mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile device , comprising: a processor ; and a transmitter , characterized in that the transmitter is configured to: transmit, to a fixed device installed at a fixed location, an operation command sequence, for automatically registering the fixed device at a server according to installation of the fixed device, comprising operation commands for the fixed device that are mapped to the identification information and to the location information of the mobile device , and receive, from the server which receives, from the fixed device , operation status information indicating operation status which corresponds to the operation commands and registers the fixed device using a location information of the fixed device estimated based on the operation status information, information indicating that the location information of the fixed device has been registered at the server , and wherein the processor is configured to control to display the information indicating that the location information of the fixed device has been registered at the server . a processor ; and a transmitter , characterized in that the transmitter is configured to: transmit, to a fixed device installed at a fixed location, an operation command sequence, for automatically registering the fixed device at a server according to installation of the fixed device, comprising operation commands for the fixed device that are mapped to the identification information and to the location information of the mobile device , and receive, from the server which receives, from the fixed device , operation status information indicating operation status which corresponds to the operation commands and registers the fixed device using a location information of the fixed device estimated based on the operation status information, information indicating that the location information of the fixed device has been registered at the server , and wherein the processor is configured to control to display the information indicating that the location information of the fixed device has been registered at the server . transmit, to a fixed device installed at a fixed location, an operation command sequence, for automatically registering the fixed device at a server according to installation of the fixed device, comprising operation commands for the fixed device that are mapped to the identification information and to the location information of the mobile device , and receive, from the server which receives, from the fixed device , operation status information indicating operation status which corresponds to the operation commands and registers the fixed device using a location information of the fixed device estimated based on the operation status information, information indicating that the location information of the fixed device has been registered at the server , and wherein the processor is configured to control to display the information indicating that the location information of the fixed device has been registered at the server .
A freezer comprising: a housing comprising a plurality of insulated members that define a tunnel , the tunnel having a floor , opposing first and second sidewalls that extend upwardly from the floor, and a ceiling located opposite the floor, the housing having a first opening at a first end of the tunnel that defines an entrance and a second opening at an opposing second end of the tunnel that defines an exit, a length of the tunnel extending from the entrance to the exit; a delivery system adapted to introduce a cryogenic fluid into the tunnel ; a belt extending along the length of the tunnel and being continuous, the belt having an upper run that extends through the tunnel and a lower run that extends through the tunnel; and a drive assembly and a tensioning assembly located outside of the tunnel that retain the ends of the belt , wherein the belt is not supported by any other belt guide structures other than said drive and tensioning assemblies, the drive assembly being adapted to drive the belt, and the drive assembly, tensioning assembly, belt and housing being configured so that the upper run lies atop the lower run when the belt is operated. a housing comprising a plurality of insulated members that define a tunnel , the tunnel having a floor , opposing first and second sidewalls that extend upwardly from the floor, and a ceiling located opposite the floor, the housing having a first opening at a first end of the tunnel that defines an entrance and a second opening at an opposing second end of the tunnel that defines an exit, a length of the tunnel extending from the entrance to the exit; a delivery system adapted to introduce a cryogenic fluid into the tunnel ; a belt extending along the length of the tunnel and being continuous, the belt having an upper run that extends through the tunnel and a lower run that extends through the tunnel; and a drive assembly and a tensioning assembly located outside of the tunnel that retain the ends of the belt , wherein the belt is not supported by any other belt guide structures other than said drive and tensioning assemblies, the drive assembly being adapted to drive the belt, and the drive assembly, tensioning assembly, belt and housing being configured so that the upper run lies atop the lower run when the belt is operated.
A confocal microscope comprising: a light source ; a stage adapted to secure a sample thereto; a plurality of linear array detectors ; and an optical system comprising; a cylindrical lens , a beam splitter and an objective lens the cylindrical lens positioned so as to receive a first light emitted by the light source and focus the first light in a line upon a selected plane of the sample when secured to the stage via the beam splitter and without said first light passing through the objective lens; and the objective lens positioned so as to receive a second light from the sample in response to incidence of the first light upon the sample and focus the second light upon at least one of the plurality of linear array detectors ; wherein the stage is further adapted to position the sample at about the focal plane of the objective lens and to move the sample with respect to the focused line of the first light. a light source ; a stage adapted to secure a sample thereto; a plurality of linear array detectors ; and an optical system comprising; a cylindrical lens , a beam splitter and an objective lens the cylindrical lens positioned so as to receive a first light emitted by the light source and focus the first light in a line upon a selected plane of the sample when secured to the stage via the beam splitter and without said first light passing through the objective lens; and the objective lens positioned so as to receive a second light from the sample in response to incidence of the first light upon the sample and focus the second light upon at least one of the plurality of linear array detectors ; a cylindrical lens , a beam splitter and an objective lens the cylindrical lens positioned so as to receive a first light emitted by the light source and focus the first light in a line upon a selected plane of the sample when secured to the stage via the beam splitter and without said first light passing through the objective lens; and the objective lens positioned so as to receive a second light from the sample in response to incidence of the first light upon the sample and focus the second light upon at least one of the plurality of linear array detectors ; wherein the stage is further adapted to position the sample at about the focal plane of the objective lens and to move the sample with respect to the focused line of the first light.
A duct cutting and forming apparatus for elbow duct manufacturing machine, comprising: a rotation housing that is provided with a seating groove in a first direction; an eccentric housing that is provided with a cutting roller and a forming roller at both ends, and that is slidably seated inside the seating groove; a rotation drive for applying rotation driving force to the rotation housing; and an eccentric drive for applying driving force for reciprocating the eccentric housing, the apparatus being characterized in that the eccentric drive is configured to rotate in both directions within a range not exceeding 180 degrees in order to reciprocate the eccentric housing. a rotation housing that is provided with a seating groove in a first direction; an eccentric housing that is provided with a cutting roller and a forming roller at both ends, and that is slidably seated inside the seating groove; a rotation drive for applying rotation driving force to the rotation housing; and an eccentric drive for applying driving force for reciprocating the eccentric housing, the apparatus being characterized in that the eccentric drive is configured to rotate in both directions within a range not exceeding 180 degrees in order to reciprocate the eccentric housing.
A holding system for attachment to a device for testing and/or manipulating samples , the holding system comprising: - a holding module for attaching the holding system to the device ; and - a carrier module held on the holding module in a repeatedly exchangeable manner for receiving and/or holding a sample , characterized in that the holding system provides a reference position for the carrier module , in which the carrier module is fixed in a repeatedly reproducible position relative to the holding module , and wherein the carrier module is latchable to the holding module in the reference position . - a holding module for attaching the holding system to the device ; and - a carrier module held on the holding module in a repeatedly exchangeable manner for receiving and/or holding a sample ,
Method for manufacturing timepiece components of fragile material, comprising the following steps: a) producing timepiece components in a plate of fragile material, the timepiece components remaining attached to the plate by material bridges , b) subjecting the timepiece components to a thermal treatment and, during this thermal treatment, applying a force, by means of a tool , to at least one zone of at least one of the timepiece components so as to deform it permanently, the at least one of the timepiece components , excluding the at least one zone , being in abutment against a support during the application of the force, c) detaching the timepiece components from the plate , characterised in that step c) takes place after step b). a) producing timepiece components in a plate of fragile material, the timepiece components remaining attached to the plate by material bridges , b) subjecting the timepiece components to a thermal treatment and, during this thermal treatment, applying a force, by means of a tool , to at least one zone of at least one of the timepiece components so as to deform it permanently, the at least one of the timepiece components , excluding the at least one zone , being in abutment against a support during the application of the force, c) detaching the timepiece components from the plate ,
A system comprising: at least one heat exchanger ; a ram fan driven by a motor , wherein a motor control circuit is configured to provide power to the motor to drive the ram fan, wherein the ram fan is configured to provide a ram flow through the at least one heat exchanger from a ram air inlet ; a controller configured to determine a blockage level of the at least one heat exchanger based on a determined surge margin of the ram fan, wherein the controller is further configured to determine the determined surge margin based on the power to the motor, a corrected speed of the fan, and lab data or field data for the ram fan that is indicative of power or current used to drive the ram fan at_varying levels of contamination, wherein the corrected speed of the fan is determined using a speed of the ram fan, and a temperature of the ram flow at a ram air outlet that is an inlet to the ram fan and the lab data or field data for the ram fan that is indicative of power or current used to drive the ram fan at varying levels of contamination may be used to form indicators for heat exchanger blockage; wherein the system does not include a differential pressure sensor to measure pressure difference across the ram fan. at least one heat exchanger ; a ram fan driven by a motor , wherein a motor control circuit is configured to provide power to the motor to drive the ram fan, wherein the ram fan is configured to provide a ram flow through the at least one heat exchanger from a ram air inlet ; a controller configured to determine a blockage level of the at least one heat exchanger based on a determined surge margin of the ram fan, wherein the controller is further configured to determine the determined surge margin based on the power to the motor, a corrected speed of the fan, and lab data or field data for the ram fan that is indicative of power or current used to drive the ram fan at_varying levels of contamination, wherein the corrected speed of the fan is determined using a speed of the ram fan, and a temperature of the ram flow at a ram air outlet that is an inlet to the ram fan and the lab data or field data for the ram fan that is indicative of power or current used to drive the ram fan at varying levels of contamination may be used to form indicators for heat exchanger blockage; wherein the system does not include a differential pressure sensor to measure pressure difference across the ram fan.
A device for loading and forming smoking articles comprising: a body section ; a first socket formed in a top area of the body section; a second socket formed in a bottom area of the body section; a plurality of channels formed in a bottom area of the first socket , the channels extending through the body section into the second socket , the channels formed around a perimeter of the first socket and each configured to hold a smoking article; a tube formed in a center area of the first socket; a plate having a plurality of openings , the plate rotatable within the first socket to allow one to align a desired number of the plurality of openings with corresponding channels of the plurality of channels; a pin opening formed in a center area of the plate, the pin opening aligned with the tube when the plate is inserted into the first socket; a pin member insertable into the pin opening and the tube, the pin member securing the plate in position; and a cap insertable into the first socket when loading the smoking articles to seal the first socket and to prevent tobacco placed in the first socket from escaping, and into the second socket to push the smoking articles out of the channels when loaded. a body section ; a first socket formed in a top area of the body section; a second socket formed in a bottom area of the body section; a plurality of channels formed in a bottom area of the first socket , the channels extending through the body section into the second socket , the channels formed around a perimeter of the first socket and each configured to hold a smoking article; a tube formed in a center area of the first socket; a plate having a plurality of openings , the plate rotatable within the first socket to allow one to align a desired number of the plurality of openings with corresponding channels of the plurality of channels; a pin opening formed in a center area of the plate, the pin opening aligned with the tube when the plate is inserted into the first socket; a pin member insertable into the pin opening and the tube, the pin member securing the plate in position; and a cap insertable into the first socket when loading the smoking articles to seal the first socket and to prevent tobacco placed in the first socket from escaping, and into the second socket to push the smoking articles out of the channels when loaded.
A nonwoven fabric for primary carpet backing, comprising: a first surface layer and a second surface layer, wherein the first surface layer and the second surface layer comprises a mixed filament yarn having a content ratio of a first filament including a first polyester having a melting point of 250°C or more and a carbon black, and a second filament including a second polyester having a melting point of 190°C or less of 95:5 to 85:15%, wherein the first filament constituting the first surface layer contains 0.07 to 0.15% by weight of carbon black, and the first filament constituting the second surface layer contains 0.37 to 0.5% by weight of carbon black, and wherein the total content of the carbon black in the first surface layer is 0.06 to 0.15% by weight, and the total content of the carbon black in the second surface layer is 0.3 to 0.5% by weight. wherein the first surface layer and the second surface layer comprises a mixed filament yarn having a content ratio of a first filament including a first polyester having a melting point of 250°C or more and a carbon black, and a second filament including a second polyester having a melting point of 190°C or less of 95:5 to 85:15%, wherein the first filament constituting the first surface layer contains 0.07 to 0.15% by weight of carbon black, and the first filament constituting the second surface layer contains 0.37 to 0.5% by weight of carbon black, and wherein the total content of the carbon black in the first surface layer is 0.06 to 0.15% by weight, and the total content of the carbon black in the second surface layer is 0.3 to 0.5% by weight.
A method of transmitting, by a base station , scheduling information, the method comprising, in a time-division-duplex, TDD, mobile communication system using a plurality of radio frames that each include downlink subframes reserved for downlink transmission and uplink subframes reserved for uplink transmission: transmitting (S220), to a user equipment , scheduling information on a downlink control channel within a downlink subframe in a radio frame, the scheduling information comprising information on a position of at least one uplink subframe for which an uplink resource is assigned relative to a position of the downlink subframe, information on a number of the at least one uplink subframe, and the uplink resource assignment, wherein the uplink resource assignment identifies a radio resource to be used for uplink data transmission in the at least one uplink subframe, and wherein a number of downlink subframes in the radio frame is less than a number of uplink subframes in the radio frame. transmitting (S220), to a user equipment , scheduling information on a downlink control channel within a downlink subframe in a radio frame, the scheduling information comprising information on a position of at least one uplink subframe for which an uplink resource is assigned relative to a position of the downlink subframe, information on a number of the at least one uplink subframe, and the uplink resource assignment, wherein the uplink resource assignment identifies a radio resource to be used for uplink data transmission in the at least one uplink subframe, and wherein a number of downlink subframes in the radio frame is less than a number of uplink subframes in the radio frame.
Coordinate-measuring machine having a Selective Compliance Robot Arm (SCARA)-structure, configured for determining at least one spatial coordinate of a measurement point on a measuring object, comprising: • a base , • a carrier comprising more than one carrier segments (3',3",3′′′,3ʺ,3′′′ʺ), which are horizontally pivotable relative to each other about vertical segment axes (9,9',9"), wherein a proximal end of the carrier is mounted pivotably about a vertical base axis in the base, • a measuring probe being arranged on a distal end of the carrier, • an angle measuring system for determining pivot angles of the more than one carrier segments, • at least one belt drive comprising: ∘ a base pulley being arranged in the base , wherein the axis of the base pulley coincides with the vertical base axis , ∘ at least one follower pulley (6,6',6",6′′′,6ʺʺ) being arranged on at least one of the carrier segments, wherein one follower pulley is fixedly connected to a carrier segment, and ∘ at least one belt (7,7',7") binding the rotatory behaviour of said pulleys, and • at least one motor (m) arranged in the base and driving the base pulley for a controlled positioning of the measuring probe or a carrier segment (3',3",3′′′,3ʺʺ,3′′′ʺ), and • a control unit for controlling the motor. • a base , • a carrier comprising more than one carrier segments (3',3",3′′′,3ʺ,3′′′ʺ), which are horizontally pivotable relative to each other about vertical segment axes (9,9',9"), wherein a proximal end of the carrier is mounted pivotably about a vertical base axis in the base, • a measuring probe being arranged on a distal end of the carrier, • an angle measuring system for determining pivot angles of the more than one carrier segments, • at least one belt drive comprising: ∘ a base pulley being arranged in the base , wherein the axis of the base pulley coincides with the vertical base axis , ∘ at least one follower pulley (6,6',6",6′′′,6ʺʺ) being arranged on at least one of the carrier segments, wherein one follower pulley is fixedly connected to a carrier segment, and ∘ at least one belt (7,7',7") binding the rotatory behaviour of said pulleys, and ∘ a base pulley being arranged in the base , wherein the axis of the base pulley coincides with the vertical base axis , ∘ at least one follower pulley (6,6',6",6′′′,6ʺʺ) being arranged on at least one of the carrier segments, wherein one follower pulley is fixedly connected to a carrier segment, and ∘ at least one belt (7,7',7") binding the rotatory behaviour of said pulleys, and • at least one motor (m) arranged in the base and driving the base pulley for a controlled positioning of the measuring probe or a carrier segment (3',3",3′′′,3ʺʺ,3′′′ʺ), and • a control unit for controlling the motor.
A mechanism for inserting coil springs (10; 10'; 10") produced by multiple coil winding devices of a pocketed spring assembly machine between fabrics for forming pockets enclosing the coil springs (10; 10'; 10"), the mechanism comprising: multiple parallel conveyor belts , each configured to be associated with a respective one of the coil winding devices and configured to receive coil springs (10; 10'; 10") produced by the respective coil winding device on the conveyor belt ; and a push mechanism configured to push the coil springs (10; 10'; 10") arranged on the conveyor belts , in a direction transversal to a conveying direction of the conveyor belts , between the fabrics and into a welding stage of the pocketed spring assembly machine . multiple parallel conveyor belts , each configured to be associated with a respective one of the coil winding devices and configured to receive coil springs (10; 10'; 10") produced by the respective coil winding device on the conveyor belt ; and a push mechanism configured to push the coil springs (10; 10'; 10") arranged on the conveyor belts , in a direction transversal to a conveying direction of the conveyor belts , between the fabrics and into a welding stage of the pocketed spring assembly machine .