mhurhangee/ep-ind-claims huggingface dataset:
A component design system for generating aircraft component designs, comprising: a data base comprising a set of rules comprising simulation data and/or empirical data for different load characteristics of different component geometries; an input module is adapted for inputting user-specific load characteristics relating to an aircraft component to be generated; a processing unit is adapted for generating a variety of geometrically different aircraft component designs based on the input user-specific load characteristics and the set of rules; wherein at least one specific component design is selectable out of the variety of geometrically different aircraft component designs; wherein the load characteristics comprise at least one of the group of thermal loads and mechanical loads; - the mechanical loads characterized by a load path within a component geometry describing a distribution of forces with the component geometry; and - the thermal loads characterized by a path along which heat propagates through the component geometry; and wherein the processing unit is adapted to select one aircraft component design out of the variety of geometrically different aircraft component designs based on criteria for the suitability, which selected aircraft component design is most suitable for a predetermined position (61a, 61b) or a specific type of aircraft component within an aircraft to be assembled. a data base comprising a set of rules comprising simulation data and/or empirical data for different load characteristics of different component geometries; an input module is adapted for inputting user-specific load characteristics relating to an aircraft component to be generated; a processing unit is adapted for generating a variety of geometrically different aircraft component designs based on the input user-specific load characteristics and the set of rules; wherein at least one specific component design is selectable out of the variety of geometrically different aircraft component designs; wherein the load characteristics comprise at least one of the group of thermal loads and mechanical loads; - the mechanical loads characterized by a load path within a component geometry describing a distribution of forces with the component geometry; and - the thermal loads characterized by a path along which heat propagates through the component geometry; and - the mechanical loads characterized by a load path within a component geometry describing a distribution of forces with the component geometry; and - the thermal loads characterized by a path along which heat propagates through the component geometry; and wherein the processing unit is adapted to select one aircraft component design out of the variety of geometrically different aircraft component designs based on criteria for the suitability, which selected aircraft component design is most suitable for a predetermined position (61a, 61b) or a specific type of aircraft component within an aircraft to be assembled.
Dental material, comprising a) 0.1 to 50 wt % polymerisable phthalic acid derivative of the general Formula I: in which R 1 = H or methyl R 2 = H or methyl, Q 1 = a C 1 -C 12 alkylene group, wherein the chain can be interrupted by O, Q 2 = is absent or is a (n+1)-valent aliphatic C 1 -C 8 group, wherein the chain can be interrupted by O, X = is absent, Y = O, n, m = independently of one another are 1 or 2, R 3 = H, CH 3 or OCH 3, wherein the two carboxyl groups of the benzene ring can together form an anhydride group, b) 0.01 to 10 wt % initiator for the radical polymerisation, c) 0 to 80 wt % of one or more additional radically polymerisable monomers (comonomers), d) 0 to 30 wt % of one or more radically polymerisable, acid group-containing monomers (adherent monomers), e) 0 to 80 wt % filler and f) 0 to 70 wt % solvent. a) 0.1 to 50 wt % polymerisable phthalic acid derivative of the general Formula I: in which R 1 = H or methyl R 2 = H or methyl, Q 1 = a C 1 -C 12 alkylene group, wherein the chain can be interrupted by O, Q 2 = is absent or is a (n+1)-valent aliphatic C 1 -C 8 group, wherein the chain can be interrupted by O, X = is absent, Y = O, n, m = independently of one another are 1 or 2, R 3 = H, CH 3 or OCH 3, wherein the two carboxyl groups of the benzene ring can together form an anhydride group, R 1 = H or methyl R 2 = H or methyl, Q 1 = a C 1 -C 12 alkylene group, wherein the chain can be interrupted by O, Q 2 = is absent or is a (n+1)-valent aliphatic C 1 -C 8 group, wherein the chain can be interrupted by O, X = is absent, Y = O, n, m = independently of one another are 1 or 2, R 3 = H, CH 3 or OCH 3, b) 0.01 to 10 wt % initiator for the radical polymerisation, c) 0 to 80 wt % of one or more additional radically polymerisable monomers (comonomers), d) 0 to 30 wt % of one or more radically polymerisable, acid group-containing monomers (adherent monomers), e) 0 to 80 wt % filler and f) 0 to 70 wt % solvent.
A system for configuration and control of a device, the system comprising: a device processor comprising at least two processing cores (120, 140), the device processor configured to control a physical equipment system; a device firmware executed by one of the at least two processing cores (120, 140), the device firmware including a device runtime system for the device; a device-based engineering server executed on another one of the at least two processing cores (120, 140) independent of the device firmware for performing engineering services related to configuration and control of the device; a hypervisor configured to manage communication between the device firmware and the device-based engineering server via a communication path; a web server running on the device-based engineering server; and a webApp for performing web-based functionality for configuration and control of the device; wherein the webApp is configured to present a graphical user interface to a user's web browser running on a computer and being in communication with the web server running on the device-based engineering server; wherein the device-based engineering server is configured to receive a configuration or control instruction, which is initiated via the user's web browser, and to communicate the received configuration or control instruction to the device firmware via the communication path established in the hypervisor; and wherein the device runtime system of the device firmware is configured to execute the configuration or control instruction received via the communication path established in the hypervisor. a device processor comprising at least two processing cores (120, 140), the device processor configured to control a physical equipment system; a device firmware executed by one of the at least two processing cores (120, 140), the device firmware including a device runtime system for the device; a device-based engineering server executed on another one of the at least two processing cores (120, 140) independent of the device firmware for performing engineering services related to configuration and control of the device; a hypervisor configured to manage communication between the device firmware and the device-based engineering server via a communication path; a web server running on the device-based engineering server; and a webApp for performing web-based functionality for configuration and control of the device; wherein the webApp is configured to present a graphical user interface to a user's web browser running on a computer and being in communication with the web server running on the device-based engineering server; wherein the device-based engineering server is configured to receive a configuration or control instruction, which is initiated via the user's web browser, and to communicate the received configuration or control instruction to the device firmware via the communication path established in the hypervisor; and wherein the device runtime system of the device firmware is configured to execute the configuration or control instruction received via the communication path established in the hypervisor.
Method for fabricating three-dimensional objects with self-supporting and/or overhanging parts (26, 27), wherein the material used is extruded in a liquid state from an extruder and solidified when it comes into contact with a base plate or an underlying layer of material, wherein the material is bonded with the material of the possibly underlying layer and the material is placed layer by layer on the basis of a predetermined pattern, characterized in that self-supporting and/or overhanging parts (26, 27) are determined in the pattern, on the basis of which the material is placed, and the following steps are additionally carried out for these parts: a) determining regions in the pattern in which material has been placed in the underlying layer, b) beginning the placement of the material in a region determined in step a), c) extruding the material according to the predetermined pattern, wherein, during the extrusion of the material according to step c), the extruded material is locally cooled and thereby solidified in the region around an extruder die of the extruder. a) determining regions in the pattern in which material has been placed in the underlying layer, b) beginning the placement of the material in a region determined in step a), c) extruding the material according to the predetermined pattern, wherein, during the extrusion of the material according to step c), the extruded material is locally cooled and thereby solidified in the region around an extruder die of the extruder.
A balloon catheter adapted for use with a guidewire, comprising: an elongated, tubular shaft extending in a longitudinal direction, said shaft having a proximal end and a distal end; an inflatable balloon supported along the distal end of the shaft, the balloon when inflated including first and second spaced ends and a working surface between the ends; and an insert located within the interior compartment of the balloon, characterized in that the insert includes at least a radiopaque portion separate from the shaft, wherein the insert comprises at least one finger, or the insert takes the form of a plurality of radiopaque bands inserted in the interior compartment of the balloon, the bands being positioned along an inner surface of a balloon wall, with one at each end of the working surface. an elongated, tubular shaft extending in a longitudinal direction, said shaft having a proximal end and a distal end; an inflatable balloon supported along the distal end of the shaft, the balloon when inflated including first and second spaced ends and a working surface between the ends; and an insert located within the interior compartment of the balloon, characterized in that the insert includes at least a radiopaque portion separate from the shaft, wherein the insert comprises at least one finger, or the insert takes the form of a plurality of radiopaque bands inserted in the interior compartment of the balloon, the bands being positioned along an inner surface of a balloon wall, with one at each end of the working surface. wherein the insert comprises at least one finger, or the insert takes the form of a plurality of radiopaque bands inserted in the interior compartment of the balloon, the bands being positioned along an inner surface of a balloon wall, with one at each end of the working surface.
A short-latency resource management method performed by a short-latency resource management device, the method comprising: a.) receiving a terminal identifier and parameter information of a first terminal that has a short-latency requirement, wherein the parameter information is corresponding to short-latency communication performed by the first terminal, and wherein the terminal identifier and the parameter information of the first terminal are sent by a radio access network device: b.) acquiring a first short-latency resource identifier corresponding to a first short-latency resource according to the parameter information of the first terminal and at least one pre-established correspondence relationship between parameter information, a short-latency resource identifier, and a terminal identifier, wherein the first short-latency resource identifier is a short-latency resource identifier matching the first terminal c.) assigning the terminal identifier of the first terminal to a first short-latency resource group to which the first short-latency resource identifier belongs according to the parameter information of the first terminal; d.) updating the at least one correspondence relationship by establishing a further correspondence relationship being a correspondence relationship between the terminal identifier of the first terminal, the first short-latency resource identifier and the parameter information of the first terminal that are corresponding to the first short latency resource group and e.) sending, the first short-latency resource identifier to the radio access network device. a.) receiving a terminal identifier and parameter information of a first terminal that has a short-latency requirement, wherein the parameter information is corresponding to short-latency communication performed by the first terminal, and wherein the terminal identifier and the parameter information of the first terminal are sent by a radio access network device: b.) acquiring a first short-latency resource identifier corresponding to a first short-latency resource according to the parameter information of the first terminal and at least one pre-established correspondence relationship between parameter information, a short-latency resource identifier, and a terminal identifier, wherein the first short-latency resource identifier is a short-latency resource identifier matching the first terminal c.) assigning the terminal identifier of the first terminal to a first short-latency resource group to which the first short-latency resource identifier belongs according to the parameter information of the first terminal; d.) updating the at least one correspondence relationship by establishing a further correspondence relationship being a correspondence relationship between the terminal identifier of the first terminal, the first short-latency resource identifier and the parameter information of the first terminal that are corresponding to the first short latency resource group and e.) sending, the first short-latency resource identifier to the radio access network device.
An antifungal method for an air conditioner, comprising: a step of wetting a surface of a heat exchanger with dew condensation water resultant from evaporation of a refrigerant; and a step of heating the heat exchanger based on condensation of the refrigerant in the heat exchanger, characterized by a temperature of the heat exchanger being maintained in a range equal to or higher than 45 degrees Celsius and equal to or lower than 60 degrees Celsius. a step of wetting a surface of a heat exchanger with dew condensation water resultant from evaporation of a refrigerant; and a step of heating the heat exchanger based on condensation of the refrigerant in the heat exchanger, characterized by a temperature of the heat exchanger being maintained in a range equal to or higher than 45 degrees Celsius and equal to or lower than 60 degrees Celsius.
A thin battery, comprising: a surface; a first electrode layer provided on the surface; a second electrode layer provided on the surface; an electrolyte layer printed on the first electrode layer and the second electrode layer, wherein the electrolyte layer possesses substantial mechanical strength such that further printings on top of the electrolyte layer can be done, and wherein the electrolyte layer comprises at least one first functional group; a photopolymerizable protection layer printed on the electrolyte layer and around a perimeter of the electrolyte layer, wherein the photopolymerizable protection layer solidifies on exposure to suitable radiation, and the photopolymerizable protection layer comprises at least one second functional group, and wherein the thin battery further comprises chemical bonds formed on exposure to the suitable radiation by some of the at least one first functional group with some of the at least one second functional group. a surface; a first electrode layer provided on the surface; a second electrode layer provided on the surface; an electrolyte layer printed on the first electrode layer and the second electrode layer, wherein the electrolyte layer possesses substantial mechanical strength such that further printings on top of the electrolyte layer can be done, and wherein the electrolyte layer comprises at least one first functional group; a photopolymerizable protection layer printed on the electrolyte layer and around a perimeter of the electrolyte layer, wherein the photopolymerizable protection layer solidifies on exposure to suitable radiation, and the photopolymerizable protection layer comprises at least one second functional group, and wherein the thin battery further comprises chemical bonds formed on exposure to the suitable radiation by some of the at least one first functional group with some of the at least one second functional group.
Sulfur-crosslinkable rubber mixture containing at least the following constituents: - at least one polymer constructed from 84% to 88% by weight of ethylene oxide and 2% to 4% of propylene oxide and 10% to 12% of allyl glycidyl ether and - at least one diene rubber selected from the group consisting of natural polyisoprene and synthetic polyisoprene and butadiene rubber and styrene-butadiene rubber and - at least one filler, wherein said mixture contains as at least one filler at least 0.1 to 100 phr of at least one carbon black. - at least one polymer constructed from 84% to 88% by weight of ethylene oxide and 2% to 4% of propylene oxide and 10% to 12% of allyl glycidyl ether and - at least one diene rubber selected from the group consisting of natural polyisoprene and synthetic polyisoprene and butadiene rubber and styrene-butadiene rubber and - at least one filler, wherein said mixture contains as at least one filler at least 0.1 to 100 phr of at least one carbon black.
Membrane separator comprising a plurality of vertically-stacked membrane modules, each of the membrane modules includes a plurality of membrane elements arranged in parallel and along an up-to-down direction of the membrane separator, channels for a liquid to be treated formed in the up-to-down direction of the membrane separator between the membrane elements, water collecting cases which keep water-tightly sealed both sides of the membrane elements along the channels for the liquid to be treated, wherein a water collecting case has therein a water collecting space with which permeate channels of the membrane elements communicate, the water collecting case has a wall member that surrounds the water collecting space, a portion of the wall member opposed to the sides of the membrane elements forms a projecting portion projecting to an outer side and recessed portions (41 b) recessed to an inner side on both sides of the projecting portion, and both the projecting portion and the recessed portions (41 b) extend from a lower end of the water collecting case to an upper end of the water collecting case, characterized by: both the projecting portion and the recessed portions (41 b) are formed to have curved surfaces and form a continuous curved surface, the projecting portion forming an expanded area in the water collecting space, and an upper coupling portion provided on the upper end face of the water collecting case and a lower coupling portion provided on the lower end face thereof form a water collecting port opened so as to face the expanded area. the water collecting case has a wall member that surrounds the water collecting space, a portion of the wall member opposed to the sides of the membrane elements forms a projecting portion projecting to an outer side and recessed portions (41 b) recessed to an inner side on both sides of the projecting portion, and both the projecting portion and the recessed portions (41 b) extend from a lower end of the water collecting case to an upper end of the water collecting case, characterized by: both the projecting portion and the recessed portions (41 b) are formed to have curved surfaces and form a continuous curved surface, the projecting portion forming an expanded area in the water collecting space, and an upper coupling portion provided on the upper end face of the water collecting case and a lower coupling portion provided on the lower end face thereof form a water collecting port opened so as to face the expanded area. both the projecting portion and the recessed portions (41 b) are formed to have curved surfaces and form a continuous curved surface, the projecting portion forming an expanded area in the water collecting space, and an upper coupling portion provided on the upper end face of the water collecting case and a lower coupling portion provided on the lower end face thereof form a water collecting port opened so as to face the expanded area.
A preform for producing a weld-free geocell system, said preform being made of a sheet of a flexible material, comprising incisions whereby - said incisions have a central portion in the form of a straight line and two end portions in an arcuate form, - the central portions of said incisions being arranged in rows (R 1, R 2,...R N), wherein the incision lines in the neighboring rows being offset along the incision direction, characterized in that - thickened areas are made at the end portions of the incisions, the preform thickness in said thickened areas being up to 300% of the thickness of the main body of the sheet material. - said incisions have a central portion in the form of a straight line and two end portions in an arcuate form, - the central portions of said incisions being arranged in rows (R 1, R 2,...R N), wherein the incision lines in the neighboring rows being offset along the incision direction, characterized in that - thickened areas are made at the end portions of the incisions, the preform thickness in said thickened areas being up to 300% of the thickness of the main body of the sheet material.