mhurhangee/ep-ind-claims huggingface dataset:
A polypeptide comprising a fibronectin type III tenth domain ( 10 Fn3) wherein the 10 Fn3 domain comprises a) AB, BC, CD, DE, EF, and FG loops, b) a CD loop comprising an amino acid sequence according to the formula G-X 1 -X 2 -V-X 3 -X 4 -X 5 -S-X 6 -X 7 -G-X 8 -X 9 -Y-X 10 -X 11 -X 12 -E (SEQ ID NO: 170), wherein, (a) X 1 is selected from the group consisting of R or W; (b) X 2 is selected from the group consisting of H, E, D, Y, or Q; (c) X 3 is selected from the group consisting of Q or H; (d) X 4 is selected from the group consisting of I, K, M, Q, L, or V; (e) X 5 is selected from the group consisting of Y, F, or N; (f) X 6 is selected from the group consisting of D, V, or E; (g) X 7 is selected from the group consisting of L, W, or F; (h) X 8 is selected from the group consisting of P or T; (i) X 9 is selected from the group consisting of L or M; (j) X 10 is selected from the group consisting of I or V; (k) X 11 is selected from the group consisting of Y or F; and (l) X 12 is selected from the group consisting of T, S, Q, N, or A, c) wherein the polypeptide binds to human serum albumin with a K D of less than 500 nM, and d) wherein the 10 Fn3 domain further binds to one or more of rhesus serum albumin, cynomolgus serum albumin, mouse serum albumin, and rat serum albumin with a K D of less than 500 nM, for example, less than 100 nM, or less than 10 nM (a) X 1 is selected from the group consisting of R or W; (b) X 2 is selected from the group consisting of H, E, D, Y, or Q; (c) X 3 is selected from the group consisting of Q or H; (d) X 4 is selected from the group consisting of I, K, M, Q, L, or V; (e) X 5 is selected from the group consisting of Y, F, or N; (f) X 6 is selected from the group consisting of D, V, or E; (g) X 7 is selected from the group consisting of L, W, or F; (h) X 8 is selected from the group consisting of P or T; (i) X 9 is selected from the group consisting of L or M; (j) X 10 is selected from the group consisting of I or V; (k) X 11 is selected from the group consisting of Y or F; and (l) X 12 is selected from the group consisting of T, S, Q, N, or A,
An adaptive structural core for morphing panel structures, comprising: a plurality of core members, arranged in a repeating pattern and wherein said plurality of core members defines a plurality of core cells, each having a plurality of cell walls; a plurality of actuator attachment points provided on said plurality of core members, wherein the actuator attachment points are holes or gaps; and at least one actuator (12, 12a) engaging said plurality of actuator attachment points, wherein the at least one actuator (12, 12a) is a McKibben actuator, assembled into the actuator attachment points at core nodes, and tubing of each actuator (12, 12a) is continuous through the actuator attachment points. a plurality of core members, arranged in a repeating pattern and wherein said plurality of core members defines a plurality of core cells, each having a plurality of cell walls; a plurality of actuator attachment points provided on said plurality of core members, wherein the actuator attachment points are holes or gaps; and at least one actuator (12, 12a) engaging said plurality of actuator attachment points, wherein the at least one actuator (12, 12a) is a McKibben actuator, assembled into the actuator attachment points at core nodes, and tubing of each actuator (12, 12a) is continuous through the actuator attachment points.
An anode, comprising: a transmission target including: a target layer for generating an X-ray through irradiation of an electron beam; and a transmitting substrate for supporting the target layer and for transmitting the X-ray generated by the target layer; and a tubular anode member for supporting the transmitting substrate at a tube inner circumference thereof, wherein a side surface of the transmitting substrate and the tube inner circumference of the tubular anode member are bonded together by a bonding material, and wherein the bonding material has a thickness that varies in a direction along a tube axis of the tubular anode member, wherein coefficients of thermal expansion of the transmitting substrate, the tubular anode member, and the bonding material satisfy a relationship of transmitting substrate < tubular anode member < bonding material, wherein on a virtual plane including the tube axis of the tubular anode member, a length (g; g1+g2) of a bonded region between the transmitting substrate and the bonding material is smaller than a length (h; h1+h2) of a bonded region between the tubular anode member and the bonding material. a transmission target including: a target layer for generating an X-ray through irradiation of an electron beam; and a transmitting substrate for supporting the target layer and for transmitting the X-ray generated by the target layer; and a target layer for generating an X-ray through irradiation of an electron beam; and a transmitting substrate for supporting the target layer and for transmitting the X-ray generated by the target layer; and a tubular anode member for supporting the transmitting substrate at a tube inner circumference thereof, wherein a side surface of the transmitting substrate and the tube inner circumference of the tubular anode member are bonded together by a bonding material, and wherein the bonding material has a thickness that varies in a direction along a tube axis of the tubular anode member, wherein coefficients of thermal expansion of the transmitting substrate, the tubular anode member, and the bonding material satisfy a relationship of transmitting substrate < tubular anode member < bonding material, wherein on a virtual plane including the tube axis of the tubular anode member, a length (g; g1+g2) of a bonded region between the transmitting substrate and the bonding material is smaller than a length (h; h1+h2) of a bonded region between the tubular anode member and the bonding material.
A device for extracting cakes resulting from the pressurised filtration using a sealed vessel in which rotary filters are housed; said vessel being provided with a hopper for recovering the solid particles extended, at the bottom part, by a chamber delimited between at least two temporary closure elements (11, 12), characterised in that each temporary closure element comprises firstly a rotary shaft disposed transversely in the chamber and carrying at least one set (101, 102, 103) of two diametrically opposed radial fins, the total surface area of which corresponds substantially to the cross section of the chamber, and secondly peripheral sealing means mounted on the internal wall of the chamber opposite the end edge of said fins.
A polyethylene composition comprising an ethylene polymer having a density in the range from ≥950 kg/m 3 to ≤958 kg/m 3, determined according to ISO 1183-1:2004, a melt flow rate MFR 5 (190°C, 5 kg) in the range from ≥0,16 g/10 min to ≤0,26 g/10 min, determined according to ISO 1133:1997, a melt flow ratio FRR (190°C, 21.6/5 kg) in the range from ≥22 to ≤40, a complex viscosity at 100 rad/s and 190°C of at least 2500 Pa.s and a complex viscosity at 0,01 rad/s and 190°C (eta 0,01) of at least 250000 Pa.s.
Connection system for connecting a first prefabricated concrete part to a second prefabricated concrete part, comprising a prefabricated part connector and a connecting element, wherein the prefabricated part connector comprises a base plate and at least one cast-in anchor connected to the base plate for casting into the first prefabricated concrete part, wherein the base plate lies in a base plane and has a through-opening for a connecting element, wherein the base plate and the at least one cast-in anchor are designed as a one-piece sheet metal bending part and wherein the at least one cast-in anchor is bent up from the base plane with respect to the base plate at an angle (α, β), characterised in that the cross-section of the through-opening is larger than the cross-section of the connecting element, in that the connection system has positioning means for the free positioning and the positive location of the connecting element routed through the through-opening in at least one direction lying in the base plane of the base plate, in that the prefabricated part connector is cast into the first prefabricated concrete part, and in that a reception element for the connecting element is installed into the opposite region of the adjoining second prefabricated concrete part, wherein the connecting element is inserted through the through-opening from a side of the base plate which is opposite the reception element and from there connected to the reception element of the second prefabricated concrete part.
An mTOR inhibitor for use in the treatment, by intrathecal administration, of pathologies selected from: tuberous sclerosis, Alzheimer's disease, primary progressive aphasia and multiple sclerosis, wherein the mTOR inhibitor is everolimus.
A final stage three-way power combining amplifying circuit suitable for a power amplifier of a mobile communications base station system, comprising: a first power divider (6,27), a Doherty amplifier, a Class AB amplifier (11,37), a first phase-shift line (8,30), and a power combiner (14,43), wherein; the first output of the first power divider is connected to the input of the first phase-shift line via a transmission line, the output of the first phase-shift line is connected to the input of the Doherty amplifier, and the output of the Doherty amplifier is directly connected to the first input of the power combiner via a transmission line, and wherein, the second output of the first power divider is connected to an input of the Class AB amplifier via a transmission line, the output of the Class AB amplifier is connected to the second input of the power combiner via a transmission line, such that the output of the power combiner outputs an amplified radio frequency signal. a first power divider (6,27), a Doherty amplifier, a Class AB amplifier (11,37), a first phase-shift line (8,30), and a power combiner (14,43), wherein; the first output of the first power divider is connected to the input of the first phase-shift line via a transmission line, the output of the first phase-shift line is connected to the input of the Doherty amplifier, and the output of the Doherty amplifier is directly connected to the first input of the power combiner via a transmission line, and wherein, the second output of the first power divider is connected to an input of the Class AB amplifier via a transmission line, the output of the Class AB amplifier is connected to the second input of the power combiner via a transmission line, such that the output of the power combiner outputs an amplified radio frequency signal.
A device for separating can lids disposed in a stack by means of a separator blade, wherein the device comprises at least one suction device (5, 6, 7) for aspirating from the can lids particles re-leased during the process of separating the can lid, characterized in that a suction opening of the suction device is configured as an opening of a can which, as viewed in a vertical direction, is disposed above the separator blade, wherein the separator blade is configured as a disk mounted so as to be rotatable about an axis (a), in a direction viewed parallel to the axis (a) at least one portion of the suction opening covers at least one edge region of the disk.
A device for setting off an avalanche, including a support intended to be attached to a mountainside, for example on a concrete slab, and an enclosure one end of which is open, this enclosure being mounted on the support, said open end of the enclosure being intended, in use, to face towards the snow cap, the device further including means for filling the enclosure with an explosive gaseous mixture, igniting means designed for triggering off the explosion of the mixture, and a remote communication system, the enclosure being autonomous in terms of energy supply, and carrying, for this purpose, gas storing means (5, 6) intended to form the gaseous mixture and the igniting means for the gaseous mixture, characterized in that: - the enclosure is mounted removably on the support, by fitting its inner face, intended to receive the gaseous mixture, onto a bearing part of the support, which is openworked and faces upwards. - the enclosure is mounted removably on the support, by fitting its inner face, intended to receive the gaseous mixture, onto a bearing part of the support, which is openworked and faces upwards.
A method for idle state optimization in a portable computing device, the method comprising: determining a power budget, wherein the power budget represents a maximum aggregate power consumption level for a plurality of processing cores (222, 224, 226, 228); determining a current aggregate power consumption level for the plurality of processing cores (222, 224, 226, 228); comparing the current aggregate power consumption level with the power budget; and if the current aggregate power consumption level is less than the power budget, transitioning at least one processing core present in an idle operating state from a first idle state to a second idle state, wherein a latency value associated with bringing the at least one processing core to an active state is reduced by virtue of the transition from the first idle state to the second idle state. determining a power budget, wherein the power budget represents a maximum aggregate power consumption level for a plurality of processing cores (222, 224, 226, 228); determining a current aggregate power consumption level for the plurality of processing cores (222, 224, 226, 228); comparing the current aggregate power consumption level with the power budget; and if the current aggregate power consumption level is less than the power budget, transitioning at least one processing core present in an idle operating state from a first idle state to a second idle state, wherein a latency value associated with bringing the at least one processing core to an active state is reduced by virtue of the transition from the first idle state to the second idle state.
A modular lighting fixture, comprising: a body having a main portion and a second portion, the main portion having a hollow interior defining an interior space extending in a longitudinal direction from a first open end of the main portion to a second end of the main portion, the second portion being provided at the first end and extends outwardly in a transverse direction, wherein the interior space is configured to receive and retain an interchangeable functional module configured to provide non-light emitting function; light emitting means, provided on the second portion of the body and configured to emit light; a first intumescent material arranged on the exterior of the body; and a second intumescent material arranged on the interior of the body; wherein the modular lighting fixture is arranged to be received through an opening in a panel; wherein the first intumescent material is arranged on the exterior of the body such that thermal expansion of the first intumescent material seals any gap between the body and the panel; wherein the second intumescent material is arranged on the interior of the body such that thermal expansion of the second intumescent material seals any gap between the body and the interchangeable functional module; wherein the modular lighting fixture is arranged to retain the interchangeable functional module in a detachable manner. a body having a main portion and a second portion, the main portion having a hollow interior defining an interior space extending in a longitudinal direction from a first open end of the main portion to a second end of the main portion, the second portion being provided at the first end and extends outwardly in a transverse direction, wherein the interior space is configured to receive and retain an interchangeable functional module configured to provide non-light emitting function; light emitting means, provided on the second portion of the body and configured to emit light; a first intumescent material arranged on the exterior of the body; and a second intumescent material arranged on the interior of the body; wherein the modular lighting fixture is arranged to be received through an opening in a panel; wherein the first intumescent material is arranged on the exterior of the body such that thermal expansion of the first intumescent material seals any gap between the body and the panel; wherein the second intumescent material is arranged on the interior of the body such that thermal expansion of the second intumescent material seals any gap between the body and the interchangeable functional module; wherein the modular lighting fixture is arranged to retain the interchangeable functional module in a detachable manner.
An artificial blood vessel formed by using a resin composition comprising, with respect to 100 parts by mass of a component hydrogenated block copolymer having a MFR, measured at a temperature of 230°C and a load of 2.16 kg, of 1 g/10 min or less: 350 parts by mass or more and 1000 parts by mass or less of a component oil; and 0.01 parts by mass or more and less than 150 parts by mass of a component lubricant, wherein the component contains one or more hydrogenated products, i.e. hydrogen-added products or hydrides, of an aromatic vinyl-conjugated diene block copolymer containing a block unit derived from an aromatic vinyl compound and a block unit derived from a conjugated diene, and the component lubricant contains one or more surfactant selected from ionic surfactants and nonionic surfactants. wherein the component contains one or more hydrogenated products, i.e. hydrogen-added products or hydrides, of an aromatic vinyl-conjugated diene block copolymer containing a block unit derived from an aromatic vinyl compound and a block unit derived from a conjugated diene, and the component lubricant contains one or more surfactant selected from ionic surfactants and nonionic surfactants.
A process for making dimethyl carbonate in yield greater than 40 wt% of catalyst and with 100 wt.% selectivity wherein the said process comprises the steps of: (a) providing reusable, water-tolerant, solid, calcined catalyst comprising of zirconium pyrophosphate deprived from zirconium phosphonate having molecular formula: Zr 2-n Y n mH 2 O wherein, X is phenyl phosphonate, Y is HPO 4 2- or HPO 3 2-, n varies from 0.2 to 1.8 and m varies from 0 to 5 (b) contacting methanol with carbon dioxide in the presence of catalyst as provided in step (a) wherein the amount of catalyst ranges from 0.5 to 5 % by weight of methanol, pressure of carbon dioxide ranges from 1 to 60 bar und molar ratio of methanol and carbon dioxide varies from 0.25:1 to 10:1; (c) subjecting the reaction mixture as obtained in step (b) to a temperature in the range of 80 to 200 °C and for a period in the range of 3 to 12 hrs followed by lowering the temperature, venting out or recycling unreacted carbon dioxide and separating product dimethyl carbonate from the left out methanol, by-product water and catalyst. (a) providing reusable, water-tolerant, solid, calcined catalyst comprising of zirconium pyrophosphate deprived from zirconium phosphonate having molecular formula: Zr 2-n Y n mH 2 O wherein, X is phenyl phosphonate, Y is HPO 4 2- or HPO 3 2-, n varies from 0.2 to 1.8 and m varies from 0 to 5 (b) contacting methanol with carbon dioxide in the presence of catalyst as provided in step (a) wherein the amount of catalyst ranges from 0.5 to 5 % by weight of methanol, pressure of carbon dioxide ranges from 1 to 60 bar und molar ratio of methanol and carbon dioxide varies from 0.25:1 to 10:1; (c) subjecting the reaction mixture as obtained in step (b) to a temperature in the range of 80 to 200 °C and for a period in the range of 3 to 12 hrs followed by lowering the temperature, venting out or recycling unreacted carbon dioxide and separating product dimethyl carbonate from the left out methanol, by-product water and catalyst.
A machine for compacting a powder material comprising ceramic powder; the machine comprises a compacting device, which is arranged at a working station and is designed to compact the powder material so as to obtain a layer of compacted powder material; a conveyor assembly to transport the powder material along a first portion of a given path in an advancing direction from an inlet station to the working station and the layer of compacted powder material from the working station along a second portion of the given path; and a feeding assembly, which is designed to feed the powder material to the conveyor assembly at the inlet station and comprises a transfer chamber, which is designed to hold and transfer the powder material, in particular along a transfer path; wherein the transfer chamber has a first wall, which is crosswise to the advancing direction, and at least a second wall, which is crosswise to the advancing direction, faces the first wall and is arranged upstream of the first wall relative to the advancing direction; the feeding assembly comprises at least an advancing assembly, which in turn comprises at least a first belt at least partially arranged at the first wall and a first moving device to move the first belt towards the conveyor assembly; the advancing assembly further comprises at least a second belt, at least partially arranged at the second wall, and a second moving device to move the second belt towards the conveyor assembly; characterized in that the first moving device comprises a first adjusting assembly to adjust the crosswise position of the first belt; in particular, the second moving device comprises a second adjusting assembly to adjust the crosswise position of the second belt. wherein the transfer chamber has a first wall, which is crosswise to the advancing direction, and at least a second wall, which is crosswise to the advancing direction, faces the first wall and is arranged upstream of the first wall relative to the advancing direction; the feeding assembly comprises at least an advancing assembly, which in turn comprises at least a first belt at least partially arranged at the first wall and a first moving device to move the first belt towards the conveyor assembly; the advancing assembly further comprises at least a second belt, at least partially arranged at the second wall, and a second moving device to move the second belt towards the conveyor assembly; characterized in that the first moving device comprises a first adjusting assembly to adjust the crosswise position of the first belt; in particular, the second moving device comprises a second adjusting assembly to adjust the crosswise position of the second belt.