mhurhangee/ep-ind-claims huggingface dataset:
A titanium alloy material comprising: in mass%, Cu: 0.7% to 1.4%; Sn: 0.5% to 1.5%; Si: 0.10% to 0.45%; Nb: 0.05% to 0.50%; Fe: 0.00% to 0.08%; O: 0.00% to 0.08%; and optionally comprising: one or both of in mass%, Bi: 0.1 to 2.0%; and Ge: 0.1 to 1.5%, wherein a total content of one or both of Bi and Ge is less than 3.0%, and the balance: Ti and impurities, wherein in a structure, an area fraction of an α phase is 96.0% or more and an area fraction of an intermetallic compound is 1.0% or more, and an average crystal grain size of the α phase is 10 μm or more and 100 μm or less and an average grain size of the intermetallic compound is 0.1 to 3.0 μm; wherein the fracture elongation at 25°C is 25.0% or more, 0.2% proof stress at 25°C is 340 MPa or less, and a tensile strength at 700°C is 60 MPa or more; with fracture elongation, 0.2% proof stress, tensile strength, area fractions, average crystal grain size of the α phase and average grain size of the intermetallic compound being measured as described in the description. Cu: 0.7% to 1.4%; Sn: 0.5% to 1.5%; Si: 0.10% to 0.45%; Nb: 0.05% to 0.50%; Fe: 0.00% to 0.08%; O: 0.00% to 0.08%; and optionally comprising: one or both of in mass%, Bi: 0.1 to 2.0%; and Ge: 0.1 to 1.5%, wherein a total content of one or both of Bi and Ge is less than 3.0%, and the balance: Ti and impurities, wherein in a structure, an area fraction of an α phase is 96.0% or more and an area fraction of an intermetallic compound is 1.0% or more, and an average crystal grain size of the α phase is 10 μm or more and 100 μm or less and an average grain size of the intermetallic compound is 0.1 to 3.0 μm; wherein the fracture elongation at 25°C is 25.0% or more, 0.2% proof stress at 25°C is 340 MPa or less, and a tensile strength at 700°C is 60 MPa or more; with fracture elongation, 0.2% proof stress, tensile strength, area fractions, average crystal grain size of the α phase and average grain size of the intermetallic compound being measured as described in the description.
A method for predictive modeling in a network security service, comprising: receiving information that describes a threat instance detected in a network at a detection service server, wherein the detection service server receives the information that describes the threat instance from a first participant in the network security service; storing a record that describes the threat instance in a database coupled to the detection service server, wherein the record includes a threat information code that identifies a threat type associated with the threat instance and a subscriber code that uniquely identifies the first participant; returning the subscriber code that uniquely identifies the first participant to a second participant in the network security service in response to the second participant querying the detection service server with the threat information code that identifies the threat type associated with the threat instance; and returning a location associated with the first participant to the second participant in response to the second participant querying a hierarchical name service with the subscriber code that uniquely identifies the first participant, wherein the location identifies a local name service node associated with the first participant in the hierarchical name service to enable the second participant to obtain one or more data attributes associated with the threat instance from the first participant. receiving information that describes a threat instance detected in a network at a detection service server, wherein the detection service server receives the information that describes the threat instance from a first participant in the network security service; storing a record that describes the threat instance in a database coupled to the detection service server, wherein the record includes a threat information code that identifies a threat type associated with the threat instance and a subscriber code that uniquely identifies the first participant; returning the subscriber code that uniquely identifies the first participant to a second participant in the network security service in response to the second participant querying the detection service server with the threat information code that identifies the threat type associated with the threat instance; and returning a location associated with the first participant to the second participant in response to the second participant querying a hierarchical name service with the subscriber code that uniquely identifies the first participant, wherein the location identifies a local name service node associated with the first participant in the hierarchical name service to enable the second participant to obtain one or more data attributes associated with the threat instance from the first participant.
A target network apparatus (803; 903) comprising: means for receiving, as part of a handover procedure for handover of a terminal (801; 901) to the target network apparatus, metadata about at least one machine learning model accessible for execution and/or training by the terminal; means for determining whether or not the terminal should execute and/or train the at least one machine learning model after the terminal is handed over to the target network apparatus; and means for signalling the result of the determining to the terminal in a handover command message (8006; 9008); wherein the means for receiving comprises means for receiving the metadata in a handover request message (8003;9005) from a source network apparatus (802; 902) in the handover procedure, and wherein the metadata comprises: metadata information comprising: model descriptor metadata, or model status metadata, or model performance metadata, or model idle state information metadata, or model area validity metadata. means for receiving, as part of a handover procedure for handover of a terminal (801; 901) to the target network apparatus, metadata about at least one machine learning model accessible for execution and/or training by the terminal; means for determining whether or not the terminal should execute and/or train the at least one machine learning model after the terminal is handed over to the target network apparatus; and means for signalling the result of the determining to the terminal in a handover command message (8006; 9008); wherein the means for receiving comprises means for receiving the metadata in a handover request message (8003;9005) from a source network apparatus (802; 902) in the handover procedure, and wherein the metadata comprises: metadata information comprising: model descriptor metadata, or model status metadata, or model performance metadata, or model idle state information metadata, or model area validity metadata.
Terminal comprising; a memory card reader; and a flap for concealing a cavity, comprising: - a base wall generally reproducing the shape of a portion of the rear face of a terminal; said terminal being characterized in that said flap for concealing also comprises: - an insertion wall at least partially tilted at a predetermined angle relative to said base wall; - at least one slot for inserting a memory card obtained by a difference in height between a base wall and an insertion wall, said base wall comprising outside the insertion wall, an opening for the passage of said memory card. - a base wall generally reproducing the shape of a portion of the rear face of a terminal; - an insertion wall at least partially tilted at a predetermined angle relative to said base wall; - at least one slot for inserting a memory card obtained by a difference in height between a base wall and an insertion wall, said base wall comprising outside the insertion wall, an opening for the passage of said memory card.
A process for the preparation of Cyamemazine of formula-1 or pharmaceutically acceptable salts thereof, comprising: (a) reacting 2-cyanophenthiazine of the formula-2 or salt thereof, with 1-dimethylamino-2-methyl-3-chloropropane of formula-3 or salt thereof, in the presence of a base and a phase transfer catalyst in an organic solvent, to produce crude cyamemazine of formula-1a (b) reacting the compound of formula-la with an acid in an organic solvent, to obtain a Cyamemazine acid addition salt, (c) converting the Cyamemazine acid addition salt obtained in step (b) to another Cyamemazine acid addition salt, or reacting the acid addition salts obtained in step (b) with a base to get pure Cyamemazine of formula-1, and (d) optionally converting the Cyamemazine of formula-1 obtained in step (c) to Cyamemazine acid addition salts. (a) reacting 2-cyanophenthiazine of the formula-2 or salt thereof, with 1-dimethylamino-2-methyl-3-chloropropane of formula-3 or salt thereof, in the presence of a base and a phase transfer catalyst in an organic solvent, to produce crude cyamemazine of formula-1a (b) reacting the compound of formula-la with an acid in an organic solvent, to obtain a Cyamemazine acid addition salt, (c) converting the Cyamemazine acid addition salt obtained in step (b) to another Cyamemazine acid addition salt, or reacting the acid addition salts obtained in step (b) with a base to get pure Cyamemazine of formula-1, and (d) optionally converting the Cyamemazine of formula-1 obtained in step (c) to Cyamemazine acid addition salts.
Angiotensin peptide consisting of at least 5 contiguous amino acids of Nle3-A (SEQ ID NO: 14) for use in treating an eye injury, wherein the angiotensin peptide is administered to a subject with an eye injury an amount effective of an angiotensin peptide to treat the eye injury.
A nuclear magnetic resonance logging tool, comprising: a permanent magnet for inducing a static magnetic field in a formation within a borehole; a transmitter antenna for transmitting a RF pulse sequence into the formation; and two receiver antennae (206, 208) for receiving NMR response signals from the formation, the receiver antennae including a first receiver antenna arranged axially below a second receiver antenna, each of the receiver antennae disposed within a surface area of the transmitter antenna, wherein a sum of axial lengths (212, 214) of the two receiver antennae is about ±10% of the axial length of the transmitter antenna. a permanent magnet for inducing a static magnetic field in a formation within a borehole; a transmitter antenna for transmitting a RF pulse sequence into the formation; and two receiver antennae (206, 208) for receiving NMR response signals from the formation, the receiver antennae including a first receiver antenna arranged axially below a second receiver antenna, each of the receiver antennae disposed within a surface area of the transmitter antenna, wherein a sum of axial lengths (212, 214) of the two receiver antennae is about ±10% of the axial length of the transmitter antenna.
Contraceptive device for reducing the sperm quality of a mammal by locally heating at least one epididymis of the mammal, wherein the contraceptive device comprises an electrode arrangement with at least one first electrode (2, 2') and a second electrode (3, 3') which can be aligned parallel to the first electrode (2, 2'), and a high-frequency generator for generating a high-frequency alternating voltage, wherein the electrodes (2, 2', 3, 3') can be brought into electrically active connection with the high-frequency generator in such a way that the high-frequency alternating voltage can be applied between the two electrodes (2, 2', 3, 3'), wherein the electrodes (2, 2', 3, 3') are adapted and/or adaptable to a mammalian anatomy such that an electric current induced by the HF voltage is arranged at least in sections in at least the body section of at least one of the mammalian epididymides and the epididymis can be heated at least in sections by the electric current, so that the quality of the sperm contained in the epididymis can be limited in such a way that the fertility of the mammal is temporarily restricted, wherein the contraceptive device comprises at least one holding device, the electrode arrangement can be attached to the holding device in such a way that the first electrode (2, 2') and the second electrode (3, 3') face one another and are aligned parallel to one another, characterized in that the contraceptive device comprises a spacer element, wherein the spacer element is intended to bear against a surface portion of the mammal's body in a support region, the spacer element, the electrode arrangement and the holding device are in mechanical operative connection with one another in such a way that a holding force exerted by the holding device can be introduced into the body of the mammal via the spacer element at least partially in the support region.
A process for improving the shrinkage of a rotomolding composition, the process comprising: contacting at least one metallocene-catalyzed polyolefin polymer and from 1 to 7,500 ppm by weight of at least one adhesion promoter, the at least one adhesion promoter comprising a propylene-based elastomer, to produce the rotomolding composition, recovering the rotomolding composition, transferring the rotomolding composition to a mold, and rotomolding an article from the rotomolding composition, wherein the propylene-based elastomer comprises propylene and from 5 wt% to 25 wt% of one or more comonomers selected from ethylene and/or C 4 -C 12 α-olefins, based upon the total weight of the elastomer, and has one or more of the following properties: a) a Tm of less than 115°C; b) a heat of fusion of at least 0.5 J/g or less than 75 J/g; c) a triad tacticity of three propylene units of 75% or greater; d) a crystallinity of from 0.5% to 40.0%; and e) an MFR of from 10 to 50 g/10min. a) a Tm of less than 115°C; b) a heat of fusion of at least 0.5 J/g or less than 75 J/g; c) a triad tacticity of three propylene units of 75% or greater; d) a crystallinity of from 0.5% to 40.0%; and e) an MFR of from 10 to 50 g/10min.
A sanitary napkin adapted to be worn in a thong undergarment, the undergarment having a body faceable surface and a garment faceable surface, the sanitary napkin comprising a central absorbent pad, the central absorbent pad having a liquid pervious cover layer, a liquid impervious barrier layer and an absorbent core between the cover layer and barrier layer, the sanitary napkin having a longitudinal centerline, a lateral centerline, a pair of opposite longitudinal side edges, a first distal end having a relatively narrow width and adapted to be worn in a posterior portion of the thong undergarment in use and an opposite second distal end having a relatively wider width and adapted to be worn in an anterior portion of the thong undergarment in use and a pair of flaps extending laterally outward from each longitudinal side edge along a respective line of juncture, including; a first flap being substantially adjacent the lateral centerline, the first flap being adapted to fold over a crotch portion of the thong undergarment in use along a first preferential bending axis and to contact the garment faceable surface of the thong undergarment, and a second flap being intermediate the first flap and the first distal end, the second flap being adapted to fold over the posterior portion of the thong undergarment in use along a second preferential bending axis and to contact the garment faceable surface of the thong undergarment; the first flap being separated from the second flap by a flange portion, characterized in that the flange portion has a lateral dimension that is adapted to not allow the flange portion to be folded over an edge of the thong undergarment or to contact the garment faceable surface thereof in use wherein the first preferential bending axis is substantially collinear with the second preferential bending axis within the flange portion, and wherein the first preferential bending axis is parallel to the second preferential bending axis.
A thermosetting material for use in a 3D printing process comprising: a) at least one epoxy resin A, b) at least one elastomer-modified epoxy resin B, c) at least one resin C with a dynamic viscosity of below 4 Pas at 150 °C as determined according to the method given in the description, d) at least one curing agent D capable of reacting with A, B and optionally C, e) and optionally additional compounds, wherein the glass transition temperature of the uncured material is at least 30 °C, preferably at least 40 °C, as measured with DSC at a heating rate of 20 °C/min as determined according to the method given in the description, characterized in that the epoxy resin A is or comprises a bisphenol-based epoxy resin, a phenolic epoxy resin, a Novolac epoxy resin or a mixture thereof. a) at least one epoxy resin A, b) at least one elastomer-modified epoxy resin B, c) at least one resin C with a dynamic viscosity of below 4 Pas at 150 °C as determined according to the method given in the description, d) at least one curing agent D capable of reacting with A, B and optionally C, e) and optionally additional compounds, wherein the glass transition temperature of the uncured material is at least 30 °C, preferably at least 40 °C, as measured with DSC at a heating rate of 20 °C/min as determined according to the method given in the description, characterized in that the epoxy resin A is or comprises a bisphenol-based epoxy resin, a phenolic epoxy resin, a Novolac epoxy resin or a mixture thereof.
A flexible organic light emitting display apparatus (100; 200a) comprising: a flexible encapsulation layer comprising at least one aluminum oxide layer on an area having a plurality of pixels; an adhesion supporter on the flexible encapsulation layer; and a flexible barrier film adhered to the adhesion supporter, wherein the flexible encapsulation layer has a structure where a first insulation layer, a second insulation layer, and a foreign material compensation layer are stacked, and the foreign material compensation layer is between the first insulation layer and the second insulation layer, and at least the second insulation layer is the aluminum oxide layer, the flexible organic light emitting display apparatus comprising a display area having the plurality of pixels, and a non-display area at a periphery of the display area, characterized in that an edge of the second insulation layer at the non-display area is disposed more inward than an edge of the first insulation layer at the non-display area by a certain distance and the adhesion supporter is configured to cover a side surface of the edge of the second insulation layer and a portion of an upper surface of the first insulation layer. a flexible encapsulation layer comprising at least one aluminum oxide layer on an area having a plurality of pixels; an adhesion supporter on the flexible encapsulation layer; and a flexible barrier film adhered to the adhesion supporter, wherein the flexible encapsulation layer has a structure where a first insulation layer, a second insulation layer, and a foreign material compensation layer are stacked, and the foreign material compensation layer is between the first insulation layer and the second insulation layer, and at least the second insulation layer is the aluminum oxide layer, the flexible organic light emitting display apparatus comprising a display area having the plurality of pixels, and a non-display area at a periphery of the display area, characterized in that an edge of the second insulation layer at the non-display area is disposed more inward than an edge of the first insulation layer at the non-display area by a certain distance and the adhesion supporter is configured to cover a side surface of the edge of the second insulation layer and a portion of an upper surface of the first insulation layer.
Securing strand (3; 51; 71) for securing objects, wherein the securing strand is composed substantially from textile fibers, characterized in that • the textile fibers are preferably present as braided fabric (11, 15, 19); • the securing strand has three, four or more braided fabrics or woven fabrics from textile fibers, • the braided fabrics or woven fabrics are mutually interlaced such that a braided fabric or woven fabric forms the core of a subsequently disposed braided fabric or woven fabric, • a metallic layer (13, 17) can be disposed between each braided-fabric or woven-fabric layer, • the securing strand (3; 51; 71) and/or the textile fibers has/have sheathing which is preferably configured so as to be UV-impermeable, and • thereon a further braided fabric or woven fabric from textile fibers is arranged which can be printed. • the textile fibers are preferably present as braided fabric (11, 15, 19); • the securing strand has three, four or more braided fabrics or woven fabrics from textile fibers, • the braided fabrics or woven fabrics are mutually interlaced such that a braided fabric or woven fabric forms the core of a subsequently disposed braided fabric or woven fabric, • a metallic layer (13, 17) can be disposed between each braided-fabric or woven-fabric layer, • the securing strand (3; 51; 71) and/or the textile fibers has/have sheathing which is preferably configured so as to be UV-impermeable, and • thereon a further braided fabric or woven fabric from textile fibers is arranged which can be printed.
A method for assessing whether a patient suffers from liver cancer or is prone to suffering from liver cancer, said method comprising - determining the amount of soluble AXL in a sample from said patient; and - assessing that said patient suffers from liver cancer or is prone to suffering from liver cancer when the amount of soluble AXL is increased in comparison to a control. - determining the amount of soluble AXL in a sample from said patient; and - assessing that said patient suffers from liver cancer or is prone to suffering from liver cancer when the amount of soluble AXL is increased in comparison to a control.