mhurhangee/ep-ind-claims huggingface dataset:
A method of participating in a server-mediated group communication session, comprising: maintaining (820A, 820B, 824A, 824B), at a given user equipment, UE, participating in the group communication session, an identifier associated with the group communication session and a list of UEs that are currently participating in the group communication session; receiving (836A, 836B, 844B), at the given UE, a request to modify one or more of a given set of group management control parameters associated with the group communication session; and characterised by determining, at the given UE, whether the given UE belongs to a subset of UEs that are currently participating in the group communication session and to which permission to modify the given set of parameters is restricted; and selectively granting (840A, 840B, 848B) the received request based on the determination. maintaining (820A, 820B, 824A, 824B), at a given user equipment, UE, participating in the group communication session, an identifier associated with the group communication session and a list of UEs that are currently participating in the group communication session; receiving (836A, 836B, 844B), at the given UE, a request to modify one or more of a given set of group management control parameters associated with the group communication session; and characterised by determining, at the given UE, whether the given UE belongs to a subset of UEs that are currently participating in the group communication session and to which permission to modify the given set of parameters is restricted; and selectively granting (840A, 840B, 848B) the received request based on the determination.
Guided missile starting system comprising a launch tube with a guided missile chamber for receiving a guided missile and with a cartridge chamber for receiving a manoeuvring cartridge, and a grip piece mountable on the launch tube and separable from the launch tube with a firing pin system for igniting the manoeuvring cartridge, wherein the launch tube has an opening in which a firing pin element is arranged, wherein the firing pin element projects into the guided missile chamber so that it is possible for the firing pin element to engage into an ignition aperture of the guided missile, wherein either the grip piece exhibits a gas duct connecting the manoeuvring cartridge chamber with the firing pin element when the grip piece is mounted on the launch tube, or an additional element is provided which exhibits a gas duct connecting the manoeuvring cartridge chamber with the firing pin element when the grip piece is mounted on the launch tube and the additional element is inserted into the launch tube or grip piece.
Bearing arrangement for a shaft in a turbocompressor, having: at least one water-fed hydraulic bearing, which is configured to rotatably support a shaft of the turbocompressor, wherein the water-fed hydraulic bearing encloses the shaft at a circumference of the shaft in order to form a bearing gap therebetween; and wherein the water-fed hydraulic bearing is configured to allow water to flow through the bearing gap in order to support the shaft hydraulically, characterized in that the bearing arrangement has two seals, which are configured to seal the bearing gap with respect to the shaft; and wherein gas from the turbocompressor is applied to the two seals outside the bearing gap in order to seal the bearing. at least one water-fed hydraulic bearing, which is configured to rotatably support a shaft of the turbocompressor, wherein the water-fed hydraulic bearing encloses the shaft at a circumference of the shaft in order to form a bearing gap therebetween; and wherein the water-fed hydraulic bearing is configured to allow water to flow through the bearing gap in order to support the shaft hydraulically, characterized in that the bearing arrangement has two seals, which are configured to seal the bearing gap with respect to the shaft; and wherein gas from the turbocompressor is applied to the two seals outside the bearing gap in order to seal the bearing.
A feeder insert for use for the casting of metals into casting molds, having a mold body and a supply element which delimit the feeder cavity for receiving liquid metal, wherein the supply element has a passage opening for the liquid metal, and wherein the mold body is movable in a feeder longitudinal direction relative to at least one part of the supply element, characterized in that the supply element has a deformation region which is designed to turn in at least in sections in at least a first phase of a relative movement of the mold body in the feeder longitudinal direction and in the direction of the supply element.
A base plate for power module, comprising an aluminum-silicon carbide composite that is a flat plate-shaped silicon carbide porous body impregnated with a metal containing aluminum as the main component, and an aluminum layer made of a metal containing aluminum as the main component formed only on one of the principal planes of the composite, wherein a rear surface being the other one of principal planes of the aluminum-silicon carbide composite is exposed to the outside, and the shape of the exposed aluminum-silicon carbide composite is a rectangle or a rectangle from which portions encompassing holes in the peripheral portion are removed, characterised in that the average thickness of the aluminum layer is from 1 to 500 μm, and the difference between the maximum thickness and minimum thickness of the aluminum layer is at most 80 μm.
A radial artery catheter introducer sheath (100, 200) for introducing interventional catheters into the vasculature comprising: a main tubular shaft comprising a distal tip, a proximal end, a structural layer (1, 21), an inner layer (7, 27), and an outer layer (2, 22); wherein the structural layer (1, 21) comprises one or more metallic helically wound multi-filar wires with a wall thickness of 0.038 mm to 0.25 mm (0.0015 inches to 0.010 inches), and the structural layer is heat processed to retain a curved distal end, the distal end being curved to conform to a portion of a patient's anatomy; wherein the outer layer (2, 22) comprises an outer polymer jacket that at least partially covers the structural layer and the outer polymer jacket is coupled to the structural layer, the outer polymer jacket having a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); wherein the inner layer (7, 27) comprises an inner polymer jacket that at least partially covers the structural layer and the inner polymer jacket is coupled to the structural layer; wherein the inner polymer jacket has a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); and wherein the distal tip comprises an outer polymer and the distal tip has a length of 1.27 mm to 7.62 mm (0.05 inches and 0.30 inches). a main tubular shaft comprising a distal tip, a proximal end, a structural layer (1, 21), an inner layer (7, 27), and an outer layer (2, 22); wherein the structural layer (1, 21) comprises one or more metallic helically wound multi-filar wires with a wall thickness of 0.038 mm to 0.25 mm (0.0015 inches to 0.010 inches), and the structural layer is heat processed to retain a curved distal end, the distal end being curved to conform to a portion of a patient's anatomy; wherein the outer layer (2, 22) comprises an outer polymer jacket that at least partially covers the structural layer and the outer polymer jacket is coupled to the structural layer, the outer polymer jacket having a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); wherein the inner layer (7, 27) comprises an inner polymer jacket that at least partially covers the structural layer and the inner polymer jacket is coupled to the structural layer; wherein the inner polymer jacket has a thickness of 0.025 mm to 0.25 mm (0.001 inches to 0.010 inches); and wherein the distal tip comprises an outer polymer and the distal tip has a length of 1.27 mm to 7.62 mm (0.05 inches and 0.30 inches).
An apparatus to dynamically change display clock frequency, the apparatus comprising: a display controller to control two or more displays, including an embedded display; a phase locked loop, PLL, coupled to the display controller, wherein the PLL provides a clock with an adjustable frequency to the display controller; and logic to modify the frequency of the clock in accordance with a resolution of a non-embedded display coupled to the apparatus, wherein the PLL is configured to remain locked when the logic modifies the frequency of the clock, the logic comprising a multiplexer which is operable to select one of a first clock or a second clock divided from the first clock as the clock. a display controller to control two or more displays, including an embedded display; a phase locked loop, PLL, coupled to the display controller, wherein the PLL provides a clock with an adjustable frequency to the display controller; and logic to modify the frequency of the clock in accordance with a resolution of a non-embedded display coupled to the apparatus, wherein the PLL is configured to remain locked when the logic modifies the frequency of the clock, the logic comprising a multiplexer which is operable to select one of a first clock or a second clock divided from the first clock as the clock.
A folding box comprising a cardboard tray which comprises a rectangular bottom wall, outer side wall parts (3.1, 4.1, 5.1, 6.1) connected via fold lines to the edges of the bottom wall, corner tabs (15.1 to 18.2) connected via lateral fold lines to the lateral edges of outer side wall parts (3.1, 4.1, 5.1, 6.1) and inner side wall parts (3.2, 4.2, 5.2, 6.2) connected via fold lines to the upper edges of the outer side wall parts (3.1, 4.1, 5.1, 6.1), wherein the corner tabs (15.1 to 18.2) are folded in each case against an adjacent outer side wall part (3.1, 4.1, 5.1, 6.1) and the inner side wall parts (3.2, 4.2, 5.2, 6.2) are folded against the inner faces of the outer side wall parts (3.1, 4.1, 5.1, 6.1) and the corner tabs (15.1 to 18.2) bearing thereagainst, and a cardboard insert which is arranged on the inner face of the bottom wall, wherein the grain direction of the cardboard of the insert is oriented at an angle to the grain direction in the bottom wall of the cardboard of the tray, preferably at an angle of 90°, characterized in that the inner side wall parts (3.2, 4.2, 5.2, 6.2) of the tray are connected at their lower edge via fold lines to bottom wall tabs (7 to 10) which bear against the inner face of the bottom wall or the insert and the bottom wall tabs (7 to 10) have bevels (11.1, 11.2, 12.1, 12.2, 13.1, 13.2, 14.1, 14.2) on the lateral edges, wherein adjacent bottom wall tabs with bevels are supported against one another. is arranged on the inner face of the bottom wall, wherein the grain direction of the cardboard of the insert is oriented at an angle to the grain direction in the bottom wall of the cardboard of the tray, preferably at an angle of 90°, characterized in that the inner side wall parts (3.2, 4.2, 5.2, 6.2) of the tray are connected at their lower edge via fold lines to bottom wall tabs (7 to 10) which bear against the inner face of the bottom wall or the insert and the bottom wall tabs (7 to 10) have bevels (11.1, 11.2, 12.1, 12.2, 13.1, 13.2, 14.1, 14.2) on the lateral edges, wherein adjacent bottom wall tabs with bevels are supported against one another.
A method of operating a wireless power transmitter (100, 200, 500, 700), the method comprising: receiving power consumption information about the wireless power receiver (110, 250, 510, 750) from the wireless power receiver (110, 250, 510, 750); calculating a power loss based on the received power consumption information about the wireless power receiver (110, 250, 510, 750); and if the power loss exceeds a threshold, shutting down power transmission to the wireless power receiver (110, 250, 510, 750); wherein the power consumption information includes information about a power loss in a reception resonator of the wireless power receiver, a power loss caused by induction of the wireless power receiver, and a power applied to a rectifier of the wireless power receiver (110, 250, 510, 750). receiving power consumption information about the wireless power receiver (110, 250, 510, 750) from the wireless power receiver (110, 250, 510, 750); calculating a power loss based on the received power consumption information about the wireless power receiver (110, 250, 510, 750); and
A method comprising: determining identifiers for a plurality of memory devices (472, 474, 476, 478, 492, 494, 494, 496, 498) in a host electronic system in response to a power on condition; performing memory channel calibration if the identifiers do not match identifiers from a previous boot up, determining an identifier of one or more processors (460, 480) of the host electronic system if the identifiers match identifiers from the previous boot up via a secure process; completing the boot process without calibrating memory channels if the memory identifiers and the processor identifier match memory identifiers from a previous boot process and processor identifiers from the previous boot process. determining identifiers for a plurality of memory devices (472, 474, 476, 478, 492, 494, 494, 496, 498) in a host electronic system in response to a power on condition; performing memory channel calibration if the identifiers do not match identifiers from a previous boot up, determining an identifier of one or more processors (460, 480) of the host electronic system if the identifiers match identifiers from the previous boot up via a secure process; completing the boot process without calibrating memory channels if the memory identifiers and the processor identifier match memory identifiers from a previous boot process and processor identifiers from the previous boot process.
Process for preparing a hydrocarbon conversion catalyst composition comprising dealuminated zeolite wherein the zeolite comprises EU-2, and further comprising a refractory oxide binder containing at most 2 %wt of alumina, which process comprises subjecting to dealumination a zeolite comprising EU-2, and having a silica to alumina molar ratio of at least 100 and at most 210, wherein the dealumination process comprises contacting the zeolite with an aqueous solution of at most 0.1 mole/l of ammonium hexafluorosilicate for from 0.5 to 20 hours and at a temperature of between 10 and 120°C, and wherein the weight ratio of the ammonium hexafluorosilicate solution to the zeolite is from 50:1 to 1:4.
A catheter comprising: an outer sheath having a proximal end, a distal end and a porous attenuating member disposed adjacent the distal end, wherein the porous attenuating member comprises a plurality of openings, and wherein the outer sheath comprises a non-porous solid biocompatible layer covering at least a portion of the plurality of openings; an inner sheath having a proximal end and a distal end, wherein the inner sheath is disposed radially within the outer sheath; one or more optical fibers disposed within the inner sheath extending from a proximal portion of the inner sheath to the distal end of the inner sheath, wherein a proximal end of the one or more optical fibers is coupled to a laser generator; and at least one emitter coupled to the one or more optical fibers, wherein the at least one emitter is disposed radially within the outer sheath such that the at least one emitter is disposed radially within the porous attenuating member. an outer sheath having a proximal end, a distal end and a porous attenuating member disposed adjacent the distal end, wherein the porous attenuating member comprises a plurality of openings, and wherein the outer sheath comprises a non-porous solid biocompatible layer covering at least a portion of the plurality of openings; an inner sheath having a proximal end and a distal end, wherein the inner sheath is disposed radially within the outer sheath; one or more optical fibers disposed within the inner sheath extending from a proximal portion of the inner sheath to the distal end of the inner sheath, wherein a proximal end of the one or more optical fibers is coupled to a laser generator; and at least one emitter coupled to the one or more optical fibers, wherein the at least one emitter is disposed radially within the outer sheath such that the at least one emitter is disposed radially within the porous attenuating member.
Device for thermally coating a surface, wherein the device is fed at least primary gas and secondary gas, and which has at least one housing, a cathode, electrically and thermally acting insulation elements (13, 14, 16) and an anode, which is designed as a consumable wire and is guided into a nozzle (19, 21) by means of a wire guide, wherein the nozzle (19, 21) has a primary gas nozzle and a secondary gas nozzle, characterized in that the primary gas nozzle is mounted in a centred manner on a primary gas distributor with a secondary gas distributor connected in parallel, and has openings arranged in a common radial plane on its side oriented toward the secondary gas nozzle, and centres the secondary gas nozzle.
An electronic device, comprising: a housing having a plurality of sides, each side having an interior surface and an exterior surface; electronic components (202, 204, 206, 208, 210) contained within the housing; and a porous and thermally conductive material (306, 308, 310) associated with the exterior surface of at least one of the plurality of sides of the housing, the material having an exterior surface texture having a smoothness of between 30 and 50 microns and between 100 and 200 microns, a thermal conductivity, k, and a porosity of between 10% and 70%, wherein the porosity results in a specific heat, C p, and density, p, for the porous and thermally conductive material, such that a product k ∗ ρ ∗ C p is between 0 J ∗ W/m 4∗ K 2 and 1,000,000 J ∗ W/m 4∗ K 2. a housing having a plurality of sides, each side having an interior surface and an exterior surface; electronic components (202, 204, 206, 208, 210) contained within the housing; and a porous and thermally conductive material (306, 308, 310) associated with the exterior surface of at least one of the plurality of sides of the housing, the material having an exterior surface texture having a smoothness of between 30 and 50 microns and between 100 and 200 microns, a thermal conductivity, k, and a porosity of between 10% and 70%, wherein the porosity results in a specific heat, C p, and density, p, for the porous and thermally conductive material, such that a product k ∗ ρ ∗ C p is between 0 J ∗ W/m 4∗ K 2 and 1,000,000 J ∗ W/m 4∗ K 2.
A milling cutting insert comprising opposing insert top and base surfaces (32, 34) which are connected by an insert peripheral surface, and an insert dovetail anti-slip arrangement (40, 40') adjacent to the insert base surface and comprising first and second insert abutment surfaces (42A, 42A'; 42B, 42B') and an insert actuator surface (44, 44'); the first insert abutment surface (42A, 42A') comprising a first dovetail portion (42A1, 42A1') forming an external and acute first dovetail angle (μ1) with the insert base surface; the second insert abutment surface (42B, 42B') comprising a second dovetail portion (42B1, 42B1') forming an external and acute second dovetail angle (μ2) with the insert base surface; wherein: in a view perpendicular to the insert base surface, the first dovetail portion (42A1, 42A1') is longer than and non-parallel with the second dovetail portion (42B1, 42B1'); and the milling cutting insert has a solid construction; characterized in that the milling cutting insert is a single-sided milling cutting insert comprising a cutting edge only along an intersection of the insert top surface and the insert peripheral surface and a protuberance projects from the insert base surface and all surfaces of the insert dovetail anti-slip arrangement (40, 40') are formed on the protuberance; and wherein the first and second insert abutment surfaces (42A, 42A'; 42B, 42B') and the insert actuator surface (44, 44') extend from the insert base surface in a direction away from the insert top surface. the milling cutting insert is a single-sided milling cutting insert comprising a cutting edge only along an intersection of the insert top surface and the insert peripheral surface and a protuberance projects from the insert base surface and all surfaces of the insert dovetail anti-slip arrangement (40, 40') are formed on the protuberance; and wherein the first and second insert abutment surfaces (42A, 42A'; 42B, 42B') and the insert actuator surface (44, 44') extend from the insert base surface in a direction away from the insert top surface.
A solid pharmaceutical oral dosage form, comprising a co-extrusion formed multi-layered release formulation, having: - a core layer comprising at least one polymer selected from polycaprolactone, ethylcellulose, or combinations thereof, and when the polymer is ethylcellulose the core layer contains at least one plasticizer; and - a coat layer comprising: • a combination of polyethylene oxide and polyethylene glycol; • Basic Butylated Methacrylate (co)polymer; • a (co)polymer of polyvinylcaprolactam, PEG and polyvinylacetate; or • combinations thereof; and wherein at least one of said layers comprises an active ingredient. - a core layer comprising at least one polymer selected from polycaprolactone, ethylcellulose, or combinations thereof, and when the polymer is ethylcellulose the core layer contains at least one plasticizer; and - a coat layer comprising: • a combination of polyethylene oxide and polyethylene glycol; • Basic Butylated Methacrylate (co)polymer; • a (co)polymer of polyvinylcaprolactam, PEG and polyvinylacetate; or • combinations thereof; and • a combination of polyethylene oxide and polyethylene glycol; • Basic Butylated Methacrylate (co)polymer; • a (co)polymer of polyvinylcaprolactam, PEG and polyvinylacetate; or • combinations thereof; and
An RPG disruption module for protecting a wall (12, 14) of an enclosure against RPG's, the module comprising: a housing fitted with attachment portions in the form of two flanges and designed for attaching to said wall (12, 14), said housing being configured to be located adjacent and in close proximity to said wall (12, 14); an inverted trough-like anvil; a downwardly facing disrupting element accommodated within said inverted trough-like anvil; the trough-like anvil being oriented relative to housing so that the disrupting element faces downwardly in a direction substantially parallel to the wall (12, 14) to be protected; a propelling mechanism accommodated within the anvil, the propelling mechanism being designed for propelling the disrupting element by applying a bursting force of great magnitude between the anvil and the disrupting element and whereby the disrupting element is propelled downwardly in a direction substantially parallel to the wall (12, 14) to be protected; and an activating system for activating said propelling mechanism (so as to propel the disrupting element towards an approaching RPG, to thereby neutralize it. a housing fitted with attachment portions in the form of two flanges and designed for attaching to said wall (12, 14), said housing being configured to be located adjacent and in close proximity to said wall (12, 14); an inverted trough-like anvil; a downwardly facing disrupting element accommodated within said inverted trough-like anvil; the trough-like anvil being oriented relative to housing so that the disrupting element faces downwardly in a direction substantially parallel to the wall (12, 14) to be protected; a propelling mechanism accommodated within the anvil, the propelling mechanism being designed for propelling the disrupting element by applying a bursting force of great magnitude between the anvil and the disrupting element and whereby the disrupting element is propelled downwardly in a direction substantially parallel to the wall (12, 14) to be protected; and an activating system for activating said propelling mechanism (so as to propel the disrupting element towards an approaching RPG, to thereby neutralize it.