mhurhangee/ep-ind-claims huggingface dataset:
An outdoor unit of an air-conditioning apparatus, comprising: a casing; and grasp portions (20, 21, 22, 23, 24) provided at at least two respective positions at corner portions of the casing as seen in plan view, wherein the grasp portions (20, 21, 22, 23, 24) each include an outer peripheral portion forming an outer periphery of the each grasp portion, and a finger hook portion protruding downwards from an upper part of the outer peripheral portion and extending in a lateral direction of the finger hook portion, and wherein the outer peripheral portion includes a bottom surface portion and a back surface portion a first opening provided above the bottom surface portion such that a lower end portion of the finger hook portion is exposed as seen in a horizontal direction and a direction perpendicular to the lateral direction, a second opening provided below the finger hook portion and continuous with the first opening, and a third opening provided between the finger hook portion and the back surface portion behind the finger hook portion and continuous with the second opening, the second opening and the third opening being provided at one of end portions of the outer peripheral portion which are located at ends thereof in the lateral direction. a casing; and grasp portions (20, 21, 22, 23, 24) provided at at least two respective positions at corner portions of the casing as seen in plan view, wherein the grasp portions (20, 21, 22, 23, 24) each include an outer peripheral portion forming an outer periphery of the each grasp portion, and a finger hook portion protruding downwards from an upper part of the outer peripheral portion and extending in a lateral direction of the finger hook portion, and wherein the outer peripheral portion includes a bottom surface portion and a back surface portion a first opening provided above the bottom surface portion such that a lower end portion of the finger hook portion is exposed as seen in a horizontal direction and a direction perpendicular to the lateral direction, a second opening provided below the finger hook portion and continuous with the first opening, and a third opening provided between the finger hook portion and the back surface portion behind the finger hook portion and continuous with the second opening, the second opening and the third opening being provided at one of end portions of the outer peripheral portion which are located at ends thereof in the lateral direction.
Electrical machining method, characterized by drilling of holes in a workpiece by means of a tool electrode, wherein the method comprises drilling holes in at least two different process conditions, - wherein first type holes are drilled into full workpiece material by electrical discharge machining with the tool electrode, whereby the workpiece material entirely surrounds the radial circumference of the tool electrode, and - wherein a second type hole is drilled by electrical discharge machining with the tool electrode into the workpiece material partially surrounding the electrode radial circumference, such that the second type hole connects two adjacent first type holes, and - wherein the holes are blind holes or through holes. - wherein first type holes are drilled into full workpiece material by electrical discharge machining with the tool electrode, whereby the workpiece material entirely surrounds the radial circumference of the tool electrode, and - wherein a second type hole is drilled by electrical discharge machining with the tool electrode into the workpiece material partially surrounding the electrode radial circumference, such that the second type hole connects two adjacent first type holes, and - wherein the holes are blind holes or through holes.
A plasma electrode for a plasma cutting apparatus consisting of a cylindrical cooling tube and an approximately hollow-cylindrical electrode body, at whose front side a central core holder arranged at the end face and facing into the interior of the electrode body is arranged for holding an emitting electrode core, wherein the cooling tube through which an axial cooling liquid flow flows in operation is arranged in the interior of the electrode body, wherein the cooling tube is releasably connected to the rear end of the electrode body by means of a connection preferably formed as a screw or plug connection, characterized in that the core holder is formed as a conical body facing into the interior of the electrode body, whose conical surfaces taper in the axial direction starting from the base of the electrode body, and the cooling tube, with its front end face, is set on the core holder in an at least partially positionally secured manner.
Polyvinylidene difluoride particles having an average particle diameter of 0.3 μm or more and less than 20 μm and a particle diameter distribution index of 1-2; wherein average particle diameter is the number average particle diameter of the polyvinylidene difluoride determined by measuring diameters of 100 particles selected randomly from a scanning electron microscope photograph and calculating the arithmetic average thereof, where if there is a particle of a shape that is not a perfect circle in the photograph, the maximum diameter of the particle is taken as its particle diameter; and wherein the particle diameter distribution index is calculated using the thus-obtained particle diameters on the basis of the following conversion equations: Dn = ∑ i = 1 n Ri / n Dv = ∑ i = 1 n R i 4 / ∑ i = 1 n R i 3 PDI = Dv / Dn wherein Ri represents the particle diameter of each particle, n represents the number of measurements (=100), Dn represents the number average particle diameter, Dv represents the volume average particle diameter, and PDI represents the particle diameter distribution index.
A method for monitoring device failure, comprising: loading and executing a tool collection script that integrates a plurality of monitoring tools, periodically monitoring a plurality of preset key indicators through a plurality of preset basic tools included in the tool collection script, wherein each preset key indicator is real-time monitored through the preset basic tools capable of indicating whether the preset key indicator contains abnormal information; when a target preset key indicator is abnormal, collecting device operating parameters through a plurality of data collection tools that corresponds to the target preset key indicator and is included in the tool collection script, wherein for different preset key indicators, the data collection tools under the abnormal conditions are preset, and the device operating parameters related to the abnormal preset key indicators are collected based on the data collection tool; and determining and feeding back a failure type to which the device operating parameters belong based on parameter characteristics corresponding to preset failure types. loading and executing a tool collection script that integrates a plurality of monitoring tools, periodically monitoring a plurality of preset key indicators through a plurality of preset basic tools included in the tool collection script, wherein each preset key indicator is real-time monitored through the preset basic tools capable of indicating whether the preset key indicator contains abnormal information; when a target preset key indicator is abnormal, collecting device operating parameters through a plurality of data collection tools that corresponds to the target preset key indicator and is included in the tool collection script, wherein for different preset key indicators, the data collection tools under the abnormal conditions are preset, and the device operating parameters related to the abnormal preset key indicators are collected based on the data collection tool; and determining and feeding back a failure type to which the device operating parameters belong based on parameter characteristics corresponding to preset failure types.
An encoder comprising: a position data obtaining unit that obtains superordinate data representing a position of a moving body in a superordinate section in which the moving body is capable of moving and subordinate data representing a position of the moving body in a subordinate section repeated in the superordinate section with higher resolution than that of the superordinate data; a storage unit in which a correction value capable of correcting a deviation amount generated in advance, based on the deviation amount occurring in the superordinate data against the subordinate data and measured in advance, is recorded to be associated with an absolute position with lower resolution than that of the subordinate data of the moving body; a correcting unit that obtains, based on an absolute position with the low resolution when superordinate data is obtained by the position data obtaining unit, a correction value associated with the absolute position from the storage unit and corrects the superordinate data based on the correction value; and a section identification unit that identifies, based on the superordinate data corrected by the correcting unit and the subordinate data when the superordinate data is obtained, the subordinate section in which the subordinate data is obtained against the superordinate section. a position data obtaining unit that obtains superordinate data representing a position of a moving body in a superordinate section in which the moving body is capable of moving and subordinate data representing a position of the moving body in a subordinate section repeated in the superordinate section with higher resolution than that of the superordinate data; a storage unit in which a correction value capable of correcting a deviation amount generated in advance, based on the deviation amount occurring in the superordinate data against the subordinate data and measured in advance, is recorded to be associated with an absolute position with lower resolution than that of the subordinate data of the moving body; a correcting unit that obtains, based on an absolute position with the low resolution when superordinate data is obtained by the position data obtaining unit, a correction value associated with the absolute position from the storage unit and corrects the superordinate data based on the correction value; and a section identification unit that identifies, based on the superordinate data corrected by the correcting unit and the subordinate data when the superordinate data is obtained, the subordinate section in which the subordinate data is obtained against the superordinate section.
A method of fabricating a printed circuit board to promote adhesion between a copper surface and an organic substrate, comprising the steps of: stabilizing the copper surface by forming a copper oxide layer on the copper surface by exposing the copper surface to an oxidant and coupling one or more organic molecules to the copper oxide layer, the one or more organic molecules comprising a thermally stable base bearing one or more binding groups configured to bind the copper oxide layer and one or more attachment groups configured to attach to the organic substrate; and conditioning the stabilized copper surface by reducing the copper oxide layer with a reducing agent. stabilizing the copper surface by forming a copper oxide layer on the copper surface by exposing the copper surface to an oxidant and coupling one or more organic molecules to the copper oxide layer, the one or more organic molecules comprising a thermally stable base bearing one or more binding groups configured to bind the copper oxide layer and one or more attachment groups configured to attach to the organic substrate; and conditioning the stabilized copper surface by reducing the copper oxide layer with a reducing agent.
An atherectomy system, comprising: a handle having a handle housing (16a, 16b, 16c); a drive motor disposed within the handle housing (16a, 16b, 16c) and adapted to rotate a drive cable extending through the handle and operably coupled to an atherectomy burr; a supply line extending from the handle housing (16a, 16b, 16c), characterised by the supply line comprising a tubular member with a power line and a saline line running through the tubular member; the atherectomy system further comprising a supply line fitment disposed relative to the handle housing (16a, 16b, 16c), the supply line fitment configured to releasably secure the supply line relative to the handle housing (16a, 16b, 16c) such that the supply line is directed away from the handle housing (16a, 16b, 16c) in a particular direction that is selected by a user from two or more directions. a handle having a handle housing (16a, 16b, 16c); a drive motor disposed within the handle housing (16a, 16b, 16c) and adapted to rotate a drive cable extending through the handle and operably coupled to an atherectomy burr; a supply line extending from the handle housing (16a, 16b, 16c), the supply line comprising a tubular member with a power line and a saline line running through the tubular member; the atherectomy system further comprising a supply line fitment disposed relative to the handle housing (16a, 16b, 16c), the supply line fitment configured to releasably secure the supply line relative to the handle housing (16a, 16b, 16c) such that the supply line is directed away from the handle housing (16a, 16b, 16c) in a particular direction that is selected by a user from two or more directions.
A method for growing cells or microorganisms, the method comprising: operating a mixing element within a compartment of a container so that the mixing element mixes a solution within the compartment, the solution having a first volume and comprising media and cells or microorganisms, the mixing element being operated during growth of the cells or microorganisms; sensing one or more processing variables of the solution within the compartment, the one or more processing variables being selected from the group consisting of gassing rate, pH, dissolved O 2, dissolved CO 2, conductivity, optical density, viscosity, or flow pattern of the solution; and adjusting a horizontal position, vertical position, tilt, or movement pattern along a two dimensional path or three dimensional path of the mixing element within the compartment based on the sensed one or more processing variables of the solution, the mixing element comprising an impeller and the step of operating the mixing element comprising rotating the impeller. operating a mixing element within a compartment of a container so that the mixing element mixes a solution within the compartment, the solution having a first volume and comprising media and cells or microorganisms, the mixing element being operated during growth of the cells or microorganisms; sensing one or more processing variables of the solution within the compartment, the one or more processing variables being selected from the group consisting of gassing rate, pH, dissolved O 2, dissolved CO 2, conductivity, optical density, viscosity, or flow pattern of the solution; and adjusting a horizontal position, vertical position, tilt, or movement pattern along a two dimensional path or three dimensional path of the mixing element within the compartment based on the sensed one or more processing variables of the solution, the mixing element comprising an impeller and the step of operating the mixing element comprising rotating the impeller.
A method comprising: replicating each data block of a plurality of data blocks on at least a minimum number of respective one or more replicate nodes of a plurality of nodes (A-C); requesting, by a first node of the plurality of nodes (A-C), write access to one or more data blocks of the plurality of data blocks, comprising acquiring, for the one or more data blocks, a write lock that provides exclusive access to the one or more data blocks by the first node; based on said requesting said write access: modifying a heatmap, and replicating the one or more data blocks to the first node, thus creating more than the minimum number of replicate nodes for the one or more data blocks; releasing, for the one or more data blocks, the write lock, comprising selecting a subset of the plurality of nodes (A-C) to remain replicate nodes for the one or more data blocks, wherein said subset includes the first node and has the minimum number of replicate nodes for the one or more data blocks; adjusting, based on the heatmap, the minimum number of respective one or more replicate nodes for at least one data block of the one or more data blocks. replicating each data block of a plurality of data blocks on at least a minimum number of respective one or more replicate nodes of a plurality of nodes (A-C); requesting, by a first node of the plurality of nodes (A-C), write access to one or more data blocks of the plurality of data blocks, comprising acquiring, for the one or more data blocks, a write lock that provides exclusive access to the one or more data blocks by the first node; based on said requesting said write access: modifying a heatmap, and replicating the one or more data blocks to the first node, thus creating more than the minimum number of replicate nodes for the one or more data blocks; modifying a heatmap, and replicating the one or more data blocks to the first node, thus creating more than the minimum number of replicate nodes for the one or more data blocks; releasing, for the one or more data blocks, the write lock, comprising selecting a subset of the plurality of nodes (A-C) to remain replicate nodes for the one or more data blocks, wherein said subset includes the first node and has the minimum number of replicate nodes for the one or more data blocks; adjusting, based on the heatmap, the minimum number of respective one or more replicate nodes for at least one data block of the one or more data blocks.
A detergent composition comprising a fatty acid decarboxylase enzyme and a surfactant system, wherein the fatty acid decarboxylase enzyme is defined by an enzyme or enzyme/cofactor/co-substrate system capable of catalysing the conversion of any C10-20 saturated, monounsaturated or polyunsaturated fatty acid into its corresponding terminal alkene as shown in reaction Scheme 1: wherein the fatty acid decarboxylase enzyme is selected from the group of cytochrome P450 and mixtures thereof, wherein the fatty acid decarboxylase has at least 40% identity to SEQ ID NO:1, wherein the fatty acid decarboxylase enzyme is preferably selected from the family CYP BSβ.
An airbag deployment system, comprising: a support structure; a fabric material configured to form a show surface of a vehicle interior panel, wherein a first portion of the fabric material is rigidly coupled to a first portion of the support structure; a facing rigidly coupled to a second portion of the support structure; characterized in that a thread configured to detachably secure the facing to a second portion of the fabric material, wherein the thread is configured to break upon contact between an airbag and the fabric material; and wherein the facing is rigidly coupled to the second portion of the support structure via a hook (80, 72) having a recess (84, 88, 74) configured to engage a protrusion (84, 76) of the support structure. a support structure; a fabric material configured to form a show surface of a vehicle interior panel, wherein a first portion of the fabric material is rigidly coupled to a first portion of the support structure; a facing rigidly coupled to a second portion of the support structure; characterized in that a thread configured to detachably secure the facing to a second portion of the fabric material, wherein the thread is configured to break upon contact between an airbag and the fabric material; and wherein the facing is rigidly coupled to the second portion of the support structure via a hook (80, 72) having a recess (84, 88, 74) configured to engage a protrusion (84, 76) of the support structure.
A computer-implemented method for computing the combined instantaneous inhibitory potential (CIIP) of a drug regimen based on predicted or in vitro determined dose-response curves of the individual drugs used in a treatment regimen wherein said CIIP obtained is a predictor of the clinical outcome and wherein said CIIP is determined according to the following calculations wherein C represents a given drug concentration, f u represents a fraction of unaffected events, IC 50 represents the median effect concentration, m represents the maximal slope: Ia: For mutually exclusive inhibitors: The extended formula contains n + 1 terms for n drugs: F E x = − 1 + ∑ i = 1 n c i I C 50, i. x 1 − x m i Ib: For non-exclusive inhibitors: Let P be the powerset of a set D of n drugs, i.e. the set of all 2 n subsets s j of D, p j = − 1 for and p j = ∏ k = 1 | s j | c k IC 50, k ⋅ x 1 − x | s j |. m k for all other subsets s j, then F NE x = ∑ j = 1 2 n p j II: Wherein the unique root f u of the latter monotonic functions Ia) or I b) can be solved numerically by bisection and the thus computed root f u corresponds to the fraction of pseudo-catalyst inhibited, and by extension to the fraction of unaffected assay events in the cellular phenotypic assay; and III: Wherein then the combined IIP of a regimen of any desired number drugs is formalized according to CIIP ( C 1, C 2,...) = - log 10 (f u). Ia: For mutually exclusive inhibitors: The extended formula contains n + 1 terms for n drugs: F E x = − 1 + ∑ i = 1 n c i I C 50, i. x 1 − x m i The extended formula contains n + 1 terms for n drugs: F E x = − 1 + ∑ i = 1 n c i I C 50, i. x 1 − x m i Ib: For non-exclusive inhibitors: Let P be the powerset of a set D of n drugs, i.e. the set of all 2 n subsets s j of D, p j = − 1 for and p j = ∏ k = 1 | s j | c k IC 50, k ⋅ x 1 − x | s j |. m k for all other subsets s j, then F NE x = ∑ j = 1 2 n p j Let P be the powerset of a set D of n drugs, i.e. the set of all 2 n subsets s j of D, p j = − 1 for and p j = ∏ k = 1 | s j | c k IC 50, k ⋅ x 1 − x | s j |. m k for all other subsets s j, then F NE x = ∑ j = 1 2 n p j II: Wherein the unique root f u of the latter monotonic functions Ia) or I b) can be solved numerically by bisection and the thus computed root f u corresponds to the fraction of pseudo-catalyst inhibited, and by extension to the fraction of unaffected assay events in the cellular phenotypic assay; and III: Wherein then the combined IIP of a regimen of any desired number drugs is formalized according to CIIP ( C 1, C 2,...) = - log 10 (f u).
A method for implementing, on a naval platform comprising a deck, a superstructure including an edging and a floor, the edging including an edge and a vertical attachment plate extending downwards the edge, the floor being removably attached to the edge of the edging, the method being characterized in that it includes the following steps: - positioning the superstructure above the deck in an initial position in which the floor is facing the deck, away from the deck, substantially parallel to the deck, and in which the floor is attached to the edge of the edging; - attachment of the attachment plate of the edging onto the deck; - dissociating the floor and the edging; - lowering the floor; and - attaching the floor on the deck independently of and at a distance from the edging. - positioning the superstructure above the deck in an initial position in which the floor is facing the deck, away from the deck, substantially parallel to the deck, and in which the floor is attached to the edge of the edging; - attachment of the attachment plate of the edging onto the deck; - dissociating the floor and the edging; - lowering the floor; and - attaching the floor on the deck independently of and at a distance from the edging.