mhurhangee/ep-ind-claims huggingface dataset:
A module, comprising: a cell stack (140, 1301) enclosed within a housing, and comprising a plurality of alternating ion depleting compartments and ion concentrating compartments, the cell stack (140, 1301) having a bottom plane, a center plane, and a top plane when the cell stack (140, 1301) is in a horizontal position; an inlet manifold (120, 420, 520, 620, 720) comprising a bottom face and a top face located on opposite sides of the inlet manifold (120, 420, 520, 620, 720), wherein the inlet manifold (120, 420, 520, 620, 720) is in fluid communication with an inlet (121, 421, 521, 621, 721) of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; an outlet manifold in fluid communication with an outlet of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; a frame positioned between the housing and the cell stack (140, 1301) to provide additional support to the cell stack, wherein the frame comprises the inlet manifold (120, 420, 520, 620, 720) and outlet manifold configured to allow the flow of liquid in and out of the cell stack (140, 1301); and a first flow distribution system, in fluid communication with the inlet manifold (120, 420, 520, 620, 720), characterised by the first flow distribution system including a first ramp positioned on the bottom face of the inlet manifold (120, 420, 520, 620, 720), wherein the tangent of the top of the first ramp is directed towards the center plane of the cell stack (140, 1301) such that the first ramp redirects the momentum of the incoming fluid flow away from the bottom plane of the cell stack (140, 1301) to the top and center planes of the cell stack (140, 1301), thereby promoting the circulation of the flow of fluid in the inlet manifold (120, 420, 520, 620, 720) and uniform fluid distribution to the cell stack (140, 1301). a cell stack (140, 1301) enclosed within a housing, and comprising a plurality of alternating ion depleting compartments and ion concentrating compartments, the cell stack (140, 1301) having a bottom plane, a center plane, and a top plane when the cell stack (140, 1301) is in a horizontal position; an inlet manifold (120, 420, 520, 620, 720) comprising a bottom face and a top face located on opposite sides of the inlet manifold (120, 420, 520, 620, 720), wherein the inlet manifold (120, 420, 520, 620, 720) is in fluid communication with an inlet (121, 421, 521, 621, 721) of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; an outlet manifold in fluid communication with an outlet of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; a frame positioned between the housing and the cell stack (140, 1301) to provide additional support to the cell stack, wherein the frame comprises the inlet manifold (120, 420, 520, 620, 720) and outlet manifold configured to allow the flow of liquid in and out of the cell stack (140, 1301); and a first flow distribution system, in fluid communication with the inlet manifold (120, 420, 520, 620, 720),
An organic light emitting diode (OLED) display comprising: a first substrate; an OLED on the first substrate; a second substrate attached to the first substrate; a photo sensor on the second substrate, for detecting incident light generated by an external source; and a shield layer covering the photo sensor and for blocking light emitted from the OLED from being detected by the photo sensor; characterized in that the shield layer covers and directly contacts a face of the photo sensor that faces the first substrate along with sides of the photo sensor. a first substrate; an OLED on the first substrate; a second substrate attached to the first substrate; a photo sensor on the second substrate, for detecting incident light generated by an external source; and a shield layer covering the photo sensor and for blocking light emitted from the OLED from being detected by the photo sensor; characterized in that the shield layer covers and directly contacts a face of the photo sensor that faces the first substrate along with sides of the photo sensor.
A SphKl inhibitor, or a combination thereof, for use in a method of preventing or treating a pulmonary disease or condition in a subject, the use comprising administering to a subject in need of treatment an effective amount of the SphKl inhibitor to prevent or treat the subject's pulmonary disease or condition, wherein the SphKl inhibitor is cell permeable, has an IC 50 value of less than 10 μM, has a K i of less than 10 μM, and exhibits at least a 20-fold greater selectivity for SphKl than SphK2; wherein the SphKl inhibitor comprises [ -1-[[4-[[3-(benzenesulfonyl methyl)-5-methylphenoxy]methyl]phenyl] methyl] pyrrolidin-2-yl] methanol (PF-543) or a pharmaceutically acceptable salt thereof.
A makeup assisting apparatus comprising: an image acquiring section that acquires a captured moving image of a face, to which a makeup is applied, of a person; a makeup selecting section that selects a way of makeup for each face of a person; and a makeup presenting section that guides a position of the face to a predetermined position_by sequentially generating guide images obtainable by superimposing guide information indicating the predetermined position on the images for the respective images that make up the moving image and displaying the guide images using a display and that causes a cosmetic material corresponding to the selected way of makeup to be sprayed with reference to the predetermined position using a sprayer. an image acquiring section that acquires a captured moving image of a face, to which a makeup is applied, of a person; a makeup selecting section that selects a way of makeup for each face of a person; and a makeup presenting section that guides a position of the face to a predetermined position_by sequentially generating guide images obtainable by superimposing guide information indicating the predetermined position on the images for the respective images that make up the moving image and displaying the guide images using a display and that causes a cosmetic material corresponding to the selected way of makeup to be sprayed with reference to the predetermined position using a sprayer.
A posterior-stabilized femoral prosthesis for a knee arthroplasty comprising: medial and lateral condyles shaped to articulate with a tibial articular surface (24, 124) of a tibial bearing component (14, 114) through a range of motion, in which full extension corresponds to zero degrees flexion of a knee joint and positive flexion corresponds to greater than zero degrees flexion of the knee joint, characterised in that in a sagittal plane, the medial and lateral condyles (16, 18) define medial and lateral multi-radius curves (46, 56), respectively, and wherein a femoral cam and a recess positioned between the medial and lateral condyles (18,16), wherein the femoral cam is positioned posterior of the recess (38, characterized in that the medial multi-radius curve has a single common radius swept through a first angular extent to define a single arc length that extends from between substantially -20 degrees flexion to substantially 90 degrees flexion. medial and lateral condyles shaped to articulate with a tibial articular surface (24, 124) of a tibial bearing component (14, 114) through a range of motion, in which full extension corresponds to zero degrees flexion of a knee joint and positive flexion corresponds to greater than zero degrees flexion of the knee joint, characterised in that in a sagittal plane, the medial and lateral condyles (16, 18) define medial and lateral multi-radius curves (46, 56), respectively, and wherein a femoral cam and a recess positioned between the medial and lateral condyles (18,16), wherein the femoral cam is positioned posterior of the recess (38, characterized in that the medial multi-radius curve has a single common radius swept through a first angular extent to define a single arc length that extends from between substantially -20 degrees flexion to substantially 90 degrees flexion.
Use of a peptide consisting of H-P-E-L-G-E-Y-P-E-P-P-P-E-L-E-C or H-C-R-S-A-K-A-N-Q-A-E-L-E-N-A-Y for inhibiting in vitro binding of sclerostin to LRP5.
An apparatus, comprising: a capacitive sensor; a body configured to support the capacitive sensor; and a driver configured to receive signals from the capacitive sensor and to determine eye movements of a user based on the received signals; wherein the sensor is configured to detect movement of the eye; characterized in that the capacitive sensor is a transparent capacitive sensor; the body is configured to support the sensor in front of an eye of a user; and the sensor is configured to detect movement of the eye based on electrostatic effect caused by a bulge of eye cornea. a capacitive sensor; a body configured to support the capacitive sensor; and a driver configured to receive signals from the capacitive sensor and to determine eye movements of a user based on the received signals; wherein the sensor is configured to detect movement of the eye; characterized in that the capacitive sensor is a transparent capacitive sensor; the body is configured to support the sensor in front of an eye of a user; and the sensor is configured to detect movement of the eye based on electrostatic effect caused by a bulge of eye cornea.
A crosslinkable fluoropolymer [polymer] comprising: - recurring units derived from vinylidene fluoride, and - from 0.01% to 10% by moles, with respect to the total moles of recurring units of said polymer, of recurring units derived from at least one functional hydrogenated monomer [monomer (H' F)] comprising a pendant side chain of any of formulae to: -C -O-Y-E -C -NH-Y-E -[C] n -O-R-O-Y-E (VIII) -[C] n -O-R-O-C -NH-Y-E -[C] n -O-R-O-C -O-Y-E wherein Y is a C 1 -C 10 hydrocarbon bonding group, optionally comprising at least one functional group, R is a C 1 -C 5 hydrocarbon group, optionally comprising at least one hydroxyl group, n is 0 or 1, and E is an end group of any of formulae (III-A) to (V-A): -O-C -C(R 3)=CR 1 R 2 (III-A) -O-C -NH-C -C(R 3)=CR 1 R 2 (IV-A) -O-C -Z-C(R 3)=CR 1 R 2 (V-A) wherein each of R 1, R 2 and R 3, equal to or different from each other, is independently a hydrogen atom or a C 1 -C 3 hydrocarbon group, and Z is a bonding group of any of formulae (j) and (jj): -NH-X-O-C - (j), and -NH-X-NHC O-X'-O-C - (jj) wherein X and X', equal to or different from each other, are independently hydrocarbon groups selected from the group consisting of C 1 -C 20 aliphatic groups, C 5 -C 40 cycloaliphatic groups and C 6 -C 50 aromatic, alkylaromatic or heteroaromatic groups. - recurring units derived from vinylidene fluoride, and - from 0.01% to 10% by moles, with respect to the total moles of recurring units of said polymer, of recurring units derived from at least one functional hydrogenated monomer [monomer (H' F)] comprising a pendant side chain of any of formulae to: -C -O-Y-E -C -NH-Y-E -[C] n -O-R-O-Y-E (VIII) -[C] n -O-R-O-C -NH-Y-E -[C] n -O-R-O-C -O-Y-E wherein Y is a C 1 -C 10 hydrocarbon bonding group, optionally comprising at least one functional group, R is a C 1 -C 5 hydrocarbon group, optionally comprising at least one hydroxyl group, n is 0 or 1, and E is an end group of any of formulae (III-A) to (V-A): -O-C -C(R 3)=CR 1 R 2 (III-A) -O-C -NH-C -C(R 3)=CR 1 R 2 (IV-A) -O-C -Z-C(R 3)=CR 1 R 2 (V-A) wherein each of R 1, R 2 and R 3, equal to or different from each other, is independently a hydrogen atom or a C 1 -C 3 hydrocarbon group, and Z is a bonding group of any of formulae (j) and (jj): -NH-X-O-C - (j), and -NH-X-NHC O-X'-O-C - (jj) wherein X and X', equal to or different from each other, are independently hydrocarbon groups selected from the group consisting of C 1 -C 20 aliphatic groups, C 5 -C 40 cycloaliphatic groups and C 6 -C 50 aromatic, alkylaromatic or heteroaromatic groups.
A method of forming on a moving surface an auxiliary antenna (20, 48) for an RFID tag (21, 49), said method including the steps of: providing a webstock (15, 43) of polymeric material including a conductive film (16, 44); and a release layer (24, 34, 54, 64) to facilitate release of said conductive film from said webstock; conveying said webstock with said moving surface; applying an adhesive to said moving surface in a shape corresponding to said antenna; pressing said conductive film to said adhesive via a pressing roller (17, 45) such that portions of said conductive film adhere to said surface in said shape corresponding to said antenna; and pulling said webstock from said surface such that said adhered portions of said conductive film peel away from said webstock leaving said portions adhered to said moving surface in said shape corresponding to said antenna. providing a webstock (15, 43) of polymeric material including a conductive film (16, 44); and a release layer (24, 34, 54, 64) to facilitate release of said conductive film from said webstock; conveying said webstock with said moving surface; applying an adhesive to said moving surface in a shape corresponding to said antenna; pressing said conductive film to said adhesive via a pressing roller (17, 45) such that portions of said conductive film adhere to said surface in said shape corresponding to said antenna; and pulling said webstock from said surface such that said adhered portions of said conductive film peel away from said webstock leaving said portions adhered to said moving surface in said shape corresponding to said antenna.
A superconducting switch system comprising: a first Superconducting Quantum Interference Device, SQUID, having a first variable inductance coupling element (J 1); a second SQUID having a second variable inductance coupling element (J 2), the second SQUID being coupled to the first SQUID through a common node; a first terminal (TM A) coupled to the common node; a second terminal (TM B) coupled to the first SQUID through an end opposite the common node; a third terminal (TM C) coupled to the second SQUID through an end opposite the common node; a common mode flux bias line inductively coupled to the first and second SQUIDs (32,34) and to induce a common mode flux in each of the first SQUID and second SQUID based on a first biasing current (I COM) flowing through the common mode flux bias line; a differential mode flux bias line to induce a first differential mode flux in the first SQUID and a second differential mode flux in the second SQUID based on a second biasing current (I DIFF) flowing through the differential mode flux bias line; and a switch controller configured to control the setting of the first variable inductance coupling element and the second variable inductance coupling element between opposing inductance states based on both the first and the second biasing currents to allow selective routing of signals between one of a first path between the first terminal (TM A) and the second terminal (TM B) and a second path between the first terminal (TM A) and the third terminal (TM C). a first Superconducting Quantum Interference Device, SQUID, having a first variable inductance coupling element (J 1); a second SQUID having a second variable inductance coupling element (J 2), the second SQUID being coupled to the first SQUID through a common node; a first terminal (TM A) coupled to the common node; a second terminal (TM B) coupled to the first SQUID through an end opposite the common node; a third terminal (TM C) coupled to the second SQUID through an end opposite the common node; a common mode flux bias line inductively coupled to the first and second SQUIDs (32,34) and to induce a common mode flux in each of the first SQUID and second SQUID based on a first biasing current (I COM) flowing through the common mode flux bias line; a differential mode flux bias line to induce a first differential mode flux in the first SQUID and a second differential mode flux in the second SQUID based on a second biasing current (I DIFF) flowing through the differential mode flux bias line; and a switch controller configured to control the setting of the first variable inductance coupling element and the second variable inductance coupling element between opposing inductance states based on both the first and the second biasing currents to allow selective routing of signals between one of a first path between the first terminal (TM A) and the second terminal (TM B) and a second path between the first terminal (TM A) and the third terminal (TM C).
A fastener cartridge for use with a fastening instrument to fasten tissue, said fastener cartridge comprising: a cartridge body, including: a deck; a plurality of fastener cavities; and a member cavity; fasteners removably stored in said fastener cavities, wherein said fasteners are deployable from said fastener cavities during a firing stroke of the fastening instrument, and wherein said fasteners are not stored in said member cavity; and a deployable tissue flow control member movably positioned in said member cavity, wherein said tissue flow control member is movable between an undeployed position and a deployed position to engage the tissue during the firing stroke of the fastening instrument, wherein said fastener cartridge further comprises a sled configured to eject said fasteners from said cartridge body during the firing stroke of the fastening instrument, wherein said sled is also configured to deploy said tissue flow control member during the firing stoke of the fastening instrument characterized in that the deployable tissue flow control member is deployed to grip a portion of tissue in advance of the tissue portion being fastened. a cartridge body, including: a deck; a plurality of fastener cavities; and a member cavity; a deck; a plurality of fastener cavities; and a member cavity; fasteners removably stored in said fastener cavities, wherein said fasteners are deployable from said fastener cavities during a firing stroke of the fastening instrument, and wherein said fasteners are not stored in said member cavity; and a deployable tissue flow control member movably positioned in said member cavity, wherein said tissue flow control member is movable between an undeployed position and a deployed position to engage the tissue during the firing stroke of the fastening instrument, wherein said fastener cartridge further comprises a sled configured to eject said fasteners from said cartridge body during the firing stroke of the fastening instrument, wherein said sled is also configured to deploy said tissue flow control member during the firing stoke of the fastening instrument characterized in that the deployable tissue flow control member is deployed to grip a portion of tissue in advance of the tissue portion being fastened.
A method, comprising, at a control node: receiving an overload indicator indicating a loading status of another control node; and adjusting, for a network element, a relative capacity value of the control node based on the overload indicator; characterized by - when the overload indicator indicates overload of the another control node, increasing the relative capacity value and directing the network element in a geographical area of the control node to guide a user equipment to the control node, and - when the overload indicator does not indicate overload of the another control node, decreasing the relative capacity value and directing the network element in a geographical area of the another control node to guide the user equipment away from the control node. receiving an overload indicator indicating a loading status of another control node; and adjusting, for a network element, a relative capacity value of the control node based on the overload indicator; characterized by - when the overload indicator indicates overload of the another control node, increasing the relative capacity value and directing the network element in a geographical area of the control node to guide a user equipment to the control node, and - when the overload indicator does not indicate overload of the another control node, decreasing the relative capacity value and directing the network element in a geographical area of the another control node to guide the user equipment away from the control node. - when the overload indicator indicates overload of the another control node, increasing the relative capacity value and directing the network element in a geographical area of the control node to guide a user equipment to the control node, and - when the overload indicator does not indicate overload of the another control node, decreasing the relative capacity value and directing the network element in a geographical area of the another control node to guide the user equipment away from the control node.
A composition for removing soils, labels and other adhesive material from a hard surface, comprising: an aqueous or non-aqueous basic organic solvent and an amidine solvent; and at least one surfactant; wherein the composition contains caustic in an amount from 0 wt-% to 2 wt-%, and wherein the composition has a pH between 10 and 14. an aqueous or non-aqueous basic organic solvent and an amidine solvent; and at least one surfactant; wherein the composition contains caustic in an amount from 0 wt-% to 2 wt-%, and wherein the composition has a pH between 10 and 14.