5 and 10%, still preferably about 8% by weight relative to the total weight of the composition - liquid paraffin at a concentration between 0.5 and 5%, still preferably between 1 and 3%, preferably about 2% by weight relative to the total weight of the composition, - at least one preservative, other than parabens, selected from the group consisting of hexanediol, ethylhexylglycerin, pentyleneglycol, butyleneglycol, 1,2 octanediol (caprylyl glycol) and mixtures thereof, - at least two gelling agents including a gelling agent of the polyacrylamide type and a second gelling agent selected from the group consisting of: xanthan gum, carbomer 980, carbomer 974, hydroxyethylcellulose, hydroxypropylmethylcellulose and mixtures thereof. - water at a concentration between 30 and 80% by weight relative to the total weight of the composition - glycerol at a concentration between 10 and 20%, preferably between 13 and 17%, still preferably about 15% by weight relative to the total weight of the composition, - vaseline at a concentration between 3 and 20%, preferably between 5 and 10%, still preferably about 8% by weight relative to the total weight of the composition - liquid paraffin at a concentration between 0.5 and 5%, still preferably between 1 and 3%, preferably about 2% by weight relative to the total weight of the composition, - at least one preservative, other than parabens, selected from the group consisting of hexanediol, ethylhexylglycerin, pentyleneglycol, butyleneglycol, 1,2 octanediol (caprylyl glycol) and mixtures thereof, - at least two gelling agents including a gelling agent of the polyacrylamide type and a second gelling agent selected from the group consisting of: xanthan gum, carbomer 980, carbomer 974, hydroxyethylcellulose, hydroxypropylmethylcellulose and mixtures thereof.
An electrochromic device comprising: (a) an electrochromic layer comprising an electrochromic material; (b) a counter electrode layer comprising a counter electrode material; and (c) an interfacial region between the electrochromic layer and the counter electrode layer, wherein the interfacial region includes: an electrically-insulating ion conducting material which has been formed by converting some of an oxygen rich region of the electrochromic material, counter electrode material, or both; and at least one of the electrochromic material and the counter electrode material, wherein the interfacial region is ion conducting and substantially electronically insulating. (a) an electrochromic layer comprising an electrochromic material; (b) a counter electrode layer comprising a counter electrode material; and (c) an interfacial region between the electrochromic layer and the counter electrode layer, wherein the interfacial region includes: an electrically-insulating ion conducting material which has been formed by converting some of an oxygen rich region of the electrochromic material, counter electrode material, or both; and at least one of the electrochromic material and the counter electrode material, wherein the interfacial region is ion conducting and substantially electronically insulating. an electrically-insulating ion conducting material which has been formed by converting some of an oxygen rich region of the electrochromic material, counter electrode material, or both; and at least one of the electrochromic material and the counter electrode material, wherein the interfacial region is ion conducting and substantially electronically insulating.
A method for controlling a self-optimization, performed by an integration reference point agent, IRPAgent, an element management system, EM, or a network element, NE, and an entity that provides a self-optimization capability is on the IRPAgent, the EM, or the NE, wherein: a switch attribute is defined, on a network resource model, NRM, of the entity, for each self-optimization field in self-optimization fields, and the self-optimization fields comprise handover, load balancing, interference control, capacity and coverage, random access channel optimization, and energy saving; and the method comprises: querying a state of a switch attribute defined for the self-optimization; setting the state of the switch attribute to control enabling or disabling of the self-optimization. querying a state of a switch attribute defined for the self-optimization; setting the state of the switch attribute to control enabling or disabling of the self-optimization.
A process for producing formic acid from a carbohydrate-containing material, the process comprising: introducing a carbohydrate-containing material to a first reactor; hydrolyzing the carbohydrate-containing material in the first reactor in the presence of a mineral acid for a first time period at a first temperature and a first pressure effective to form an intermediate hydrolysate comprising one or more sugars; transferring the intermediate hydrolysate from the first reactor to a second reactor; hydrolyzing the intermediate hydrolysate in the second reactor for a second time period at a second temperature less than 195 degrees C and a second pressure effective to form a hydrolysate product comprising formic acid; and isolating the formic acid in a vapor from the hydrolysate product. introducing a carbohydrate-containing material to a first reactor; hydrolyzing the carbohydrate-containing material in the first reactor in the presence of a mineral acid for a first time period at a first temperature and a first pressure effective to form an intermediate hydrolysate comprising one or more sugars; transferring the intermediate hydrolysate from the first reactor to a second reactor; hydrolyzing the intermediate hydrolysate in the second reactor for a second time period at a second temperature less than 195 degrees C and a second pressure effective to form a hydrolysate product comprising formic acid; and isolating the formic acid in a vapor from the hydrolysate product.
A modular wooden wall system for constructing solid partitions and/or room dividers in buildings, wherein solid solid-wood modules (1 - 4) are connected together positively and/or non-positively by connecting elements (9, 10, 11) and the connection of the solid solid-wood modules (1 - 4) is reversible, and wherein the solid-wood module has at least two stepped channels which lie on a channel plane, and wherein a longitudinal edge length of the solid-wood module is the whole multiple of a transverse edge length (a) and a distance of the channels from a long edge of the solid-wood module is a quarter transverse edge length (a) and the distance of the channels on a channel plane in the transverse direction is a half transverse edge length (a), characterised in that the solid solid-wood module (1 - 4) has a square cross-section, and a distance of a first channel plane from a transverse edge of the solid-wood module is a half transverse edge length (a), and the distance of the channel plane in the longitudinal direction is a transverse edge length (a), and wherein the long edge of the solid-wood modules points substantially in the same direction as the grain of the wood from which the solid-wood modules are manufactured.
Method for inspecting a safety device mounted on a service elevator, the safety device comprising a housing, an entry hole for a cable, and an exit hole for the cable, and a safety mechanism inside the housing, the safety mechanism being configured to prevent the cable which passes through the safety device from moving when an unsafe condition exists and wherein the safety mechanism comprises a first clamp and a second clamp for clamping the cable in between the first and the second clamps (6, 7) and a centrifugal detection mechanism, the centrifugal detection mechanism comprising a driven roller, and the method comprising inspecting the safety mechanism using an endoscope by inserting an insertion tube of the endoscope through the entry hole for the cable or through the exit hole for the cable, and inspecting the first and the second clamps (6, 7) for unusual wear, and inspecting the driven roller for a crescent shape of an external groove of the driven roller by pushing a distal end of the insertion tube through the clamps (6, 7) of the clamping mechanism, wherein the cable is removed from the housing prior to inserting the insertion tube. the safety mechanism being configured to prevent the cable which passes through the safety device from moving when an unsafe condition exists and wherein the safety mechanism comprises a first clamp and a second clamp for clamping the cable in between the first and the second clamps (6, 7) and a centrifugal detection mechanism, the centrifugal detection mechanism comprising a driven roller, and the method comprising inspecting the safety mechanism using an endoscope by inserting an insertion tube of the endoscope through the entry hole for the cable or through the exit hole for the cable, and inspecting the first and the second clamps (6, 7) for unusual wear, and inspecting the driven roller for a crescent shape of an external groove of the driven roller by pushing a distal end of the insertion tube through the clamps (6, 7) of the clamping mechanism, wherein the cable is removed from the housing prior to inserting the insertion tube.
A hinge assembly for a refrigerating appliance, the hinge assembly comprising: a door engaging member attached in use to a door panel; a cabinet engaging member attached in use to a structural cabinet; an articulating mechanism extending between the door engaging member and the cabinet engaging member, wherein the articulating mechanism partially defines an operational path of the door engaging member between collapsed and extended positions; an articulating wire chase, wherein a flexible conduit extends from the structural cabinet to the door panel and is retained within the articulating wire chase in each of a serpentine and elongated positions, wherein operation of the articulating mechanism between the collapsed position and the extended position corresponds to operation of the articulating wire chase between the serpentine position and the elongated position of the flexible conduit, wherein the flexible conduit is secured by a plurality of hold-down features of the articulating wire chase, wherein the door engaging member, the cabinet engaging member and the articulating mechanism defines a four-part linkage, characterised in that the articulating wire chase is rotationally coupled to the cabinet engaging member and slidably coupled to the articulating mechanism at a guide slot and the articulating wire chase couples with the cabinet engaging member and part of the articulating mechanism to define a three-part linkage that cooperatively operates with the four-part linkage between the collapsed and extended positions (22, 24). a door engaging member attached in use to a door panel; a cabinet engaging member attached in use to a structural cabinet; an articulating mechanism extending between the door engaging member and the cabinet engaging member, wherein the articulating mechanism partially defines an operational path of the door engaging member between collapsed and extended positions; an articulating wire chase, wherein a flexible conduit extends from the structural cabinet to the door panel and is retained within the articulating wire chase in each of a serpentine and elongated positions, wherein operation of the articulating mechanism between the collapsed position and the extended position corresponds to operation of the articulating wire chase between the serpentine position and the elongated position of the flexible conduit, wherein the flexible conduit is secured by a plurality of hold-down features of the articulating wire chase, wherein the door engaging member, the cabinet engaging member and the articulating mechanism defines a four-part linkage, characterised in that the articulating wire chase is rotationally coupled to the cabinet engaging member and slidably coupled to the articulating mechanism at a guide slot and the articulating wire chase couples with the cabinet engaging member and part of the articulating mechanism to define a three-part linkage that cooperatively operates with the four-part linkage between the collapsed and extended positions (22, 24).