mhurhangee/ep-ind-claims huggingface dataset:
Organic light-emitting device comprising - a substrate, - a first electrode arranged above the substrate, - at least one organic functional layer stack which is configured to emit radiation and is arranged at least above the first electrode, - at least one conductive current spreading structure arranged on the first electrode and facing the organic functional layer stack, wherein the conductive current spreading structure comprises at least one metal, wherein the conductive current spreading structure is coated with an inorganic passivation layer so that the inorganic passivation layer coats or covers the side faces and the surface of the conductive current spreading structure over the entire area, wherein the inorganic passivation layer comprises a sulfide, selenide and/or telluride of the at least one metal of the conductive current spreading structure, wherein the inorganic passivation layer is either an n-type or a p-type semiconductor so that no current flow occurs between the conductive current spreading structure and the organic functional layer stack via the inorganic passivation layer, and - a second electrode arranged above the organic functional layer stack. - a substrate, - a first electrode arranged above the substrate, - at least one organic functional layer stack which is configured to emit radiation and is arranged at least above the first electrode, - at least one conductive current spreading structure arranged on the first electrode and facing the organic functional layer stack, wherein the conductive current spreading structure comprises at least one metal, wherein the conductive current spreading structure is coated with an inorganic passivation layer so that the inorganic passivation layer coats or covers the side faces and the surface of the conductive current spreading structure over the entire area, wherein the inorganic passivation layer comprises a sulfide, selenide and/or telluride of the at least one metal of the conductive current spreading structure, wherein the inorganic passivation layer is either an n-type or a p-type semiconductor so that no current flow occurs between the conductive current spreading structure and the organic functional layer stack via the inorganic passivation layer, and - a second electrode arranged above the organic functional layer stack.
A barrel brake for braking the barrel during recoil of a gun, comprising a hollow cylinder which has an outer and an inner diameter, a control rod arranged in the cylinder, a piston rod which surrounds the control rod and is movable within the cylinder coaxially to the cylinder and to the control rod, wherein the interior of the cylinder is filled with a brake fluid, wherein the control rod at one end corresponds to the inner diameter of the cylinder, and the piston rod has a control gap between the piston rod and the control rod, wherein the control rod comprises a first region having a constant diameter which adjoins the one end, and a second region (8, 9, 10) having tapering and/or widening diameters which constitute the control profile of the control rod. comprising a hollow cylinder which has an outer and an inner diameter, a control rod arranged in the cylinder, a piston rod which surrounds the control rod and is movable within the cylinder coaxially to the cylinder and to the control rod, wherein the interior of the cylinder is filled with a brake fluid, wherein the control rod at one end corresponds to the inner diameter of the cylinder, and the piston rod has a control gap between the piston rod and the control rod, wherein the control rod comprises a first region having a constant diameter which adjoins the one end, and a second region (8, 9, 10) having tapering and/or widening diameters which constitute the control profile of the control rod.
A method of manufacturing an anatomical protective item for one or more users, the anatomical protective item comprising a single layer of energy controlling cells, the method comprising: obtaining input data associated with one or more users; processing the obtained input data to identify one or more energy controlling criteria for the anatomical protective item; employing a combination of a packing process and a surface tessellation process to generate each energy controlling cell in the single layer, wherein each energy controlling cell comprises one or more walls which extend from an upper surface of the single layer to a lower surface of the single layer, wherein each energy controlling cell is orientated between the upper surface and the lower surface along a respective axis, wherein the packing process is performed at least on the basis of the identified one or more energy controlling criteria, wherein the packing process comprises a circle packing process which allocates a centre point for each energy controlling cell through which its axis passes, and wherein the surface tessellation process comprises a weighted centroidal Voronoi tessellation process; and wherein the surface tessellation process is based on the centre points allocated by the circle packing process and determines the position and/or orientation of the one or more walls of each energy controlling cell; and manufacturing the anatomical protective item comprising the single layer of energy controlling cells. obtaining input data associated with one or more users; processing the obtained input data to identify one or more energy controlling criteria for the anatomical protective item; employing a combination of a packing process and a surface tessellation process to generate each energy controlling cell in the single layer, wherein each energy controlling cell comprises one or more walls which extend from an upper surface of the single layer to a lower surface of the single layer, wherein each energy controlling cell is orientated between the upper surface and the lower surface along a respective axis, wherein the packing process is performed at least on the basis of the identified one or more energy controlling criteria, wherein the packing process comprises a circle packing process which allocates a centre point for each energy controlling cell through which its axis passes, and wherein the surface tessellation process comprises a weighted centroidal Voronoi tessellation process; and wherein the surface tessellation process is based on the centre points allocated by the circle packing process and determines the position and/or orientation of the one or more walls of each energy controlling cell; and manufacturing the anatomical protective item comprising the single layer of energy controlling cells.
An electrochemical separation device, comprising: a first electrode; wherein the first electrode is segmented with each section comprising a straight section and a curved section; at least one cell pair comprising an anion exchange membrane and a cation exchange membrane wound around the first electrode to form a bundle having a racetrack configuration; and a second electrode surrounding the bundle; wherein a cross-section of the bundle has a straight section and a curved section at first and second ends of the straight section; wherein a ratio of a length of the straight section to a radius of each of the curved sections of the bundle is greater than zero; wherein the anion exchange membrane and the cation exchange membrane are planar and parallel along the straight section of the bundle; and wherein the first electrode comprises an anode and wherein the second electrode comprises a cathode. a first electrode; wherein the first electrode is segmented with each section comprising a straight section and a curved section; at least one cell pair comprising an anion exchange membrane and a cation exchange membrane wound around the first electrode to form a bundle having a racetrack configuration; and a second electrode surrounding the bundle; wherein a cross-section of the bundle has a straight section and a curved section at first and second ends of the straight section; wherein a ratio of a length of the straight section to a radius of each of the curved sections of the bundle is greater than zero; wherein the anion exchange membrane and the cation exchange membrane are planar and parallel along the straight section of the bundle; and wherein the first electrode comprises an anode and wherein the second electrode comprises a cathode.
An automatic injection device comprising: a housing having a first end, a second end, and a barrel between the first end and the second end, the barrel comprising an elongated window to allow viewing of contents inside the housing; a syringe disposed within the housing and having a first end, a second end, and a reservoir between the first end and the second end; a plunger at least partially disposed within the syringe and comprising a visual indicator on a portion of the plunger; and a syringe carrier disposed within the housing and configured to contain the syringe and displace the syringe within the housing between a first position and a second position, the syringe carrier having a first opening and a second opening, and a first pair of legs and a second pair of legs distributed circumferentially about the barrel of the syringe carrier, the first pair of legs defining at least a portion of the first opening. a housing having a first end, a second end, and a barrel between the first end and the second end, the barrel comprising an elongated window to allow viewing of contents inside the housing; a syringe disposed within the housing and having a first end, a second end, and a reservoir between the first end and the second end; a plunger at least partially disposed within the syringe and comprising a visual indicator on a portion of the plunger; and a syringe carrier disposed within the housing and configured to contain the syringe and displace the syringe within the housing between a first position and a second position, the syringe carrier having a first opening and a second opening, and a first pair of legs and a second pair of legs distributed circumferentially about the barrel of the syringe carrier, the first pair of legs defining at least a portion of the first opening.
Method for authorising the communication of a network node (IoT1 - IoT4, PANEL) of a communication network, wherein the authorisation for communication of the network node (IoT1 - IoT4, PANEL) only then takes place if the geographic position (POS BIM) of the network node (IoT1 - IoT4, PANEL) and the position (POS, POS IPS) of a defined mobile communication terminal (SMART) essentially match, wherein the position (POS BIM) of the network node (IoT1 - IoT4, PANEL) in a building information model is stored on a server (BIM server), wherein the position (POS, POS IPS) of the mobile communication terminal (SMART) is determined by way of a position determination system, wherein the position (POS BIM) of the network node (IoT1 - IoT4, PANEL) stored in the building information model is compared with the position (POS, POS IPS) of the defined mobile communication terminal (SMART) by means of the network node (IoT1 - IoT4, PANEL) or the defined mobile communication terminal (SMART), and on this basis the network node (IoT1 - IoT4, PANEL) is only then authorised to carry out a communication if the defined mobile communication terminal (SMART) is located geographically at a distance of at most 3m from the corresponding network node (IoT1 - IoT4, PANEL).
Modular passenger compartment for a means of locomotion, comprising: - a first passenger compartment part having a first edge, - a second passenger compartment part having a second edge, - a third passenger compartment part having a third edge, wherein the first edge is designed to correspond - to the second edge and - to the third edge in order to selectively close off a volume of the passenger compartment to the outside by means of the second passenger compartment part or by means of the third passenger compartment part, and wherein the second passenger compartment part further has a fourth edge which is designed to correspond to the third edge in order to close off the volume of the passenger compartment to the outside by means of the third passenger compartment part, wherein the passenger compartment parts (1, 2, 3) have a respective interface for temporary connection to a common driving mount, characterized in that at least one passenger compartment part has a service counter with an automatic accepting and dispensing mechanism, designed in the manner of a package station, via which a customer standing in front of the passenger compartment part can introduce a transport container into the passenger compartment. - a first passenger compartment part having a first edge, - a second passenger compartment part having a second edge, - a third passenger compartment part having a third edge, wherein the first edge is designed to correspond - to the second edge and - to the third edge in order to selectively close off a volume of the passenger compartment to the outside by means of the second passenger compartment part or by means of the third passenger compartment part, and wherein the second passenger compartment part further has a fourth edge which is designed to correspond to the third edge in order to close off the volume of the passenger compartment to the outside by means of the third passenger compartment part, wherein the passenger compartment parts (1, 2, 3) have a respective interface for temporary connection to a common driving mount,
Road vehicle, in particular passenger car or truck, in particular light truck, in particular driven by an internal combustion engine and/or electric drive which features an ambient air purification device (10, 1017, 1018) which is in particular designed to remove dusts, in particular fine particulate matter, and/or gases from the ambient air, wherein the ambient air purification device (10, 1017, 1018) features at least one filter element (100, 101) and is disposed transversely to a vehicle longitudinal axis in an outer area of the road vehicle, characterized in that the ambient air purification device (10, 1017, 1018) is disposed in an underbody area on a vehicle tail in such a way that at least the at least one filter element (100, 101) is provided behind a rear axle of the road vehicle, wherein the ambient air purification device (10, 1017, 1018) can be flowed through in the vehicle longitudinal direction and behind the ambient air purification device (10, 1017, 1018) is provided in particular a free outflow zone in the direction of travel, and wherein the ambient air purification device (10, 1017, 1018) is accommodated in a mounting space provided by a vehicle frame, wherein the ambient air purification device (10, 1017, 1018) is disposed above a transverse axis defined by an axis of rotation of a pair of wheels of the rear axle.
A pharmaceutical formulation comprising: a drug layer, comprising a pharmaceutically acceptable salt of omecamtiv mecarbil, or a pharmaceutically acceptable hydrate thereof; a sweller layer; and a semi-permeable membrane coating having at least one delivery port. a drug layer, comprising a pharmaceutically acceptable salt of omecamtiv mecarbil, or a pharmaceutically acceptable hydrate thereof; a sweller layer; and a semi-permeable membrane coating having at least one delivery port.
Pumping apparatus suitable to be mounted on a vehicle, said pumping apparatus comprising a bearing structure and a pumping unit which is disposed substantially along a longitudinal axis and is provided with pumping means (19, 20, 21) which are configured to pump material from a feed compartment toward an outlet end, there being present a connection element associated with said pumping means (19, 20, 21), characterized in that it also comprises damping means interposed between said pumping unit and said bearing structure to dampen at least the roll of said pumping unit with respect to said longitudinal axis, and in that said damping means comprise damper members (23, 24, 25, 26, 27) mounted on corresponding support elements (29, 30, 31, 32, 33) of said bearing structure, wherein at least one damper member (23, 24, 25, 26, 27) is associated with said feed compartment, with said connection element and with said pumping means (19, 20, 21), respectively.
An anchor of the type screwed into a prepared hole in a host material, said anchor comprising: a body extending longitudinally along a central axis, said body having an apical region and a coronal region, a central region of said body extending between said apical region and said coronal region, at least one thread form protruding from said body and winding helically there along in continuous turns from said apical region to said coronal region, said thread form having a crest, said central region including an array of flutes, each said flute extending longitudinally along the length of said central region, each said flute being composed of a plurality of distinct and isolated flute segments formed in said crest of said thread form, wherein within said central region said thread form has a leading flank disposed toward said apical region and a trailing flank disposed toward said coronal region, said leading flank having an obtuse leading flank angle measured toward said apical region, said trailing flank having an acute trailing flank angle measured toward said coronal region. a body extending longitudinally along a central axis, said body having an apical region and a coronal region, a central region of said body extending between said apical region and said coronal region, at least one thread form protruding from said body and winding helically there along in continuous turns from said apical region to said coronal region, said thread form having a crest, said central region including an array of flutes, each said flute extending longitudinally along the length of said central region, each said flute being composed of a plurality of distinct and isolated flute segments formed in said crest of said thread form, wherein within said central region said thread form has a leading flank disposed toward said apical region and a trailing flank disposed toward said coronal region, said leading flank having an obtuse leading flank angle measured toward said apical region, said trailing flank having an acute trailing flank angle measured toward said coronal region.
A high-strength galvanized steel sheet having a chemical composition containing, by mass%, C: 0.07% to 0.25%, Si: 0.01% to 3.00%, Mn: 1.5% to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 0.01% to 1.50%, N: 0.001% to 0.008%, Ti: 0.003% to 0.200%, B: 0.0003% to 0.0050%, and optionally at least one of Cr: 0.01% to 2.00%, Mo: 0.01% to 2.00%, V: 0.01% to 2.00%, Ni: 0.01% to 2.00%, Cu: 0.01% to 2.00%, Nb: 0.003% to 0.200%, Ca: 0.001% to 0.005% and REM: 0.001% to 0.005%, and the balance being Fe and inevitable impurities, wherein the relationship Ti > 4N is satisfied, and a microstructure including, in terms of area ratio in a cross section located at 1/4 of the thickness from the surface of a base steel sheet, a ferrite phase in an amount of 70% or less (including 0%), a bainite phase and a tempered bainite phase in an amount of 20% or less (including 0%) in total, a tempered martensite phase in an amount of 25% or more, and a retained austenite phase in an amount of less than 3% (including 0%), wherein the average crystal grain diameter of the tempered martensite phase is 20 μm or less, wherein a variation in the Vickers hardness of the tempered martensite phase is 20 or less in terms of standard deviation, and wherein the number density of carbides having a minor axis length of 0.05 μm or more in the tempered martensite phase is 3 × 10 6 particles/mm 2 or less. a microstructure including, in terms of area ratio in a cross section located at 1/4 of the thickness from the surface of a base steel sheet, a ferrite phase in an amount of 70% or less (including 0%), a bainite phase and a tempered bainite phase in an amount of 20% or less (including 0%) in total, a tempered martensite phase in an amount of 25% or more, and a retained austenite phase in an amount of less than 3% (including 0%), wherein the average crystal grain diameter of the tempered martensite phase is 20 μm or less, wherein a variation in the Vickers hardness of the tempered martensite phase is 20 or less in terms of standard deviation, and wherein the number density of carbides having a minor axis length of 0.05 μm or more in the tempered martensite phase is 3 × 10 6 particles/mm 2 or less.
An inlet system for an internal combustion engine, comprising - a compressor comprising a rotor, and - an air guide arranged to guide an air flow from an air inlet to at least one cylinder of the engine via the compressor, - wherein the inlet system comprises at least two fluid sources (2, 5, 502, 6, 11), and at least two fluid guiding elements (4, 12, 101, 501, 6011, 10) each arranged to guide a fluid from a respective of the fluid sources (2, 5, 502, 6, 11) to the air guide, between the air inlet and an outlet of the compressor, and - the fluid guiding elements present a first conduit for guiding a fluid from a first of the fluid sources, and a second conduit for guiding a fluid from a second of the fluid sources, - characterized in that a restriction of a flow of the fluid from the first fluid source is provided by a downstream end of the first conduit and the rotor, whereby a downstream end of the second conduit is arranged so that a pressure drop provided by said restriction drives fluid through the second conduit towards the downstream end of the second conduit. - a compressor comprising a rotor, and - an air guide arranged to guide an air flow from an air inlet to at least one cylinder of the engine via the compressor, - wherein the inlet system comprises at least two fluid sources (2, 5, 502, 6, 11), and at least two fluid guiding elements (4, 12, 101, 501, 6011, 10) each arranged to guide a fluid from a respective of the fluid sources (2, 5, 502, 6, 11) to the air guide, between the air inlet and an outlet of the compressor, and - the fluid guiding elements present a first conduit for guiding a fluid from a first of the fluid sources, and a second conduit for guiding a fluid from a second of the fluid sources, - characterized in that a restriction of a flow of the fluid from the first fluid source is provided by a downstream end of the first conduit and the rotor, whereby a downstream end of the second conduit is arranged so that a pressure drop provided by said restriction drives fluid through the second conduit towards the downstream end of the second conduit.