mhurhangee/ep-ind-claims huggingface dataset:
An abrasive film comprising a substrate film and an abrasive layer that is overlaid on a top face side of the substrate film, wherein: the abrasive layer comprises abrasive particles and a binder for the abrasive particles; characterised in that: the binder comprises, as a principal component, at least one of an acrylic resin, a urethane resin, an epoxy resin, a vinyl resin, a phenoxy resin, a phenol resin, a polyester, a natural rubber, a polyisobutylene rubber, an isoprene rubber, a nitrile rubber, an acrylonitrile-butadiene rubber, an ethylene-propylene rubber, a styrene-butadiene rubber, a butadiene rubber, a chloroprene rubber, a silicone rubber, a fluorine rubber, an acrylic rubber, and a urethane rubber; and a wear quantity of the abrasive layer as determined by a Taber abrasion test is no less than 10 mg and no greater than 25 mg., where the abrasion tester was used under conditions involving a load of 4.9 N and a rotational speed of 72 rpm, with an abrasive wheel CS-10. the abrasive layer comprises abrasive particles and a binder for the abrasive particles; characterised in that: the binder comprises, as a principal component, at least one of an acrylic resin, a urethane resin, an epoxy resin, a vinyl resin, a phenoxy resin, a phenol resin, a polyester, a natural rubber, a polyisobutylene rubber, an isoprene rubber, a nitrile rubber, an acrylonitrile-butadiene rubber, an ethylene-propylene rubber, a styrene-butadiene rubber, a butadiene rubber, a chloroprene rubber, a silicone rubber, a fluorine rubber, an acrylic rubber, and a urethane rubber; and a wear quantity of the abrasive layer as determined by a Taber abrasion test is no less than 10 mg and no greater than 25 mg., where the abrasion tester was used under conditions involving a load of 4.9 N and a rotational speed of 72 rpm, with an abrasive wheel CS-10. the binder comprises, as a principal component, at least one of an acrylic resin, a urethane resin, an epoxy resin, a vinyl resin, a phenoxy resin, a phenol resin, a polyester, a natural rubber, a polyisobutylene rubber, an isoprene rubber, a nitrile rubber, an acrylonitrile-butadiene rubber, an ethylene-propylene rubber, a styrene-butadiene rubber, a butadiene rubber, a chloroprene rubber, a silicone rubber, a fluorine rubber, an acrylic rubber, and a urethane rubber; and a wear quantity of the abrasive layer as determined by a Taber abrasion test is no less than 10 mg and no greater than 25 mg., where the abrasion tester was used under conditions involving a load of 4.9 N and a rotational speed of 72 rpm, with an abrasive wheel CS-10.
A system for use in sealing a portion of pleural layers together, comprising: a fluid source configured to deliver a sealing fluid, the sealing fluid being heat-activated; an electrical energy source; a grounding pad electrically coupled to the electrical energy source; a monopolar electrocautery probe electrically coupled to the electrical energy source, wherein the monopolar electrocautery probe and grounding pad cooperate to generate heat, the monopolar electrocautery probe having a cannula shaft portion, a distal penetrating tip, and an expandable portion interposed between the cannula shaft portion and distal penetrating tip, the cannula shaft portion having a cannula lumen coupled in fluid communication with the fluid source, characterized in that: the expandable portion is coupled in fluid communication with the fluid source via the cannula lumen; and the expandable portion is configured to define a plurality of openings, wherein the sealing fluid that is supplied by the fluid source exits the expandable portion through the plurality of openings to a location external to the monopolar electrocautery probe. a fluid source configured to deliver a sealing fluid, the sealing fluid being heat-activated; an electrical energy source; a grounding pad electrically coupled to the electrical energy source; a monopolar electrocautery probe electrically coupled to the electrical energy source, wherein the monopolar electrocautery probe and grounding pad cooperate to generate heat, the monopolar electrocautery probe having a cannula shaft portion, a distal penetrating tip, and an expandable portion interposed between the cannula shaft portion and distal penetrating tip, the cannula shaft portion having a cannula lumen coupled in fluid communication with the fluid source, characterized in that: the expandable portion is coupled in fluid communication with the fluid source via the cannula lumen; and the expandable portion is configured to define a plurality of openings, wherein the sealing fluid that is supplied by the fluid source exits the expandable portion through the plurality of openings to a location external to the monopolar electrocautery probe. the expandable portion is coupled in fluid communication with the fluid source via the cannula lumen; and the expandable portion is configured to define a plurality of openings, wherein the sealing fluid that is supplied by the fluid source exits the expandable portion through the plurality of openings to a location external to the monopolar electrocautery probe.
Sanitary outlet element which can be inserted, by way of its insert housing, into the water outlet of a sanitary outlet fitting and has a jet regulator for shaping the exiting water jet, the jet regulator having a jet divider and there being arranged in front of the jet regulator, as seen on the inflow side, a throughflow-quantity regulator or a throughflow restrictor, by means of which the quantity of water flowing through per unit of time is adjusted, or limited, to a set value and which has a flow-restrictor housing or regulator housing, which is guided in a displaceable manner in the insert housing and can be moved, counter to the restoring force of at least one restoring element, from an open position, in which the flow-restrictor housing or regulator housing has at least some of the water flowing around it, into a closed position, in which the water flowing to the jet regulator flows around the throughflow-quantity regulator or the throughflow restrictor wherein, in the closed position, the throughflow-quantity regulator or the throughflow restrictor rests, by way of its flow-restrictor housing or regulator housing, on a bearing means such that a bearing-means opening is closed, characterized in that the jet divider is designed in the form of a cup-like diffuser which, in the circumferential wall of its cup shape, has divider openings, by means of which the water flowing through is divided into a multiplicity of individual jets, and in that the diffuser, on its inflow-side inner circumference, has a bearing-means mount, on which the bearing means rests.
A sealing device having a contact-type mechanical sealing structure in which a stationary-side sealing element and a rotating-side sealing element slide intimately against each other and are adapted to do so between a seal housing and a rotating shaft inserted through an inner periphery of the seal housing, the format of the sealing device being adapted for sealing a fluid prone to leak from an outer periphery of a sealing surface toward an inner periphery; wherein the sealing device has two or more groups of a plurality of dimples longitudinally arranged in the radial direction that are formed around the circumferential direction on a sealing surface (8, 9) of the stationary-side sealing element or the rotating-side sealing element, characterised in that the dimples have a dimple angle θ at which their tips in the rotational direction are tilted toward the inner periphery, the angle θ is expressed by the relation 0 < θ < 90°, land areas in the circumferential direction are formed between proximate tips of adjacent groups of the longitudinally arranged dimples, and the dimples in individual rows of the dimples longitudinally arranged in the radial direction are aligned so that a gap ratio L1/L2, which represents the ratio between the length L1 of a dimple along the circumference of a circle passing through the center of the dimple (o) and the length L2, along the circumference of the same circle, of the land area formed between adjacent dimples, is within the range indicated by the expression below. 0.001 ≤ L 1 / L 2 ≤ 0.1
A wireless communications user terminal comprising an antenna arrangement and a plurality of modems coupled to the antenna arrangement, the antenna arrangement supporting a plurality of simultaneous communications links with a plurality of base stations (210, 212, 214, 216) of a communications system, wherein the wireless communications user terminal is arranged to receive content data units on said plurality of simultaneous communications links, wherein the content data units borne by each of the plurality of simultaneous communications links comprise non-identical portions of content data, wherein said antenna arrangement comprises a plurality of antenna elements (202, 204, 206, 208), and wherein each antenna element is arranged to communicate with a different one of said plurality of base stations (210, 212, 214, 216).
An automated hand (100, 800) comprising: a. a palm (200, 704); b. two or more digits (300, 741) extending from the palm (200, 704); and c. one or more motors configured to cause at least one of the digits (300, 741) to move; d. a wrist joint configured to attach the palm (200, 704) to a lower arm member comprising a sleeve; characterized in that e. the wrist joint is configured to form a watertight attachment to the sleeve and the automated hand (100, 800) is configured to operate when submerged in water. a. a palm (200, 704); b. two or more digits (300, 741) extending from the palm (200, 704); and c. one or more motors configured to cause at least one of the digits (300, 741) to move; d. a wrist joint configured to attach the palm (200, 704) to a lower arm member comprising a sleeve; characterized in that e. the wrist joint is configured to form a watertight attachment to the sleeve and the automated hand (100, 800) is configured to operate when submerged in water.
Tree stand, in particular Christmas tree stand, having a clamping device with a pivotably mounted clamping lever which is designed in the manner of a ratchet mechanism for foot actuation and is operatively connected to at least one movable retaining element which, when the clamping lever is actuated, ends up in abutment against the tree trunk which is to be clamped in, and clamps said tree trunk tightly when a predetermined retaining force is reached, characterized by a dedicated signal device which indicates that a limit value of the predetermined retaining force has been reached by way of a signal which is not the operating noise of the clamping device.
Process for preparing polyether carbonate polyols by catalytic addition of carbon dioxide and alkylene oxides onto one or more H-functional starter substances in the presence of double metal cyanide catalyst, characterized in that, in a first activation stage, the DMC catalyst and at least one H-functional starter substance are initially charged and, in a second activation stage, the DMC catalyst is activated by addition of at least one alkylene oxide, CO 2 and at least one cyclic anhydride, and, in a third step [polymerization stage], at least one alkylene oxide and CO 2 are added.
A method for a communication apparatus controlling a transmission power in a wireless communication system supporting a plurality of component carriers, the method comprising: controlling transmission powers for one or more channels per each component carrier; when a physical uplink shared channel, PUSCH, transmission on a first component carrier and a sounding reference signal, SRS, transmission on a second component carrier are configured in a time interval, checking whether a total transmission power of the PUSCH transmission on the first component carrier and the SRS transmission on the second component carrier exceeds a maximum transmission power configured for the communication apparatus; and if the total transmission power of the PUSCH transmission on the first component carrier and the SRS transmission on the second component carrier exceeds the maximum transmission power configured for the communication apparatus, performing the PUSCH transmission on the first component carrier based on a transmission power allocated for the PUSCH transmission, wherein the SRS transmission on the second component carrier is dropped. controlling transmission powers for one or more channels per each component carrier; when a physical uplink shared channel, PUSCH, transmission on a first component carrier and a sounding reference signal, SRS, transmission on a second component carrier are configured in a time interval, checking whether a total transmission power of the PUSCH transmission on the first component carrier and the SRS transmission on the second component carrier exceeds a maximum transmission power configured for the communication apparatus; and if the total transmission power of the PUSCH transmission on the first component carrier and the SRS transmission on the second component carrier exceeds the maximum transmission power configured for the communication apparatus, performing the PUSCH transmission on the first component carrier based on a transmission power allocated for the PUSCH transmission, wherein the SRS transmission on the second component carrier is dropped.
A method for controlling channels (202, 204) available at a network element (NE 112 4, NE 112 5, NE 112 6, NE 112 7) located at a first hierarchical level in a content distribution network, comprising: determining a subset of channels using channel forecast information; comparing the determined subset of channels to a subset of channels available to the network element located at the first hierarchical level; in response to a difference between the determined and available subsets of channels, generating (322, 324) a request adapted for modifying the available subset of channels; propagating the request toward a network element (NE 112 2, NE 112 3) located at a second hierarchical level in the content distribution network, wherein the first and second hierarchical levels are different; requesting additional transport bandwidth in response to a determination that transport bandwidth available to support each of the channels in the determined subset of channels is inadequate; and if the additional transport bandwidth is provided, generating a full request identifying each of the channels included in the determined subset of channels that are not included in the available subset of channels; and if the additional transport bandwidth is unavailable, determining whether to generate a partial request identifying a portion of the channels included in the determined subset of channels that are not included in the available subset of channels. determining a subset of channels using channel forecast information; comparing the determined subset of channels to a subset of channels available to the network element located at the first hierarchical level; in response to a difference between the determined and available subsets of channels, generating (322, 324) a request adapted for modifying the available subset of channels; propagating the request toward a network element (NE 112 2, NE 112 3) located at a second hierarchical level in the content distribution network, wherein the first and second hierarchical levels are different; requesting additional transport bandwidth in response to a determination that transport bandwidth available to support each of the channels in the determined subset of channels is inadequate; and if the additional transport bandwidth is provided, generating a full request identifying each of the channels included in the determined subset of channels that are not included in the available subset of channels; and if the additional transport bandwidth is unavailable, determining whether to generate a partial request identifying a portion of the channels included in the determined subset of channels that are not included in the available subset of channels.
Method for controlling a plurality of mobile driverless manipulator systems (10, 20), in particular driverless transport vehicles in a logistics environment for moving objects, the manipulator systems (10, 20) having sensors for orientation and having communication means to communicate with at least one central control device, which comprises the following steps: - Providing environmental information by the at least one central control device, - Detection of an object to be manipulated by the mobile driverless manipulator systems (10, 20) in the surroundings and determination of the position and pose of the detected object; - Update of the environmental information with the position and pose of the detected object and - Taking into account the position and pose of the detected object when planning the path of the mobile driverless manipulator systems (10, 20), by checking before a manipulation of the detected object by a first mobile driverless manipulator system, whether the detected object is required for the orientation of a second mobile driverless manipulator system. - Providing environmental information by the at least one central control device, - Detection of an object to be manipulated by the mobile driverless manipulator systems (10, 20) in the surroundings and determination of the position and pose of the detected object; - Update of the environmental information with the position and pose of the detected object and - Taking into account the position and pose of the detected object when planning the path of the mobile driverless manipulator systems (10, 20), by checking before a manipulation of the detected object by a first mobile driverless manipulator system, whether the detected object is required for the orientation of a second mobile driverless manipulator system.
An axial flow fan comprising a plurality of blades and being configured to rotate about a rotation axis of the blades to convey a fluid, the plurality of blades each having a leading edge at a leading side in a rotational direction, a trailing edge at a trailing side in the rotational direction, and an outer peripheral edge connecting the leading edge and the trailing edge, the leading edge of one of the plurality of blades and the trailing edge of another blade adjacent to the leading edge of the blade in the rotational direction being connected by a plate-shaped connection portion, the plurality of blades each having a pressure surface, the pressure surface being on a downstream side of the fluid, and a suction surface located at a reverse side of the pressure surface, and a plate-shaped reinforcement rib, the plate-shaped reinforcement rib extending from a periphery of the rotation axis toward the outer peripheral edge of the blade, the plate-shaped reinforcement rib being provided erect on a side of the pressure surface, the reinforcement ribs being provided radially about the rotation axis, or being convex toward the leading edges, characterized in that the reinforcement ribs at least include an upstream rib and a downstream rib for each of the plurality of blades, the upstream rib being located at an upstream side in the rotational direction, the downstream rib being located at a downstream side in the rotational direction, and when the blades rotate, the downstream ribs are higher than the upstream ribs.
A method for steering, by a user equipment, UE, within a visited public land mobile network, VPLMN, traffic in a wireless communication system, the method comprising: transmitting, by the UE, to a network, Access Network Discovery and Selection Function, ANDSF, related information comprising information on at least one of a home ANDSF, H-ANDSF, configured by a home PLMN, HPLMN, or a visited ANDSF, V-ANDSF, configured by the VPLMN; receiving, by the UE, from the network, traffic steering information which is generated by the network based on the ANDSF-related information; and steering, by the UE, traffic based on the received traffic steering information. transmitting, by the UE, to a network, Access Network Discovery and Selection Function, ANDSF, related information comprising information on at least one of a home ANDSF, H-ANDSF, configured by a home PLMN, HPLMN, or a visited ANDSF, V-ANDSF, configured by the VPLMN; receiving, by the UE, from the network, traffic steering information which is generated by the network based on the ANDSF-related information; and steering, by the UE, traffic based on the received traffic steering information.
A support and drainage material comprising an element comprising: a section having a first end and a second end, and a first major surface, and a plurality of parallel tapered flow channels extending from the first end to the second end, the tapered flow channels comprising tapered side walls arranged in parallel and projecting upwardly from, and perpendicular to, the first major surface, the tapered flow channels having a deeper end and a shallower end, and being deeper at the first end of the section than at the second end of the section; wherein the channels are connected at the first end with cross members and at the second end with cross members. a section having a first end and a second end, and a first major surface, and a plurality of parallel tapered flow channels extending from the first end to the second end, the tapered flow channels comprising tapered side walls arranged in parallel and projecting upwardly from, and perpendicular to, the first major surface, the tapered flow channels having a deeper end and a shallower end, and being deeper at the first end of the section than at the second end of the section; wherein the channels are connected at the first end with cross members and at the second end with cross members.
A method for making or repairing a specified part, the method including: creating an optimized process to make or repair the specified part, the creating including: receiving data from a plurality of sources, the data including as-designed, as-manufactured, as-simulated, as-operated, as-inspected, and as-tested data relative to one or more parts similar to the specified part; updating, in real time, a surrogate model corresponding with a physics-based model of the specified part, wherein the surrogate model forms a digital twin of the specified part; generating a multi-variant distribution including component performance and manufacturing variance, the manufacturing variance being associated with at least one of an additive manufacturing process step and a reductive manufacturing process step and the component performance comprising in-service performance and operational regime determined based on operational experience or simulation of the one or more parts similar to the specified part; comparing a performance from the multi-variant distribution with an expected performance of the specified part based on the surrogate model; and executing, based on the digital twin, the optimized process to either repair or make the specified part. receiving data from a plurality of sources, the data including as-designed, as-manufactured, as-simulated, as-operated, as-inspected, and as-tested data relative to one or more parts similar to the specified part; updating, in real time, a surrogate model corresponding with a physics-based model of the specified part, wherein the surrogate model forms a digital twin of the specified part; generating a multi-variant distribution including component performance and manufacturing variance, the manufacturing variance being associated with at least one of an additive manufacturing process step and a reductive manufacturing process step and the component performance comprising in-service performance and operational regime determined based on operational experience or simulation of the one or more parts similar to the specified part; comparing a performance from the multi-variant distribution with an expected performance of the specified part based on the surrogate model; and