mhurhangee/ep-ind-claims huggingface dataset:
An impact tool for performing a predetermined operation on a workpiece by at least linear movement of a tool bit, comprising a driving motor having a rotation axis, a tool holder that is adapted to hold a tool bit so as to allow relative movement of the tool bit in an axial direction of the tool bit, a striking element that is adapted to move linearly in the axial direction of the tool bit and to apply an impact force to the tool bit, an impact cylinder that is connected to the tool holder, the impact cylinder housing the striking element to allow relative movement, the impact cylinder having an air chamber that is adapted to cause compressed air to act upon the striking element, a motion converting mechanism that is adapted to convert rotation output of the driving motor into linear motion and to thereby generate compressed air in the air chamber of the impact cylinder, a handgrip (109, 109a) designed to be held by a user in order to operate the impact tool, a tool body that has a front end and a rear end in its longitudinal direction, the tool body having an outer housing, wherein the outer housing houses the driving motor, wherein the tool holder is provided at the region of the front end of the tool body and the handgrip (109, 109a) is provided at the rear end of the tool body, wherein both the tool holder and the impact cylinder extend in the axial direction of the tool bit, wherein the axial direction of the tool bit extends in a direction transverse to the longitudinal direction, characterized in that the tool body has a gear housing largely covered by the outer housing, wherein the gear housing houses the motion converting mechanism and the impact cylinder, wherein the length of the tool body in the axial direction of the tool bit is the sum of the length of the tool holder, the length of the impact cylinder, the width of end walls of the outer housing and the gear housing, respectively, at the end of the impact cylinder opposite the tool bit, and optionally the width of an air passage formed in the end wall of the gear housing.
A method performed by a device, comprising: receiving a first fragment of a fragmented data unit; determining a flow identifier that identifies a data flow with which the first fragment is associated; creating an entry in a flow table, based on the flow identifier, to store information associated with the data flow; determining a first fragment key associated with the first fragment; creating an entry in a fragment table based on the first fragment key; storing, in the entry in the fragment table, a pointer to the entry in the flow table; receiving a subsequent fragment of the fragmented data unit, where the subsequent fragment is received after the first fragment is received; determining a second fragment key associated with the subsequent fragment, the second fragment key matching the first fragment key, using the second fragment key to locate the entry in the fragment table, and correlating, based on the pointer in the entry in the fragment table to the entry in the flow table, the subsequent fragment and the first fragment, including storing information associated with the subsequent fragment in the entry in the flow table. receiving a first fragment of a fragmented data unit; determining a flow identifier that identifies a data flow with which the first fragment is associated; creating an entry in a flow table, based on the flow identifier, to store information associated with the data flow; determining a first fragment key associated with the first fragment; creating an entry in a fragment table based on the first fragment key; storing, in the entry in the fragment table, a pointer to the entry in the flow table; receiving a subsequent fragment of the fragmented data unit, where the subsequent fragment is received after the first fragment is received; determining a second fragment key associated with the subsequent fragment, the second fragment key matching the first fragment key, using the second fragment key to locate the entry in the fragment table, and correlating, based on the pointer in the entry in the fragment table to the entry in the flow table, the subsequent fragment and the first fragment, including storing information associated with the subsequent fragment in the entry in the flow table.
A method of filling a sanitizing device, comprising the steps of: - preparing a container body for containing a sanitizing product in gel form, said container body being provided with slits that are adapted to allow a gradual release of said sanitizing product, said slits having a maximum width of 2 mm that is such as to prevent the exit of the product in gel form during the pouring of said product in gel form into said container body; said container body is provided, at an upper surface thereof that is adapted to be directed, when installed, toward the opening of the sanitary fixture, with a plurality of walls that are arranged mutually offset; - heating a product in gel form, the heating temperature to which the product in gel form is heated must be such that at the moment of pouring the gel product has a minimum viscosity of 500 mPa*s; - pouring said product in gel form into said container body, so that the product in gel form initially comes into contact with a region of said container body with no slits or with slits having a maximum width that is such as to prevent the exit of the product in gel form during the pouring of the product in gel form into the container body; - leaving the product in gel form to expand inside said container body and to reach a final viscosity with cooling of at least 50 Pa*s. - preparing a container body for containing a sanitizing product in gel form, said container body being provided with slits that are adapted to allow a gradual release of said sanitizing product, said slits having a maximum width of 2 mm that is such as to prevent the exit of the product in gel form during the pouring of said product in gel form into said container body; said container body is provided, at an upper surface thereof that is adapted to be directed, when installed, toward the opening of the sanitary fixture, with a plurality of walls that are arranged mutually offset; - heating a product in gel form, the heating temperature to which the product in gel form is heated must be such that at the moment of pouring the gel product has a minimum viscosity of 500 mPa*s; - pouring said product in gel form into said container body, so that the product in gel form initially comes into contact with a region of said container body with no slits or with slits having a maximum width that is such as to prevent the exit of the product in gel form during the pouring of the product in gel form into the container body; - leaving the product in gel form to expand inside said container body and to reach a final viscosity with cooling of at least 50 Pa*s.
A process for converting a phosphonate, which is a hydroxyalkyl- or acyloxyalkyl-phosphonate, to a hydroxyalkyl phosphonic acid comprising the step of contacting together water, the phosphonate, and a sulfonated or phosphonated heterogeneous catalyst at a temperature of from 80°C to 120°C for a period in the range of from 1 hour to 24 hours to convert at least 50% of the phosphonate to the hydroxyalkyl phosphonic acid.
A method for manufacturing a bearing bushing in the course of the realization of a rubber bearing, comprising the following steps: a) a material strip is cut to length and pre-bent into a bushing on its ends; b) the pre-bent bushing penetrates into an additional bending contour of a holding-down device together with a core element while pre-bending elements are retracted and is additionally bent around the core element in the additional bending contour of the holding-down device by means of the core element abutting on a bending side; c) the additionally bent bushing is finish-bent together with the core element in a bending die (6, 7) while a longitudinal slot of predefined size is adjusted. a) a material strip is cut to length and pre-bent into a bushing on its ends; b) the pre-bent bushing penetrates into an additional bending contour of a holding-down device together with a core element while pre-bending elements are retracted and is additionally bent around the core element in the additional bending contour of the holding-down device by means of the core element abutting on a bending side; c) the additionally bent bushing is finish-bent together with the core element in a bending die (6, 7) while a longitudinal slot of predefined size is adjusted.
Method for producing lightweight sheet metal which comprises a layer structure made of at least two metallic cover layers (1,2) and at least one non-metallic core layer that is preferably made of plastics material, in particular for use in automotive engineering, at least one of the cover layers (1, 2) is made of of at least two metal sheets (1.1,1.2,1.3, 2.1, 2.2, 2.3; 1.1',1.2', 2,1', 2.2') which each have a thickness of less than 1 mm, preferably of less than 0.6 mm, and are frictionally and/or integrally connected to one another by means of a butt joint or a lap joint, characterised in that metal sheets (1.1, 1.2, 1.3, 2.1, 2.2, 2.3; 1.1',1.2', 2.1', 2.2') of different quality and/or thickness are used to produce at least one of the cover layers (1, 2), these metal sheets (1.1, 1.2,1.3, 2.1, 2.2, 2.3; 1.1', 1.2', 2.1', 2.2') having such dimensions or being selected such that the cover layer (1, 2) formed thereby has a width of less than 1350 mm, preferably of less than 1200 mm.
An immunogenic composition comprising a human rhinovirus VP2 protein and an adjuvant, wherein said VP2 protein is isolated, wherein said adjuvant comprises a saponin and a lipopolysaccharide A, and wherein the HRV VP2 protein is the HRV VP2 protein of HRV39 or an immunogenic variant thereof with at least 90% identity, over the entire length, to SEQ ID NO:1.
A computer implemented system for performing electromotive force analysis of a storage device comprising: a storage device configured to utilize a predefined protocol; an AI Co-processor chipset; a thin coil inductor positioned in proximity to a portion of the surface of the storage device for capturing data associated to electromotive force energy generated by the storage device; an analog-to-digital-converter; and at least one probe for communicating the captured data to an analog-to-digital converter; wherein the data is captured by the thin coil inductor and communicated to the analog-to-digital-converter via the at least one probe; wherein the analog-to-digital-converter digitizes the voltage level of the captured data and communicates the results of the digitization and amplification to the AI Co-processor chipset; wherein the AI Co-processor chipset performs analysis of the data to detect any anomalies caused by malware in the operation of the storage device and outputs those result for further processing; and characterized in that to perform analysis of the data for detection of anomalies, the AI Co-processor chipset is configured to calculate a correlation between command values of the predefined protocol and the electromotive force energy generated by the storage device. a storage device configured to utilize a predefined protocol; an AI Co-processor chipset; a thin coil inductor positioned in proximity to a portion of the surface of the storage device for capturing data associated to electromotive force energy generated by the storage device; an analog-to-digital-converter; and at least one probe for communicating the captured data to an analog-to-digital converter; wherein the data is captured by the thin coil inductor and communicated to the analog-to-digital-converter via the at least one probe; wherein the analog-to-digital-converter digitizes the voltage level of the captured data and communicates the results of the digitization and amplification to the AI Co-processor chipset; wherein the AI Co-processor chipset performs analysis of the data to detect any anomalies caused by malware in the operation of the storage device and outputs those result for further processing; and characterized in that to perform analysis of the data for detection of anomalies, the AI Co-processor chipset is configured to calculate a correlation between command values of the predefined protocol and the electromotive force energy generated by the storage device.
A wave-absorbing metamaterial, comprising a substrate and a plurality of artificial metal microstructures periodically arranged inside the substrate; wherein a relative permittivity of the metamaterial is substantially equal to a relative magnetic permeability of the metamaterial, wherein a first artificial metal microstructure is attached on one of two opposite lateral surfaces of the substrate and a second artificial metal microstructure one-to-one corresponding to the first artificial metal microstructure is attached on the other of the two opposite lateral surfaces of the substrate; wherein the first artificial metal microstructure comprises two first metal branches that are mutually and perpendicularly connected form a cross shape, and second metal branches respectively connected to two ends of the first metal branch and perpendicular to the first metal branch; wherein the second artificial metal microstructure comprises a third metal branch having a form of a quadrilateral, one side of the quadrilateral of the third metal branch is provided with a gap.
An antibody comprising a combination of a light chain variable region and a heavy chain variable region, wherein: the VL comprises complementarity determining regions (CDRs) L-CDR1, L-CDR2, and L-CDR3 as set forth in SEQ ID NOs. 6, 8, and 10, respectively; and, the VH comprising CDRs H-CDR1, H-CDR2 and H-CDR3 as set forth in SEQ ID NOs. 12, 14 and 16, respectively. the VL comprises complementarity determining regions (CDRs) L-CDR1, L-CDR2, and L-CDR3 as set forth in SEQ ID NOs. 6, 8, and 10, respectively; and, the VH comprising CDRs H-CDR1, H-CDR2 and H-CDR3 as set forth in SEQ ID NOs. 12, 14 and 16, respectively.
A composition comprising pridopidine or a pharmaceutical acceptable salt thereof and or or a pharmaceutical acceptable salt thereof, wherein the amount of Compound 1 or Compound 4 is not more than 10% by weight relative to the concentration of pridopidine.
A method of mass spectrometry comprising: providing a library of measured background component data, the measured background component data comprising, for each one of one or more chromatographic conditions, one or more physico-chemical properties of one or more background components expected to be detected when performing chromatographic separation under the condition; chromatographically separating a sample, the sample containing one or more analyte components, wherein at least some of the chromatographic separation is performed under a chromatographic condition in respect of which background component data is provided in the library; obtaining output data including sample data comprising one or more physico-chemical properties of one or more sample components as a function of retention time; characterised in that the method further comprises: calculating one or more error values based on a comparison between one or more background components identified in the output data and background component data obtained from the library of background component data; calculating one or more adjustment or correction values based on said one or more error values; and adjusting or correcting mass spectral data associated with said sample using said one or more adjustment or correction values. providing a library of measured background component data, the measured background component data comprising, for each one of one or more chromatographic conditions, one or more physico-chemical properties of one or more background components expected to be detected when performing chromatographic separation under the condition; chromatographically separating a sample, the sample containing one or more analyte components, wherein at least some of the chromatographic separation is performed under a chromatographic condition in respect of which background component data is provided in the library; obtaining output data including sample data comprising one or more physico-chemical properties of one or more sample components as a function of retention time; characterised in that the method further comprises: calculating one or more error values based on a comparison between one or more background components identified in the output data and background component data obtained from the library of background component data; calculating one or more adjustment or correction values based on said one or more error values; and adjusting or correcting mass spectral data associated with said sample using said one or more adjustment or correction values. calculating one or more error values based on a comparison between one or more background components identified in the output data and background component data obtained from the library of background component data; calculating one or more adjustment or correction values based on said one or more error values; and adjusting or correcting mass spectral data associated with said sample using said one or more adjustment or correction values.
A method of manufacturing a vane for a gas turbine engine, the vane (61 being a turbine stator vane or a turbine rotor vane and comprising a root part, an aerofoil and a cooling channel extending through at least the root part, the cooling channel is defined by a wall and comprises a flow adaption feature, the method comprises the steps of forming the vane with the flow adaption feature defining an inlet opening having an initial and nominal flow area Ai and which is less than a flow area for a first desired coolant mass flow, testing the mass flow rate of coolant passing through the cooling channel to find an actual mass flow, determining an increase in area of the inlet opening of the flow adaption feature to achieve the desired coolant mass flow based on the actual mass flow, machining the flow adaption feature to increase the inlet opening area to achieve the desired mass flow, characterised in that the initial and nominal flow area Ai of the flow adaption feature is between 75% and 98% of the flow area for the first desired coolant mass flow, wherein the flow adaption feature is integrally formed during an initial manufacturing process and is part of a casting, sintering or laser deposition process of the vane. forming the vane with the flow adaption feature defining an inlet opening having an initial and nominal flow area Ai and which is less than a flow area for a first desired coolant mass flow, testing the mass flow rate of coolant passing through the cooling channel to find an actual mass flow, determining an increase in area of the inlet opening of the flow adaption feature to achieve the desired coolant mass flow based on the actual mass flow, machining the flow adaption feature to increase the inlet opening area to achieve the desired mass flow, characterised in that the initial and nominal flow area Ai of the flow adaption feature is between 75% and 98% of the flow area for the first desired coolant mass flow, wherein the flow adaption feature is integrally formed during an initial manufacturing process and is part of a casting, sintering or laser deposition process of the vane.
A liquid dispersion comprising: - at least one plant growth regulator which has a solubility in sunflower oil of 0.1 wt% or less at 25 °C; - wherein the plant growth regulator, is chosen from the group of gibberellins, or prohexadione; - an organic hydrophobic carrier wherein the organic hydrophobic carrier is a vegetable oil with a melting point of 10 °C or lower, or an alkyl ester of a fatty acid, having a solubility in water of lower than about 1 g/Liter at 20 °C; - wherein the at least one growth regulator is insoluble or unstable in water, and is present in the liquid dispersion in an amount exceeding 0.1 wt%; - wherein more than 90% of the particles of said growth regulator have a particle size of between 1-7 μm; - wherein the dispersion further comprises an emulsifier which stabilizes the dispersion in the organic carrier, and which causes the concentrate to be water miscible and self-emulsifying when diluted in water in a 1:50 dilution; - wherein the dispersion contains less than 0.4 wt% water. - at least one plant growth regulator which has a solubility in sunflower oil of 0.1 wt% or less at 25 °C; - wherein the plant growth regulator, is chosen from the group of gibberellins, or prohexadione; - an organic hydrophobic carrier wherein the organic hydrophobic carrier is a vegetable oil with a melting point of 10 °C or lower, or an alkyl ester of a fatty acid, having a solubility in water of lower than about 1 g/Liter at 20 °C; - wherein the at least one growth regulator is insoluble or unstable in water, and is present in the liquid dispersion in an amount exceeding 0.1 wt%; - wherein more than 90% of the particles of said growth regulator have a particle size of between 1-7 μm; - wherein the dispersion further comprises an emulsifier which stabilizes the dispersion in the organic carrier, and which causes the concentrate to be water miscible and self-emulsifying when diluted in water in a 1:50 dilution; - wherein the dispersion contains less than 0.4 wt% water.
A method of producing a fuel unit for a hydrogen generator, the method comprising the steps: a. providing a substrate in the form of a sheet (12, 22, 32, 42, 52, 62); b. providing a fuel comprising a hydrogen-containing material that releases hydrogen gas when heated; c. disposing a plurality of pellets (14, 24, 34, 44, 50A-J, 64, 74) of the fuel on the substrate by adhering the pellets to the substrate to form at least first and second fuel sheet portions, wherein each pellet has one or more essentially planar sides, with interstices disposed between adjacent pellets; and d. forming a non-cylindrical fuel sheet assembly (10, 20, 30, 40, 50, 60, 70) from the one or more fuel sheets by moving at least one of the first and second fuel sheet portions to position pellets adjacent to each other such that adjacent sides of the adjacent pellets lie in essentially parallel planes; and e. producing a non-cylindrical fuel unit from one or more of the fuel sheet assemblies. a. providing a substrate in the form of a sheet (12, 22, 32, 42, 52, 62); b. providing a fuel comprising a hydrogen-containing material that releases hydrogen gas when heated; c. disposing a plurality of pellets (14, 24, 34, 44, 50A-J, 64, 74) of the fuel on the substrate by adhering the pellets to the substrate to form at least first and second fuel sheet portions, wherein each pellet has one or more essentially planar sides, with interstices disposed between adjacent pellets; and d. forming a non-cylindrical fuel sheet assembly (10, 20, 30, 40, 50, 60, 70) from the one or more fuel sheets by moving at least one of the first and second fuel sheet portions to position pellets adjacent to each other such that adjacent sides of the adjacent pellets lie in essentially parallel planes; and e. producing a non-cylindrical fuel unit from one or more of the fuel sheet assemblies.
A connecting element for a tubular component, characterized in that it is overlaid with a coating comprising a principal layer constituted by a nickel-phosphorus alloy, said coating further comprising an additional layer constituted by a nickel-phosphorus alloy comprising particles of one or more solid lubricant compounds, said additional layer being disposed on said principal layer, and wherein the phosphorus of the nickel-phosphorus alloy comprising the particles of one or more solid lubricant compounds represents 5% to 13% by weight of the total weight of the nickel-phosphorus alloy comprising the particles of one or more solid lubricant compounds.
Use of calcium phosphate or calcium hydroxy phosphate particles in combination with at least one compound capable of reducing local subcutaneous fat in the cosmetic treatment of gynoid lipodystrophy, wherein said at least one compound capable of reducing local subcutaneous fat is polidocanol.