mhurhangee/ep-ind-claims huggingface dataset:
Unit connector (1, 1', 1") for connecting an abutment (120, 120') of a dental implant (100, 100') to a base body of the dental implant (100, 100'), comprising a base portion (11, 11', 11") that can be inserted into the base body in an insertion direction and fixed therein, an abutment-holding portion (12, 12', 12") for holding the abutment (120, 120') on the base body, a holding element (15, 15') that encompasses the abutment-holding portion and is designed to interact with the abutment-holding portion in order to hold the abutment, and a threadless shaft portion (13, 13', 13") arranged between the base portion and the abutment-holding portion, wherein at least two holding positions, mutually spaced in the insertion direction, for the abutment (120, 120'), are provided on the abutment-holding portion (12, 12', 12"); wherein the abutment-holding portion has at least one holding thread (121, 121', 121") in the form of an external thread for form-fitting and force-fitting interaction with the holding element; and wherein the holding element is designed in the manner of a sleeve with a substantially cylindrical outer contour; characterized in that the base portion (11, 11', 11") has a first external thread (111, 111', 111"), which is designed to be able to be brought into engagement with an internal thread of the base body and provides the at least two holding positions.
Packing for rolls of netwrap for roundbalers, or for a roll formed by a netwrap intended to be used in an agricultural machine, namely a roundbaler, for forming bales, as for instance of hay, rolled and pressed, the packing comprising: - an outer wrapper, consisting of a film of plastic material, in particular polyethylene, which is wrapped around the outer surface of said roll of netwrap for roundbalers; characterised in that said wrapper of plastic material in turn exhibits: - a bonding, substantially continuous, that is made with a film of glue applied along at least one of the two flaps of the film of plastic material wrapped around the roll, so as to close the wrapper on the outer cylindrical surface of the roll; and - one or more welding or gluing areas that are carried out on the exceeding portions and lateral ends, folded on the two sides of the roll, of the film of plastic material, so as to ensure a complete sealing of the roll from the external environment. - an outer wrapper, consisting of a film of plastic material, in particular polyethylene, which is wrapped around the outer surface of said roll of netwrap for roundbalers; characterised in that said wrapper of plastic material in turn exhibits: - a bonding, substantially continuous, that is made with a film of glue applied along at least one of the two flaps of the film of plastic material wrapped around the roll, so as to close the wrapper on the outer cylindrical surface of the roll; and - one or more welding or gluing areas that are carried out on the exceeding portions and lateral ends, folded on the two sides of the roll, of the film of plastic material, so as to ensure a complete sealing of the roll from the external environment. - a bonding, substantially continuous, that is made with a film of glue applied along at least one of the two flaps of the film of plastic material wrapped around the roll, so as to close the wrapper on the outer cylindrical surface of the roll; and - one or more welding or gluing areas that are carried out on the exceeding portions and lateral ends, folded on the two sides of the roll, of the film of plastic material, so as to ensure a complete sealing of the roll from the external environment.
A data updating method, comprising: generating, by a Network Element, NE, management device, Managed Object Instances, MOI, and an operation identifier of each MOI according to a management operation needed to be performed on an NE device; selecting, by the NE management device, MOIs in an association relation from the generated MOIs; generating, by the NE management device, a dynamic MOI and an operation identifier of the dynamic MOI according to the selected MOIs, wherein the dynamic MOI comprises attribute values corresponding to attributes of the selected MOIs, and the operation identifier of the dynamic MOI comprises the operation identifiers of the selected MOIs; transmitting, by the NE management device, the dynamic MOI and the operation identifier of the dynamic MOI to the NE device; searching, by the NE device, a Managed Object, MO, tree for an MOI node matched with attribute values of the dynamic MOI after receiving the dynamic MOI and the operation identifier of the dynamic MOI, and updating, by the NE device, the matched MOI node according to the operation identifier of the dynamic MOI. generating, by a Network Element, NE, management device, Managed Object Instances, MOI, and an operation identifier of each MOI according to a management operation needed to be performed on an NE device; selecting, by the NE management device, MOIs in an association relation from the generated MOIs; generating, by the NE management device, a dynamic MOI and an operation identifier of the dynamic MOI according to the selected MOIs, wherein the dynamic MOI comprises attribute values corresponding to attributes of the selected MOIs, and the operation identifier of the dynamic MOI comprises the operation identifiers of the selected MOIs; transmitting, by the NE management device, the dynamic MOI and the operation identifier of the dynamic MOI to the NE device; searching, by the NE device, a Managed Object, MO, tree for an MOI node matched with attribute values of the dynamic MOI after receiving the dynamic MOI and the operation identifier of the dynamic MOI, and updating, by the NE device, the matched MOI node according to the operation identifier of the dynamic MOI.
Spherical fused silica powder having been subjected to a dielectric tangent reduction treatment comprising heat treating a raw material spherical fused silica powder having a specific surface area of 1-30 m 2 /g at a temperature of 500-1100°C and for a predetermined time in which heating temperature (°C) x heating time (h) becomes 1000-26400 °C•h, the spherical fused silica powder having: a dielectric tangent ratio B/A of 0.70 or lower, wherein "A" represents a dielectric tangent (tanδf A) of the spherical fused silica powder before the dielectric tangent reduction treatment and "B" represents a dielectric tangent (tanδf B) of the spherical fused silica powder after the dielectric tangent reduction treatment, the dielectric tangent (tanδf A, tanδf B) of the spherical fused silica powder before and after the dielectric tangent reduction treatment being measured with a resonator method at a frequency of 35-40 GHz, a temperature of 20 °C, and a humidity of 60%RH after formulating the spherical fused silica powder in a resin and molding it into the sheet by a method described in the description, and being calculated by using the following Formula; and a specific surface area of 1-30 m 2 /g. [Numerical formula 1] log tan δc = Vf ⋅ log tan δf + 1 − Vf ⋅ log tan δr wherein, in Formula, each of the symbols has the following meanings: tanδc: dielectric tangent of the sheet Vf: a volume fraction of the spherical fused silica powder in the sheet tanδr: a dielectric tangent of a resin sheet (without filler formulation) a dielectric tangent ratio B/A of 0.70 or lower, wherein "A" represents a dielectric tangent (tanδf A) of the spherical fused silica powder before the dielectric tangent reduction treatment and "B" represents a dielectric tangent (tanδf B) of the spherical fused silica powder after the dielectric tangent reduction treatment, the dielectric tangent (tanδf A, tanδf B) of the spherical fused silica powder before and after the dielectric tangent reduction treatment being measured with a resonator method at a frequency of 35-40 GHz, a temperature of 20 °C, and a humidity of 60%RH after formulating the spherical fused silica powder in a resin and molding it into the sheet by a method described in the description, and being calculated by using the following Formula; and a specific surface area of 1-30 m 2 /g. [Numerical formula 1] log tan δc = Vf ⋅ log tan δf + 1 − Vf ⋅ log tan δr wherein, in Formula, each of the symbols has the following meanings: tanδc: dielectric tangent of the sheet Vf: a volume fraction of the spherical fused silica powder in the sheet tanδr: a dielectric tangent of a resin sheet (without filler formulation) tanδc: dielectric tangent of the sheet Vf: a volume fraction of the spherical fused silica powder in the sheet tanδr: a dielectric tangent of a resin sheet (without filler formulation)
A sending node that is operable to provide a representation of at least one resource, wherein the resource comprises a sensor measurement, and wherein the representation is operable for transmission using an Internet of Things, loT, transfer Protocol, the sending node comprising processing circuitry configured to: generate a representation of the resource according to a data model; the sending node characterized in that the processing circuitry is configured to: generate a Real-time Transport Protocol, RTP, data packet, wherein the RTP data packet comprises the generated representation of the resource by: mapping information from at least one field in the representation to a header field of the RTP data packet by mapping information from a time field of the representation to a timestamp field of the RTP data packet; and send the generated RTP packet to a receiving node. generate a representation of the resource according to a data model; the sending node characterized in that the processing circuitry is configured to: generate a Real-time Transport Protocol, RTP, data packet, wherein the RTP data packet comprises the generated representation of the resource by: mapping information from at least one field in the representation to a header field of the RTP data packet by mapping information from a time field of the representation to a timestamp field of the RTP data packet; and send the generated RTP packet to a receiving node.
An axle unit comprising an axle tube and a link element, wherein the axle tube substantially extends along a tube axis, wherein the link element has a joining portion with a first welding portion and a second welding portion, wherein the link element is arranged with its joining portion adjacent to the axle tube and substantially transversely with respect to the tube axis, wherein, in the first welding portion and in the second welding portion, a welded joint can be produced between the link element and the axle tube chracterised by, the second welding portion is designed as a recess on the link unit, and wherein the second welding portion has an encircling edge on which a weld seam can be produced.
A communication method in a mobile network system that includes a mobility management node, SGSN,, a serving gateway, S-GW, serving as a bearer management node, and a packet data network gateway, P-GW,, wherein the packet data network gateway is connected to an external network, comprising: in case restarting of the mobility management node is performed, the bearer management node maintaining at least one S5/S8 bearer eligible for restoration of communication services provided from the external network to a mobile terminal accommodated in the mobility management node; and the bearer management node removing other bearer(s). in case restarting of the mobility management node is performed, the bearer management node maintaining at least one S5/S8 bearer eligible for restoration of communication services provided from the external network to a mobile terminal accommodated in the mobility management node; and the bearer management node removing other bearer(s).
A method, comprising: receiving, by an electronic device (11; 402), data defining an augmented reality, AR, environment including a representation of a physical environment; identifying at least one of a plane representing at least a portion of a first real-world object within the physical environment and an augmented region representing at least a portion of a second real-world object within the physical environment, wherein the augmented region is a two-dimensional region without a depth, and the plane is a three-dimensional plane having a depth; receiving an instruction to place an AR object within the AR environment; and in response to receiving the instruction, placing the AR object in the AR environment at least one of based on the plane using a plane-tracking mode or based on the augmented region using a region-tracking mode; the method further comprising, either: placing the AR object in the AR environment at a first time based on the plane-tracking mode, and switching, at a second time, to the region-tracking mode; or placing the AR object in the AR environment at a first time based on the region-tracking mode, and switching, at a second time, to the plane-tracking mode. receiving, by an electronic device (11; 402), data defining an augmented reality, AR, environment including a representation of a physical environment; identifying at least one of a plane representing at least a portion of a first real-world object within the physical environment and an augmented region representing at least a portion of a second real-world object within the physical environment, wherein the augmented region is a two-dimensional region without a depth, and the plane is a three-dimensional plane having a depth; receiving an instruction to place an AR object within the AR environment; and in response to receiving the instruction, placing the AR object in the AR environment at least one of based on the plane using a plane-tracking mode or based on the augmented region using a region-tracking mode; the method further comprising, either: placing the AR object in the AR environment at a first time based on the plane-tracking mode, and switching, at a second time, to the region-tracking mode; or placing the AR object in the AR environment at a first time based on the region-tracking mode, and switching, at a second time, to the plane-tracking mode. placing the AR object in the AR environment at a first time based on the plane-tracking mode, and switching, at a second time, to the region-tracking mode; or placing the AR object in the AR environment at a first time based on the region-tracking mode, and switching, at a second time, to the plane-tracking mode.
A method of making a sterilization indicator, comprising: depositing an electrically conductive material on a substrate using an ink jet printer; depositing a biological indicator in an array on part or all of the electrically conductive material using the ink jet printer; and providing electrical circuitry in electrical communication with the electrically conductive material, the electrical circuitry adapted to detect changes in an electrical property of the electrically conductive material. depositing an electrically conductive material on a substrate using an ink jet printer; depositing a biological indicator in an array on part or all of the electrically conductive material using the ink jet printer; and providing electrical circuitry in electrical communication with the electrically conductive material, the electrical circuitry adapted to detect changes in an electrical property of the electrically conductive material.
An endoscope comprising: a working channel, a stent delivery system configured to be advanced through the working channel and comprising: a stent loaded on the stent delivery system, a proximal end, a distal end including a cutting element configured to create openings through tissue walls, and a lumen extending therebetween; and the endoscope further comprising an elongate member slidably disposed within the lumen, wherein a distal portion of the elongate member is configured to move between a first configuration when disposed within the lumen, and a second configuration when disposed distally beyond the distal end, wherein the stent delivery system comprises an outer portion configured to be proximally retracted over the inner lumen, elongate member and stent to deploy at least a distal flange of the stent, characterized in that, the distal portion of the elongate member includes a first dimension, a second dimension and a third dimension relative to a longitudinal axis of the elongated member providing a space within which the distal flange of the stent is deployed. a working channel, a stent delivery system configured to be advanced through the working channel and comprising: a stent loaded on the stent delivery system, a proximal end, a distal end including a cutting element configured to create openings through tissue walls, and a lumen extending therebetween; and a stent loaded on the stent delivery system, a proximal end, a distal end including a cutting element configured to create openings through tissue walls, and a lumen extending therebetween; and the endoscope further comprising an elongate member slidably disposed within the lumen, wherein a distal portion of the elongate member is configured to move between a first configuration when disposed within the lumen, and a second configuration when disposed distally beyond the distal end, wherein the stent delivery system comprises an outer portion configured to be proximally retracted over the inner lumen, elongate member and stent to deploy at least a distal flange of the stent, characterized in that, the distal portion of the elongate member includes a first dimension, a second dimension and a third dimension relative to a longitudinal axis of the elongated member providing a space within which the distal flange of the stent is deployed.
A flame-retardant resin composition, characterized in that the flame-retardant resin composition comprises a sulfur-containing flame retardant and a halogen-free epoxy resin, the flame-retardant resin composition further comprises a phosphorus-containing flame retardant and/or a nitrogen-containing flame retardant, wherein the sulfur-containing flame retardant is p-benzenedithiol and/or 4,4'-diaminodiphenyl disulfide.
A debridement device having a wound contacting layer for debridement of a wound, comprising: a layer of gel-forming fibres; and a plurality of bristles in contact with the gel-forming fibres, wherein the plurality of bristles comprise nylon, polypropylene, acrylic, polyvinyl chloride, polycarbonate, silicone, wool, or any combination thereof. a layer of gel-forming fibres; and a plurality of bristles in contact with the gel-forming fibres, wherein the plurality of bristles comprise nylon, polypropylene, acrylic, polyvinyl chloride, polycarbonate, silicone, wool, or any combination thereof.
A system for charging a battery from a three phase grid supply AC voltage wherein the grid supply supplies varying voltage levels, the system comprising: a full wave bridge rectifier receiving the AC supply voltage (710, 720, 730) and outputting unregulated DC voltage (760, 770); two DC to DC converters (780, 790) receiving the unregulated DC voltage (760, 770) from the rectifier; a first switch connected to a first input line of a first one of the two converters; and a second switch connected to a first input line of a second one of the two converters, wherein the switches are set to a first position when the supply voltage is at a lower one of the varying voltage levels, and to a second position when the supply voltage is at a higher one of the varying voltage level, characterized in that a second input line of the first converter is connected to a positive voltage output of the rectifier and the second input line of the second converter is connected to a negative voltage output of the rectifier, and wherein when each of the switches is set to the second position, the first input line of each of the two converters is connected to a neutral line of the phase grid supply via the respective switch. a full wave bridge rectifier receiving the AC supply voltage (710, 720, 730) and outputting unregulated DC voltage (760, 770); two DC to DC converters (780, 790) receiving the unregulated DC voltage (760, 770) from the rectifier; a first switch connected to a first input line of a first one of the two converters; and a second switch connected to a first input line of a second one of the two converters, wherein the switches are set to a first position when the supply voltage is at a lower one of the varying voltage levels, and to a second position when the supply voltage is at a higher one of the varying voltage level, characterized in that a second input line of the first converter is connected to a positive voltage output of the rectifier and the second input line of the second converter is connected to a negative voltage output of the rectifier, and wherein when each of the switches is set to the second position, the first input line of each of the two converters is connected to a neutral line of the phase grid supply via the respective switch.
A device for the production of structural components from a fiber composite material, said structural components being three-dimensionally arched over a large surface, comprising a loaded jig having amounting surface (3, 3') which is arched towards the outside and a laminating bonding device having a corresponding shape, wherein the jig has receiving channels (4, 4') for the insertion of construction components and which can be loaded with auxiliary materials, wherein the loaded jig interacts with a laminating bonding device for forming the structural component under pressure, characterited in that the mounting surface (3, 3') consists a plurality of individually elastically deformable mounting shell parts (7a-7c; 7') which are arranged adjacent to each other along at least one longitudinally extending pitch line (8a, 8b; 8') and which are attached to a plurality of elastically deformable supporting frame elements (9a-9c; 9a'-9d') that extend on the interior of the shell at a right angle to the at least one pitch line (8a, 8b), by way of which supporting frame elements (9a-9c; 9a'-9d') the mounting surface (3, 3') can be deformed by means of a plurality of actuators (5a, 5b) between an extended position and at least one retracted position in order to move the jig from the laminating bonding device relative to the receiving channels (4, 4') without undercuts.