mhurhangee/ep-ind-claims huggingface dataset:
Network node for a Data Communication Network, DCN, providing communication between telecommunications management network components, characterized in that the network node is configured to: receive a plurality of packets carrying DCN messages, wherein the DCN messages are messages transported over the DCN and comprise management messages, or signaling and routing protocol messages, or big data information on network status; determine, from the received packets, a first set of packets addressed to other network nodes of the DCN, and forward the first set of packets over a Time-Division-Multiplexing, TDM, connection to a determined network node of the DCN, wherein the TDM connection is an Optical Data Unit-k, ODUk, connection, wherein for determining and forwarding the first set of packets, the network node is configured to determine and forward the first set of packets based on a packet-based Virtual Private Network, VPN. receive a plurality of packets carrying DCN messages, wherein the DCN messages are messages transported over the DCN and comprise management messages, or signaling and routing protocol messages, or big data information on network status; determine, from the received packets, a first set of packets addressed to other network nodes of the DCN, and forward the first set of packets over a Time-Division-Multiplexing, TDM, connection to a determined network node of the DCN, wherein the TDM connection is an Optical Data Unit-k, ODUk, connection, wherein for determining and forwarding the first set of packets, the network node is configured to determine and forward the first set of packets based on a packet-based Virtual Private Network, VPN.
An angling device for use with an angling rod, the angling device comprising: a housing arranged with an arm with a pivot to the housing at a proximal end so that the arm can pivot with respect to the housing; a line capture jaw for holding a fishing line is provided at a distal end of the arm; and a mechanism for pivoting the arm between at least a first position and a second position, the arm thereby pulling the fishing line, and for opening the line capture jaw and releasing the fishing line, wherein the mechanism for pivoting the arm from the first position is activated automatically when the fishing line held in the line capture jaw is placed under tension, and when the arm reaches the second position, the mechanism triggers the opening of the line capture jaw to release the fishing line to run freely. and a mechanism for pivoting the arm between at least a first position and a second position, the arm thereby pulling the fishing line, and for opening the line capture jaw and releasing the fishing line, wherein the mechanism for pivoting the arm from the first position is activated automatically when the fishing line held in the line capture jaw is placed under tension, and when the arm reaches the second position, the mechanism triggers the opening of the line capture jaw to release the fishing line to run freely.
A spot-welded joint comprising two steel sheets having sheet thicknesses of t 1 and t 2, which have been stacked and spot-welded, wherein a nugget formed by the spot-welding has a diameter of 3√{(t 1 +t 2)/2} or more, where units of the diameter of the nugget, t 1 and t 2 are all mm, and wherein the nugget has a curvature radius at both ends in a diameter direction thereof, in a cross section in a sheet thickness direction, of 0.3(t 1 +t 2) or more, wherein the two steel sheets have a component composition, by mass%, consisting of C: 0.01 to 0.80%, Si: 3% or less and Mn: 0.2 to 10%, and optionally at least one kind selected from the group consisting of Cr: 0.01 to 1.50%, Mo: 0.01 to 1.50%, Ni: 0.01 to 1.50%, Cu: 0.01 to 1.50% and B: 0.0001 to 0.010%, at least one kind selected from the group consisting of Ti: 0.001 to 0.20%, Nb: 0.001 to 0.20% and V: 0.001 to 0.20%, a remainder being Fe and inevitable impurities. C: 0.01 to 0.80%, Si: 3% or less and Mn: 0.2 to 10%, Cr: 0.01 to 1.50%, Mo: 0.01 to 1.50%, Ni: 0.01 to 1.50%, Cu: 0.01 to 1.50% and B: 0.0001 to 0.010%, Ti: 0.001 to 0.20%, Nb: 0.001 to 0.20% and V: 0.001 to 0.20%,
A method for manufacturing a unitary body side structural frame of a vehicle comprising: providing a plurality of blanks (10, 20); joining the blanks to each other to form a composite blank, wherein joining the blanks includes forming one or more overlapping regions formed by partially overlapping two blanks; deforming the composite blank to form the unitary body side structural frame; wherein the unitary body side structural frame is a front frame and includes: a lower beam portion comprising a rocker portion and an upper beam portion comprising an A-pillar portion, a front pillar portion connecting the lower beam portion to the upper beam portion, and comprising a hinge pillar portion, and a rear pillar portion connecting the lower beam portion to the upper beam portion and comprising a B-pillar portion; and wherein one of the overlapping regions substantially corresponds to a transition between the rocker portion and a B-pillar portion and is arranged within the rocker portion. providing a plurality of blanks (10, 20); joining the blanks to each other to form a composite blank, wherein joining the blanks includes forming one or more overlapping regions formed by partially overlapping two blanks; deforming the composite blank to form the unitary body side structural frame; wherein the unitary body side structural frame is a front frame and includes: a lower beam portion comprising a rocker portion and an upper beam portion comprising an A-pillar portion, a front pillar portion connecting the lower beam portion to the upper beam portion, and comprising a hinge pillar portion, and a rear pillar portion connecting the lower beam portion to the upper beam portion and comprising a B-pillar portion; and wherein one of the overlapping regions substantially corresponds to a transition between the rocker portion and a B-pillar portion and is arranged within the rocker portion. a lower beam portion comprising a rocker portion and an upper beam portion comprising an A-pillar portion, a front pillar portion connecting the lower beam portion to the upper beam portion, and comprising a hinge pillar portion, and a rear pillar portion connecting the lower beam portion to the upper beam portion and comprising a B-pillar portion; and wherein one of the overlapping regions substantially corresponds to a transition between the rocker portion and a B-pillar portion and is arranged within the rocker portion.
A display substrate, comprising: a flexible protection layer; and a sub-pixel structure configured to emit light, wherein the flexible protection layer comprises a boss, the sub-pixel structure is provided on a top surface of the boss, and the boss further comprises a plurality of lateral surfaces (1121, 1122, 1123, 1124) intersecting with the top surface, the display substrate further comprises a secondary sub-pixel structure configured to emit light and provided on at least one of the plurality of lateral surfaces (1121, 1122, 1123, 1124), characterized in that the display substrate is stretchable a flexible protection layer; and a sub-pixel structure configured to emit light, wherein the flexible protection layer comprises a boss, the sub-pixel structure is provided on a top surface of the boss, and the boss further comprises a plurality of lateral surfaces (1121, 1122, 1123, 1124) intersecting with the top surface, the display substrate further comprises a secondary sub-pixel structure configured to emit light and provided on at least one of the plurality of lateral surfaces (1121, 1122, 1123, 1124),
A method of determining whether an immunoglobulin isotype profile determined from a human subject-derived biological sample is indicative of a disease state, comprising: a. isolating and amplifying a plurality of RNA nucleic acids from the biological sample, wherein the RNA comprises Ig isotype constant region sequences, to generate amplicons that comprise immunoglobulin constant region sequences, wherein the biological sample comprises a plurality of different cell types including at least 10,000 B-cells; b. sequencing the amplicons in a massively parallel sequencing reaction using a sequencing technique that generates at least 10,000 sequence reads per run; c. analyzing sequence data from (b) by extracting Ig constant region sequences characteristic of each isotype, and comparing the number of isotype sequences for each isotype thereby determining the immunoglobulin isotype profile; and d. determining whether the immunoglobulin isotype profile is characteristic of a disease state, wherein the disease state is an autoimmune disease, an infectious disease, or cancer. a. isolating and amplifying a plurality of RNA nucleic acids from the biological sample, wherein the RNA comprises Ig isotype constant region sequences, to generate amplicons that comprise immunoglobulin constant region sequences, wherein the biological sample comprises a plurality of different cell types including at least 10,000 B-cells; b. sequencing the amplicons in a massively parallel sequencing reaction using a sequencing technique that generates at least 10,000 sequence reads per run; c. analyzing sequence data from (b) by extracting Ig constant region sequences characteristic of each isotype, and comparing the number of isotype sequences for each isotype thereby determining the immunoglobulin isotype profile; and d. determining whether the immunoglobulin isotype profile is characteristic of a disease state, wherein the disease state is an autoimmune disease, an infectious disease, or cancer.
An apparatus comprising: a housing member comprising a main acoustic back cavity adjacent a sound transducer and multiple distributed additional second cavities in the housing member spaced from the main acoustic back cavity; and an airflow spreader connected to the housing member, where the airflow spreader comprises a conduit system connecting the main acoustic back cavity with the multiple distributed additional second cavities. a housing member comprising a main acoustic back cavity adjacent a sound transducer and multiple distributed additional second cavities in the housing member spaced from the main acoustic back cavity; and an airflow spreader connected to the housing member, where the airflow spreader comprises a conduit system connecting the main acoustic back cavity with the multiple distributed additional second cavities.
A system, comprising: a data store to store data aggregated from a set of devices managed by a user; a package receipt module to receive an application package, the application package comprising an application generated by a service provider, and a review of the application from a review provider, the review describing an identity of a recipient to which the application is to transmit data; a validation module to ensure contents of the application package are properly credentialed; a review presentation module to provide a description of the application to the user generated from the review of the application, where the description of the application identifies data from the data store that will be affected by running the application, and further describes the identity of the recipient; and an application control module to control execution of the application responsive to the user approving execution of the application based on the description including at least the identity of the recipient. a data store to store data aggregated from a set of devices managed by a user; a package receipt module to receive an application package, the application package comprising an application generated by a service provider, and a review of the application from a review provider, the review describing an identity of a recipient to which the application is to transmit data; a validation module to ensure contents of the application package are properly credentialed; a review presentation module to provide a description of the application to the user generated from the review of the application, where the description of the application identifies data from the data store that will be affected by running the application, and further describes the identity of the recipient; and an application control module to control execution of the application responsive to the user approving execution of the application based on the description including at least the identity of the recipient.
Indexable insert comprising a base body having free surfaces and at least one cutting surface, characterized in that the cutting surface(s) of the base body, but not the free surfaces, are coated by a PVD process with a PVD layer made of a hard material and having a layer thickness greater than 50 μm, wherein the hard material is a nanolaminate comprising a plurality of distinguishable layers. characterized in that the cutting surface(s) of the base body, but not the free surfaces, are coated by a PVD process with a PVD layer made of a hard material and having a layer thickness greater than 50 μm, wherein the hard material is a nanolaminate comprising a plurality of distinguishable layers.
A rearview device comprising: a housing including a front side and a rear side opposite the front side; an electro-optic element operably coupled with the housing and engaged with the front side; characterised in that the rearview device further comprises: a trim bezel disposed on the rear side of the housing, behind the electro-optic element; a rear trim plate operably coupled with the rear side of the housing; and a peripheral gap defined between the rear trim plate and the rear side of the housing. a housing including a front side and a rear side opposite the front side; an electro-optic element operably coupled with the housing and engaged with the front side; characterised in that the rearview device further comprises: a trim bezel disposed on the rear side of the housing, behind the electro-optic element; a rear trim plate operably coupled with the rear side of the housing; and a peripheral gap defined between the rear trim plate and the rear side of the housing. a trim bezel disposed on the rear side of the housing, behind the electro-optic element; a rear trim plate operably coupled with the rear side of the housing; and a peripheral gap defined between the rear trim plate and the rear side of the housing.
A pressure tank comprising: - a tank body having at least one penetrating mortise and having a space formed inside the tank body; - a reinforcing member (19, 20) having a tenon portion formed at an end thereof so as to be directed in one direction, and having an electric field relaxation portion on a side opposite to the tenon portion, the reinforcing member (19, 20) being attached to an inner wall surface of the tank body with the tenon portion inserted into the mortise, and wherein the reinforcing member (19, 20) is plate-shaped and comprises a round shape at corner portions at an end on a side opposite to the tenon portions for forming at least one electric field relaxation portion; or wherein the reinforcing member (19, 20) is block-shaped and the tenon portions have substantially a quadrangle block shape and are formed on one surface of the reinforcing member (19, 20) having substantially a quadrangle rod shape, and corner portions of the reinforcing member (19, 20) on a side opposite to the tenon portions are rounded to form at least one electric field relaxation portion; and - a welding portion sealing and fixing the mortise and the tenon portion with no gap therebetween, the welding portion being formed by melting an end of the tenon portion from outside of the tank body. - a tank body having at least one penetrating mortise and having a space formed inside the tank body; - a reinforcing member (19, 20) having a tenon portion formed at an end thereof so as to be directed in one direction, and having an electric field relaxation portion on a side opposite to the tenon portion, the reinforcing member (19, 20) being attached to an inner wall surface of the tank body with the tenon portion inserted into the mortise, and wherein the reinforcing member (19, 20) is plate-shaped and comprises a round shape at corner portions at an end on a side opposite to the tenon portions for forming at least one electric field relaxation portion; or wherein the reinforcing member (19, 20) is block-shaped and the tenon portions have substantially a quadrangle block shape and are formed on one surface of the reinforcing member (19, 20) having substantially a quadrangle rod shape, and corner portions of the reinforcing member (19, 20) on a side opposite to the tenon portions are rounded to form at least one electric field relaxation portion; and - a welding portion sealing and fixing the mortise and the tenon portion with no gap therebetween, the welding portion being formed by melting an end of the tenon portion from outside of the tank body.
Assembly including an electrical connector device and an electrical wire, the electrical connector device comprising: - a terminal carrier including at least one contact cavity having a front stop, - a multi-contact rear body having at least one back support, - a terminal incorporated in the contact cavity of the terminal carrier, wherein the terminal is assembled to an electrical wire, and - a sealing member provided in the contact cavity of the terminal carrier wherein the sealing member extends lengthwise from the front stop of the contact cavity to the back support of the multi-contact rear body unitarily sealingly covering an assembly region of the terminal and the electrical wire, wherein the sealing member comprises a tube, characterized in that a front annular sealing is interposed between the tube and the terminal and a rear annular sealing is interposed between the tube and the electrical wire. - a terminal carrier including at least one contact cavity having a front stop, - a multi-contact rear body having at least one back support, - a terminal incorporated in the contact cavity of the terminal carrier, - a sealing member provided in the contact cavity of the terminal carrier
An energy integrated CO2 conversion process comprising the steps of a. a CO2 enrichment step whereby the CO2 concentration of a feed gas in the form of ambient air is increased by using an absorbent comprising an alkali metal salt or an alkaline earth salt, said enrichment step requiring an energy input; b. a CO2 conversion step whereby CO2 is converted to a liquid product by hydrogenation of carbon dioxide to methanol, said conversion step producing an energy output; whereby the energy output is used to partially offset the energy input, wherein step a. comprises a swing absorption/desorption process comprising a temperature swing, wherein step a. is operated at temperatures in a range of from -23.15°C to 176.85°C and wherein step b. is operated at temperatures in a range of from 151.85°C to 276.85°C wherein step b. is carried out in a reactor, and equilibrium shift is accomplished by condensing methanol inside the reactor, wherein the reactor comprises at least one reaction zone and at least one methanol condensation zone, the reaction zone or zones having a higher temperature than the methanol condensation zone or zones. a. a CO2 enrichment step whereby the CO2 concentration of a feed gas in the form of ambient air is increased by using an absorbent comprising an alkali metal salt or an alkaline earth salt, said enrichment step requiring an energy input; b. a CO2 conversion step whereby CO2 is converted to a liquid product by hydrogenation of carbon dioxide to methanol, said conversion step producing an energy output;
A method, comprising: (a) configuring a far user equipment, hereinafter far-UE, and a near user equipment, hereinafter near-UE, by a base station for multiuser superposition transmission, hereinafter MUST, in a mobile communication network; (b) generating a constellation map based on a first modulation order 2 n for the far-UE, a second modulation order 2 m for the near-UE, and a power split factor; (c) assigning a bit sequence for each constellation point on the constellation map to satisfy one or more conditions, wherein each bit sequence comprises n bits assigned for the far-UE concatenated with m bits assigned for the near-UE, wherein the assigning in (c) satisfies Gray coding rule where every two bit sequences corresponding to any adjacent constellation points differ in only one bit; (d) modulating and outputting a superposed signal to be transmitted to the far-UE and the near-UE over a time-frequency radio resource based on the assigned bit sequences, and characterized by further comprising (e) transmitting MUST-related information to the near-UE and the far-UE, wherein the MUST-related information comprises the power split factor. (a) configuring a far user equipment, hereinafter far-UE, and a near user equipment, hereinafter near-UE, by a base station for multiuser superposition transmission, hereinafter MUST, in a mobile communication network; (b) generating a constellation map based on a first modulation order 2 n for the far-UE, a second modulation order 2 m for the near-UE, and a power split factor; (c) assigning a bit sequence for each constellation point on the constellation map to satisfy one or more conditions, wherein each bit sequence comprises n bits assigned for the far-UE concatenated with m bits assigned for the near-UE, wherein the assigning in (c) satisfies Gray coding rule where every two bit sequences corresponding to any adjacent constellation points differ in only one bit; (d) modulating and outputting a superposed signal to be transmitted to the far-UE and the near-UE over a time-frequency radio resource based on the assigned bit sequences, and
A manufacturing method for a carbon fiber, characterized by comprising: performing an emulsification step that comprises uniformly mixing a silicone oil composition and an emulsifier to form an oiling agent, wherein the silicone oil composition comprises γ-divinyltriamine propylmethyldimethoxyl silane and N-(β-aminoethyl)-γ-aminopropylmethylbimethoxy silane; performing an oiling step that comprises soaking a carbon raw filament in the oiling agent, such that the oiling agent is adhered to a surface of the carbon raw filament to form a carbon fiber precursor; and performing a calcination step on the carbon fiber precursor, such that the carbon fiber is formed. performing an emulsification step that comprises uniformly mixing a silicone oil composition and an emulsifier to form an oiling agent, wherein the silicone oil composition comprises γ-divinyltriamine propylmethyldimethoxyl silane and N-(β-aminoethyl)-γ-aminopropylmethylbimethoxy silane; performing an oiling step that comprises soaking a carbon raw filament in the oiling agent, such that the oiling agent is adhered to a surface of the carbon raw filament to form a carbon fiber precursor; and performing a calcination step on the carbon fiber precursor, such that the carbon fiber is formed.