mhurhangee/ep-ind-claims huggingface dataset:
Use of an organopolysiloxane/polyurea block copolymer of formula 1 where R are a monovalent, if appropriate fluorine- or chlorine-substituted hydrocarbon moiety having from 1 to 20 carbon atoms, X are an alkylene moiety having from 1 to 20 carbon atoms, in which methylene units that are not adjacent to one another can have been replaced by -O- groups, or are an arylene moiety having from 6 to 22 carbon atoms, A are an oxygen atom or an amino group -NR'-, R 1 are hydrogen or an alkyl moiety having from 1 to 10 carbon atoms, Y are a divalent, if appropriate fluorine- or chlorine-substituted hydrocarbon moiety having from 1 to 20 carbon atoms, B and B' are a reactive or unreactive terminal group, covalently bonded to the polymer, n is a number from 1 to 4000, and a is a number which is at least 10, as coating on a pretreated plastics surface, the polar component of the surface energy of which is at least twice as great as that of the untreated plastics surface. R are a monovalent, if appropriate fluorine- or chlorine-substituted hydrocarbon moiety having from 1 to 20 carbon atoms, X are an alkylene moiety having from 1 to 20 carbon atoms, in which methylene units that are not adjacent to one another can have been replaced by -O- groups, or are an arylene moiety having from 6 to 22 carbon atoms, A are an oxygen atom or an amino group -NR'-, R 1 are hydrogen or an alkyl moiety having from 1 to 10 carbon atoms, Y are a divalent, if appropriate fluorine- or chlorine-substituted hydrocarbon moiety having from 1 to 20 carbon atoms, B and B' are a reactive or unreactive terminal group, covalently bonded to the polymer, n is a number from 1 to 4000, and a is a number which is at least 10,
A method for delay scheduling, the method comprising: transmitting, by a communications controller to user equipment in a first subframe, a downlink control information, DCI, message for scheduling a physical downlink shared channel, PDSCH, wherein the DCI message comprises information for determining a delay between a second subframe and the first subframe, and the second subframe is a subframe where the PDSCH is to be transmitted; transmitting, by the communications controller to the user equipment, the PDSCH in a second subframe; characterized in that information indicating a starting symbol of the PDSCH in the second subframe is transmitted by the communication controller to the user equipment. transmitting, by a communications controller to user equipment in a first subframe, a downlink control information, DCI, message for scheduling a physical downlink shared channel, PDSCH, wherein the DCI message comprises information for determining a delay between a second subframe and the first subframe, and the second subframe is a subframe where the PDSCH is to be transmitted; transmitting, by the communications controller to the user equipment, the PDSCH in a second subframe; characterized in that information indicating a starting symbol of the PDSCH in the second subframe is transmitted by the communication controller to the user equipment.
A height channel speaker for transmitting sound waves to be reflected off an upper surface of a listening environment, comprising: an enclosure having a first side and a second side joined by an inclined surface, wherein the first side has a lower vertical height than the second side; a transducer installed on the inclined surface and positioned to radiate acoustic energy along a radiant axis that is perpendicular to a plane defined by the inclined surface; an acoustic reflector attached to the first side and configured to direct, shape, and focus the radiated acoustic energy to the upper surface of the listening environment; and a wall structure attached to the second side and extending above the enclosure substantially parallel to the acoustic reflector. an enclosure having a first side and a second side joined by an inclined surface, wherein the first side has a lower vertical height than the second side; a transducer installed on the inclined surface and positioned to radiate acoustic energy along a radiant axis that is perpendicular to a plane defined by the inclined surface; an acoustic reflector attached to the first side and configured to direct, shape, and focus the radiated acoustic energy to the upper surface of the listening environment; and a wall structure attached to the second side and extending above the enclosure substantially parallel to the acoustic reflector.
A control device controlling motions of an inverted vehicle which keeps an inverted state, the inverted vehicle having driving means having a wheel and a load controlled to keep the inverted state above the wheel through a link, the control device executing the following control of: defining an angle between a straight line connecting a center of gravity of the load with a center of gravity of the wheel and a vertical straight line as a load angular position; characterized by, applying only a damping to the inverted vehicle if the load angular position is in the vicinity of a load angular position reference input that is a desired load angular position. defining an angle between a straight line connecting a center of gravity of the load with a center of gravity of the wheel and a vertical straight line as a load angular position; characterized by, applying only a damping to the inverted vehicle if the load angular position is in the vicinity of a load angular position reference input that is a desired load angular position.
A liquid crystalline polyester composition, at least containing 100 parts by weight of liquid crystalline polyester and 10 to 100 parts by weight of glass fiber, wherein the glass fiber has a weight-average fiber length of 30 to 100 μm, and content of specific glass fiber having fiber length of 300 to 500 μm is 0.1 to 5.0 percent by weight to a total amount of the glass fiber, wherein the weight-average fiber length of the glass fiber and the content of the specific glass fiber having a fiber length of 300 to 500 μm are determinable by the following procedure: (a) heating ten grams of pellets, composed of a composition containing liquid crystalline polyester and glass fibers, in the air at 550°C for 8 hours for removal of the resin; (b) observing the remaining glass fibers with an optical microscope at 120-fold magnification; and (c) measuring the fiber length with respect to 1000 or more glass fibers selected at random; wherein the weight-average fiber length is given by (∑ni·Li 2)/(∑ni·Li), where Li represents the range (division) of the fiber length of the glass fiber and ni is calculated by (the number of glass fibers having the fiber length in the range Li) / (the total number of measured glass fibers); and the content of the specific glass fiber having the fiber length of 300 to 500 μm (percent by weight) is given by (∑na·La)/(∑ni·Li)×100, where La represents the range (division) of the fiber length of the glass fiber included in the range of 300 to 500 μm, and na is calculated by (the number of glass fibers having the fiber length in the range La) / (the total number of measured glass fibers). (a) heating ten grams of pellets, composed of a composition containing liquid crystalline polyester and glass fibers, in the air at 550°C for 8 hours for removal of the resin; (b) observing the remaining glass fibers with an optical microscope at 120-fold magnification; and (c) measuring the fiber length with respect to 1000 or more glass fibers selected at random; wherein the weight-average fiber length is given by (∑ni·Li 2)/(∑ni·Li), where Li represents the range (division) of the fiber length of the glass fiber and ni is calculated by (the number of glass fibers having the fiber length in the range Li) / (the total number of measured glass fibers); and the content of the specific glass fiber having the fiber length of 300 to 500 μm (percent by weight) is given by (∑na·La)/(∑ni·Li)×100, where La represents the range (division) of the fiber length of the glass fiber included in the range of 300 to 500 μm, and na is calculated by (the number of glass fibers having the fiber length in the range La) / (the total number of measured glass fibers).
A system for tracking an object, the system comprising: a tracking station in communication with a network; a first tag coupled to the object, the first tag comprising a first tag identifier and a transmitter, the transmitter effective to communicate a location of the first tag to the tracking station over the network; a second tag, assigned to a passenger, comprising a second tag identifier and a second transmitter effective to communicate a location of the second tag to the tracking station over the network; and a database in communication with the tracking station, the database effective to associate the first tag identifier with the second tag identifier, wherein the transmitter of the first tag is a wireless Assisted Global Positioning System (AGPS) transmitter, and wherein the second transmitter is a wireless Assisted Global Positioning System (AGPS) transmitter. a tracking station in communication with a network; a first tag coupled to the object, the first tag comprising a first tag identifier and a transmitter, the transmitter effective to communicate a location of the first tag to the tracking station over the network; a second tag, assigned to a passenger, comprising a second tag identifier and a second transmitter effective to communicate a location of the second tag to the tracking station over the network; and a database in communication with the tracking station, the database effective to associate the first tag identifier with the second tag identifier, wherein the transmitter of the first tag is a wireless Assisted Global Positioning System (AGPS) transmitter, and wherein the second transmitter is a wireless Assisted Global Positioning System (AGPS) transmitter.
A control information indication method performed by a base station, comprising: setting a cell identity, CID, in an information field of a piece of control information, the CID is used for a user equipment, UE, to determine a serving cell to which data corresponding to the control information belongs; sending at least one piece of the control information carried in a first serving cell to the UE; wherein the at least one piece of control information is carried on a high speed shared control channel, HS-SCCH, of the first serving cell; and wherein the information field of the control information comprises a first part and a second part, and the CID is set in both the first part and the second part in the information field of the control information, and the first part and the second part separately carry a same CID independently; or the CID is split into at least two parts, which are separately carried in the first part and the second part in the information field of the control information. setting a cell identity, CID, in an information field of a piece of control information, the CID is used for a user equipment, UE, to determine a serving cell to which data corresponding to the control information belongs; sending at least one piece of the control information carried in a first serving cell to the UE; wherein the at least one piece of control information is carried on a high speed shared control channel, HS-SCCH, of the first serving cell; and wherein the information field of the control information comprises a first part and a second part, and the CID is set in both the first part and the second part in the information field of the control information, and the first part and the second part separately carry a same CID independently; or the CID is split into at least two parts, which are separately carried in the first part and the second part in the information field of the control information.
A timepiece component comprising: a substrate comprising silicon, the substrate having an insertion portion configured to accommodate an axle; and a coating film disposed in a contact portion and configured to come into contact with at an axle, on a front surface of the substrate, wherein the coating film comprises a metal alkoxide having a fluorine atom wherein the metal alkoxide comprises a polymer group having 3 to 30 carbon atoms, wherein a silicon oxide layer is disposed on a front surface of the substrate, wherein the coating film is disposed on a front surface of the silicon oxide layer, wherein the timepiece component is an escape wheel, wherein the escape wheel includes a rim having a plurality of teeth, a first holder extending in a direction from the rim toward the axle, and a second holder having a first portion extending in a direction intersecting the first holder, and a second portion connected to the first portion and extending in a direction from the first portion toward the axle. a substrate comprising silicon, the substrate having an insertion portion configured to accommodate an axle; and a coating film disposed in a contact portion and configured to come into contact with at an axle, on a front surface of the substrate, wherein the coating film comprises a metal alkoxide having a fluorine atom wherein the metal alkoxide comprises a polymer group having 3 to 30 carbon atoms, wherein a silicon oxide layer is disposed on a front surface of the substrate, wherein the coating film is disposed on a front surface of the silicon oxide layer, wherein the timepiece component is an escape wheel, wherein the escape wheel includes a rim having a plurality of teeth, a first holder extending in a direction from the rim toward the axle, and a second holder having a first portion extending in a direction intersecting the first holder, and a second portion connected to the first portion and extending in a direction from the first portion toward the axle. a rim having a plurality of teeth, a first holder extending in a direction from the rim toward the axle, and a second holder having a first portion extending in a direction intersecting the first holder, and a second portion connected to the first portion and extending in a direction from the first portion toward the axle.
An imaging device comprising an imaging unit attachable to a bracket, wherein the imaging unit comprises a plurality of supported parts to be supported by the bracket, the supported parts are provided with a first supported part on each end of the imaging unit in a width direction crossing a light axis direction at one end of the imaging unit in the light axis direction, and a second supported part in a center part in the width direction at another end of the imaging unit in the light axis direction, and the supported parts have supported points, which are supported by the bracket, and load points, which receive a biasing force operating toward the supported points from the bracket, further comprising the bracket to which the imaging unit is attachable, wherein the bracket has a plurality of support structural parts which supports the plurality of supported parts, the support structural part has a biasing part which causes a biasing force to operate at the load point of the supported part and a supporting part that causes a drag against the biasing force to operate at the supported point of the supported part, the biasing part extends along the light axis direction of the imaging unit and has one end in the light axis direction as a fixed end and another end in the light axis direction as a free end, and the supporting part faces the biasing part in a direction crossing the light axis direction of the imaging unit and the width direction of the imaging unit characterized in that the first supported parts on the ends of the imaging unit have a semicircular columnar shape having a flat surface to be supported by a biasing part of a first support structural part of the bracket.
Speed reduction gear comprising two intermediate transmission lines, in particular for a turbine engine, comprising an input line and an output line that is driven by the input line via said intermediate transmission lines, said intermediate transmission lines being substantially parallel, the reduction gear comprises means for distributing loads between said intermediate lines, characterized in that said load distribution means comprise swivelling coupling means for rotatably coupling one end of the input line, and oil-damping means (40, 50) for damping radial movements of an opposite end of the input line.
A phosphorus-containing epoxy resin of a compound of Formula: wherein each Z is independently a compound of Formula:, a compound of Formula:, or a compound of Formula: wherein: each R 1 and R 2 is independently hydrogen or an alkyl moiety; R in the compound of Formula I is a cycloaliphatic diradical, a bicyclic aliphatic diradical, or a tricyclic aliphatic diradical having 6 to 30 carbons; and each Y and X is independently hydrogen, an aliphatic moiety having 1 to 20 carbon atoms or an aromatic hydrocarbon moiety having 6 to 20 carbon atoms. each R 1 and R 2 is independently hydrogen or an alkyl moiety; R in the compound of Formula I is a cycloaliphatic diradical, a bicyclic aliphatic diradical, or a tricyclic aliphatic diradical having 6 to 30 carbons; and each Y and X is independently hydrogen, an aliphatic moiety having 1 to 20 carbon atoms or an aromatic hydrocarbon moiety having 6 to 20 carbon atoms.
A method for creating a component to be created in multiple sections and work stages with formwork for water-tight joints between the successively created components with or without reinforcement penetration having inlying shut-off means for penetrating water arranged in the joint, wherein at least one bead or one rib or one groove is configured in the formwork of the first component in the contact or end face thereof, wherein the rib or groove forms a labyrinth as shut-off means with the neighboring parts of the end face following the molding of the subsequent component, characterized in that in order to form a bead, a rib or a groove at least two spaced apart shuttering boards are fixed with at least one end element to the ceiling formwork in order to form at least one intermediate space between the shuttering boards.
A composition comprising: (a) cabazitaxel, and (b) a sulfobutylether beta-cyclodextrin, wherein such composition does not contain any ethanol. (a) cabazitaxel, and (b) a sulfobutylether beta-cyclodextrin,
An adjustable sensor interface, comprising: a first operational amplifier comprising a first inverting input, a first non-inverting input, and a first output; first gain circuitry comprising an input coupled to said first output of said operational amplifier, said first gain circuitry also comprising an output; a first gain stage comprising a gain stage input coupled to said first output of said operational amplifier, an output, and a first gain stage switch configured to have a closed state and an open state, said first gain stage being electrically coupled to said first gain circuitry; a first resistor having a first end coupled to said output of said first gain circuitry, said resistor further having a second end coupled to said output of said first gain stage and said inverting input of said first operational amplifier; and control circuitry coupled to said first gain stage and configured to control a state of said first gain stage switch, wherein said first gain circuitry is configured to provide a first feedback current at said second end of said first resistor when said first gain stage switch is in an open state, and wherein said first gain stage and said first gain circuitry are each configured to provide a feedback current having an approximately equal magnitude at said second end of said first resistor when said first gain stage switch is in a closed state, and wherein a gain of said first operational amplifier is varied based on the state of said first gain stage switch. a first operational amplifier comprising a first inverting input, a first non-inverting input, and a first output; first gain circuitry comprising an input coupled to said first output of said operational amplifier, said first gain circuitry also comprising an output; a first gain stage comprising a gain stage input coupled to said first output of said operational amplifier, an output, and a first gain stage switch configured to have a closed state and an open state, said first gain stage being electrically coupled to said first gain circuitry; a first resistor having a first end coupled to said output of said first gain circuitry, said resistor further having a second end coupled to said output of said first gain stage and said inverting input of said first operational amplifier; and control circuitry coupled to said first gain stage and configured to control a state of said first gain stage switch, wherein said first gain circuitry is configured to provide a first feedback current at said second end of said first resistor when said first gain stage switch is in an open state, and wherein said first gain stage and said first gain circuitry are each configured to provide a feedback current having an approximately equal magnitude at said second end of said first resistor when said first gain stage switch is in a closed state, and wherein a gain of said first operational amplifier is varied based on the state of said first gain stage switch.
A method for filling a flangeless container comprising the steps of: capping the container using a cap element; installing the container in a tray; filling the container; applying a piston (212; 270) to the knockout rod; gripping a sidewall of the container using a handling apparatus (200; 250) to form a seal (216; 218); applying a vacuum to the container; inserting the piston (212; 270) into the container; releasing the vacuum; releasing the piston (212; 270); and releasing the container from the handling apparatus. capping the container using a cap element; installing the container in a tray; filling the container; applying a piston (212; 270) to the knockout rod; gripping a sidewall of the container using a handling apparatus (200; 250) to form a seal (216; 218); applying a vacuum to the container; inserting the piston (212; 270) into the container; releasing the vacuum; releasing the piston (212; 270); and releasing the container from the handling apparatus.