mhurhangee/ep-ind-claims huggingface dataset:
A method requesting a User Equipment, UE, not registered in an Internet Multimedia Sub-system, IMS, to perform an IMS session in an IMS, the method comprising steps of: a) initiating (506,1003) a Circuit Switching, CS domain call, by a UE A, to a UE B to request the UE B to conduct an IMS registration; b) sending (508,1009) to the UE A, by a UE B, state information indicating that the UE B has performed IMS registration or is going to perform IMS registration, or would not perform the IMS registration, using a CS call control message; c) determining, by anyone of the UE A and the UE B, whether to perform the IMS session and a process of terminal ability switching or not according to the IMS registration state of both of the UE A and UE B. a) initiating (506,1003) a Circuit Switching, CS domain call, by a UE A, to a UE B to request the UE B to conduct an IMS registration; b) sending (508,1009) to the UE A, by a UE B, state information indicating that the UE B has performed IMS registration or is going to perform IMS registration, or would not perform the IMS registration, using a CS call control message; c) determining, by anyone of the UE A and the UE B, whether to perform the IMS session and a process of terminal ability switching or not according to the IMS registration state of both of the UE A and UE B.
A method, comprising: monitoring, by a receiving device, two or more signals from a transmitting device; detecting, by the receiving device, that at least a first triggering condition is met and a second triggering condition is met; and sending, by the receiving device to the transmitting device, a triggering signal to trigger a beam failure recovery procedure based on the detecting, wherein the detecting that the first trigger condition is met comprises: determining that one or more first reliability measures satisfy the first triggering condition based on comparing the one or more first reliability measures with a first threshold, wherein the one or more first reliability measures indicate a result of decoding attempts of a channel corresponding to a first signal in the two or more signals, and wherein the detecting that the second trigger condition is met comprises: when one or more second signal qualities exceed a second threshold, determining that one or more second signal quality measures meet the second triggering condition, wherein a second signal in the two or more signals corresponds to the one or more second signal quality measures. monitoring, by a receiving device, two or more signals from a transmitting device; detecting, by the receiving device, that at least a first triggering condition is met and a second triggering condition is met; and sending, by the receiving device to the transmitting device, a triggering signal to trigger a beam failure recovery procedure based on the detecting, wherein the detecting that the first trigger condition is met comprises: determining that one or more first reliability measures satisfy the first triggering condition based on comparing the one or more first reliability measures with a first threshold, wherein the one or more first reliability measures indicate a result of decoding attempts of a channel corresponding to a first signal in the two or more signals, and wherein the detecting that the second trigger condition is met comprises: when one or more second signal qualities exceed a second threshold, determining that one or more second signal quality measures meet the second triggering condition, wherein a second signal in the two or more signals corresponds to the one or more second signal quality measures.
A method for producing D-galactose from a solution of dried whey permeate or a liquid whey permeate, comprising: (i) obtaining liquid whey permeate produced as by-product in the production of whey protein isolates; (ii) removing non-sugar materials from a solution of dried whey permeate obtained by concentrating and drying the liquid whey permeate obtained in (i), or from the liquid whey permeate obtained in (i), wherein said removing step comprises forming insoluble solid precipitates from the dissolved solution of dried whey permeate or the liquid whey permeate, through heat treatment at 40°C to 90°C, and/or adjusting the dissolved solution to a pH of 3 to 9, and removing the solid precipitates; (iii) hydrolyzing the product obtained in (ii) using a lactase; (iv) removing residual proteins, using activated carbon, from the product obtained in (iii); and (v) removing ash, salts or both from the product obtained in (iv). (i) obtaining liquid whey permeate produced as by-product in the production of whey protein isolates; (ii) removing non-sugar materials from a solution of dried whey permeate obtained by concentrating and drying the liquid whey permeate obtained in (i), or from the liquid whey permeate obtained in (i), wherein said removing step comprises forming insoluble solid precipitates from the dissolved solution of dried whey permeate or the liquid whey permeate, through heat treatment at 40°C to 90°C, and/or adjusting the dissolved solution to a pH of 3 to 9, and removing the solid precipitates; (iii) hydrolyzing the product obtained in (ii) using a lactase; (iv) removing residual proteins, using activated carbon, from the product obtained in (iii); and (v) removing ash, salts or both from the product obtained in (iv).
A variable stator vane assembly for use in a compressor section of a turbine engine, comprising: a plurality of movable stator vanes (350,450), the vanes including a wear resistant (360,460) coating; a steel stator casing supporting the vanes (350,450); bushing systems (310,410) positioned between the stator vanes (350,450) and the stator casings, each bushing system (310,410) comprising a ceramic bushing, the ceramic bushing selected from the group of ceramic materials consisting of silicon nitride, tungsten carbide and zirconium oxide; characterized in that the stator vane assembly further comprises: the wear resistant coating selected from the group consisting of tungsten carbide and modified tungsten carbide; and a topical friction modifier coating (370,470) applied between the wear resistant coated vanes and the bushing systems, wherein the topical friction modifier coating comprises a friction modifying agent and a binder, the binder being either a sodium silicate binder or an aluminum phosphate binder. a plurality of movable stator vanes (350,450), the vanes including a wear resistant (360,460) coating; a steel stator casing supporting the vanes (350,450); bushing systems (310,410) positioned between the stator vanes (350,450) and the stator casings, each bushing system (310,410) comprising a ceramic bushing, the ceramic bushing selected from the group of ceramic materials consisting of silicon nitride, tungsten carbide and zirconium oxide; characterized in that the stator vane assembly further comprises: the wear resistant coating selected from the group consisting of tungsten carbide and modified tungsten carbide; and a topical friction modifier coating (370,470) applied between the wear resistant coated vanes and the bushing systems, wherein the topical friction modifier coating comprises a friction modifying agent and a binder, the binder being either a sodium silicate binder or an aluminum phosphate binder.
A scroll compressor comprising a multi-start scroll arrangement comprising a fixed scroll having a fixed scroll plate and a fixed scroll wall and an orbiting scroll having an orbiting plate and an orbiting scroll wall (94, 96, 98), the scroll walls extending perpendicularly from the scroll plates towards the opposing scroll plate, the scroll walls intermeshing so that on relative orbital movement of the scrolls a volume of gas is trapped between the scrolls and pumped along a flow path from one or more inlets to an outlet, wherein multiple parallel pumping channels (82, 84) are formed between the opposing scroll plates and extend from the inlet or from respective inlets for pumping along first portions of the flow path and converge at a convergence point to form a single channel which extends to the outlet along a second portion of the flow path, and characterised in that the axial extent of said trapped volume between said scroll plates is less along the first portions of the flow path than the axial extent of said trapped volume along the second portion of the flow path.
A library of replicating entities, each entity comprises a recombinant vector comprising a randomized nucleic acid sequence, having the reading frame structure n [CorAA] m o, or o m [CorAA] n wherein each NXX is independently a codon encoding for any amino acid except cysteine, CorAA is a codon encoding for cysteine or at least one other amino acid, each NZZ is independently a codon encoding for any amino acid, and n is an integer from 0 to 40, m is an integer from 1 to 20, o is an integer from 1 to 40, and at least 20 percent of the replicating entities comprise a recombinant vector comprising a randomized nucleic acid sequence in which CorAA is a codon encoding for cysteine, wherein besides CorAA all other codons are randomized. each NXX is independently a codon encoding for any amino acid except cysteine, CorAA is a codon encoding for cysteine or at least one other amino acid, each NZZ is independently a codon encoding for any amino acid, and n is an integer from 0 to 40, m is an integer from 1 to 20, o is an integer from 1 to 40, and at least 20 percent of the replicating entities comprise a recombinant vector comprising a randomized nucleic acid sequence in which CorAA is a codon encoding for cysteine, wherein besides CorAA all other codons are randomized.
A component forming at least two inductances, the component comprising: - a structure made of a magnetically conductive material, comprising: a base, a cover, at least a first leg extending continuously between the base and the cover and at least two second legs, each second leg extending between the base and the cover so that a magnetic flux circulating between the base and the cover via this second leg crosses at least one air gap, and - an electrically conductive element, defining an electrical input for the component and an electrical output for the component, the electrically conductive element and the structure cooperating so as to define at least two inductances, each inductance exhibiting a magnetic flux circulating between the base and the cover: - in a first leg, and - in a second leg dedicated to said inductance, wherein the base and the cover do not belong to the same one-piece part. - a structure made of a magnetically conductive material, comprising: a base, a cover, at least a first leg extending continuously between the base and the cover and at least two second legs, each second leg extending between the base and the cover so that a magnetic flux circulating between the base and the cover via this second leg crosses at least one air gap, and - an electrically conductive element, defining an electrical input for the component and an electrical output for the component, the electrically conductive element and the structure cooperating so as to define at least two inductances, each inductance exhibiting a magnetic flux circulating between the base and the cover: - in a first leg, and - in a second leg dedicated to said inductance, wherein the base and the cover do not belong to the same one-piece part. - in a first leg, and - in a second leg dedicated to said inductance,
A device for solidifying a coating layer hot deposited on a wire, said device extending along a longitudinal direction defining the path of passage of said wire, the device comprising [a] a cooling liquid injection chamber with a cooling liquid inlet and a wire inlet, said injection chamber being cylindrical, [b] a cooling chamber with a cooling liquid outlet and a wire outlet, [c] a partition arranged between said injection and cooling chambers (2, 8), comprising a wire passage communicating said injection chamber and said cooling chamber with one another, [d] a conduit for separating said wire, extending between said wire inlet and said wire passage, characterized in that [e] said partition comprises a plurality of channels fluidically connecting said injection chamber with said cooling chamber, said plurality of channels leading into the center of said wire passage in an eccentric manner such that each channel of said plurality of channels seen on a plane perpendicular to said longitudinal direction has a first side wall and a second side wall, said first and second side walls (26, 28) being configured such that at least one of them is eccentric to said longitudinal axis, and the other one is at least radial, the prolongation of said first and second side walls (26, 28) being on one and the same side of said longitudinal axis and [f] said plurality of channels being inclined forming an angle (α) with respect to said longitudinal direction which is comprised between 10° and 40° for aiming a jet of cooling liquid on said wire in the direction from said injection chamber towards said cooling chamber. [a] a cooling liquid injection chamber with a cooling liquid inlet and a wire inlet, said injection chamber being cylindrical, [b] a cooling chamber with a cooling liquid outlet and a wire outlet, [c] a partition arranged between said injection and cooling chambers (2, 8), comprising a wire passage communicating said injection chamber and said cooling chamber with one another, [d] a conduit for separating said wire, extending between said wire inlet and said wire passage, characterized in that [e] said partition comprises a plurality of channels fluidically connecting said injection chamber with said cooling chamber, said plurality of channels leading into the center of said wire passage in an eccentric manner such that each channel of said plurality of channels seen on a plane perpendicular to said longitudinal direction has a first side wall and a second side wall, said first and second side walls (26, 28) being configured such that at least one of them is eccentric to said longitudinal axis, and the other one is at least radial, the prolongation of said first and second side walls (26, 28) being on one and the same side of said longitudinal axis and [f] said plurality of channels being inclined forming an angle (α) with respect to said longitudinal direction which is comprised between 10° and 40° for aiming a jet of cooling liquid on said wire in the direction from said injection chamber towards said cooling chamber.
Ultra High Purity carbon dioxide purification system (10; 20) having an inlet (16; 261) and an outlet (17; 272), characterized in that its upper portion proximate to said inlet (16; 261) is at least partially filled with supported nickel oxide and its lower portion proximate to said outlet (17; 272) is at least partially filled with supported palladium oxide, and wherein said upper and lower portions of the purification system have a physical separation but are in fluid communication.
Equipment for handling postal articles comprising a sorting machine with a feed inlet and sorting outlets, and storage trays for transporting the sorted articles from the sorting outlets and the feed inlet of the machine, said equipment being characterized in that it further comprises shuttle robot carts suitable for moving the trays under the control of a monitoring and control unit, said unit being arranged to cause the shuttle robot carts with full trays of articles to move from the sorting outlets to the feed inlet and to cause the shuttle robot carts with empty trays to move past the sorting outlets in a target-seeking mode where a plurality of shuttle robot carts follow an operator (O1, O2) in a convoy (6A, 6B) as the operator is walking past the sorting outlets of the machine.
Use of a composition comprising at least one amidoamine, at least one sulfur synergist, and at least one phosphate ester, as corrosion inhibitor in a heavy brine having a density of 1.15 to 2.65 g/cm 3.
The use of a fuel composition having a boiling range of between 95 to 440 degrees Fahrenheit (35-227°C) wherein the fuel composition has (a) a total sum of n-paraffins and naphthenes content of at least 15 volume percent and (b) a RON of 85 or less, as a fuel in an advanced combustion engine operated in partially premixed combustion mode.
A dipole antenna array including at least a first and second dipole antenna sub-array, wherein each dipole antenna sub-array includes a plurality of co-planar antenna units, each antenna unit including a pair of dipole radiating elements (44a, 44b) and a balun having an output line (46c, 46d) for providing output electrical signals to the pair of dipole radiating elements (44a, 44b), the at least first and second dipole antenna sub-arrays (40, 50) being in a mutually orthogonal arrangement, and in which the first and second dipole antenna sub-arrays (40, 50) are separate elements conjoined together in the mutually orthogonal arrangement and in which the first and second dipole antenna sub-arrays (40, 50) are slotted together in the mutually orthogonal arrangement using a plurality of slots (48, 52) formed in at least one of the first and second dipole antenna sub-arrays (40, 50) and in which the first dipole antenna sub-array has slots formed therein, in which each slot (48, 52) extends between the dipole radiating elements (44a, 44b) of an antenna unit and in which each antenna unit which has a slot (48, 52) extending between its dipole radiating elements (44a, 44b) has its balun arranged so that at least the output line (46c, 46d) is inclined with respect to the slot (48, 52) and wherein each balun is displaced laterally by half of an antenna unit spacing in order to avoid orthogonal sub-arrays dissecting the balun, and wherein the baluns each include a slotline which is coupled to an input line and the output line (46c, 46d).
A sanitary napkin comprising a fluid permeable topsheet, a fluid permeable backsheet, and an absorbent core disposed therebetween, wherein, a. said absorbent core comprises relatively hydrophilic material defining a core outer periphery; b. said topsheet and said backsheet comprise relatively hydrophobic nonwoven material, at least one of said topsheet and said backsheet defining a sanitary napkin outer periphery; c. said sanitary napkin further comprises a fluid impermeable barrier between said backsheet and said absorbent core; characterized in that, d. said sanitary napkin outer periphery is substantially larger than said core outer periphery, the area between said core outer periphery and said sanitary napkin outer periphery being a breathable zone, the breathable zone representing at least 25% of the overall surface area of the sanitary napkin and said fluid impermeable barrier being disposed within said core outer periphery. a. said absorbent core comprises relatively hydrophilic material defining a core outer periphery; b. said topsheet and said backsheet comprise relatively hydrophobic nonwoven material, at least one of said topsheet and said backsheet defining a sanitary napkin outer periphery; c. said sanitary napkin further comprises a fluid impermeable barrier between said backsheet and said absorbent core; characterized in that, d. said sanitary napkin outer periphery is substantially larger than said core outer periphery, the area between said core outer periphery and said sanitary napkin outer periphery being a breathable zone, the breathable zone representing at least 25% of the overall surface area of the sanitary napkin and said fluid impermeable barrier being disposed within said core outer periphery.
A control system flexibly adapted for retrofit use with multiple types of pre-existing boiler-based heating systems, the control system comprising: a boiler control device for coupling to a boiler; a thermostat device having a processor and a memory and being in wireless communication with the boiler control device; and a user-movable stand for holding the thermostat device, wherein the thermostat device is configured to: learn a heating schedule according to an automated schedule learning algorithm that processes inputs including user inputs and occupancy sensing inputs and derives schedule-affecting parameters therefrom that are processed to compute the heating schedule; determine whether the thermostat has been moved to a new location and to determine one or more parameters associated with the new location; and establish (4004, 4008) a new heating schedule for the new location, wherein zero or more of said previously measured schedule-affecting parameters are re-used based on the one or more parameters associated with the new location. a boiler control device for coupling to a boiler; a thermostat device having a processor and a memory and being in wireless communication with the boiler control device; and a user-movable stand for holding the thermostat device, wherein the thermostat device is configured to: learn a heating schedule according to an automated schedule learning algorithm that processes inputs including user inputs and occupancy sensing inputs and derives schedule-affecting parameters therefrom that are processed to compute the heating schedule; determine whether the thermostat has been moved to a new location and to determine one or more parameters associated with the new location; and establish (4004, 4008) a new heating schedule for the new location, wherein zero or more of said previously measured schedule-affecting parameters are re-used based on the one or more parameters associated with the new location. learn a heating schedule according to an automated schedule learning algorithm that processes inputs including user inputs and occupancy sensing inputs and derives schedule-affecting parameters therefrom that are processed to compute the heating schedule; determine whether the thermostat has been moved to a new location and to determine one or more parameters associated with the new location; and establish (4004, 4008) a new heating schedule for the new location, wherein zero or more of said previously measured schedule-affecting parameters are re-used based on the one or more parameters associated with the new location.
Use of a mouse for producing immunoglobulin (Ig) light chains in B cells having a normal proportion of mature splenic B cells, wherein the mouse expresses Ig light chains bearing human lambda variable regions and immunoglobulin light chains bearing human kappa variable regions, wherein more than 30 % of the light chains expressed by the mouse comprise lambda variable regions, wherein the mouse genome comprises an Ig gene segment repertoire produced by targeted insertion of human Ig gene segments, the genome comprising human Vλ and Jλ gene segments provided by insertion into one endogenous kappa light chain locus of the mouse, between the 3' most endogenous Jκ and the mouse Cκ, upstream of said constant region, wherein the human Vλ and Jλ insertion comprises at least human V gene segments Vλ3-27, Vλ3-25, Vλ2-23, Vλ3-22, Vλ3-21, Vλ3-19, Vλ2-18, Vλ3-16, Vλ2-14, Vλ3-12, Vλ2-11, Vλ3-10, Vλ3-9, Vλ2-8, Vλ4-3 and Vλ3-1, human J and C gene segments Jλ1-Cλ1, Jλ2-Cλ2, Jλ3-Cλ3, Jλ6-Cλ6 and Jλ7-Cλ7 and a human Eλ enhancer, the human V gene segments being 5' of the human J gene segments, the genome comprising human Vκ and Jκ gene segments provided by insertion into the other endogenous kappa light chain locus of the mouse, between the 3' most endogenous Jκ and the mouse Cκ, upstream of said kappa constant region, wherein the human Vκ and Jκ insertion comprises at least human V gene segments Vκ2-40, Vκ1-39, Vκ1-33, Vκ2-30, Vκ2-29, Vκ2-28, Vκ1-27, Vκ2-24, Vκ3-20, Vκ1-17, Vκ1-16, Vκ3-15, Vκ1-13, Vκ1-12, Vκ3-11, Vκ1-9, Vκ1-8, Vκ1-6, Vκ1-5, Vκ5-2 and Vκ4-1 and human J gene segments Jκ1, Jκ2, Jκ3, Jκ4 and Jκ5, the human V gene segments being 5' of the human J gene segments, wherein the endogenous kappa VJ has been inactivated and the endogenous lambda loci are intact, wherein the endogenous kappa enhancers iEκ and 3'Eκ are maintained and wherein at least 50 % of total splenic B cells produced by the mouse are mature B cells.