mhurhangee/ep-ind-claims huggingface dataset:
A locking-unlocking structure for guiding forward lifting of a lifting body lifted by repeating a pushing action, the locking-unlocking structure comprising: an actuation guide unit provided at a center thereof therein with a stop groove to guide stop of a lifting body in a lifting state, having a lifting line and a falling line branching downward from the stop groove, and fixedly coupled to a fixing body; and an actuation unit comprising a lifting plate having a stop protrusion, which is mounted in the stop groove of the actuation guide unit or circulates along the lifting line and the falling line, and coupled to the lifting body movably left and right, wherein the guide protrusion protrudes from the falling line of the actuation guide unit while being inclined downward along the falling line to block an entrance so that the stop protrusion of the lifting plate is prevented from entering the falling line when the lifting plate of the actuation unit is lifted, and the guide protrusion is provided in an elastic member to be elastically actuated when the stop protrusion of the lifting plate falls along the falling line. an actuation guide unit provided at a center thereof therein with a stop groove to guide stop of a lifting body in a lifting state, having a lifting line and a falling line branching downward from the stop groove, and fixedly coupled to a fixing body; and an actuation unit comprising a lifting plate having a stop protrusion, which is mounted in the stop groove of the actuation guide unit or circulates along the lifting line and the falling line, and coupled to the lifting body movably left and right, wherein the guide protrusion protrudes from the falling line of the actuation guide unit while being inclined downward along the falling line to block an entrance so that the stop protrusion of the lifting plate is prevented from entering the falling line when the lifting plate of the actuation unit is lifted, and the guide protrusion is provided in an elastic member to be elastically actuated when the stop protrusion of the lifting plate falls along the falling line.
Production device, in particular SMC production device, for a production of thermoset prepregs, with at least one frame unit, with at least one transport unit, which is arranged on the frame unit, for a transport of at least one material strand, the transport unit comprising at least one conveyor belt, which is configured for receiving the material strand, and a plurality of roller elements (70, 74), which the conveyor belt of the transport unit lies on and/or by means of which the conveyor belt of the transport unit is movably supported, and with at least one bearing unit, which is configured to support the transport unit at least substantially entirely, i.e. by more than 50 %, in such a way that it is movable relative to the frame unit, wherein the conveyor belt and the plurality of roller elements (70, 74), by which the conveyor belt is movably supported and/or guided, are arranged together on a rack unit of the bearing unit, wherein the rack unit is supported in such a way that it is, in particular translationally, movable relative to the frame unit, characterised by at least one housing unit, which in at least one state at least partially encloses the transport unit at least substantially entirely, the housing unit comprising at least one movable and/or removable closure element (42, 44), which is configured at least for closing at least one opening (46, 48) through which at least the transport unit is, at least substantially entirely, movable relative to the frame unit at least partly out of the housing unit by the bearing unit.
A lipid nanoparticle encapsulating an mRNA coding for a therapeutic protein, wherein the LNP comprises a cationic lipid, a helper lipid, a structural lipid, and a stabilizer, wherein the cationic lipid is an ionizable lipid, wherein the stabilizer is a PEG lipid, and wherein the PEG lipid is a compound of Formula (V-OH): or a pharmaceutically acceptable salt thereof, wherein: r is an integer between 1 and 100, inclusive; and R 5 is optionally substituted C 10-40 alkyl, optionally substituted C 10-40 alkenyl, or optionally substituted C 10-40 alkynyl; and wherein the LNP does not trigger accelerated blood clearance. r is an integer between 1 and 100, inclusive; and R 5 is optionally substituted C 10-40 alkyl, optionally substituted C 10-40 alkenyl, or optionally substituted C 10-40 alkynyl; and wherein the LNP does not trigger accelerated blood clearance.
A method for switching a roadside navigation unit RSU used in a navigation system for navigating a self-driving vehicle, wherein the method comprises: receiving (102, 706, 806), by an onboard unit OBU of the self-driving vehicle while travelling into an overlapped area of a coverage area of a first RSU with a coverage area of an adjacent, second RSU, a switching notification message sent by the first RSU, wherein the switching notification message is used to instruct the OBU to switch from using the first RSU to using the second RSU for navigating the self-driving vehicle; sending (104, 707, 807), by the OBU, a registration request to the second RSU to request to obtain local path information about a detailed driving route of the self-driving vehicle within the coverage area of the second RSU; wherein the detailed driving route is a path with a precision at lane level along a respective part of a global path of the self-driving vehicle within the coverage area of the second RSU; receiving (105, 710, 808), by the OBU, the local path information about the detailed driving route sent by the second RSU; and switching (106, 711, 809), by the OBU, from using the first RSU to using the second RSU for navigating the self-driving vehicle along the detailed driving route according to the local path information about the detailed driving route receiving (102, 706, 806), by an onboard unit OBU of the self-driving vehicle while travelling into an overlapped area of a coverage area of a first RSU with a coverage area of an adjacent, second RSU, a switching notification message sent by the first RSU, wherein the switching notification message is used to instruct the OBU to switch from using the first RSU to using the second RSU for navigating the self-driving vehicle; sending (104, 707, 807), by the OBU, a registration request to the second RSU to request to obtain local path information about a detailed driving route of the self-driving vehicle within the coverage area of the second RSU; wherein the detailed driving route is a path with a precision at lane level along a respective part of a global path of the self-driving vehicle within the coverage area of the second RSU; receiving (105, 710, 808), by the OBU, the local path information about the detailed driving route sent by the second RSU; and switching (106, 711, 809), by the OBU, from using the first RSU to using the second RSU for navigating the self-driving vehicle along the detailed driving route according to the local path information about the detailed driving route
A method of setting a vehicle in motion on a ground surface, said method characterized in that it comprises automatically, by means of a controller, determining a maximum permitted value of slip according to an operating mode of the vehicle and maintaining slip of one or more vehicle tyres on the ground surface at the maximum permitted value; wherein the maximum permitted value of slip is in the range from 5 to 20%; the operating mode of the vehicle is selected from a plurality of selectable driving modes in which each of one or more vehicle subsystems is configured in one of a plurality of respective modes of operation, each optimised for travel over a corresponding terrain type being at least one of sand, grass, gravel, mud, ruts, snow and rocks; and the maximum permitted value being different for a first one of said operating modes than for a second one of said operating modes.
A method for signaling between a device and network, comprising the steps of: generating, by a device, an Instance Identification, ID, that matches an Instance ID used by a network for assigning a Globally Routable User Agent URI, GRUU wherein the Instance ID is based on a unique identifier (300, 400, 500) that belongs to the device but is also known to the network, DevID, wherein the creation of the Instance ID is based on a hash to protect the DevID and a shared namespace that is used by both the network and the device when encoding the DevID into an Instance ID. generating, by a device, an Instance Identification, ID, that matches an Instance ID used by a network for assigning a Globally Routable User Agent URI, GRUU wherein the Instance ID is based on a unique identifier (300, 400, 500) that belongs to the device but is also known to the network, DevID, wherein the creation of the Instance ID is based on a hash to protect the DevID and a shared namespace that is used by both the network and the device when encoding the DevID into an Instance ID.
A push-fit joint for pipes, including a tubular inner part and an outer part having an opening, said parts being connectable with one another, wherein the inner part has a push-fit end for insertion with its leading end into the opening of the outer part and, in a connected position, is connectable with the outer part in the opening of the outer part by means of a holding element deformable in a radial direction, wherein the inner part is movable beyond the connected position somewhat deeper into the opening of the outer part, and wherein an elastically expandable indicator ring, prior to connection of the inner part with the outer part, is arranged on the inner part in a ready position and is displaceable by the outer part from the ready position into an indicator position on connection of the inner part with the outer part, wherein the inner part includes an annular shoulder which is arranged between the ready position and the indicator position and includes an apex section, on the side close to the push-fit end a first ramp surface tapering in the direction of the push-fit end, and on the side remote from the push-fit end a second ramp surface tapering in the direction away from the push-fit end, and wherein the indicator ring, in non-expanded condition, has an inner diameter smaller than the outer diameter of the apex section of the annular shoulder, characterized in that a release element is axially displaceably arranged on the inner part and adapted for moving the holding element from the engaged position into a disengaged position, said release element including a radial shoulder against which the indicator ring abuts when in the ready position, and that between the shoulder and the outer part a spring element is arranged which embraces the release element in the manner of a ring and prevents entry of the release element into the outer part, with the release element being movable against the force of the spring element into a release position causing disengagement of the holding element and enabling the inner part to be detached from the outer part.
An electroporation system comprising: a catheter comprising an electrode assembly configured to be positioned in a vein of a body, the vein defining a central axis, the electrode assembly comprising: a structure configured to at least partially contact the vein, and a plurality of electrodes distributed about the structure, each electrode of the plurality of electrodes configured to be individually energized; a direct current energy source coupled to the catheter and configured to selectively energize a subset of electrodes of the plurality of electrodes; and a computing system coupled to the catheter and the DC energy source, the computing system configured to: detect respective positions of the plurality of electrodes within the vein, and select, based on the detected respective positions, the subset of electrodes from the plurality of electrodes to form a circumferential ring of energized electrodes that is concentric with the central axis of the vein, wherein to select the subset of electrodes, the computing system is configured to automatically select the subset of electrodes, wherein to automatically select the subset of electrodes, the computing system is configured to automatically determine, based on the detected respective positions, which of the plurality of electrodes form an approximately circular or ellipsoid closed path. a catheter comprising an electrode assembly configured to be positioned in a vein of a body, the vein defining a central axis, the electrode assembly comprising: a structure configured to at least partially contact the vein, and a plurality of electrodes distributed about the structure, each electrode of the plurality of electrodes configured to be individually energized; a structure configured to at least partially contact the vein, and a plurality of electrodes distributed about the structure, each electrode of the plurality of electrodes configured to be individually energized; a direct current energy source coupled to the catheter and configured to selectively energize a subset of electrodes of the plurality of electrodes; and a computing system coupled to the catheter and the DC energy source, the computing system configured to: detect respective positions of the plurality of electrodes within the vein, and select, based on the detected respective positions, the subset of electrodes from the plurality of electrodes to form a circumferential ring of energized electrodes that is concentric with the central axis of the vein, detect respective positions of the plurality of electrodes within the vein, and select, based on the detected respective positions, the subset of electrodes from the plurality of electrodes to form a circumferential ring of energized electrodes that is concentric with the central axis of the vein, wherein to select the subset of electrodes, the computing system is configured to automatically select the subset of electrodes, wherein to automatically select the subset of electrodes, the computing system is configured to automatically determine, based on the detected respective positions, which of the plurality of electrodes form an approximately circular or ellipsoid closed path.
A vehicle log transmission device that transmits a vehicle log to a vehicle log analysis server, the vehicle log transmission device comprising: a vehicle log obtainer that obtains the vehicle log; and a log transmitter; characterized by a vehicle state extractor that extracts a vehicle state from the obtained vehicle log; a difference generation log storage that stores a list of difference generation logs, each difference generation log being a vehicle log for a different vehicle state shared between the vehicle log transmission device and the vehicle log analysis server; a difference generation log selector that selects a difference generation log from the list in accordance with the extracted vehicle state; and a difference log generator that generates a difference log based on the obtained vehicle log and the selected difference generation log; and in that said log transmitter is a difference log transmitter that transmits, to the vehicle log analysis server, the generated difference log and a difference generation log identifier corresponding to the selected difference generation log, and the vehicle state extractor extracts at least one of a vehicle speed, a driving assistance mode, an autonomous driving mode, a travel location, weather, or temperature, included in the vehicle log, as the vehicle state. a vehicle log obtainer that obtains the vehicle log; and a log transmitter; characterized by a vehicle state extractor that extracts a vehicle state from the obtained vehicle log; a difference generation log storage that stores a list of difference generation logs, each difference generation log being a vehicle log for a different vehicle state shared between the vehicle log transmission device and the vehicle log analysis server; a difference generation log selector that selects a difference generation log from the list in accordance with the extracted vehicle state; and a difference log generator that generates a difference log based on the obtained vehicle log and the selected difference generation log; and in that said log transmitter is a difference log transmitter that transmits, to the vehicle log analysis server, the generated difference log and a difference generation log identifier corresponding to the selected difference generation log, and the vehicle state extractor extracts at least one of a vehicle speed, a driving assistance mode, an autonomous driving mode, a travel location, weather, or temperature, included in the vehicle log, as the vehicle state.
A plug (2, 2', 2") for setting in a pipe, the plug (2, 2', 2") comprising: - a shaft (8, 8', 8") having a first end and a second end; - a force transmission body disposed about the shaft (8, 8', 8") at the first end thereof, wherein the force transmission body is connected in a rotatable and axially movable manner to the shaft (8, 8', 8") via a thread connection; - a stop body disposed at the second end of the shaft (8, 8', 8"); wherein the following plug construction elements are disposed between the force transmission body and the stop body: - a first compression body (20, 20') disposed in an axially movable manner about the shaft (8, 8', 8") and in proximity of the force transmission body; - a support body with a conical surface disposed in an axially movable manner about the shaft (8, 8', 8"); - at least one anchoring body structured axially movable, hence radially movable, on the outside of the conical support body; - a second compression body disposed in an axially movable manner about the shaft (8, 8', 8"); and - at least one elastic sealing body disposed about the shaft (8, 8', 8"), characterized i n that the shaft (8, 8', 8") and the first compression body (20, 20') are disposed in direct contact with each other; and - wherein the shaft (8, 8', 8") and the first compression body (20, 20') are connected in a non-rotational manner via complementary connection elements (30', 30"); whereby the first compression body (20, 20') is prevented from rotating when the force transmission body is rotated, thereby ensuring an optimum transmission and control of an activation force for the plug (2, 2', 2"). - a shaft (8, 8', 8") having a first end and a second end; - a force transmission body disposed about the shaft (8, 8', 8") at the first end thereof, wherein the force transmission body is connected in a rotatable and axially movable manner to the shaft (8, 8', 8") via a thread connection; - a stop body disposed at the second end of the shaft (8, 8', 8"); - a first compression body (20, 20') disposed in an axially movable manner about the shaft (8, 8', 8") and in proximity of the force transmission body; - a support body with a conical surface disposed in an axially movable manner about the shaft (8, 8', 8"); - at least one anchoring body structured axially movable, hence radially movable, on the outside of the conical support body; - a second compression body disposed in an axially movable manner about the shaft (8, 8', 8"); and - at least one elastic sealing body disposed about the shaft (8, 8', 8"), characterized i n that the shaft (8, 8', 8") and the first compression body (20, 20') are disposed in direct contact with each other; and - wherein the shaft (8, 8', 8") and the first compression body (20, 20') are connected in a non-rotational manner via complementary connection elements (30', 30");
A non-hydroxylic-solvent soluble silver complex comprising: a reducible silver ion complexed with an α-oxy carboxylate and a primary alkylamine, the non-hydroxylic-solvent soluble silver complex being represented by the following formula: (Ag +) a b c wherein L represents the α-oxy carboxylate; P represents the primary alkylamine having a single nitrogen atom; a is 1 or 2; b is 1 or 2; and c is 1, 2, 3, or 4, provided that when a is 1, b is 1, and when a is 2, b is 2.
A resin composition comprising: a thermoplastic resin that does not contain a polar group; a thermoplastic resin that contains a polar group; an ethylene-vinyl alcohol copolymer that has an ethylene content of 20 to 60 mol%; acetic acid and/or a salt thereof; an aliphatic carboxylic acid having 3 or more carbon atoms; and an aliphatic carboxylic acid metal salt that is a metal salt of the aliphatic carboxylic acid, wherein the thermoplastic resin that does not contain a polar group is contained in an amount of 66 to 99 wt. % with respect to a total sum of contents of the resin composition, and the ethylene-vinyl alcohol copolymer having an ethylene content of 20 to 60 mol% is contained in an amount of 0.1 to 25 wt.% with respect to the total sum of the contents of the resin composition. a thermoplastic resin that does not contain a polar group; a thermoplastic resin that contains a polar group; an ethylene-vinyl alcohol copolymer that has an ethylene content of 20 to 60 mol%; acetic acid and/or a salt thereof; an aliphatic carboxylic acid having 3 or more carbon atoms; and an aliphatic carboxylic acid metal salt that is a metal salt of the aliphatic carboxylic acid, wherein the thermoplastic resin that does not contain a polar group is contained in an amount of 66 to 99 wt. % with respect to a total sum of contents of the resin composition, and the ethylene-vinyl alcohol copolymer having an ethylene content of 20 to 60 mol% is contained in an amount of 0.1 to 25 wt.% with respect to the total sum of the contents of the resin composition.
A tissue treatment product for use in a method of treating a tissue in need of repair, regeneration, healing, treatment, or alteration by contacting a surface of a wound or surgical incision with the tissue treatment product, the product comprising: a porous material comprising a natural or artificial scaffold, wherein the porous material comprises at least one of an extracellular matrix of a partially decellularized tissue, and an extracellular matrix of a completely decellularized tissue; at least one chelating agent selected from the group consisting of iminodiacetic acid, nitrilotriacetic acid, ethylenediaminetetraacetic acid (EDTA), and diethylenetriaminepentaacetic acid (DTPA) that is covalently bound to the porous material; and wherein the tissue treatment product is functionalized with at least one metal bound to the chelating agent(s) on the tissue treatment product. a porous material comprising a natural or artificial scaffold, wherein the porous material comprises at least one of an extracellular matrix of a partially decellularized tissue, and an extracellular matrix of a completely decellularized tissue; at least one chelating agent selected from the group consisting of iminodiacetic acid, nitrilotriacetic acid, ethylenediaminetetraacetic acid (EDTA), and diethylenetriaminepentaacetic acid (DTPA) that is covalently bound to the porous material; and wherein the tissue treatment product is functionalized with at least one metal bound to the chelating agent(s) on the tissue treatment product.
A wall cladding with metal wire baskets which are filled with material, in particular stones, and comprise hooking elements which are of hook-shaped configuration and which are formed by a bent grid wire, said metal wire baskets being able to be hooked thereby into suspension devices which are able to be fastened to a wall to be clad, characterised in that the suspension device is a retaining rail which comprises at least one anti-pull-off device and at least one load receiving part which are arranged at a distance above one another, in that the anti-pull-off device is formed by a bent-back upper edge and the load receiving part is formed by a bent-back lower edge of a flat fastening part of the retaining rail, in that the anti-pull-off device and the load receiving part are located approximately parallel to one another and extend obliquely upwards, and in that the respective upper metal wire basket bears with at least one hooking element against the anti-pull-off device and the respective lower wire basket bears with at least one hooking element against the load receiving part.