mhurhangee/ep-ind-claims huggingface dataset:
A method for managing power delivered to a processing chamber, comprising: delivering power from a power supply unit to the processing chamber with a plasma-chamber-supply cable, the plasma-chamber-supply cable including first and second conductors (112, 114) coupled to the power supply unit via first and second terminals (111, 121) respectively, the first terminal having a first voltage polarity relative to the second terminal, and the plasma-chamber supply cable being capable of storing energy; and reversing the voltage polarity of the first terminal relative to the second terminal using energy stored in the plasma-chamber-supply cable, and providing at least a portion of the stored energy in the plasma-chamber-supply cable to the plasma chamber while the polarity of the first terminal is reversed. delivering power from a power supply unit to the processing chamber with a plasma-chamber-supply cable, the plasma-chamber-supply cable including first and second conductors (112, 114) coupled to the power supply unit via first and second terminals (111, 121) respectively, the first terminal having a first voltage polarity relative to the second terminal, and the plasma-chamber supply cable being capable of storing energy; and reversing the voltage polarity of the first terminal relative to the second terminal using energy stored in the plasma-chamber-supply cable, and providing at least a portion of the stored energy in the plasma-chamber-supply cable to the plasma chamber while the polarity of the first terminal is reversed.
A combination filter element and filter body for a compressed air filter, the combination comprising: a filter element having an upper end cap, the upper end cap having a rim extending and defining an outer perimeter of the upper end cap, the rim includes an outer slanted surface which extends radially outward and upward; and a filter body defining a cavity and having an open upper end for receiving the filter element, the open upper end includes a ledge, wherein the ledge is slanted and extends radially inward and downward, defining a seat for matingly receiving the slanted surface of the rim of the upper end cap, and the upper end provided with a thread for rotatably engaging a filter head, wherein the outer slanted surface is slidable against the ledge such that the filter element is rotatable relative to the filter body. a filter element having an upper end cap, the upper end cap having a rim extending and defining an outer perimeter of the upper end cap, the rim includes an outer slanted surface which extends radially outward and upward; and a filter body defining a cavity and having an open upper end for receiving the filter element, the open upper end includes a ledge, wherein the ledge is slanted and extends radially inward and downward, defining a seat for matingly receiving the slanted surface of the rim of the upper end cap, and the upper end provided with a thread for rotatably engaging a filter head, wherein the outer slanted surface is slidable against the ledge such that the filter element is rotatable relative to the filter body.
An article of footwear (100; 600) including a sole structure fixedly attached to an upper (105; 605) configured to receive a foot of a wearer, the upper (105; 605) comprising: an exposed outer layer (185; 685) forming at least a portion of an external surface of the upper (105; 605); and a polymer foam material selectively located on an inner side of the exposed outer layer (185; 685) and adjacent portions of the exposed outer layer (185; 685), thereby forming padded portions of the upper; the padded portions of the upper are located in areas that include an area of the upper (105; 605) that corresponds with a distal phalanx of a hallux of a foot of a wearer of the article of footwear; wherein the padded portions include: eyelet region padding disposed proximate to a tongue opening of the upper, and rib paddings (212, 215) connected to eyelet region padding and extending from eyelet region padding so as to provide protection to the medial side and lateral side of the foot; and unpadded portions of the upper (105; 605) are disposed between the padded portions of the upper (105; 605); and wherein the unpadded portions include an area of the upper (105; 605) that corresponds with a first metatarsophalangeal joint of the hallux. an exposed outer layer (185; 685) forming at least a portion of an external surface of the upper (105; 605); and a polymer foam material selectively located on an inner side of the exposed outer layer (185; 685) and adjacent portions of the exposed outer layer (185; 685), thereby forming padded portions of the upper; the padded portions of the upper are located in areas that include an area of the upper (105; 605) that corresponds with a distal phalanx of a hallux of a foot of a wearer of the article of footwear; wherein the padded portions include: eyelet region padding disposed proximate to a tongue opening of the upper, and rib paddings (212, 215) connected to eyelet region padding and extending from eyelet region padding so as to provide protection to the medial side and lateral side of the foot; and eyelet region padding disposed proximate to a tongue opening of the upper, and rib paddings (212, 215) connected to eyelet region padding and extending from eyelet region padding so as to provide protection to the medial side and lateral side of the foot; and unpadded portions of the upper (105; 605) are disposed between the padded portions of the upper (105; 605); and wherein the unpadded portions include an area of the upper (105; 605) that corresponds with a first metatarsophalangeal joint of the hallux.
A system for bone fixation, comprising: a pin configured to be inserted into a bone; and a deformable collar configured to engage the pin and the bone to retain the pin in the bone; wherein the collar is configured to be operatively disposed on the pin such that the collar extends more than halfway and less than completely around the pin, wherein the collar has a first end opposite a second end and defines a hole extending through the collar from the first end to the second end, the hole being open along one side of the collar from the first end to the second end to form a lateral entryway to the hole, wherein the collar is configured to be deformed elastically by a section of the pin entering the hole via the lateral entryway from outside the collar, and wherein the collar is configured to retain the pin in the bone without threaded engagement between the pin and the collar and without threaded engagement between the collar and the bone. a pin configured to be inserted into a bone; and a deformable collar configured to engage the pin and the bone to retain the pin in the bone; wherein the collar is configured to be operatively disposed on the pin such that the collar extends more than halfway and less than completely around the pin, wherein the collar has a first end opposite a second end and defines a hole extending through the collar from the first end to the second end, the hole being open along one side of the collar from the first end to the second end to form a lateral entryway to the hole,
Method for manufacturing a vehicle body part, in particular a vehicle roof, which is a composite component comprising an outer skin and a support, in which method the outer skin is inserted into a mould and then joined to the support, wherein, in a mould for forming a boundary layer on the inner side of the outer skin, a polyurethane-comprising material is arranged and crosslinked and a core structure of the support which predefines an inner contour of the support is bonded to the outer skin by way of the boundary layer, characterized in that a honeycomb structure assigned to the core structure is joined to the outer skin in the mould using a first upper die by crosslinking the material which forms the boundary layer, and then a surface contour of the core structure is produced and a polyurethane-comprising layer is moulded on that side of the honeycomb structure which is remote from the outer skin using a second upper die of the mould.
A method comprising: a) receiving a demodulation mask bitmap of mask values; b) receiving a resource element; and c) selectively demodulating the resource element and outputting a demodulated resource element; wherein the resource element is demodulated and output as a demodulated resource element if the mask value in the demodulation mask bitmap corresponding to the resource element is a first state; wherein the resource element is not demodulated and is output as a predetermined value if the mask value corresponding to the resource element is a second state; wherein if the resource element is a pilot resource element, the mask value of the demodulation mask bitmap is set to the second state. a) receiving a demodulation mask bitmap of mask values; b) receiving a resource element; and c) selectively demodulating the resource element and outputting a demodulated resource element;
A system for obtaining aqua ammonia for use in a vehicle on board, comprising: - a decomposition unit, in which a catalysed conversion occurs, for obtaining aqua ammonia by decomposition of an ammonia precursor under catalysis of a biological catalyst, said aqua ammonia being a mixture of effluents that contains ammonium hydroxide, residue of ammonia precursor and optionally other products such as ammonium bicarbonate - a storage unit for storage of biological catalyst, - a dosing device for transferring biological catalyst into the decomposition unit, and - a system controller configured to control the dosing device on the basis of conditions inside the storage and conversion system said system further comprising a buffer tank for containing aqua ammonia obtained in the decomposition unit. - a decomposition unit, in which a catalysed conversion occurs, for obtaining aqua ammonia by decomposition of an ammonia precursor under catalysis of a biological catalyst, said aqua ammonia being a mixture of effluents that contains ammonium hydroxide, residue of ammonia precursor and optionally other products such as ammonium bicarbonate - a storage unit for storage of biological catalyst, - a dosing device for transferring biological catalyst into the decomposition unit, and - a system controller configured to control the dosing device on the basis of conditions inside the storage and conversion system
A system comprising: a plurality of host computers that are each configured to execute: (i) a first managed physical routing element, MPRE, as a local instance of a first logical routing element, LRE, for routing packets between a first set of network segments (521, 522, 529) in a first logical network, and (ii) a second MPRE (751, 754) as a local instance of a second LRE for routing packets between a second set of network segments (721, 729) in a second logical network, characterized in that at least one particular network segment (529, 729) connects the first and second LREs (510, 710) with an edge gateway that executes on a particular host computer and serves as a gateway node at an edge boundary between the first and second logical networks and a set of external networks, wherein the first LRE comprises a first backplane conduit and the second LRE comprises a second backplane conduit, wherein for the edge gateway to process packets, the particular host computer receives packets addressed to a shared MAC address as a shared L2 network address (i) from the first logical network through the first backplane conduit at the particular host computer's first MPRE and (ii) from the second logical network through the second backplane conduit at the particular host computer's second MPRE. a plurality of host computers that are each configured to execute: (i) a first managed physical routing element, MPRE, as a local instance of a first logical routing element, LRE, for routing packets between a first set of network segments (521, 522, 529) in a first logical network, and (ii) a second MPRE (751, 754) as a local instance of a second LRE for routing packets between a second set of network segments (721, 729) in a second logical network, characterized in that at least one particular network segment (529, 729) connects the first and second LREs (510, 710) with an edge gateway that executes on a particular host computer and serves as a gateway node at an edge boundary between the first and second logical networks and a set of external networks, wherein the first LRE comprises a first backplane conduit and the second LRE comprises a second backplane conduit, wherein for the edge gateway to process packets, the particular host computer receives packets addressed to a shared MAC address as a shared L2 network address (i) from the first logical network through the first backplane conduit at the particular host computer's first MPRE and (ii) from the second logical network through the second backplane conduit at the particular host computer's second MPRE.
Portable electric motor-driven cutting tool, in particular shears, intended, in particular, for pruning plants, comprising: - at least one movable cutting blade, and - at least one motor to move said movable blade; further comprising means for detecting the position of said blade comprising: - a single, so-called central, magnetic sensor, arranged fixedly with respect to said movable blade, characterised by - at least two magnets (204 1, 204 2) integral with said movable blade. - at least one movable cutting blade, and - at least one motor to move said movable blade; - a single, so-called central, magnetic sensor, arranged fixedly with respect to said movable blade, characterised by - at least two magnets (204 1, 204 2) integral with said movable blade.
A composition containing ethyl lactate, an anti-hydrolysis agent, and water, wherein the anti-hydrolysis agent is a basic amino acid selected from a group consisting of arginine, lysine, histidine, and combinations thereof, and wherein a pH of the composition at room temperature is in a range of 6.5 to 7.5, wherein a content of the anti-hydrolysis agent is in a range of 0.1 wt% to 5 wt%.
Condensing device for a spinning machine, in particular a ring spinning machine, for bundling a drafted fibre band, having a condensing unit that has a suction air feed arranged in a main body and a suction opening that is fed from the suction air feed and above which a condensing apron (8a, 8b) is arranged in an exchangeable manner, wherein the condensing unit comprises a diaphragm with a diaphragm opening for covering the suction air feed, wherein the main body is designed to detachably hold the diaphragm covering the suction air feed, wherein the suction opening is variable by means of the diaphragm in order to operate the condensing unit, wherein the diaphragm opening is formed as a suction slot for cooperating with a condensing apron designed as a screen apron or fabric apron, characterised in that it is possible to switch between the configuration of the condensing unit by a combination of an open suction opening with a condensing apron having a perforation track and the configuration of the condensing unit by a combination of a condensing apron formed from an air-permeable fabric with a suction opening constricted by a slot, in that, for this purpose, either the suction air feed is designed as a suction opening for cooperating with a condensing apron having a perforation track, or in that the condensing device comprises a second diaphragm with a diaphragm opening that is designed as a suction opening for cooperating with a condensing apron having a perforation track. wherein the condensing unit comprises a diaphragm with a diaphragm opening for covering the suction air feed, wherein the main body is designed to detachably hold the diaphragm covering the suction air feed, wherein the suction opening is variable by means of the diaphragm in order to operate the condensing unit, wherein the diaphragm opening is formed as a suction slot for cooperating with a condensing apron designed as a screen apron or fabric apron, characterised in that it is possible to switch between the configuration of the condensing unit by a combination of an open suction opening with a condensing apron having a perforation track and the configuration of the condensing unit by a combination of a condensing apron formed from an air-permeable fabric with a suction opening constricted by a slot, in that, for this purpose, either the suction air feed is designed as a suction opening for cooperating with a condensing apron having a perforation track, or in that the condensing device comprises a second diaphragm with a diaphragm opening that is designed as a suction opening for cooperating with a condensing apron having a perforation track.
A laminate comprising: a first layer having a polyethylene-based film with a density of 0.90-0.95 g/cc; a second layer with a dry lamination; a third layer having an aluminium barrier film with a thickness in the range of 7-20 microns; a fourth layer having low density polyethylene in order to provide interlayer adhesion; a fifth layer having a polyethylene-based film with a melting temperature of less than 240°C which is polyethylene having a density of 0.85-0.94 g/cc; and a sixth layer having a polyethylene-based film with a sealing property, preferably a monolayer film, a multilayer film, more preferably a 3-layer film, or a blend of 90% to 99% of polyolefin and 1% to 10% of polyolefin plastomer. a first layer having a polyethylene-based film with a density of 0.90-0.95 g/cc; a second layer with a dry lamination; a third layer having an aluminium barrier film with a thickness in the range of 7-20 microns; a fourth layer having low density polyethylene in order to provide interlayer adhesion; a fifth layer having a polyethylene-based film with a melting temperature of less than 240°C which is polyethylene having a density of 0.85-0.94 g/cc; and a sixth layer having a polyethylene-based film with a sealing property, preferably a monolayer film, a multilayer film, more preferably a 3-layer film, or a blend of 90% to 99% of polyolefin and 1% to 10% of polyolefin plastomer.
A process for the production of a covered panel, the process comprising: applying a membrane to a panel construct so that said membrane is adjacent to a surface of said panel construct; wherein said membrane is formed by applying a heat activated elastomeric resin-based material, in a liquid form, to a transfer film, and drying said liquid film so as to form said membrane on said transfer film, wherein said formed membrane is removably attached to said transfer film, and positioning said membrane on said panel construct so that said membrane is positioned adjacent to a surface of the panel construct, and pressing the resultant membrane covered panel construct (3,8), under conditions of heat and pressure, for sufficient time such that said heat activated elastomeric resin-based material is heat cured, and said membrane is bonded to said panel construct, wherein said heat activated elastomeric resin-based material is a solution or dispersion of an elastomeric resin in water, or another solvent, and said elastomeric resin-based material is based on a resin selected from polyurethane, polyethylene or polypropylene-based resins; Ethylene vinyl acetate; Ethylene vinyl alcohol; Polyesters; Polyolefin, modified Melamine-based thermoset resins; Urea and Urea modified resins; ESI (ethylene styrene interpolymer), or any of the styrene acrylic copolymers and Acrylic resins; rubber based materials including NBR (nitrile Butadiene), SBR (styrene butadiene), or CR (chloroprene), silicone, fluorocarbon, acrylamide, epichlorohydrin, and/or carboxylated, and natural and synthetic latexes. applying a membrane to a panel construct so that said membrane is adjacent to a surface of said panel construct; wherein said membrane is formed by applying a heat activated elastomeric resin-based material, in a liquid form, to a transfer film, and drying said liquid film so as to form said membrane on said transfer film, wherein said formed membrane is removably attached to said transfer film, and positioning said membrane on said panel construct so that said membrane is positioned adjacent to a surface of the panel construct, and pressing the resultant membrane covered panel construct (3,8), under conditions of heat and pressure, for sufficient time such that said heat activated elastomeric resin-based material is heat cured, and said membrane is bonded to said panel construct, wherein said heat activated elastomeric resin-based material is a solution or dispersion of an elastomeric resin in water, or another solvent, and said elastomeric resin-based material is based on a resin selected from polyurethane, polyethylene or polypropylene-based resins; Ethylene vinyl acetate; Ethylene vinyl alcohol; Polyesters; Polyolefin, modified Melamine-based thermoset resins; Urea and Urea modified resins; ESI (ethylene styrene interpolymer), or any of the styrene acrylic copolymers and Acrylic resins; rubber based materials including NBR (nitrile Butadiene), SBR (styrene butadiene), or CR (chloroprene), silicone, fluorocarbon, acrylamide, epichlorohydrin, and/or carboxylated, and natural and synthetic latexes.
A composite skin for an aerospace vehicle, comprising: a thermal distribution system for distributing heat from a heat source laterally through the skin; and, characterized in that the composite skin further comprises: first and second facesheets on opposite sides of the thermal distribution system, at least the first facesheet being thermally conductive for conducting heat from the distribution system to a face of the skin; wherein each of the first and second facesheets includes: a first layer including a mesh of single wall carbon nanotubes aligned in a first direction within the facesheet and held in a synthetic resin matrix, and a second layer contacting the first layer, the second layer including a mesh of double wall carbon nanotubes aligned in a second direction transverse to the first direction and held in a synthetic resin matrix. a thermal distribution system for distributing heat from a heat source laterally through the skin; and, characterized in that the composite skin further comprises: first and second facesheets on opposite sides of the thermal distribution system, at least the first facesheet being thermally conductive for conducting heat from the distribution system to a face of the skin; wherein each of the first and second facesheets includes: a first layer including a mesh of single wall carbon nanotubes aligned in a first direction within the facesheet and held in a synthetic resin matrix, and a second layer contacting the first layer, the second layer including a mesh of double wall carbon nanotubes aligned in a second direction transverse to the first direction and held in a synthetic resin matrix. first and second facesheets on opposite sides of the thermal distribution system, at least the first facesheet being thermally conductive for conducting heat from the distribution system to a face of the skin; wherein each of the first and second facesheets includes: a first layer including a mesh of single wall carbon nanotubes aligned in a first direction within the facesheet and held in a synthetic resin matrix, and a second layer contacting the first layer, the second layer including a mesh of double wall carbon nanotubes aligned in a second direction transverse to the first direction and held in a synthetic resin matrix. a first layer including a mesh of single wall carbon nanotubes aligned in a first direction within the facesheet and held in a synthetic resin matrix, and a second layer contacting the first layer, the second layer including a mesh of double wall carbon nanotubes aligned in a second direction transverse to the first direction and held in a synthetic resin matrix.