mhurhangee/ep-ind-claims huggingface dataset:
A device for producing a lens wafer comprising a multiplicity of microlenses with: - a punching tool with a) a first punch with a first embossing side comprising first embossing structures and b) a second punch with a second embossing side comprising second embossing structures, wherein at least one of the punches (1, 2) comprises at its embossing side (6, 7) a projection at least partially limiting the embossing space at the periphery, - a first holding fixture for holding the first punch at a first holding side facing away from the first embossing side and - a second holding fixture for holding the second punch at a second holding side facing away from the second embossing side, characterised in that a controlled movement of the second punch in an X-Y plane and in a Z-direction running orthogonal thereto as well as a controlled rotation about an axis of rotation running parallel to the Z-direction can be performed for the alignment of the first punch with the second punch, and wherein the alignment can be controlled with the aid of the position of the punches (1, 2), wherein the first punch comprises first alignment marks (4a, 4i) for the alignment of the first punch with respect to second alignment marks (5a, 5i) of the second punch. - a punching tool with a) a first punch with a first embossing side comprising first embossing structures and b) a second punch with a second embossing side comprising second embossing structures, wherein at least one of the punches (1, 2) comprises at its embossing side (6, 7) a projection at least partially limiting the embossing space at the periphery, a) a first punch with a first embossing side comprising first embossing structures and b) a second punch with a second embossing side comprising second embossing structures, wherein at least one of the punches (1, 2) comprises at its embossing side (6, 7) a projection at least partially limiting the embossing space at the periphery, - a first holding fixture for holding the first punch at a first holding side facing away from the first embossing side and - a second holding fixture for holding the second punch at a second holding side facing away from the second embossing side, characterised in that
A magnetism detection device (1; 101), comprising: a transmission line set (2; 102) comprising a transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720), the transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720) comprising at least one first conductor (21; 221; 321; 421; 521; 621; 721), the at least one first conductor (21; 221; 321; 421; 521; 621; 721) being linear and comprising a magnetic material; and a detector (30; 130) configured to: input, from a first end of the transmission line set (2; 102), a pulse signal as a first incident wave; detect, at the first end, a first reflected wave of the first incident wave; input, from a second end opposite to the first end, a pulse signal as a second incident wave; detect, at the second end, a second reflected wave of the second incident wave; and detect a strength of a magnetic field applied to the transmission line set (2; 102) based on compositing of the first reflected wave and the second reflected wave. a transmission line set (2; 102) comprising a transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720), the transmission line (20; 120A, 120B; 220; 320; 420; 520; 620; 720) comprising at least one first conductor (21; 221; 321; 421; 521; 621; 721), the at least one first conductor (21; 221; 321; 421; 521; 621; 721) being linear and comprising a magnetic material; and a detector (30; 130) configured to: input, from a first end of the transmission line set (2; 102), a pulse signal as a first incident wave; detect, at the first end, a first reflected wave of the first incident wave; input, from a second end opposite to the first end, a pulse signal as a second incident wave; detect, at the second end, a second reflected wave of the second incident wave; and detect a strength of a magnetic field applied to the transmission line set (2; 102) based on compositing of the first reflected wave and the second reflected wave. input, from a first end of the transmission line set (2; 102), a pulse signal as a first incident wave; detect, at the first end, a first reflected wave of the first incident wave; input, from a second end opposite to the first end, a pulse signal as a second incident wave; detect, at the second end, a second reflected wave of the second incident wave; and detect a strength of a magnetic field applied to the transmission line set (2; 102) based on compositing of the first reflected wave and the second reflected wave.
A process for the extraction of furfural from a composition comprising furfural, water, at least one organic acid and a solvent mixture comprising an aromatic solvent and an oxygenate solvent wherein each of the solvents in the solvent mixture has a boiling point higher than of furfural, said process comprising: (a) subjecting the composition to a first liquid-liquid separation step to provide a first organic phase comprising the solvent mixture, a portion of the furfural and a portion of the at least one organic acid, and a first aqueous phase comprising the remainder of the furfural, and the remainder of the at least one organic acid; (b) subjecting the first organic phase to a first distillation step to provide a first top stream comprising furfural and a portion of the at least one organic acid, and a first bottom stream comprising the solvent mixture; (c) subjecting the first top stream from step (b) to a second liquid-liquid separation step to provide a second top stream enriched with furfural and a portion of the at least one organic acid, and a second bottom stream comprising the remainder of the furfural and a portion of the at least one organic acid; and (d) subjecting the second top stream from step (c) to a second distillation step to provide a third top stream comprising a furfural-water azeotrope and a portion of the at least one organic acid, and a third bottom stream comprising furfural. (a) subjecting the composition to a first liquid-liquid separation step to provide a first organic phase comprising the solvent mixture, a portion of the furfural and a portion of the at least one organic acid, and a first aqueous phase comprising the remainder of the furfural, and the remainder of the at least one organic acid; (b) subjecting the first organic phase to a first distillation step to provide a first top stream comprising furfural and a portion of the at least one organic acid, and a first bottom stream comprising the solvent mixture; (c) subjecting the first top stream from step (b) to a second liquid-liquid separation step to provide a second top stream enriched with furfural and a portion of the at least one organic acid, and a second bottom stream comprising the remainder of the furfural and a portion of the at least one organic acid; and (d) subjecting the second top stream from step (c) to a second distillation step to provide a third top stream comprising a furfural-water azeotrope and a portion of the at least one organic acid, and a third bottom stream comprising furfural.
A ventilation device to be attached to a wall opening, especially a wall opening of a stove, wherein the ventilation device has: - a member with a member frame the front side of which surrounds a member opening and the back side of which faces the wall of the wall opening, wherein the member frame has a circumferential member frame stem extending into the member opening to form an air passage and the member frame stem has two cleats that are fixed to the member frame stem and have cleat openings, wherein two spaced apart cleat openings are formed in each cleat; and - a cover plate with a back side facing the air passage; characterized in that four positioners to be detachably attached to the cleat of the member frame stem are formed on the back side of the cover plate, wherein the positioners enable to vary the distance between the cover plate and the air passage and to guide an air flow passing through the air passage, wherein the positioners have latching elements to engage the cleat openings. - a member with a member frame the front side of which surrounds a member opening and the back side of which faces the wall of the wall opening, wherein the member frame has a circumferential member frame stem extending into the member opening to form an air passage and the member frame stem has two cleats that are fixed to the member frame stem and have cleat openings, wherein two spaced apart cleat openings are formed in each cleat; and - a cover plate with a back side facing the air passage;
A box comprising at least one portion that is closed by a movable cover and that contains an electronic detection circuit for detecting opening of the cover, the cover being provided with means for locking it in the closed position, said means comprising a screw that is mounted on the cover to pivot between a locking position and an unlocking position, and having an end provided with at least one tooth for meshing with teeth of a code wheel mounted to pivot in register with pads of the detection circuit, the box being characterized in that the screw is mounted so that said end of the screw presents positioning with radial clearance relative to the box in such a manner that the pivoting of the code wheel has an amplitude that depends on the positioning of said end as authorized by the radial clearance.
Microporous polyethylene composite film having a microporous organic/inorganic composite coated layer, wherein the coated layer is formed on at least one side of the microporous polyethylene film by using a heat resistant resin of melting temperature or glass transition temperature from 170°C to 500°C and inorganic particles at the same time, wherein the heat resistant resin to form the coated layer is selected from polyphenylsulfone and polyarylamide, wherein the inorganic particles comprise at least one of CaCO 3, Al 2 O 3, SiO 2, BaTiO 3 and TiO 2 having the diameter of 0.1 to 2 μm, wherein the coated layer has volume ratio of the heat resistant resin to the inorganic substance of 30/70 to 10/90 vol-%, wherein overall thickness of the coated layer is from 10 to 60% of that of the microporous polyethylene film, and porosity of the coated layer itself is from 15 to 60%, and wherein permeability (Gurley) of overall composite film comprising a coated layer is not more than 300 sec, shrinkage after 150°C for 1 hour is 0-3% in both MD/TD directions, maximum TMA shrinkage is not more than 3%, and meltdown temperature is 145-200°C. permeability (Gurley) of overall composite film comprising a coated layer is not more than 300 sec, shrinkage after 150°C for 1 hour is 0-3% in both MD/TD directions, maximum TMA shrinkage is not more than 3%, and meltdown temperature is 145-200°C.
An endoscopic device, comprising: an elongate insertion element adapted to be placed within a patient's body; a tissue engaging section appended to at least a portion of the insertion element, the tissue engaging section having an outer tissue contacting surface and an inner tool-contacting surface, wherein a plurality of openings are formed in the outer tissue contacting surface that communicate with a hollow chamber, the hollow chamber defined by the outer surface and the inner surface, wherein the hollow chamber is configured to communicate with a vacuum source, and a porous fabric extends over at least a portion of the tissue engaging section; and the device is characterised in that the tissue engaging section is in the form of an elongate helical ribbon. an elongate insertion element adapted to be placed within a patient's body; a tissue engaging section appended to at least a portion of the insertion element, the tissue engaging section having an outer tissue contacting surface and an inner tool-contacting surface, wherein a plurality of openings are formed in the outer tissue contacting surface that communicate with a hollow chamber, the hollow chamber defined by the outer surface and the inner surface,
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, information on a maximum multi-input multi-output, MIMO, layer configuration, at least one codebook related parameter, and a reference signal, RS, configuration; obtaining channel state information, CSI, including a rank indicator, RI, and at least one of a precoding matrix indicator, PMI, or a channel quality indicator, CQI based on an RS according to the RS configuration; identifying an information sequence including the CSI, wherein the information sequence includes the RI placed before padding bits, the padding bits and the at least one of the PMI and the CQI placed after the padding bits; identifying a polar code sequence based on the information sequence; encoding the polar code sequence; and transmitting, to the base station, the encoded polar code sequence, wherein a number of the padding bits is identified based on a payload of the at least one of the PMI or the CQI corresponding to a rank indicated by the RI, and wherein the polar code sequence includes plural frozen bits and plural data bits corresponding to the information sequence. receiving, from a base station, information on a maximum multi-input multi-output, MIMO, layer configuration, at least one codebook related parameter, and a reference signal, RS, configuration; obtaining channel state information, CSI, including a rank indicator, RI, and at least one of a precoding matrix indicator, PMI, or a channel quality indicator, CQI based on an RS according to the RS configuration; identifying an information sequence including the CSI, wherein the information sequence includes the RI placed before padding bits, the padding bits and the at least one of the PMI and the CQI placed after the padding bits; identifying a polar code sequence based on the information sequence; encoding the polar code sequence; and transmitting, to the base station, the encoded polar code sequence, wherein a number of the padding bits is identified based on a payload of the at least one of the PMI or the CQI corresponding to a rank indicated by the RI, and wherein the polar code sequence includes plural frozen bits and plural data bits corresponding to the information sequence.
A process for the production of a sorbent composition suitable for the removal of sulfur from cracked-gasoline or diesel fuel, which comprises: (a) admixing zinc oxide, silica and alumina so as to form a mix of same in the form of one of a wet mix, dough, paste or slurry; (b) particulating the resulting mix to form particulates thereof in the form of one of granules, extrudates, tablets, pellets, spheres or microspheres; (c) drying the resulting particulate; (d) calcining the dried particulate; (e) impregnating the calcined particulate with a bimetallic promotor formed of any two metals selected from nickel, cobalt, iron, manganese, copper, zinc, molybdenum, tungsten, silver, tin, antimony or vanadium; (f) drying the impregnated particulate of step (e); (g) calcining the dried particulate of step (f); and thereafter (h) reducing the resulting calcined particulate of step (g) with hydrogen to produce the sorbent composition, wherein the bimetallic promotor is present in a reduced valence state and the weight ratio of the metals of said bimetallic promotor is in the range of 20:1 to 1:20. (a) admixing zinc oxide, silica and alumina so as to form a mix of same in the form of one of a wet mix, dough, paste or slurry; (b) particulating the resulting mix to form particulates thereof in the form of one of granules, extrudates, tablets, pellets, spheres or microspheres; (c) drying the resulting particulate; (d) calcining the dried particulate; (e) impregnating the calcined particulate with a bimetallic promotor formed of any two metals selected from nickel, cobalt, iron, manganese, copper, zinc, molybdenum, tungsten, silver, tin, antimony or vanadium; (f) drying the impregnated particulate of step (e); (g) calcining the dried particulate of step (f); and thereafter (h) reducing the resulting calcined particulate of step (g) with hydrogen to produce the sorbent composition, wherein the bimetallic promotor is present in a reduced valence state and the weight ratio of the metals of said bimetallic promotor is in the range of 20:1 to 1:20.
An operator configuration processing method, comprising: acquiring, by an embedded Universal Integrated Circuit Card, eUICC, an operator configuration transmitted by a subscription management platform; and assembling, by the eUICC, the operator configuration into an executable application and file system in an allocated storage space; characterized in that it further comprises: when the subscription management platform accepts an operator configuration activation request, checking, by the eUICC, whether there is a conflict between a currently executed policy rule and a policy rule related to a target operator configuration, wherein the target operator configuration is an operator configuration required to be activated in operator configurations assembled in the eUICC; and if there is no conflict, activating, by the eUICC, the target operator configuration. acquiring, by an embedded Universal Integrated Circuit Card, eUICC, an operator configuration transmitted by a subscription management platform; and assembling, by the eUICC, the operator configuration into an executable application and file system in an allocated storage space; when the subscription management platform accepts an operator configuration activation request, checking, by the eUICC, whether there is a conflict between a currently executed policy rule and a policy rule related to a target operator configuration, wherein the target operator configuration is an operator configuration required to be activated in operator configurations assembled in the eUICC; and if there is no conflict, activating, by the eUICC, the target operator configuration.
A method comprising: receiving, by a wireless device, radio resource control, RRC, messages comprising a first bitmap of frequency allocation of a search space, SS, wherein each bit of the first bitmap indicates whether frequency resources of the SS are mapped to a respective resource block, RB, set of RB sets of a bandwidth part, BWP; monitoring, based on the first bitmap indicating that the SS is mapped to first RB sets of the RB sets, a physical downlink control channel, PDCCH, via the SS on the first RB sets; receiving a first downlink control information, DCI, comprising a second bitmap of RB set indication, wherein each bit of the second bitmap indicates whether a respective RB set, of the RB sets, is available for downlink reception; monitoring based on the first bitmap and based on the second bitmap indicating a second RB set of the first RB sets as being available for downlink reception, the PDCCH via the SS in the second RB set; and receiving a second DCI during the monitoring the PDCCH via the SS on the second RB set. receiving, by a wireless device, radio resource control, RRC, messages comprising a first bitmap of frequency allocation of a search space, SS, wherein each bit of the first bitmap indicates whether frequency resources of the SS are mapped to a respective resource block, RB, set of RB sets of a bandwidth part, BWP; monitoring, based on the first bitmap indicating that the SS is mapped to first RB sets of the RB sets, a physical downlink control channel, PDCCH, via the SS on the first RB sets; receiving a first downlink control information, DCI, comprising a second bitmap of RB set indication, wherein each bit of the second bitmap indicates whether a respective RB set, of the RB sets, is available for downlink reception; monitoring based on the first bitmap and based on the second bitmap indicating a second RB set of the first RB sets as being available for downlink reception, the PDCCH via the SS in the second RB set; and receiving a second DCI during the monitoring the PDCCH via the SS on the second RB set.
C5 binding polypeptide, comprising a C5 binding motif, BM, which motif consists of an amino acid sequence selected from i) EX 2 X 3 X 4 A X 6 X 7 EID X 11 LPNL X 16 X 17 X 18 QW X 21 AFIX 25 X 26 LX 28 D, wherein, independently of each other, X 2 is selected from H, Q, S, T and V; X 3 is selected from I, L, M and V; X 4 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 6 is selected from N and W; X 7 is selected from A, D, E, H, N, Q, R, S and T; X 11 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 16 is selected from N and T; X 17 is selected from I, L and V; X 18 is selected from A, D, E, H, K, N, Q, R, S and T; X 21 is selected from I, L and V; X 25 is selected from D, E, G, H, N, S and T; X 26 is selected from K and S; X 28 is selected from A, D, E, H, N, Q, S, T and Y; and ii) an amino acid sequence which has at least 86 % identity to the sequence defined in i), wherein the polypeptide binds to C5; wherein said C5 binding motif forms part of a three-helix bundle protein domain, and wherein said C5 binding polypeptide exhibits binding activity to human C5 and to C5 of animal models, such as mouse or rat. i) EX 2 X 3 X 4 A X 6 X 7 EID X 11 LPNL X 16 X 17 X 18 QW X 21 AFIX 25 X 26 LX 28 D, wherein, independently of each other, X 2 is selected from H, Q, S, T and V; X 3 is selected from I, L, M and V; X 4 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 6 is selected from N and W; X 7 is selected from A, D, E, H, N, Q, R, S and T; X 11 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 16 is selected from N and T; X 17 is selected from I, L and V; X 18 is selected from A, D, E, H, K, N, Q, R, S and T; X 21 is selected from I, L and V; X 25 is selected from D, E, G, H, N, S and T; X 26 is selected from K and S; X 28 is selected from A, D, E, H, N, Q, S, T and Y; and X 2 is selected from H, Q, S, T and V; X 3 is selected from I, L, M and V; X 4 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 6 is selected from N and W; X 7 is selected from A, D, E, H, N, Q, R, S and T; X 11 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 16 is selected from N and T; X 17 is selected from I, L and V; X 18 is selected from A, D, E, H, K, N, Q, R, S and T; X 21 is selected from I, L and V; X 25 is selected from D, E, G, H, N, S and T; X 26 is selected from K and S; X 28 is selected from A, D, E, H, N, Q, S, T and Y; ii) an amino acid sequence which has at least 86 % identity to the sequence defined in i), wherein the polypeptide binds to C5;
An aluminum alloy comprising 0.20-1.0 wt. % Si, 0.20 - 0.40 wt. % Fe, 0.0 - 0.23 wt. % Cu, 0.05 - 0.22 wt. % Mn, 0.50 - 0.83 wt. % Mg, 0.0 - 0.25 wt. % Cr, 0.0 - 0.006 wt. % Ni, 0.0 - 0.15 wt. % Zn, 0.0 - 0.17 wt. % Ti, 0 - 0.05 wt.% Pb, 0 - 0.005 wt.% Be, up to 0.15 wt. % impurities, with the remainder as Al.