mhurhangee/ep-ind-claims huggingface dataset:
A silver sinter paste consisting of: 5 to 40 wt.% of silver flakes having a particle size D90 in the range of 5 to 20 μm, 50 to 85 wt.% of silver particles having a particle size D90 in the range of 300 to 1000 nm, 10 to 25 wt.% of at least one organic solvent, 0 to 2 wt.% of at least one cellulose derivative, and 0 to 10 wt.% of at least one additive other than the previously mentioned constituents to, wherein the term "particle size D90" used in connection with the silver flakes means the primary particle diameter, determined by means of automated static analysis of microscopic images, with which a volume proportion of 90% of the particles is below said primary particle diameter, and wherein the term "particle size D90" used in connection with the silver particles means the primary particle diameter, determined by means of laser diffraction, with which a volume proportion of 90% of the particles is below said primary particle diameter. 5 to 40 wt.% of silver flakes having a particle size D90 in the range of 5 to 20 μm, 50 to 85 wt.% of silver particles having a particle size D90 in the range of 300 to 1000 nm, 10 to 25 wt.% of at least one organic solvent, 0 to 2 wt.% of at least one cellulose derivative, and 0 to 10 wt.% of at least one additive other than the previously mentioned constituents to, wherein the term "particle size D90" used in connection with the silver flakes means the primary particle diameter, determined by means of automated static analysis of microscopic images, with which a volume proportion of 90% of the particles is below said primary particle diameter, and wherein the term "particle size D90" used in connection with the silver particles means the primary particle diameter, determined by means of laser diffraction, with which a volume proportion of 90% of the particles is below said primary particle diameter. wherein the term "particle size D90" used in connection with the silver flakes means the primary particle diameter, determined by means of automated static analysis of microscopic images, with which a volume proportion of 90% of the particles is below said primary particle diameter, and wherein the term "particle size D90" used in connection with the silver particles means the primary particle diameter, determined by means of laser diffraction, with which a volume proportion of 90% of the particles is below said primary particle diameter.
A method for replacing a high GWP refrigerant in a refrigeration, air-conditioning, or heat pump apparatus, wherein said high GWP refrigerant is selected from the group consisting of R134a, R22, R123, R11, R245fa, R114, R236fa, R124, R12, R410A, R407C, R417A, R422A, R507A, R502, and R404A, said method comprising providing a composition to said refrigeration, air-conditioning, or heat pump apparatus that uses, used or is designed to use said high GWP refrigerant, the composition being selected from the group consisting of: HFC-1234yf and HFC-134a; HFC-1234yf and HFC-152a; HFC-1234yf and HFC-32; HFC-1234yf, HFC-32 and HFC-125; HFC-1234yf, HFC-32 and HFC-143a; and HFC-1234yf, HFC-125 and HFC-143a.
Method for ascertaining a time characteristic of a measured variable (y) adjustable by an actuator, wherein a time characteristic of a control variable (u) is applied to the actuator, wherein the ascertaining is effected by means of a Gaussian process state model of the behavior of the actuator, wherein the time characteristic of the measured variable (y) of the actuator is ascertained on the basis of a parameterizable family of functions (q(x 1:T, f 2:T, z)), wherein in the parameterizable family of functions (q(x 1:T, f 2:T, z)) a time dependency of a later latent state (x t), in particular ascertained using a transfer function (f t), of the actuator on an earlier latent state (x t-1) of the actuator and an earlier control variable (u t-1) of the actuator is the same as the applicable dependency of the Gaussian process state model. wherein the respective dependency means that the time dependencies within the parameterizable family of functions is maintained.
A compressor wheel for a turbocharger comprising a central hub and a plurality of impeller blades extending outwardly from the hub, each of the blades defining a leading edge, a trailing edge and a root portion which connects the blade to the hub, wherein at least one of the blades has a surface provided with a variable thickness surface layer of a ceramic material, characterised in that the leading edge of the blade is provided with a thicker surface layer of the ceramic material than the trailing edge and/or root portion of the blade.
A gas generator - module case assembly in which a gas generator (1; 300) is mounted inside a metallic module case in such a manner as to be electrically insulated from the module case, the gas generator (1; 300) comprising: a metallic housing (10; 301); a gas generating agent provided within the housing (10; 301); an ignition device accommodated in the housing (10; 301) and including an igniter assembly (20; 600), the igniter assembly (20; 600) including, an igniter main body having an ignition portion charged with a priming and an electro-conductive pin extending from the ignition portion, a metallic cylindrical fixing member (12, 30; 330; 430; 530; 630) for fixing the igniter main body by a resin, and a connector-connecting portion for fitting a connector which is to be connected to the electro-conductive pin, at least part of the metallic cylindrical fixing member (12, 30; 330; 430; 530; 630) being electro-conductive to the housing (10; 301), and including an exposed portion (30a; 232a, 234; 312a; 434; 534b; 613) exposed to an inner surface of the connector-connecting portion, the exposed portion (30a; 232a, 234; 312a; 434; 534b; 613) of the metallic cylindrical fixing member (12, 30; 330; 430; 530; 630) serving as a ground terminal (30a; 232a, 234; 312a; 434; 534b; 613), and the gas generator - module case assembly further comprising the connector connected to the connector-connecting portion, wherein the ground terminal (30a; 232a, 234; 312a; 434; 534b; 613) is in contact with an earth terminal of the connector, and a grounding lead wire of the connector is connected to a ground circuit located outside the gas generator (1; 300). a metallic housing (10; 301); a gas generating agent provided within the housing (10; 301); an ignition device accommodated in the housing (10; 301) and including an igniter assembly (20; 600), the igniter assembly (20; 600) including, an igniter main body having an ignition portion charged with a priming and an electro-conductive pin extending from the ignition portion, a metallic cylindrical fixing member (12, 30; 330; 430; 530; 630) for fixing the igniter main body by a resin, and a connector-connecting portion for fitting a connector which is to be connected to the electro-conductive pin,
An enhanced flexibility neurovascular catheter, comprising: an elongate flexible body having a proximal end, a distal end and a side wall defining a central lumen, a distal zone of the side wall comprising: an outer jacket surrounding a helical coil, the outer jacket formed from a plurality of tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) positioned coaxially about the coil; a tubular inner liner; and a tie layer separated from the lumen by the inner liner; wherein a proximal one of the tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) has a durometer of at least 60D and a distal one of the tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) has a durometer of no more than 35D; and an axially extending filament within the side wall, the axially extending filament extending at least the most distal 10 cm of the length of the catheter and less than 40 cm from the distal end of the catheter, the axially extending filament being configured to resist elongation of the catheter wall under tension, the axially extending filament extending between the helical coil and the inner liner, wherein the helical coil surrounds the tie layer, and wherein adjacent windings of the helical coil are spaced progressively further apart in the distal direction. an elongate flexible body having a proximal end, a distal end and a side wall defining a central lumen, a distal zone of the side wall comprising: an outer jacket surrounding a helical coil, the outer jacket formed from a plurality of tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) positioned coaxially about the coil; a tubular inner liner; and a tie layer separated from the lumen by the inner liner; an outer jacket surrounding a helical coil, the outer jacket formed from a plurality of tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) positioned coaxially about the coil; a tubular inner liner; and a tie layer separated from the lumen by the inner liner; wherein a proximal one of the tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) has a durometer of at least 60D and a distal one of the tubular segments (3022, 3026, 3028, 3030, 3032, 3034, 3036, 3038) has a durometer of no more than 35D; and an axially extending filament within the side wall, the axially extending filament extending at least the most distal 10 cm of the length of the catheter and less than 40 cm from the distal end of the catheter, the axially extending filament being configured to resist elongation of the catheter wall under tension, the axially extending filament extending between the helical coil and the inner liner, wherein the helical coil surrounds the tie layer, and wherein adjacent windings of the helical coil are spaced progressively further apart in the distal direction.
A harvesting machine, comprising: a main frame; a rotor assembly rotatably coupled to the main frame and configured to move crop material, the rotor assembly including a plurality of spaced apart rotating blades wherein a space is located between each of the plurality of spaced apart rotating blades; a plurality of forage knives movably attached to the harvesting machine, wherein each the plurality of forage knives includes a first position displaced from the plurality of spaced apart rotating blades and a second position engaged with the plurality of spaced apart rotating blades, wherein each of the plurality of forage knives includes: i) a knife body including a first side and a second side each defining a plane; and ii) a cutting edge extending along the longitudinal axis, wherein the cutting edge includes a plurality of teeth each of which includes a leading edge and a trailing edge, the leading edge extending from the trailing edge of an adjacent tooth, and a plurality of valleys, characterized in that each one of the plurality of valleys extends from one of the first side and the second side to the leading edge of one of the plurality of teeth, wherein the valleys of adjacent teeth are located on opposite sides of the knife body. a main frame; a rotor assembly rotatably coupled to the main frame and configured to move crop material, the rotor assembly including a plurality of spaced apart rotating blades wherein a space is located between each of the plurality of spaced apart rotating blades; a plurality of forage knives movably attached to the harvesting machine, wherein each the plurality of forage knives includes a first position displaced from the plurality of spaced apart rotating blades and a second position engaged with the plurality of spaced apart rotating blades, wherein each of the plurality of forage knives includes: i) a knife body including a first side and a second side each defining a plane; and ii) a cutting edge extending along the longitudinal axis, wherein the cutting edge includes a plurality of teeth each of which includes a leading edge and a trailing edge, the leading edge extending from the trailing edge of an adjacent tooth, and a plurality of valleys, characterized in that each one of the plurality of valleys extends from one of the first side and the second side to the leading edge of one of the plurality of teeth, wherein the valleys of adjacent teeth are located on opposite sides of the knife body.
A method for transferring eggs to a poultry house that have been pre-incubated in setter trays, wherein the pre-incubated eggs are transferred to the poultry house, a layer of insulating covering material is provided in the poultry house and the pre-incubated eggs are positioned on said covering material, characterised in that the pre-incubated eggs are transferred to the poultry house in said setter trays, they are removed in the poultry house from the setter trays by means of a set of egg pickup members of a transfer machine and they are subsequently positioned on said covering material by means of the transfer machine, with the transfer machine driving through the poultry house during the transfer of the eggs from the setter trays to said covering material.
A chuck (10; 10a) for a power tool, the chuck comprising: a chuck body extending along a longitudinal axis, the chuck body including a plurality of slots each arranged at an oblique angle with respect to the longitudinal axis; a plurality of jaws each including a first engagement portion, a jaw end, and a drive end, each of the jaws disposed within one of the plurality of slots and movable between a close position and an open position, the plurality of jaws and the chuck body defining a space disposed radially between the drive ends of the jaws and the chuck body; a biasing member coupled to the plurality of jaws and operable to bias the plurality of jaws toward the close position, the biasing member including a spring disposed radially within the space; and a rotating assembly coupled to the chuck body and including a second engagement portion, the rotating assembly rotatable with respect to the chuck body between a disengaged position, an engaged position, and a tightened position, wherein the first engagement portions and the second engagement portion are engaged when the rotating assembly is in the engaged position such that the plurality of jaws are movable along the axis in response to rotation of the rotating assembly, and wherein rotation of the rotating assembly from the engaged position to the tightened position moves the plurality of jaws toward the close position, characterised in that the biasing member is including a guide sleeve (95; 95a), wherein the first engagement portions and the second engagement portion are disengaged when the rotating assembly is in the disengaged position such that the plurality of jaws are movable along the longitudinal axis independent of the rotating assembly. a chuck body extending along a longitudinal axis, the chuck body including a plurality of slots each arranged at an oblique angle with respect to the longitudinal axis; a plurality of jaws each including a first engagement portion, a jaw end, and a drive end, each of the jaws disposed within one of the plurality of slots and movable between a close position and an open position, the plurality of jaws and the chuck body defining a space disposed radially between the drive ends of the jaws and the chuck body; a biasing member coupled to the plurality of jaws and operable to bias the plurality of jaws toward the close position, the biasing member including a spring disposed radially within the space; and a rotating assembly coupled to the chuck body and including a second engagement portion, the rotating assembly rotatable with respect to the chuck body between a disengaged position, an engaged position, and a tightened position,
An interface structure (100, 100a, 100b, 100c, 100d) for a biological environment comprising: at least one composite electrical impulse generating layer comprising a matrix phase of a piezo polymer material, a first dispersed phase of piezo nanocrystals, and second dispersed phase of carbon nanotubes, the first and second dispersed phase presented through the matrix phase, wherein the piezo polymer material and piezo nanocrystals convert mechanical motion into electrical impulses and accept electrons to charge the composite impulse generating layer, and the carbon nanotubes provide pathways for distribution of the electrical impulses to a surface of the composite impulse generating layer contacting the biological environment, and delivery of byproducts of free radical degradation from the biological environment to both piezo nanocrystals and piezo polymer material, characterized in that: the interface structure ((100, 100a, 100b, 100c, 100d) comprises at least one biological environmental interface layer provided by a grid geometry; and the interface structure (100, 100a, 100b, 100c, 100d) further comprises at least one composite electrical impulse amplifying layer comprising an amplifying matrix phase of the piezo polymer material, a first dispersed phase of the piezo nanocrystals, and second dispersed phase of the carbon nanotubes, the first and second dispersed phase presented through the amplifying matrix phase, wherein the composite impulse amplifying layer has a higher piezoelectric coefficient than the composite impulse generating layer, the composite impulse amplifying layer receiving electrical impulses from said composite impulse generating layer and increasing said magnitude of charge of said electrical impulses, and transmitting to the at least one biological environmental interface layer. the interface structure ((100, 100a, 100b, 100c, 100d) comprises at least one biological environmental interface layer provided by a grid geometry; and the interface structure (100, 100a, 100b, 100c, 100d) further comprises at least one composite electrical impulse amplifying layer comprising an amplifying matrix phase of the piezo polymer material, a first dispersed phase of the piezo nanocrystals, and second dispersed phase of the carbon nanotubes, the first and second dispersed phase presented through the amplifying matrix phase, wherein the composite impulse amplifying layer has a higher piezoelectric coefficient than the composite impulse generating layer, the composite impulse amplifying layer receiving electrical impulses from said composite impulse generating layer and increasing said magnitude of charge of said electrical impulses, and transmitting to the at least one biological environmental interface layer.
A remote monitoring system for lifts of various types, comprising data transmission means, designed to transfer signals and commands from and to the lifts, and information terminals, designed to interact with the data transmission means, in such a way as to implement remote monitoring and control of said lifts; said remote monitoring system comprising at least universal interface devices, each of said universal interface devices being designed to dialogue with any type of lift and with the data transmission means, said universal interface device being characterised in that it comprises at least data processing means, and at least a software - hardware printed circuit board, designed to convert the in-out signals of at least one lift according to parameters compatible with the data processing means, wherein the printed circuit board comprises a plurality of inputs, designed to receive voltage signals from the lifts, and a plurality of outputs, designed to transmit voltage signals to the data processing means.
A compression garment comprising: a base textile that encompasses the circumference of at least a first portion of the anatomy of a person wearing the garment, the base textile exerting a first compressive force to the first portion of the anatomy of the wearer; and an elastomer printed onto the base textile, the elastomer comprising: a plurality of ring portions (115,125,135) that encompass the circumference of the at least the first portion of the anatomy of the person wearing the garment, each of the plurality of ring portions (115,125,135) exerting a second compressive force to the first portion of the anatomy of the wearer, with the thickness of the elastomer printed onto the base textile varying for different ring portions (115, 125, 135) of the plurality of ring portions (115, 125, 135) and the second compressive force varying in relationship to the thickness of each of the plurality of ring portions (115, 125, 135), the total compressive force applied by the compressive garment at a given location along the first portion of the anatomy of the person wearing the garment being the sum of the first compressive force and the second compressive force at that location of the garment, wherein the thickness of the elastomer rings (115,125,135) varies from thickest at the wearer's extremities to thinnest adjacent to the wearer's torso.
A latch for capturing a striker, the latch comprising: a pawl mounted to rotate between a closed position and an open position, the pawl being biased to rotate toward the open position and configured to capture the striker when in the closed position; a trigger mounted to rotate between a locked position and an unlocked position, the trigger being biased to rotate toward the locked position and selectively positionable to contact the pawl when the pawl is in the closed position, thereby retaining the pawl in the closed position; characterised in that the latch further comprises a link coupling the pawl to the trigger, wherein the link is configured to prevent the trigger from moving to the locked position while the pawl is maintained in the open position. a pawl mounted to rotate between a closed position and an open position, the pawl being biased to rotate toward the open position and configured to capture the striker when in the closed position; a trigger mounted to rotate between a locked position and an unlocked position, the trigger being biased to rotate toward the locked position and selectively positionable to contact the pawl when the pawl is in the closed position, thereby retaining the pawl in the closed position; characterised in that the latch further comprises a link coupling the pawl to the trigger, wherein the link is configured to prevent the trigger from moving to the locked position while the pawl is maintained in the open position.
An aqueous fluid filter assembly, comprising: a cap; a bowl engaging the cap and defining a filter volume; a filter element disposed in the filter volume, the filter element being sealed against an interior of the cap and an interior of the bowl to provide an unfiltered volume and a filtered volume; an inlet in fluid communication with the unfiltered volume; an outlet in fluid communication with the filtered volume via a pickup section; the pickup section comprising a pick-up section inlet extending into the filtered volume and an air-metering orifice, wherein the pick-up section inlet is located below the air-metering orifice, characterised in that a diameter of the air metering orifice is 0.127 to 0.1778mm. a cap; a bowl engaging the cap and defining a filter volume; a filter element disposed in the filter volume, the filter element being sealed against an interior of the cap and an interior of the bowl to provide an unfiltered volume and a filtered volume; an inlet in fluid communication with the unfiltered volume; an outlet in fluid communication with the filtered volume via a pickup section; the pickup section comprising a pick-up section inlet extending into the filtered volume and an air-metering orifice, wherein the pick-up section inlet is located below the air-metering orifice, characterised in that a diameter of the air metering orifice is 0.127 to 0.1778mm.