mhurhangee/ep-ind-claims huggingface dataset:
A Staphylococcus bacteriophage K mutant comprising point mutations corresponding to C18554T, G40894A, G78197A, G99388C, G102111A, T103720C, C105975T and A109329G in the nucleotide sequence of wild-type Staphylococcus bacteriophage K Accession number: GenBank AY176327.1.
A method performed by a Central Unit - Control Plane, CU-CP, (700; 122) of a radio access network, RAN, node operating in a communication network to dynamically schedule user-plane communications, the CU-CP (700; 122) communicatively coupled to a Distributed Unit, DU, (900; 126a; 126b) and a Central Unit - User Plane, CU-UP, (800; 124) of the RAN node (600; 120), the method comprising: providing indication of one or more available user plane, UP, paths to at least one network element, the at least one network element comprising one or more of a user equipment, UE (500; 250; 1310a; 1310b; 1691; 1692), the CU-UP (800; 124) of the RAN node (600; 120), and the DU (900; 126a; 126b) of the RAN node (600; 120), wherein when the at least one network element comprises the UE (500; 250; 1310a; 1310b; 1691; 1692), providing the indication of the one or more available UP paths to the UE (500; 250; 1310a; 1310b; 1691; 1692) comprises transmitting a first signal comprising the indication of the one or more available UP paths to the DU (126a, 126b) causing the DU (126a, 126b) to provide the indication of the one or more available UP paths to the UE (500; 250; 1310a; 1310b; 1691; 1692); and providing indication of a scheduling strategy for data transmissions to the at least one network element, wherein when the at least one network element comprises the UE (500; 250; 1310a; 1310b; 1691; 1692), providing the indication of the scheduling strategy for data transmissions to the UE (500; 250; 1310a; 1310b; 1691; 1692) comprises transmitting a second signal comprising the indication of the scheduling strategy to the DU (126a, 126b) causing the DU (126a, 126b) to provide the indication of the scheduling strategy to the UE (500; 250; 1310a; 1310b; 1691; 1692). providing indication of one or more available user plane, UP, paths to at least one network element, the at least one network element comprising one or more of a user equipment, UE (500; 250; 1310a; 1310b; 1691; 1692), the CU-UP (800; 124) of the RAN node (600; 120), and the DU (900; 126a; 126b) of the RAN node (600; 120), wherein when the at least one network element comprises the UE (500; 250; 1310a; 1310b; 1691; 1692), providing the indication of the one or more available UP paths to the UE (500; 250; 1310a; 1310b; 1691; 1692) comprises transmitting a first signal comprising the indication of the one or more available UP paths to the DU (126a, 126b) causing the DU (126a, 126b) to provide the indication of the one or more available UP paths to the UE (500; 250; 1310a; 1310b; 1691; 1692); and providing indication of a scheduling strategy for data transmissions to the at least one network element, wherein when the at least one network element comprises the UE (500; 250; 1310a; 1310b; 1691; 1692), providing the indication of the scheduling strategy for data transmissions to the UE (500; 250; 1310a; 1310b; 1691; 1692) comprises transmitting a second signal comprising the indication of the scheduling strategy to the DU (126a, 126b) causing the DU (126a, 126b) to provide the indication of the scheduling strategy to the UE (500; 250; 1310a; 1310b; 1691; 1692).
A sole mold for molding a piece of sports apparel, wherein the piece of sports apparel is a shoe sole, the mold comprising: a. a mixture of a polymer material and a filler material, wherein the mixture comprises the filler material in an amount of 10 to 40 % by volume and wherein the polymer material comprises a thermoplastic material, b. wherein the filler material is adapted to allow a heating of the piece of sports apparel inside the mold by means of an electromagnetic field; and c. wherein the filler material is adapted to increase the permittivity of the mold compared to the piece of sports apparel. a. a mixture of a polymer material and a filler material, wherein the mixture comprises the filler material in an amount of 10 to 40 % by volume and wherein the polymer material comprises a thermoplastic material, b. wherein the filler material is adapted to allow a heating of the piece of sports apparel inside the mold by means of an electromagnetic field; and c. wherein the filler material is adapted to increase the permittivity of the mold compared to the piece of sports apparel.
Multi-beam antenna system configured to cover a geographical zone decomposed into a plurality of spots, the system comprising two antennas (501,503,502,504,601,602)for reception and/or for transmission, wherein the antennas are configured so as to cover the said zone with two grids of spots, each antenna comprising a plurality of radiating elements each producing a spot, characterised in that the radiating elements are arranged so that several spots of the first grid, that are generated by a first antenna (501,503,601), are aligned along two substantially orthogonal axes, so that points exist that are situated substantially equidistantly from the centres of four adjacent spots, several spots of the second grid, that are generated by the second antenna (502,504,602), being centred on the said points.
Laser-sintering process, characterized in that the process uses a crosslinked powder material, where the powder material comprises a component A with at least two dienophilic double bonds and a component B with at least two diene functionalities, where at least one of these two components A or B has more than two of the respective functionality, characterized in that this powder material is crosslinked by means of a Diels-Alder reaction or of a hetero-Diels-Alder reaction at a temperature 1, and is provided in the form of a powder bed, and then the crosslinking of said powder material is selectively reversed to an extent of at least 50% at a temperature 2 that is higher than temperature 1.
A container with a bottom resistant to opening comprising a locking closure system for its bottom, said locking closure system comprising a locking slot and a pair of coupling tabs (21, 27), wherein: - the locking slot is formed on a closing tab of the bottom of the container, and is suitable for being engaged, when the container is closed, by said pair of coupling tabs (21, 27); - the coupling tabs (21, 27) are formed on one edge (17b, 24a) of two bottom closing flaps (13a, 14a) of the container; and - the two bottom closing flaps (13a, 14a) of the container are suitable for overlapping at least partially so as to close the container at the bottom, characterised in that the bottom closing flaps (13a, 14a) comprise, on an edge opposite to said edge on which the coupling tabs (21, 27) are formed, two contrasting tabs (19, 28) suitable for acting as an abutment for said coupling tabs (21, 27) against a crease line of the bottom. - the locking slot is formed on a closing tab of the bottom of the container, and is suitable for being engaged, when the container is closed, by said pair of coupling tabs (21, 27); - the coupling tabs (21, 27) are formed on one edge (17b, 24a) of two bottom closing flaps (13a, 14a) of the container; and - the two bottom closing flaps (13a, 14a) of the container are suitable for overlapping at least partially so as to close the container at the bottom,
A system for curing or flavouring foodstuff comprising - a smoker unit capable of generating smoke, wherein the smoker unit comprises a heating chamber; and - a household appliance, particularly an oven, comprising a cavity for storing foodstuff and/or a food container, the cavity having an outlet opening for supplying the smoke to the cavity, wherein the smoker unit is mounted to said household appliance for supplying smoke to said outlet opening; and wherein the system further comprises an electric fan arranged for supplying the smoke generated by the smoker unit to the outlet opening, characterised in that the system comprises a food container and a hose, wherein a first end of said hose is connected to the outlet opening and a second end of said hose is connected to the food container, and wherein the food container comprises a cooking vessel and a lid, and wherein the lid is sealing the cooking vessel in an essentially airtight manner, and wherein the food container, preferably the lid, comprises an adapter configured to be connected to the second end of the hose. - a smoker unit capable of generating smoke, wherein the smoker unit comprises a heating chamber; and - a household appliance, particularly an oven, comprising a cavity for storing foodstuff and/or a food container, the cavity having an outlet opening for supplying the smoke to the cavity, wherein the smoker unit is mounted to said household appliance for supplying smoke to said outlet opening; and wherein the system further comprises an electric fan arranged for supplying the smoke generated by the smoker unit to the outlet opening,
A humanized anti-CD19 binding domain that is a humanized antibody or fragment thereof, said humanized anti-CD19 binding domain comprising a light chain complementarity determining region (LC CDR) 1, LC CDR2 and LC CDR3 and a heavy chain complementarity determining region (HC CDR) 1, HC CDR2 and HC CDR3 of any anti-CD19 binding domain amino acid sequence in SEQ ID NO:1-12, wherein said CDRs are defined according to Kabat and/or Chothia, and said humanized anti-CD19 binding domain: (i) is an scFv having a thermal stability more than 5, 5.5, 6, 6.5, 7, 7.5, 8, 8.5, 9, 9.5, 10, 11, 12, 13, 14, or 15 degrees Celsius greater than that of the scFv of SEQ ID NO:59; and/or (ii) retains the affinity for human CD19 of the scFv having the amino acid sequence of SEQ ID NO:59. (i) is an scFv having a thermal stability more than 5, 5.5, 6, 6.5, 7, 7.5, 8, 8.5, 9, 9.5, 10, 11, 12, 13, 14, or 15 degrees Celsius greater than that of the scFv of SEQ ID NO:59; and/or (ii) retains the affinity for human CD19 of the scFv having the amino acid sequence of SEQ ID NO:59.
A method comprising, for a particle size distribution of a plurality of particles of a nonuniform solid phase material, wherein the PSD is for a group of particles having a volume percent equal to 100 vol%, removing a top volume percentage and a bottom volume percentage from the PSD to obtain a true PSD; characterised in that the PSD is determined by a particle size analyzer; the top volume percentage comprises the particles in at least the highest 0.5 vol% of the particles of the PSD and the bottom volume percentage comprises the particles in at least the lowest 2.5 vol% of the particles of the PSD; and the method further comprises calculating a Z-factor, wherein the term Z-factor is a numerical value representing the modality of the particle size distribution of a particulate solid material, wherein the Z-factor is calculated using an equation wherein the Z-factor equals the kurtosis minus the square of the skewness, wherein the kurtosis and the skewness are calculated for the true PSD. the PSD is determined by a particle size analyzer; the top volume percentage comprises the particles in at least the highest 0.5 vol% of the particles of the PSD and the bottom volume percentage comprises the particles in at least the lowest 2.5 vol% of the particles of the PSD; and the method further comprises calculating a Z-factor, wherein the term Z-factor is a numerical value representing the modality of the particle size distribution of a particulate solid material, wherein the Z-factor is calculated using an equation wherein the Z-factor equals the kurtosis minus the square of the skewness, wherein the kurtosis and the skewness are calculated for the true PSD.
Optical link comprising N optical fibers, with N ≥ 2, N being an integer, each optical fiber comprising an optical core and an optical cladding surrounding the optical core, the optical core having a single α i graded-index profile with α i ≥ 1, α i being a non-dimensional parameter that defines the index profile shape of the optical core, and the optical core having a radius R 1 i and a maximal refractive index n 0 i, where i ∈ 1; N is an index designating said optical fiber, said optical cladding having at its outer edge a refractive index n Cli, wherein said optical cladding comprises a region of depressed refractive index n trenchi, called a trench, surrounding the optical core, said trench having an inner radius R 2 i, with R 2 i ≥ R 1 i, and an outer radius R 3 i, with R 3 i > R 2 i, said optical link being characterized in that an average optical core radius R 1 link for said optical link, expressed in microns, satisfies a criterion C of quality of optical communications defined by the following equation: C = 10. Max | DMG D link | R 1 link 2. D n 1 link 3 where DMGD link is the Differential Mode Group Delay between two guided modes in said optical link, where Max|DMGD link | is the absolute maximum value of Differential Mode Group Delay between any combination of guided modes in said optical link, expressed in ps/km, where R 1 link = ∑ i = 1 N R 1 i L i ∑ i = 1 N L i with L i a length of optical fiber i in said link, and where D n 1 link = ∑ i = 1 N D n 1 i L i ∑ i = 1 N L i with Dn 1 i = n 0 i - n Cli is the core-cladding index difference for optical fiber i, at λ = λ C, where λ c is a central transmission wavelength of an operating band for which said optical fiber is intended, in that, for at least one optical fiber i in said link, said optical core radius R 1 i is chosen such that R 1 i ≥ 13,5 μm and for all optical fibers i ∈ 1; N in said link, said length L i are chosen such that C ≤ 18, and in that said optical link guides at least 4 LP modes.
A method of providing a user interface for simulating a page-turn of a 3-dimensional multiple-page document, said method comprising the steps of: displaying the multiple-page document on a display to a user, wherein the multiple-page document is displayed as a double-page spread of a first page and a second page, wherein the double-page spread comprises a shared page boundary between the first and second pages; receiving a request for the page-turn on the multiple-page document, wherein receiving the request for the page-turn comprises receiving a user specified pointer to a first location on the second page boundary; defining a first turning boundary spanning the first and second pages, wherein the first turning boundary is defined by an arc having a radius defined by a distance between the first location and a top location (C top) of the shared page boundary, wherein the top location is the center of the arc defining the first turning boundary; defining a second turning boundary spanning the first and second pages, wherein the second turning boundary is defined by an arc having a radius defined by a distance between the first location and a bottom location (C bottom) of the shared page boundary, wherein the bottom location is the center of the arc defining the second turning boundary, wherein the first and second turning boundaries intersect to define a turning area; tracing a movement of the pointer from the first location to a second location (A') within the turning area; and providing a visual effect of bending the second page boundary along the traced movement from the first location to the second location. displaying the multiple-page document on a display to a user, wherein the multiple-page document is displayed as a double-page spread of a first page and a second page, wherein the double-page spread comprises a shared page boundary between the first and second pages; receiving a request for the page-turn on the multiple-page document, wherein receiving the request for the page-turn comprises receiving a user specified pointer to a first location on the second page boundary; defining a first turning boundary spanning the first and second pages, wherein the first turning boundary is defined by an arc having a radius defined by a distance between the first location and a top location (C top) of the shared page boundary, wherein the top location is the center of the arc defining the first turning boundary; defining a second turning boundary spanning the first and second pages, wherein the second turning boundary is defined by an arc having a radius defined by a distance between the first location and a bottom location (C bottom) of the shared page boundary, wherein the bottom location is the center of the arc defining the second turning boundary, wherein the first and second turning boundaries intersect to define a turning area; tracing a movement of the pointer from the first location to a second location (A') within the turning area; and providing a visual effect of bending the second page boundary along the traced movement from the first location to the second location.
Battery gripper for picking up by suction and handling starter batteries of in particular motor vehicles, comprising a housing in which a vacuum chamber to which a vacuum can be applied is provided and which comprises suction openings (84, 86) on the suction side thereof that faces the starter battery to be picked up by suction, wherein the suction side is associated with a flexible lining for contacting the starter battery, wherein the suction side and/or the flexible lining has a T-shaped cross section, wherein the cross section has a bar section and a web section which extends transversely to said bar section such that the web section extends between the battery poles (68, 70) of the starter battery when said starter battery is picked up by suction on the battery gripper.
A method for improving the mechanical and hydraulic characteristics of foundation grounds of existing built structures, characterized in that it comprises: - a first step of two-dimensional or three-dimensional sensing of at least one portion of the built structure; - a step of identifying at least one region of intervention in the foundation ground beneath said at least one portion sensed in said first sensing step; - a step of injecting, through a plurality of holes provided at least at a part of said intervention region, a cement or synthetic mix; - second steps of two-dimensional or three-dimensional sensing, mutually spaced in time, of said at least one portion during said injection step; - a step of interrupting said injection step on the basis of the information gathered during second steps of two-dimensional or three-dimensional sensing of said at least one portion. - a first step of two-dimensional or three-dimensional sensing of at least one portion of the built structure; - a step of identifying at least one region of intervention in the foundation ground beneath said at least one portion sensed in said first sensing step; - a step of injecting, through a plurality of holes provided at least at a part of said intervention region, a cement or synthetic mix; - second steps of two-dimensional or three-dimensional sensing, mutually spaced in time, of said at least one portion during said injection step; - a step of interrupting said injection step on the basis of the information gathered during second steps of two-dimensional or three-dimensional sensing of said at least one portion.
A method for forming a superconducting connection structure between at least two superconducting wires, each wire comprising at least one superconducting filament, said method comprising the steps of: - inserting end pieces of each of the superconducting wires into grooves of a wire holder, wherein the grooves are of the same cross sectional shape as the superconducting wires and extend in essentially parallel directions, - positioning the end pieces and the wire holder inside a cavity of a pressing tool, - positioning a contacting material comprising MgB 2 and/or a precursor material for MgB 2 inside the cavity, - applying pressure to the contacting material through the pressing tool and - heating the contacting material inside the cavity, - removing the superconducting connection structure, which comprises the compressed contacting material connecting the superconducting wires and the wire holders, from the pressing tool, while the pressing tool is still hot, wherein pressure and heat are applied simultaneously at least during part of the process, wherein the contacting material comprises a powder, and wherein a near-uniform pressure is applied to the pressing tool in order to compensate for a volume loss of the powder during the heating. - inserting end pieces of each of the superconducting wires into grooves of a wire holder, wherein the grooves are of the same cross sectional shape as the superconducting wires and extend in essentially parallel directions, - positioning the end pieces and the wire holder inside a cavity of a pressing tool, - positioning a contacting material comprising MgB 2 and/or a precursor material for MgB 2 inside the cavity, - applying pressure to the contacting material through the pressing tool and - heating the contacting material inside the cavity, - removing the superconducting connection structure, which comprises the compressed contacting material connecting the superconducting wires and the wire holders, from the pressing tool, while the pressing tool is still hot,
A loop-antenna comprising: a feed-point (208, 210, 308, 310); and a transformer connected to the feed-point, characterised in that: the transformer is configured to apply a variable feed-point impedance to the feed-point between 50 ohms and 5K ohms, such that applying a first feed-point impedance produces a horizontal polarization to the loop antenna, and such that applying a second feed-point impedance produces a vertical polarization to the loop antenna. a feed-point (208, 210, 308, 310); and a transformer connected to the feed-point, characterised in that: the transformer is configured to apply a variable feed-point impedance to the feed-point between 50 ohms and 5K ohms, such that applying a first feed-point impedance produces a horizontal polarization to the loop antenna, and such that applying a second feed-point impedance produces a vertical polarization to the loop antenna. the transformer is configured to apply a variable feed-point impedance to the feed-point between 50 ohms and 5K ohms, such that applying a first feed-point impedance produces a horizontal polarization to the loop antenna, and such that applying a second feed-point impedance produces a vertical polarization to the loop antenna.
Microdissection method, comprising the steps providing a carrier device (1; 51; 61) having a cuttable layer (3; 53; 63) which absorbs laser light and a carrier means (2; 52; 62) for carrying the cuttable layer which absorbs laser light, applying a preparation, in particular a biological preparation, to the cuttable layer, choosing a target zone (4A-C; 14; 24A-B) of the preparation that is to be separated, and cutting the preparation and the cuttable layer along an edge portion of the target zone by laser irradiation in order to divide the cuttable layer into at least one portion (3A-C) that has been cut out and into a portion that has not been cut out, characterised by removal of the portion of the cuttable layer that has not been cut out from the carrier means (2; 52; 62).