mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmological apparatus for inspecting an eye, the apparatus comprising: a light source; a mask arranged to selectively block transmission of light from the light source to form a mask pattern that is projectable onto a subject's eye, wherein the mask is adjustable based on a digital control signal to alter the mask pattern; and an imaging device for viewing the mask pattern on the subject's eye, characterised in that the light source comprises a light-emitting portion from which light is projected out of the apparatus, and wherein a relative position of the light-emitting portion and the mask is controllable to permit adjustment of an angle of incidence of the mask pattern projectable onto the subject's eye. a light source; a mask arranged to selectively block transmission of light from the light source to form a mask pattern that is projectable onto a subject's eye, wherein the mask is adjustable based on a digital control signal to alter the mask pattern; and an imaging device for viewing the mask pattern on the subject's eye, characterised in that the light source comprises a light-emitting portion from which light is projected out of the apparatus, and wherein a relative position of the light-emitting portion and the mask is controllable to permit adjustment of an angle of incidence of the mask pattern projectable onto the subject's eye.
A superconducting wire connection structure, comprising: a first superconducting wire and a second superconducting wire, ends of which are arranged across from each other and are spaced apart from each other by 1 mm to 5 mm, the widths of the first superconducting wire and the second superconducting wire are the same and uniform along a longitudinal direction; and a third superconducting wire which spans and connects the first superconducting wire and the second superconducting wire along the longitudinal direction of the first superconducting wire and the second superconducting wire; wherein each of the first superconducting wire, the second superconducting wire and the third superconducting wire is a tape-shaped superconducting wire which includes a substrate laminated with at least a superconductive layer, wherein a surface of the third superconducting wire on a side where the substrate is laminated with the superconductive layer faces surfaces of the first superconducting wire and the second superconducting wire on a side where the substrates are laminated with the superconductive layers, wherein the third superconducting wire is narrower in at least one portion than the first superconducting wire and the second superconducting wire, and wherein the third superconducting wire tapers toward both ends thereof. a first superconducting wire and a second superconducting wire, ends of which are arranged across from each other and are spaced apart from each other by 1 mm to 5 mm, the widths of the first superconducting wire and the second superconducting wire are the same and uniform along a longitudinal direction; and a third superconducting wire which spans and connects the first superconducting wire and the second superconducting wire along the longitudinal direction of the first superconducting wire and the second superconducting wire; wherein each of the first superconducting wire, the second superconducting wire and the third superconducting wire is a tape-shaped superconducting wire which includes a substrate laminated with at least a superconductive layer, wherein a surface of the third superconducting wire on a side where the substrate is laminated with the superconductive layer faces surfaces of the first superconducting wire and the second superconducting wire on a side where the substrates are laminated with the superconductive layers, wherein the third superconducting wire is narrower in at least one portion than the first superconducting wire and the second superconducting wire, and wherein the third superconducting wire tapers toward both ends thereof.
Movable operating unit of a cable car system for transporting two-wheeled vehicles, wherein the movable operating unit has a frame whose ceiling region, floor region and side regions define a transport space, wherein a floor is arranged in at least one subregion of the floor region, and wherein the movable operating unit has a support arm for connection to a hauling cable or a traction cable, characterized in that at least two holding devices for holding in each case a running wheel of a vehicle are arranged in the transport space in the ceiling region, in that the movable operating unit has at least one supporting element which is arranged in the transport space in the ceiling region and extends vertically between the ceiling region and the floor region in a central region of the transport space, in that one or more holding devices, preferably all thereof, is/are arranged on the supporting element, in that the holding devices are preferably arranged distributed uniformly around the supporting element, and in that the supporting element can be rotated about a vertical axis.
A method for increasing the magnesium ion concentration of feed water, the method consisting of the following steps: (a) providing an inlet flow of feed water Q IN; wherein the feed water has a total alkalinity (CaCO 3) of from 5 to 200 mg/l, (b) passing said flow Q IN through a solid bed to obtain an outlet flow of treated water Q OUT; characterized in that the solid bed in step (b) comprises a magnesium ion source in the form of solid particles, wherein said magnesium ion source is natural or synthetic hydromagnesite and characterized in that the feed water provided in step (a) has a concentration of carbon dioxide of less than 20 mg/l, and wherein the injection of carbon dioxide is avoided. (a) providing an inlet flow of feed water Q IN; wherein the feed water has a total alkalinity (CaCO 3) of from 5 to 200 mg/l, (b) passing said flow Q IN through a solid bed to obtain an outlet flow of treated water Q OUT; characterized in that the solid bed in step (b) comprises a magnesium ion source in the form of solid particles, wherein said magnesium ion source is natural or synthetic hydromagnesite and characterized in that the feed water provided in step (a) has a concentration of carbon dioxide of less than 20 mg/l, and wherein the injection of carbon dioxide is avoided.
A gas powered gun for discharge of projectiles, comprising: - a barrel adapted to receive a projectile, - a pressure chamber adapted to communicate with a compressed gas source, - an open-close valve arranged in a rear end of said pressure chamber, and arranged, in its open state, to allow passage of gas from said pressure chamber into said barrel, to thereby discharge said projectile, - said open-close valve comprising a valve seat and a valve head adapted to sealingly abut said valve seat to close said valve, said valve head being provided in one end of an elongated extension member, and - a hammer arranged to cooperate with a hammer cooperating member provided at a second end of said elongated extension member, characterized in that - said elongated extension member extends in a firing direction of said gun through said pressure chamber, and - said hammer is arranged between said valve head and said hammer cooperating member, so that, when said hammer is moved in the firing direction into contact with said hammer cooperating member, said hammer cooperating member pulls said valve head out of contact with said valve seat, thereby bringing said open-close valve to its open state. - a barrel adapted to receive a projectile, - a pressure chamber adapted to communicate with a compressed gas source, - an open-close valve arranged in a rear end of said pressure chamber, and arranged, in its open state, to allow passage of gas from said pressure chamber into said barrel, to thereby discharge said projectile, - said open-close valve comprising a valve seat and a valve head adapted to sealingly abut said valve seat to close said valve, said valve head being provided in one end of an elongated extension member, and - a hammer arranged to cooperate with a hammer cooperating member provided at a second end of said elongated extension member, characterized in that - said elongated extension member extends in a firing direction of said gun through said pressure chamber, and - said hammer is arranged between said valve head and said hammer cooperating member, so that, when said hammer is moved in the firing direction into contact with said hammer cooperating member, said hammer cooperating member pulls said valve head out of contact with said valve seat, thereby bringing said open-close valve to its open state.
An information processing apparatus (3, 4) including an inertial sensor, the information processing apparatus comprising: first acquisition means (41, S101) for, based on an output from the inertial sensor at a first timing, acquiring a first value regarding an orientation or a position of the information processing apparatus; second acquisition means (41, S101) for, based on an output from the inertial sensor at a second timing different from the first timing, acquiring a second value regarding the orientation or the position of the information processing apparatus; first determination means (41, S104) for, based on at least the first value and the second value, determining whether or not a first condition is satisfied; first data compression means (41, S106) for, when the first determination means determines that the first condition is satisfied, compressing at least the first value and the second value by a first method, thereby generating first compressed data including data related to the first value and data related to the second value; and second data compression means (41, S107, S108) for, when the first determination means determines that the first condition is not satisfied, compressing at least the first value and the second value by a second method different from the first method, thereby generating second compressed data including data related to the first value and data related to the second value. first acquisition means (41, S101) for, based on an output from the inertial sensor at a first timing, acquiring a first value regarding an orientation or a position of the information processing apparatus; second acquisition means (41, S101) for, based on an output from the inertial sensor at a second timing different from the first timing, acquiring a second value regarding the orientation or the position of the information processing apparatus; first determination means (41, S104) for, based on at least the first value and the second value, determining whether or not a first condition is satisfied; first data compression means (41, S106) for, when the first determination means determines that the first condition is satisfied, compressing at least the first value and the second value by a first method, thereby generating first compressed data including data related to the first value and data related to the second value; and second data compression means (41, S107, S108) for, when the first determination means determines that the first condition is not satisfied, compressing at least the first value and the second value by a second method different from the first method, thereby generating second compressed data including data related to the first value and data related to the second value.
Vacuum and/or pressure drum filter device for filtering of a solid material from a suspension, which is formed by the solid material and a liquid, having a device housing, a rotatable filter drum which defines a filter drum longitudinal axis and which is arranged in the device housing, a gas supply line for supplying a gas into the device housing, a gas supply device for supplying the gas into the gas supply line, and a peeling knife, wherein the gas supply line is provided with a first gas outlet means which comprises one or more gas outlet openings which are formed in a manner extending along the filter drum longitudinal axis and from which the gas exits into the device housing, and wherein the one or more gas outlet openings are arranged radially outside the filter drum and on a side of the peeling knife, facing away from the filter drum. a device housing, a rotatable filter drum which defines a filter drum longitudinal axis and which is arranged in the device housing, a gas supply line for supplying a gas into the device housing, a gas supply device for supplying the gas into the gas supply line, and a peeling knife, wherein the gas supply line is provided with a first gas outlet means which comprises one or more gas outlet openings which are formed in a manner extending along the filter drum longitudinal axis and from which the gas exits into the device housing, and wherein the one or more gas outlet openings are arranged radially outside the filter drum and on a side of the peeling knife, facing away from the filter drum.
A method, in a heterogeneous telecommunications network, for mitigating DL-UL interference between aggressor (109, 201) and victim (101, 209) nodes, respective nodes operable to transmit and receive using the same frequency bands at the same time so as to provide full-duplex communication, using multiple frequency resources, to serve pairs of UEs, the method including: transmitting an interference indicator message, IIM, from the victim node (101, 209) to the aggressor node (109, 201) including data representing an indication that the victim node (101, 209) intends to schedule full-duplex communication with a pair of UEs (103, 105; 211, 215) using a selected one of the multiple frequency resources, wherein the aggressor node (109, 201), on the basis of the IIM message, is operable to decrease transmission power or cease transmission for a predetermined period of time to a scheduled pair of UEs (111, 115; 203, 205) served by the aggressor node (109, 201) in the selected frequency resource, or share scheduling information and data to be scheduled (119, 219) with the victim node (101, 209) whereby to enable interference cancellation for DL-UL interference generated by the aggressor node (109, 201). transmitting an interference indicator message, IIM, from the victim node (101, 209) to the aggressor node (109, 201) including data representing an indication that the victim node (101, 209) intends to schedule full-duplex communication with a pair of UEs (103, 105; 211, 215) using a selected one of the multiple frequency resources, wherein the aggressor node (109, 201), on the basis of the IIM message, is operable to decrease transmission power or cease transmission for a predetermined period of time to a scheduled pair of UEs (111, 115; 203, 205) served by the aggressor node (109, 201) in the selected frequency resource, or share scheduling information and data to be scheduled (119, 219) with the victim node (101, 209) whereby to enable interference cancellation for DL-UL interference generated by the aggressor node (109, 201).
A mixture comprising: a) at least one alcohol solvent; b) at least one ester solvent; c) at least one cellulose ether therein solvated; and d) anisotropic conductive nanoparticles uniformly dispersed in said mixture wherein said anisotropic conductive nanoparticles are silver nanowires wherein said at least one alcohol solvent is from 40% to 99.5% by volume of said mixture and said at least one ester solvent is not greater than 50 % by volume of said mixture, wherein the alcohol solvent is selected from the group consisting of methyl alcohol and isopropyl alcohol and mixtures thereof and the ester solvent is selected from the group consisting of methyl acetate, ethyl acetate, butyl acetate, and isopropyl acetate. a) at least one alcohol solvent; b) at least one ester solvent; c) at least one cellulose ether therein solvated; and d) anisotropic conductive nanoparticles uniformly dispersed in said mixture
A wrap spring clutch (10, 60, 80, 110) comprising: a rotatable input (12, 62, 82, 112); a spring (22, 72, 92, 122) comprising a first and a second end and having an equilibrium state and a flexed state, the spring (22, 72, 92, 122) engaged with the input (12, 62, 82, 112) through one of the first and second ends such that the spring rotates with the input and with an input torque transmitted exclusively through one of the first and second ends when the input (12, 62, 82, 112) rotates; a damper mechanism engaged with one of the first and second ends such that the damper mechanism causes the spring (22, 72, 92, 122) to change from its equilibrium to its flexed state when the input (12, 62, 82, 112) transitions from stationary to rotational, and such that the damper mechanism allows the spring (22, 72, 92, 122) to change from its flexed to its equilibrium state when the input (12, 62, 82, 112) transitions from rotational to stationary; characterized in that it further comprises a rotatable output (14, 64, 84, 114) positioned relative to the spring (22, 72, 92, 122) such that the output (14, 64, 84, 114) alternately rotates independently and synchronously with the input (12, 62, 82, 112) when the spring (22, 72, 92, 122) changes between its flexed and equilibrium states. a rotatable input (12, 62, 82, 112); a spring (22, 72, 92, 122) comprising a first and a second end and having an equilibrium state and a flexed state, the spring (22, 72, 92, 122) engaged with the input (12, 62, 82, 112) through one of the first and second ends such that the spring rotates with the input and with an input torque transmitted exclusively through one of the first and second ends when the input (12, 62, 82, 112) rotates; a damper mechanism engaged with one of the first and second ends such that the damper mechanism causes the spring (22, 72, 92, 122) to change from its equilibrium to its flexed state when the input (12, 62, 82, 112) transitions from stationary to rotational, and such that the damper mechanism allows the spring (22, 72, 92, 122) to change from its flexed to its equilibrium state when the input (12, 62, 82, 112) transitions from rotational to stationary; characterized in that it further comprises a rotatable output (14, 64, 84, 114) positioned relative to the spring (22, 72, 92, 122) such that the output (14, 64, 84, 114) alternately rotates independently and synchronously with the input (12, 62, 82, 112) when the spring (22, 72, 92, 122) changes between its flexed and equilibrium states.
A work tool configured to perform an operation on a workpiece by driving a tool accessory, the work tool comprising an outer housing having an elongate shape, an inner housing (3; 30) having an elongate shape and housed in the outer housing, a motor having an output shaft, the output shaft being rotatable around a first axis extending in a direction crossing a longitudinal direction of the inner housing, a spindle rotatably supported around a second axis extending in parallel to the first axis, the spindle being configured such that the tool accessory is removably mounted thereto, and a transmitting mechanism configured to transmit rotation of the output shaft to the spindle to reciprocally rotate the spindle within a prescribed angle range around the second axis, wherein the inner housing (3; 30) includes a first end part, the first end part being one end part in the longitudinal direction, a second end part (33; 330), the second end part (33; 330) being another end part in the longitudinal direction, an extending part integrally formed with the first end part and extending toward the second end part (33; 330) in the longitudinal direction, and an elastic connection part configured to elastically connect the extending part and the second end part (33; 330), the motor, the spindle and the transmitting mechanism are disposed in the first end part of the inner housing (31, 33; 330), the first end part is connected to the outer housing via a first elastic member, the second end part (33; 330) includes a power-source-related device configured to enable power supply from a power source to the motor, the elastic connection part includes a plurality of second elastic members, the plurality of second elastic members connecting the extending part and the second end part (33; 330), and the second elastic members are spaced apart from each other in a circumferential direction around the longitudinal direction. a first end part, the first end part being one end part in the longitudinal direction, a second end part (33; 330), the second end part (33; 330) being another end part in the longitudinal direction, an extending part integrally formed with the first end part and extending toward the second end part (33; 330) in the longitudinal direction, and an elastic connection part configured to elastically connect the extending part and the second end part (33; 330),
An in vitro method of preparing a population of hematopoietic stem cells, the method comprising: providing a population comprising hemogenic endothelial cells, and (i) subjecting a population comprising hemogenic endothelial cells to cyclic 2-dimensional stretching ex vivo or in vitro, for a time and under conditions sufficient to stimulate endothelial-to-HSC transition; and/or (ii) contacting a population comprising hemogenic endothelial cells ex vivo or in vitro with an amount of an agonist of transient receptor potential cation channel-subfamily vanilloid member 4 (Trpv4). (i) subjecting a population comprising hemogenic endothelial cells to cyclic 2-dimensional stretching ex vivo or in vitro, for a time and under conditions sufficient to stimulate endothelial-to-HSC transition; and/or (ii) contacting a population comprising hemogenic endothelial cells ex vivo or in vitro with an amount of an agonist of transient receptor potential cation channel-subfamily vanilloid member 4 (Trpv4).