mhurhangee/ep-ind-claims huggingface dataset:
A method of accessing services affiliated with a service provider (205; 305; 605; 1105; 1205), the method comprising: an issuer (220; 325; 615; 805; 1010; 1125; 1225) performing a first discovery procedure to discover at least one service provider (205; 305; 605; 1105; 1205); and the issuer (220; 325; 615; 805; 1010; 1125; 1225) performing a bootstrap procedure with the at least one discovered service provider (205; 305; 605; 1105; 1205), characterized in that the method further comprises: the issuer (220; 325; 615; 805; 1010; 1125; 1225) performing a second discovery procedure (600; 800) to determine available service capability layers, SCLs, supported by the at least one discovered service provider (205; 305; 605; 1105; 1205), wherein the second discovery procedure (600; 800) comprises: transmitting (630; 840) a domain name system-based service discovery, DNS-SD, query from the issuer (220; 325; 615; 805; 1010; 1125; 1225) to a DNS-SD machine-to-machine, M2M, service discovery function, MSDF, server (210; 610; 810), wherein the DNS-SD MSDF server (210; 610; 810) is provisioned with SCL discovery records and wherein the DNS-SD MSDF server (210; 610; 810) is registered with a public DNS registrar entity; and the issuer (220; 325; 615; 805; 1010; 1125; 1225) receiving (635; 845) SCL discovery records from the DNS-SD MSDF server (210; 610; 810) in response to the DNS-SD query. an issuer (220; 325; 615; 805; 1010; 1125; 1225) performing a first discovery procedure to discover at least one service provider (205; 305; 605; 1105; 1205); and the issuer (220; 325; 615; 805; 1010; 1125; 1225) performing a bootstrap procedure with the at least one discovered service provider (205; 305; 605; 1105; 1205), characterized in that the method further comprises: the issuer (220; 325; 615; 805; 1010; 1125; 1225) performing a second discovery procedure (600; 800) to determine available service capability layers, SCLs, supported by the at least one discovered service provider (205; 305; 605; 1105; 1205), wherein the second discovery procedure (600; 800) comprises: transmitting (630; 840) a domain name system-based service discovery, DNS-SD, query from the issuer (220; 325; 615; 805; 1010; 1125; 1225) to a DNS-SD machine-to-machine, M2M, service discovery function, MSDF, server (210; 610; 810), wherein the DNS-SD MSDF server (210; 610; 810) is provisioned with SCL discovery records and wherein the DNS-SD MSDF server (210; 610; 810) is registered with a public DNS registrar entity; and the issuer (220; 325; 615; 805; 1010; 1125; 1225) receiving (635; 845) SCL discovery records from the DNS-SD MSDF server (210; 610; 810) in response to the DNS-SD query.
A disposable flexible container, configured for retail sale, wherein the container comprises: a multiple dose product volume that directly contains a fluent product, wherein the product volume is made from one or more flexible materials, and wherein the fluent product is hermetically sealed within the product volume; a film structure (2024-s) that includes: a first side with a first outer film laminate (2024-ofl-1) and a first inner film laminate (2024-ifl-1); and a second side with a second inner film laminate (2024-ifl-2) and a second outer film laminate (2024-ofl-2); a pathway of weakness (2024-w) that extends across at least a portion of the film structure; an inner unsealed portion (2024-iup) between the first inner film laminate and the second inner film laminate, disposed along at least a portion of the pathway of weakness; said container being characterized in that it further comprises: an outer unsealed portion between the second inner film laminate and the second outer film laminate, disposed along at least a portion of the pathway of weakness; and a removable portion disposed adjacent to the pathway of weakness; and wherein, when the removable portion is removed along the pathway of weakness the inner unsealed portion forms a dispenser for dispensing the fluent product; and wherein, when the removable portion is removed along the pathway of weakness the outer unsealed portion forms a vent opening for venting a headspace of the product volume. a multiple dose product volume that directly contains a fluent product, wherein the product volume is made from one or more flexible materials, and wherein the fluent product is hermetically sealed within the product volume; a film structure (2024-s) that includes: a first side with a first outer film laminate (2024-ofl-1) and a first inner film laminate (2024-ifl-1); and a second side with a second inner film laminate (2024-ifl-2) and a second outer film laminate (2024-ofl-2); a first side with a first outer film laminate (2024-ofl-1) and a first inner film laminate (2024-ifl-1); and a second side with a second inner film laminate (2024-ifl-2) and a second outer film laminate (2024-ofl-2); a pathway of weakness (2024-w) that extends across at least a portion of the film structure; an inner unsealed portion (2024-iup) between the first inner film laminate and the second inner film laminate, disposed along at least a portion of the pathway of weakness; an outer unsealed portion between the second inner film laminate and the second outer film laminate, disposed along at least a portion of the pathway of weakness; and a removable portion disposed adjacent to the pathway of weakness; and wherein, when the removable portion is removed along the pathway of weakness the inner unsealed portion forms a dispenser for dispensing the fluent product; and wherein, when the removable portion is removed along the pathway of weakness the outer unsealed portion forms a vent opening for venting a headspace of the product volume.
A medical electrical lead, comprising: an elongated lead body having an outer circumference; a fixation mechanism including a helix extending along a generally helical path mounted around the outer surface of the lead body, the helix joined to a free end for fixation to tissue, the free end spaced from and extending from the lead body for less than the circumference of the lead body; characterized in that the lead body comprises an additional component which encloses proximal coils of the helix and provides a lead rotation stop extending from the outer surface of the lead body and comprising a stop surface located distal to and adjacent to the point at which the fixation mechanism extends from the lead body and generally perpendicular to the helical path at that point, whereby the rotation stop protrudes radially to provide support to the fixation mechanism to be spaced radially outward from the outer surface of the lead body at the point that the fixation mechanism extends away from the stop surface. an elongated lead body having an outer circumference; a fixation mechanism including a helix extending along a generally helical path mounted around the outer surface of the lead body, the helix joined to a free end for fixation to tissue, the free end spaced from and extending from the lead body for less than the circumference of the lead body; characterized in that the lead body comprises an additional component which encloses proximal coils of the helix and provides a lead rotation stop extending from the outer surface of the lead body and comprising a stop surface located distal to and adjacent to the point at which the fixation mechanism extends from the lead body and generally perpendicular to the helical path at that point, whereby the rotation stop protrudes radially to provide support to the fixation mechanism to be spaced radially outward from the outer surface of the lead body at the point that the fixation mechanism extends away from the stop surface.
Shield arrangement for high-current applications, having a connection cable comprising an insulated conductor and a cable shield which surrounds the insulated conductor; a shielding housing comprising a bushing; wherein the shield arrangement further has a hollow-cylindrical electrically conductive shielding sleeve; wherein the insulated conductor is routed through the shielding sleeve; wherein the shielding sleeve has, at a longitudinal-side end, a housing-side sleeve region and, at another longitudinal-side end, a cable-side sleeve region; wherein the housing-side sleeve region of the shielding sleeve is arranged in the region of the bushing of the shielding housing, and the shielding housing comes into contact with a casing surface of the housing-side sleeve region; wherein the cable shield bears against a casing surface of the cable-side sleeve region, wherein the cable shield is electrically connected to the shielding housing by means of the shielding sleeve, characterized in that the shielding housing forms, in the region of the bushing, contact tabs to the outside, which contact tabs extend substantially parallel to the casing surface of the housing-side sleeve region and bear against the casing surface of the housing-side sleeve region.
Plate type heat exchanger, comprising a heat exchanger assembly, end panels and end panel connection members connecting the end panels, wherein the heat exchanger assembly comprises a stack of heat exchanger plates and a pair of outer heat exchanger plates located on opposing sides of the heat exchanger assembly, wherein the end panels are located near the opposing sides of the heat exchanger assembly, and wherein at least one outer heat exchanger plate is mechanically connected to an adjacent end panel, and has an outer main surface portion that is facing the adjacent end panel and is substantially entirely thermally connected to an end panel contacting region of the adjacent end panel, characterized in that in-plane thermal expansion properties of the outer main surface portion are substantially identical to in-plane thermal expansion properties of the end panel contacting region and in that the plate type heat exchanger is provided with at least one flexible corner plate with a first corner plate connection region that is mechanically connected to the end panel near a corner region thereof, wherein the flexible corner plate has a second corner plate connection region that is mechanically connected to an outer main surface corner region of the outer heat exchanger plate, and wherein the first corner plate connection region and the second corner plate connection region are non-coinciding.
A networking method of a distributed network of relay nodes, the method comprising: a relay node obtaining own home domain information and neighbor home domain information by querying from a network information server, wherein the home domain information comprises a home domain identifier; the relay node joining in a distributed peer-to-peer network with own home domain information being carried, and constructing a local route table; the relay node, according to pre-obtained neighbor home domain information of a present node, searching the local route table of the present node or searching the local route table of the present node and the local route table of other relay node for the relay node in a neighbor home domain, and constructing a candidate relay node list of the neighbor home domain. a relay node obtaining own home domain information and neighbor home domain information by querying from a network information server, wherein the home domain information comprises a home domain identifier; the relay node joining in a distributed peer-to-peer network with own home domain information being carried, and constructing a local route table; the relay node, according to pre-obtained neighbor home domain information of a present node, searching the local route table of the present node or searching the local route table of the present node and the local route table of other relay node for the relay node in a neighbor home domain, and constructing a candidate relay node list of the neighbor home domain.
An apparatus for treating process gases in a plasma excited by electromagnetic waves, said apparatus comprising a plasma chamber; a generator for generating the electromagnetic waves; and a waveguide arrangement for supplying the electromagnetic waves into the plasma chamber, characterized in that the plasma chamber is lined with a dielectric, wherein the waveguide arrangement has at least two feeding points, each having an E-field waveguide branch, for feeding the electromagnetic waves into the dielectric as continuous waves.
An imaging apparatus comprising: a main unit including an imaging device and imaging lens; a grip configured to be gripped by a user; an arm including a first attaching portion and a second attaching portion, the grip being attached to the first attaching portion, and the second attaching portion being attached to the main unit of the imaging apparatus; and an input device configured to be operated by the user and that is formed on the grip including a plurality of switches, the plurality of switches comprising a variable function switch and an unlocking button to make the grip movable and to secure the grip to a desired position while attached to the arm, wherein a position of the grip is adjustable, with respect to the main unit, about the second attaching portion, an orientation of the grip is adjustable, with respect to the main unit, about the first attaching portion of the arm, the arm is configured to extend such that a distance between the first attaching portion and the second attaching portion is changed, and the arm is configured to be secured such that the distance between the second attaching portion of the arm and the grip main unit can be fixed to a desired distance. a main unit including an imaging device and imaging lens; a grip configured to be gripped by a user; an arm including a first attaching portion and a second attaching portion, the grip being attached to the first attaching portion, and the second attaching portion being attached to the main unit of the imaging apparatus; and an input device configured to be operated by the user and that is formed on the grip including a plurality of switches, the plurality of switches comprising a variable function switch and an unlocking button to make the grip movable and to secure the grip to a desired position while attached to the arm, wherein a position of the grip is adjustable, with respect to the main unit, about the second attaching portion, an orientation of the grip is adjustable, with respect to the main unit, about the first attaching portion of the arm, the arm is configured to extend such that a distance between the first attaching portion and the second attaching portion is changed, and the arm is configured to be secured such that the distance between the second attaching portion of the arm and the grip main unit can be fixed to a desired distance.
A quality assurance method for constructing piles in the subgrade with an advancing, open profile and carrying-away of the soil on the inside or, if the profile is closed at the bottom, displacement of the soil, characterised in that a compressional wave velocity (v p) of the subgrade is measured at the foot of the open profile on the inside along a chord of the cross-section of the profile.
A base station (101, 102, 103), comprising: an antenna array configured to transmit beam-steered signals in each of a plurality of sub-sectors (205a, 205b, 205c, 205d) within a sector; and a transmitter configured to cause the antenna array to transmit a sequence of primary synchronization symbols (P1, P2, P3, P4) within predetermined symbol positions in at least one slot of a subframe and to re-transmit the first transmitted primary synchronization symbol of the sequence of primary synchronization symbols within at least one symbol position followed by the said predetermined symbol positions in the at least one slot, wherein the sequence of primary synchronization symbols includes primary synchronization symbols transmitted on different sub-sectors of the plurality of sub-sectors. an antenna array configured to transmit beam-steered signals in each of a plurality of sub-sectors (205a, 205b, 205c, 205d) within a sector; and a transmitter configured to cause the antenna array to transmit a sequence of primary synchronization symbols (P1, P2, P3, P4) within predetermined symbol positions in at least one slot of a subframe and to re-transmit the first transmitted primary synchronization symbol of the sequence of primary synchronization symbols within at least one symbol position followed by the said predetermined symbol positions in the at least one slot, wherein the sequence of primary synchronization symbols includes primary synchronization symbols transmitted on different sub-sectors of the plurality of sub-sectors.
A photochemical reaction device, comprising: a laminated body comprising: an oxidation catalyst layer for producing oxygen and protons by oxidizing water; a reduction catalyst layer for producing carbon compounds by reducing carbon dioxide; and a semiconductor layer formed between the oxidation catalyst layer and the reduction catalyst layer and developing charge separation with light energy; an electrolytic tank including the laminated body therein and comprising an oxidation reaction electrolytic tank disposed on the oxidation catalyst layer side and a reduction reaction electrolytic tank disposed on the reduction catalyst layer side separated by the laminated body; and an opening as an ion transfer pathway penetrating the laminated body for moving ions between the oxidation catalyst layer side and the reduction catalyst layer side, wherein the reduction catalyst layer is made of one of Au, Ag, Cu, Ni, Zn, C, graphene, carbon nanotube, fullerene, Ketjen black, and Pd or an alloy including at least one of them, a Ru complex or a Re complex. a laminated body comprising: an oxidation catalyst layer for producing oxygen and protons by oxidizing water; a reduction catalyst layer for producing carbon compounds by reducing carbon dioxide; and a semiconductor layer formed between the oxidation catalyst layer and the reduction catalyst layer and developing charge separation with light energy; an electrolytic tank including the laminated body therein and comprising an oxidation reaction electrolytic tank disposed on the oxidation catalyst layer side and a reduction reaction electrolytic tank disposed on the reduction catalyst layer side separated by the laminated body; and an opening as an ion transfer pathway penetrating the laminated body for moving ions between the oxidation catalyst layer side and the reduction catalyst layer side, wherein the reduction catalyst layer is made of one of Au, Ag, Cu, Ni, Zn, C, graphene, carbon nanotube, fullerene, Ketjen black, and Pd or an alloy including at least one of them, a Ru complex or a Re complex.
The non-therapeutic, cosmetic use of a cosmetic or dermatological composition, containing, in a suitable cosmetic or dermatological carrier, which is present in the form of a liquid, flowable or solid oil-in-water emulsion, water-in-oil emulsion, multiple emulsion, in particular an oil-in-water-in-oil emulsion or water-in-oil-in-water emulsion, macroemulsion, miniemulsion, microemulsion, PIT emulsion, nanoemulsion, Pickering emulsion, hydrodispersion, a hydrogel, a lipogel, a foam, a powder or a mixture having at least one polymer suitable as a medical adhesive, at least one compound from the group of advanced glycation end products (AGEs) and/or the precursors thereof, selected from the reaction products of the reaction of at least one compound from the group of sugar, preferably selected from the aldoses, preferably selected from glucose, lactose, galactose and/or mannose, having at least one compound from the group of amino acids, preferably selected from lysine, hydroxylysine, arginine, tryptophan and/or histidine, characterized in that said composition contains at least one compound according to formula 15 or 15a: for the topical treatment of the skin.
A V-shaped spring member for use in a driving system for an electronic toothbrush, comprising: an elongated solid spring member, having a cross-sectional configuration in the form of a "V" from one end thereof to the other end, the elongated solid spring member having longitudinal free edges along a bottom of the elongated solid spring member and further having at least one opening in a top edge of the elongated solid spring member to accommodate at least a bolt to extend therethrough for a nodal attachment member, wherein the spring member further has regions at both ends thereof which are large enough to support a contact from an end clamping assembly (42,44), the longitudinal free edges of the elongated solid spring member extending down to a lower level in the end regions thereof than in an intermediate region between the end regions, the elongated solid spring member further including a flat cross-piece extending between the longitudinal free edges of the elongated solid spring member in both end regions thereof, such that both ends of the elongated solid spring member define a closed loop of triangular shape.
A method for conditioning bearing systems for shafts, wherein the shaft is received in both a fixed bearing unit and a non-locating bearing unit and where through a control unit the shaft torque and the rotational speed can be variably set, characterized in that the dimensions of the shaft and the dimensions of the bearing units on both the shaft nose and the shaft end are determined, the torque - speed ranges are defined and whereof the resulting geometric shape and the mounting position of the piezo elements at the bearing packages as well as the basic preload force of the bearing packages are determined while the number and segmentation of the piezo elements at the bearing packages is determined from the given tolerances for the shaft operation and while during shaft operation the function of the piezo elements continuously changes between sensor and actuator operation whereby the vibration behavior of the shaft is monitored.
A method for manufacturing an optical element including, in the following sequence: a first step of forming an aluminum nitride single crystal layer by a chemical vapor phase deposition method on an aluminum nitride seed substrate made of aluminum nitride of which an outermost face is an aluminum nitride single crystal face, a second step of obtaining an optical element multilayered body by forming an optical element layer on said aluminum nitride single crystal layer, and a third step of removing said aluminum nitride seed substrate from said optical element multilayered body, wherein a thickness of said aluminum nitride single crystal layer in said first step is 50 μm or more, and wherein said optical element layer in said second step is an LED element layer. a first step of forming an aluminum nitride single crystal layer by a chemical vapor phase deposition method on an aluminum nitride seed substrate made of aluminum nitride of which an outermost face is an aluminum nitride single crystal face, a second step of obtaining an optical element multilayered body by forming an optical element layer on said aluminum nitride single crystal layer, and a third step of removing said aluminum nitride seed substrate from said optical element multilayered body, wherein a thickness of said aluminum nitride single crystal layer in said first step is 50 μm or more, and wherein said optical element layer in said second step is an LED element layer.