mhurhangee/ep-ind-claims huggingface dataset:
Stent in the form of a generally tubular member having a plurality of serpentine-like, annularly expandable elements (3, 3a), wherein the serpentine-like elements (3, 3a) have curves (9, 9a, 9b) at the first and second ends (8, 19, 21) thereof facing in the axial direction of the stent, wherein serpentine-like elements (3, 3a) which are successive in the axial direction and which can be expanded in an annular manner are connected to each other by means of connectors (4, 4a, 4b) which are arranged at the ends (8, 21) of the adjacent elements (3, 3a), wherein the connectors (4, 4a) in a non-expanded state of the stent (1, 1a, 1b) extend in the peripheral direction of the stent (1, 1a, 1b) and have a curvature in the peripheral direction, wherein the curvature in the expanded state of the stent (1, 1a, 1b) is so large in the peripheral direction that the connectors (4, 4a, 4b) protrude radially outwards over the periphery of the serpentine-like elements (3,3a), wherein the connectors are configured in a Y-shaped manner, wherein a base arm of the connector is connected to a curve at the end of the first element and the two fork arms (11, 12) of the Y-shaped connector are each connected to one of two adjacent curves at the end of the other element.
A cooking apparatus comprising: an inner wall forming a cooking chamber; an outer wall enclosing the inner wall; a microwave generating unit configured for emitting microwaves to a passage as a space enclosed by the inner wall and the outer wall; an impedance converting unit (350-1, 350-2) configured to continuously change an impedance of the passage during an operational state of the cooking apparatus to heat food, the impedance converting unit (350-1, 350-2) including a variable element changing characteristic impedance of the passage in which the microwaves are spread; and an absorbent layer absorbing the microwaves spread along the passage and emitting infrared rays to the cooking chamber. an inner wall forming a cooking chamber; an outer wall enclosing the inner wall; a microwave generating unit configured for emitting microwaves to a passage as a space enclosed by the inner wall and the outer wall; an impedance converting unit (350-1, 350-2) configured to continuously change an impedance of the passage during an operational state of the cooking apparatus to heat food, the impedance converting unit (350-1, 350-2) including a variable element changing characteristic impedance of the passage in which the microwaves are spread; and an absorbent layer absorbing the microwaves spread along the passage and emitting infrared rays to the cooking chamber.
A method for wireless communication, at an access node, wherein the access node is a base station with an access connection to a core network, comprising: receiving, at the access node, a request from a first node to establish a communication link with a second node, wherein the communication link is a directional communication link for transmission of one or more of control information or data between the first node and the second node and wherein the first node is a UE or a base station and wherein the second node is a UE or a base station; determining, at the access node, a configuration for the communication link between the first node and the second node; and transmitting, to at least one of the first node or the second node, the configuration for the communication link, wherein the configuration provides a beam management configuration, with which a beam management procedure between the first node and the second node can be performed for providing information that is used to establish the directional communication link, wherein the beam management configuration includes a beam failure recovery mechanism; and receiving, at the access node, a report message from at least one of the first node or the second node, indicating that a communication between the first node and the second node is complete. receiving, at the access node, a request from a first node to establish a communication link with a second node, wherein the communication link is a directional communication link for transmission of one or more of control information or data between the first node and the second node and wherein the first node is a UE or a base station and wherein the second node is a UE or a base station; determining, at the access node, a configuration for the communication link between the first node and the second node; and transmitting, to at least one of the first node or the second node, the configuration for the communication link, wherein the configuration provides a beam management configuration, with which a beam management procedure between the first node and the second node can be performed for providing information that is used to establish the directional communication link, wherein the beam management configuration includes a beam failure recovery mechanism; and receiving, at the access node, a report message from at least one of the first node or the second node, indicating that a communication between the first node and the second node is complete.
A method of manufacturing a multilayer tool in which a green part is produced by producing a primary layer provided with recesses by screen printing from a primary material provided with an organic binder system, and subsequently introducing abrasively acting particles into the recesses by stencil printing, and thereafter applying a cover layer of the primary material provided with the organic binder system for fixing the abrasively acting particles in the recesses by screen printing, wherein the tool is obtained by a final heat treatment of the green part. producing a primary layer provided with recesses by screen printing from a primary material provided with an organic binder system, and subsequently introducing abrasively acting particles into the recesses by stencil printing, and thereafter applying a cover layer of the primary material provided with the organic binder system for fixing the abrasively acting particles in the recesses by screen printing, wherein the tool is obtained by a final heat treatment of the green part.
Elastomer suspension spring for vibration-reducing mounting of motor vehicle components, wherein the elastomer suspension spring has at least one region made from an elastomer full material which is divided into at least two segments (3, 4, 13, 14, 15, 23, 24) of which a plurality are connected together at their end facing a load in the position of use of the suspension spring in their end-side region via at least one connection element designed as a connection web which is designed in one piece with the ends of the segments (3, 4, 13, 14, 15, 23, 24) connected by said connection element, wherein each two adjacent segments (3, 4, 13, 14, 15, 23, 24) have contact surfaces (5, 6, 25, 26) corresponding in shape which, in the position of use of the elastomer suspension spring form inner surfaces of the same and abut on one another extensively without gaps and wherein the contact surfaces (5, 6, 25, 26) of adjacent segments (3, 4, 13, 14, 15, 23, 24) are flat and, in the position of use of the suspension spring, aligned parallel to a loading direction, characterised in that the segments (3, 4) are pivotable towards one another to their position of use along a bend line formed by the connection web.
An agent for use in the treatment or prevention of inflammation or colibacillosis in poultry or for use in the amelioration of ascites, or emaciation in poultry, said agent comprising unheated cashew nut shell liquid, heated cashew nut shell liquid, anacardic acid, cardanol, and/or cardol as an active ingredient.
A system configured to provide redundant electric power to at least one safety relevant vehicle component (10, 11), characterized by: - one power management unit connectable to a vehicle power network (1, 2); and - storage units coupled to the one power management unit for receiving electric power to be stored in the storage units, wherein the at least one vehicle component (10, 11) relates to safety functions braking and steering in the vehicle, wherein the at least one vehicle component (10, 11) is connectable to at least two of the storage units to enable a redundant electric power supply, and wherein the one power management unit comprises: - a charging unit for providing a charging power to the storage units, - a switching unit for interrupting a connection to the storage units, and - a logic circuit for controlling the charging unit and/or the switching unit. - one power management unit connectable to a vehicle power network (1, 2); and - storage units coupled to the one power management unit for receiving electric power to be stored in the storage units, wherein the at least one vehicle component (10, 11) relates to safety functions braking and steering in the vehicle, wherein the at least one vehicle component (10, 11) is connectable to at least two of the storage units to enable a redundant electric power supply, and wherein the one power management unit comprises: - a charging unit for providing a charging power to the storage units, - a switching unit for interrupting a connection to the storage units, and - a logic circuit for controlling the charging unit and/or the switching unit. - a charging unit for providing a charging power to the storage units, - a switching unit for interrupting a connection to the storage units, and - a logic circuit for controlling the charging unit and/or the switching unit.
A method for forming a bonded joint, comprising the following steps: (a) placing a first component on a support surface; (b) applying adhesive on at least one of a bonding surface of the first component and a bonding surface of a second component, wherein said adhesive applying step can be performed before or after step (a); (c) supporting the second component in a position above and separated by a gap from the first component with the adhesive therebetween; (d) placing a frame over the first and second components, the frame standing on the support surface; (e) placing flexible air-impervious material over the frame; (f) sealing the flexible air-impervious material to the support surface to enclose a space; (g) maintaining vacuum pressure within space enclosed by the flexible air-impervious material; (h) while vacuum pressure within space enclosed by the flexible air-impervious material is being maintained, mating the bonding surfaces of the first and second components; and (i) while vacuum pressure within space enclosed by the flexible air-impervious material is being maintained, pressing the first and second components together with the adhesive therebetween prior to a cure cycle. (a) placing a first component on a support surface; (b) applying adhesive on at least one of a bonding surface of the first component and a bonding surface of a second component, wherein said adhesive applying step can be performed before or after step (a); (c) supporting the second component in a position above and separated by a gap from the first component with the adhesive therebetween; (d) placing a frame over the first and second components, the frame standing on the support surface; (e) placing flexible air-impervious material over the frame; (f) sealing the flexible air-impervious material to the support surface to enclose a space; (g) maintaining vacuum pressure within space enclosed by the flexible air-impervious material; (h) while vacuum pressure within space enclosed by the flexible air-impervious material is being maintained, mating the bonding surfaces of the first and second components; and (i) while vacuum pressure within space enclosed by the flexible air-impervious material is being maintained, pressing the first and second components together with the adhesive therebetween prior to a cure cycle.
A pesticide preparation containing a pesticide active ingredient and a heat-meltable material and/or a thermoplastic material, the pesticide preparation further containing an amine being capable of forming an associated state with the pesticide active ingredient and containing a group having a hydrophobic moiety on a nitrogen atom, wherein the amine is at least one amine selected from the group consisting of diphenylamine, N,N-dimethylaniline and N-methylaniline and the pesticide active ingredient comprises at least one compound selected from the group consisting of pyrimisulfan, triafamone, tefuryltrione, ketospiradox, mesotrione, sulcotrione and tembotrione and the heat-meltable material and/or thermoplastic material is a wax, a polycyclic aromatic hydrocarbon or a mixture thereof.
A ground-engaging component for an article of footwear, comprising: an outer perimeter boundary rim that at least partially defines an outer perimeter of the ground-engaging component, wherein the outer perimeter boundary rim defines an upper-facing surface and a ground-facing surface opposite the upper-facing surface, wherein the outer perimeter boundary rim defines an open space at least at a forefoot support area of the ground-engaging component, wherein the outer perimeter boundary rim is shaped such that the outer perimeter of the ground-engaging component tapers or curves inward moving from the forefoot support area to an arch support area, and wherein a first width dimension from a lateral side edge to a medial side edge of the outer perimeter boundary rim in a central heel support area of the ground-engaging component is less than a second width dimension from the lateral side edge to the medial side edge in the arch support area; and a support structure extending from the outer perimeter boundary rim and across the open space. an outer perimeter boundary rim that at least partially defines an outer perimeter of the ground-engaging component, wherein the outer perimeter boundary rim defines an upper-facing surface and a ground-facing surface opposite the upper-facing surface, wherein the outer perimeter boundary rim defines an open space at least at a forefoot support area of the ground-engaging component, wherein the outer perimeter boundary rim is shaped such that the outer perimeter of the ground-engaging component tapers or curves inward moving from the forefoot support area to an arch support area, and wherein a first width dimension from a lateral side edge to a medial side edge of the outer perimeter boundary rim in a central heel support area of the ground-engaging component is less than a second width dimension from the lateral side edge to the medial side edge in the arch support area; and a support structure extending from the outer perimeter boundary rim and across the open space.
An individual signal unit registered by a registered user or owner of said individual signal unit with a central control facility of a monitoring system via a web site accessible over the internet; said individual signal unit including; (a) a transceiver module, (b) a power supply, (c) a logic circuit, (d) at least one sensor of a number of event sensors, said central control facility in response to a signal from said individual signal unit is configured to execute a schedule of one or more predefined steps, wherein the schedule is assembled by the registered user; at least some of said predefined steps are configurable or reconfigurable by said registered user of said individual signal unit from said web site; said individual signal unit is configured such that at least some of the predefined steps are defined by means of tools provided by one or more other service providers and made available for selection on said web site; said steps or actions to occur in consequence of events detected and reported by said individual signal unit; at least some of said predefined steps are configurable or reconfigurable by said other service providers; said predefined steps including notification to recipients nominated by said registered user on receipt of a said communication from said individual signal unit, Characterized in that, said predefined steps include a communication between said central control facility and said registered user of said individual signal unit, said predefined steps including a first layer and a secondary layer of said predefined steps, and wherein selected steps of said secondary layer of predefined steps may be executed by said central control facility in accordance with a reply to said communication between said central control facility and said registered user. (a) a transceiver module, (b) a power supply, (c) a logic circuit, (d) at least one sensor of a number of event sensors,
A method of wireless communication, comprising: receiving, by a user equipment, UE, a grant identifying an uplink resource allocation of less than one physical resource block, PRB, wherein the grant identifies a particular PRB in which the uplink resource allocation is included and at least a group of subcarriers allocated for the UE; and transmitting uplink data, by the UE, using the uplink resource allocation. receiving, by a user equipment, UE, a grant identifying an uplink resource allocation of less than one physical resource block, PRB, wherein the grant identifies a particular PRB in which the uplink resource allocation is included and at least a group of subcarriers allocated for the UE; and transmitting uplink data, by the UE, using the uplink resource allocation.
A method of manufacturing a seamless steel pipe, wherein the method comprises: a first step of providing a hollow billet with a mandrel inserted therein and forging the hollow billet into a primary hollow shell of a predetermined diameter and thickness and not having a closed end; the method being characterized in that it further comprises a second step of subjecting the primary hollow shell to diameter reduction at one end portion thereof to reduce outside and inside diameters of the end portion; and a third step of providing the primary hollow shell with a mandrel inserted therein, the primary hollow shell having the diameter reduced portion at the one end portion thereof, and subjecting the primary hollow shell to push-drawing using a push bench, wherein the mandrel that is used in the third step includes a body portion having a cylindrical shape and a narrowing diameter portion having a truncated cone shape disposed at a front edge of the body portion, the narrowing diameter portion having a diameter that is reduced toward the front edge of the mandrel; and, in the second step, the diameter reduction is performed such that the diameter reduced portion of the primary hollow shell as processed in the second step satisfies the following formula: B < D / 4 where B represents an inside diameter (mm) at the edge of the diameter reduced portion of the primary hollow shell and D represents a diameter (mm) at the front edge of the mandrel that is used in the third step. a first step of providing a hollow billet with a mandrel inserted therein and forging the hollow billet into a primary hollow shell of a predetermined diameter and thickness and not having a closed end; the method being characterized in that it further comprises a second step of subjecting the primary hollow shell to diameter reduction at one end portion thereof to reduce outside and inside diameters of the end portion; and a third step of providing the primary hollow shell with a mandrel inserted therein, the primary hollow shell having the diameter reduced portion at the one end portion thereof, and subjecting the primary hollow shell to push-drawing using a push bench, wherein the mandrel that is used in the third step includes a body portion having a cylindrical shape and a narrowing diameter portion having a truncated cone shape disposed at a front edge of the body portion, the narrowing diameter portion having a diameter that is reduced toward the front edge of the mandrel; and, in the second step, the diameter reduction is performed such that the diameter reduced portion of the primary hollow shell as processed in the second step satisfies the following formula: B < D / 4 where B represents an inside diameter (mm) at the edge of the diameter reduced portion of the primary hollow shell and D represents a diameter (mm) at the front edge of the mandrel that is used in the third step.
A cryptographic system including: an origin memory, the origin memory storing an origin blockchain for a distributed ledger for an origin distributed ledger technology network; a target memory, the target memory storing a target blockchain that is a distributed ledger for a target DLT network; and DLT object synchronization circuitry, the DOS circuitry having access to the origin blockchain and the target blockchain, and the DOS circuitry configured to: receive, from an exchange node, a request to synchronize an origin instance of a DLT object between the origin blockchain and the target blockchain, select a target instance of the DLT object on the target blockchain, format origin data from the origin instance for compliance with the target DLT network, and synchronize the origin instance and the target instance wherein the formatted origin data is appended to the target blockchain by appending target data from the target instance to the origin instance after first appending the formatted data from the origin instance to the target instance. an origin memory, the origin memory storing an origin blockchain for a distributed ledger for an origin distributed ledger technology network; a target memory, the target memory storing a target blockchain that is a distributed ledger for a target DLT network; and DLT object synchronization circuitry, the DOS circuitry having access to the origin blockchain and the target blockchain, and the DOS circuitry configured to: receive, from an exchange node, a request to synchronize an origin instance of a DLT object between the origin blockchain and the target blockchain, select a target instance of the DLT object on the target blockchain, format origin data from the origin instance for compliance with the target DLT network, and receive, from an exchange node, a request to synchronize an origin instance of a DLT object between the origin blockchain and the target blockchain, select a target instance of the DLT object on the target blockchain, format origin data from the origin instance for compliance with the target DLT network, and
A multimodal polyethylene composition having a lower molecular weight ethylene homo or copolymer component and a higher molecular weight ethylene copolymer component; wherein the LMW component comprises two fractions (ai) and (aii) wherein the MFR 2 of the fraction (ai) is lower than fraction (aii) and wherein each fraction (ai) and (aii) of the LMW component forms at least 10 wt% of the multimodal polyethylene composition; wherein the polymer composition has a density of 930 kg/m 3 or more, such as 938 to 955 kg/m 3, an MFR 2 (ISO1133 at 190°C and 2.16 kg load) in the range of 0.05 to 10 g/10min, a flex modulus of up to 800 MPa (ISO 178:2010), such as 300 to 800 MPa (ISO 178:2010) and a taber abrasion resistance of 8.0 to 13.0 mg/1000 cycle (ASTM D 4060: 2014). wherein the LMW component comprises two fractions (ai) and (aii) wherein the MFR 2 of the fraction (ai) is lower than fraction (aii) and wherein each fraction (ai) and (aii) of the LMW component forms at least 10 wt% of the multimodal polyethylene composition; wherein the polymer composition has a density of 930 kg/m 3 or more, such as 938 to 955 kg/m 3, an MFR 2 (ISO1133 at 190°C and 2.16 kg load) in the range of 0.05 to 10 g/10min, a flex modulus of up to 800 MPa (ISO 178:2010), such as 300 to 800 MPa (ISO 178:2010) and a taber abrasion resistance of 8.0 to 13.0 mg/1000 cycle (ASTM D 4060: 2014).