mhurhangee/patent-ind-claim-en huggingface dataset:
A crushing machine comprising: - a frame , - a tank forming an internal grinding track , the tank being mounted on a frame which can be moved in translation at least in a transverse plane with respect to the frame, - a cone forming an external grinding track and placed inside the tank , - the machine further comprising a device for vibrating the tank with respect to the frame in a transverse plane, so that the material is crushed between the internal grinding track and the external grinding track through the relative movement of the tank with respect to the cone ; the device for vibrating the tank comprising at least two vibrators which are mounted on the frame , the machine being characterized in that each vibrator is rotated about a longitudinal axis of the frame by a motor , each motor driving the vibrator with which it is associated independently from one another, the device for vibrating the tank further comprising a system for controlling the motors and a system for measuring the relative phase shift angle between the vibrators , so that the vibration device can take at least three positions: - a so-called zero position, in which the phase shift angle between the vibrators is such that the vibrations of the tank are of minimal amplitude; - a so-called maximum position, in which the phase shift angle between the vibrators is zero, so that the vibrations of the tank are of maximum amplitude ; - at least one so-called intermediate position, in which the phase shift angle between the vibrators is such that the vibrations of the tank are of intermediate amplitude between the maximum amplitude and the minimum amplitude, - the control system being able to switch the vibration device from one position to the other while maintaining the rotation of the vibrators . - a frame , - a tank forming an internal grinding track , the tank being mounted on a frame which can be moved in translation at least in a transverse plane with respect to the frame, - a cone forming an external grinding track and placed inside the tank , - the machine further comprising a device for vibrating the tank with respect to the frame in a transverse plane, so that the material is crushed between the internal grinding track and the external grinding track through the relative movement of the tank with respect to the cone ; - a so-called zero position, in which the phase shift angle between the vibrators is such that the vibrations of the tank are of minimal amplitude; - a so-called maximum position, in which the phase shift angle between the vibrators is zero, so that the vibrations of the tank are of maximum amplitude ; - at least one so-called intermediate position, in which the phase shift angle between the vibrators is such that the vibrations of the tank are of intermediate amplitude between the maximum amplitude and the minimum amplitude, - the control system being able to switch the vibration device from one position to the other while maintaining the rotation of the vibrators .
An apparatus comprising: a substrate having a thickness between a first major surface and a second major surface; a first flow channel that is operative for conveying fluid through the thickness; a first plurality of surface waveguides , each of the first plurality of surface waveguides being optically coupled with the flow channel in a first region , the first plurality of surface waveguides being coplanar in a first plane within the first region; and a second surface waveguide (606-1) that is optically coupled with the flow channel in the first region, the second surface waveguide being located in a second plane within the first region; wherein, the first major surface, the second major surface, the first plane, and the second plane are substantially parallel; and wherein the apparatus is characterized by : a first phase controller (PCE 1402-E-1) that is optically coupled with a first surface waveguide of the first plurality thereof, the first phase controller being operative for controlling the phase of a first light signal propagating in the first surface waveguide. a substrate having a thickness between a first major surface and a second major surface; a first flow channel that is operative for conveying fluid through the thickness; a first plurality of surface waveguides , each of the first plurality of surface waveguides being optically coupled with the flow channel in a first region , the first plurality of surface waveguides being coplanar in a first plane within the first region; and a second surface waveguide (606-1) that is optically coupled with the flow channel in the first region, the second surface waveguide being located in a second plane within the first region; wherein, the first major surface, the second major surface, the first plane, and the second plane are substantially parallel; and wherein the apparatus is characterized by : a first phase controller (PCE 1402-E-1) that is optically coupled with a first surface waveguide of the first plurality thereof, the first phase controller being operative for controlling the phase of a first light signal propagating in the first surface waveguide.
A tire having a bead portion , the bead portion comprising: a bead core ; a first bead filler arranged at a radially outer side of the bead core ; a first carcass layer extending around the bead core and the first bead filler , the first carcass layer extending radially inward adjacent an axially inner side of the bead core , extending axially outward adjacent a radially inner side of the bead core , and extending radially outward adjacent an axially outer side of the bead core ; a second carcass layer extending radially inward and adjacent the first carcass layer ; a second bead filler disposed axially adjacent the second carcass layer ; a first chafer disposed at an axially outer side of the second bead filler ; a second chafer extended about a radially inner end of the first carcass layer ; and a flipper extending radially inward from a position axially adjacent an axially outer side of the first bead filler , the flipper extending axially inward adjacent a radially inner side of the bead core , and the flipper extending radially outward to position axially adjacent a first part of the first carcass layer , a second part of the first carcass layer and a radially outermost end of the first bead filler ; characterized in that the flipper extends radially outward beyond the radially outermost end of the first bead filler . a bead core ; a first bead filler arranged at a radially outer side of the bead core ; a first carcass layer extending around the bead core and the first bead filler , the first carcass layer extending radially inward adjacent an axially inner side of the bead core , extending axially outward adjacent a radially inner side of the bead core , and extending radially outward adjacent an axially outer side of the bead core ; a second carcass layer extending radially inward and adjacent the first carcass layer ; a second bead filler disposed axially adjacent the second carcass layer ; a first chafer disposed at an axially outer side of the second bead filler ; a second chafer extended about a radially inner end of the first carcass layer ; and a flipper extending radially inward from a position axially adjacent an axially outer side of the first bead filler , the flipper extending axially inward adjacent a radially inner side of the bead core , and the flipper extending radially outward to position axially adjacent a first part of the first carcass layer , a second part of the first carcass layer and a radially outermost end of the first bead filler ; characterized in that the flipper extends radially outward beyond the radially outermost end of the first bead filler .
An underwater detection apparatus , comprising: a transmission transducer comprising a plurality of transmission elements (A, 32) fixed to a vessel (S), each transmission element (A, 32) extending in an oblique direction relative to a fore-aft direction of the vessel (S), the plurality of transmission elements (A, 32) being arranged on a curved surface; a reception transducer comprising a plurality of reception elements (B); an attitude information receiver configured to acquire an attitude information of the vessel (S); a transmission circuit configured to drive the plurality of transmission elements (A, 32) based on the attitude information to make the transmission transducer transmit a transmission wave in a given direction relative to the water surface; and a reception circuit configured to obtain a reception signal from each of the plurality of reception elements (B) based on a reflection wave of the transmission wave, the reflection wave being received by the reception transducer , characterized in that : the curved surface is bulging downward and comprises at least a part of a side of a cylinder; and the central axis of the cylinder is configured to extend in the fore-aft direction of the vessel (S). a transmission transducer comprising a plurality of transmission elements (A, 32) fixed to a vessel (S), each transmission element (A, 32) extending in an oblique direction relative to a fore-aft direction of the vessel (S), the plurality of transmission elements (A, 32) being arranged on a curved surface; a reception transducer comprising a plurality of reception elements (B); an attitude information receiver configured to acquire an attitude information of the vessel (S); a transmission circuit configured to drive the plurality of transmission elements (A, 32) based on the attitude information to make the transmission transducer transmit a transmission wave in a given direction relative to the water surface; and a reception circuit configured to obtain a reception signal from each of the plurality of reception elements (B) based on a reflection wave of the transmission wave, the reflection wave being received by the reception transducer , characterized in that : the curved surface is bulging downward and comprises at least a part of a side of a cylinder; and the central axis of the cylinder is configured to extend in the fore-aft direction of the vessel (S). the curved surface is bulging downward and comprises at least a part of a side of a cylinder; and the central axis of the cylinder is configured to extend in the fore-aft direction of the vessel (S).
A block copolymer comprising a first block represented by Formula 6 and a second block represented by Formula 8: wherein R 1 and R 2 each independently are hydrogen or an alkyl group having 1 to 4 carbon atoms; X is a carbonyl group, -C(=O)-X 1 - or -X 1 -C(=O)-, wherein X 1 is an oxygen atom or a sulfur atom; T is an arylene group having 6 to 13 carbon atoms; Q is a single bond or a carbonyl group; and Y is a linear hydrocarbon chain having 8 to 20 chain-forming atoms, wherein X 2 is a single bond, an oxygen atom, a sulfur atom, -C(=O)-X 1 - or - X 1 -C(=O)-, wherein X 1 is a single bond, an oxygen atom or a sulfur atom; and W is an aryl group that has 6 to 12 carbon atoms and that is substituted with 2 or more halogen atoms.
An industrial robot system comprising a dual arm robot having two arms independently movable in relation to each other, a hand-held control device for controlling the robot and provided with a visual display unit for displaying information about the arms, and a first measuring device for measuring the orientation of the control device, characterized in that the control device is configured to display information about one of the arms in a first area on the display unit and to display information about the other arm in a second area on the display unit, and to change the positions of the first and second areas in dependence on the orientation of the control device in relation to the robot so that the positions of the first and second areas on the display unit reflect the orientation of the control device in relation to the positions of the arms.
A user terminal for communicating with a radio base station using carrier aggregation, in which six or more cells can be configured, the user terminal comprising: a reception section configured to receive downlink signals; a transmission section configured to transmit Channel Quality Indicators, CQIs, periodically; and a control section configured to control transmission of the CQIs, characterized in that the transmission section is further configured to transmit multiple CQIs in one subframe, and the control section is further configured to determine transmission periodicity and timing of the multiple CQIs for each cell, based on higher layer signaling. a reception section configured to receive downlink signals; a transmission section configured to transmit Channel Quality Indicators, CQIs, periodically; and a control section configured to control transmission of the CQIs, characterized in that the transmission section is further configured to transmit multiple CQIs in one subframe, and the control section is further configured to determine transmission periodicity and timing of the multiple CQIs for each cell, based on higher layer signaling.
A method for cutting out a plurality of pieces of glass from at least one glass sheet , comprising, in sequence: - a step of automatic generation by a computer with a storage unit, containing programs adapted to calculate a first optimum plan for guillotine cutting at a number of hierarchical levels (X, Y, Z, V) of different pieces from each of said at least one glass sheet , the said number of hierarchical levels being defined as a function of information relating to the size of the pieces to be cut out; - a step of reading information relating to defects in said at least one glass sheet , wherein the method comprises, additionally and subsequently: - a step of automatic generation by a computer with a storage unit, containing programs adapted to calculate a second optimum plan for guillotine cutting at said number of hierarchical levels from said at least one glass sheet , on the basis of said first optimum cutting plan and as a function of at least some of the information relating to the defects, including permutations of cross cut sections at the same hierarchical level within said at least one glass sheet ; - a step of cutting pieces of glass in accordance with said second optimum cutting plan generated. - a step of automatic generation by a computer with a storage unit, containing programs adapted to calculate a first optimum plan for guillotine cutting at a number of hierarchical levels (X, Y, Z, V) of different pieces from each of said at least one glass sheet , the said number of hierarchical levels being defined as a function of information relating to the size of the pieces to be cut out; - a step of reading information relating to defects in said at least one glass sheet , - a step of automatic generation by a computer with a storage unit, containing programs adapted to calculate a second optimum plan for guillotine cutting at said number of hierarchical levels from said at least one glass sheet , on the basis of said first optimum cutting plan and as a function of at least some of the information relating to the defects, including permutations of cross cut sections at the same hierarchical level within said at least one glass sheet ; - a step of cutting pieces of glass in accordance with said second optimum cutting plan generated.
Carrier platform for launching or dropping an unmanned missile at/onto a target, characterized by a shaft-like receiving device for receiving at least one missile which is able to be launched at or dropped onto a target, wherein at least one control surface element (2.1) which is able to be reversibly transferred to an operating position and to a non-operating position is arranged or formed on the missile ; a transfer device which is assigned to the receiving device and is configured to reversibly transfer the or a missile from a first position, arranged inside the shaft-like receiving device , to a second position, arranged outside the shaft-like receiving device , or vice versa, wherein the or a further transfer device is configured to transfer the at least one control surface element (2.1) from the non-operating position to the operating position when the or a missile is transferred from the first position to the second position, and the or the further transfer device is configured to transfer the at least one control surface element (2.1) from the operating position to the non-operating position when the or a missile is transferred from the second position to the first position. the or a further transfer device is configured to transfer the at least one control surface element (2.1) from the non-operating position to the operating position when the or a missile is transferred from the first position to the second position, and the or the further transfer device is configured to transfer the at least one control surface element (2.1) from the operating position to the non-operating position when the or a missile is transferred from the second position to the first position.
A wireless communication system comprising a plurality of radio devices and one or more sink devices , each radio device belongs to one or more radio neighborhoods and is capable of repeating a transmission of a broadcast message regardless of whether the radio device is operating as a router device or as a non-router device , wherein radio devices belonging to each radio neighborhood are configured to repeat collectively a transmission of a broadcast message a collective target amount of repetitions within each radio neighborhood , wherein each radio device , operating as a router device or as a non-router device , within each radio neighborhood to which it belongs is arranged to: define a total repetition load value representing a contribution of said radio device to the collective target amount of repetitions of the broadcast message within said each radio neighborhood to which it belongs, and decide whether to repeat the transmission of the broadcast message in accordance with the defined total repetition load value, wherein each radio device is associated with at least one parent device being a router device , characterized in that the total repetition load value is defined based on an own repetition load value of the radio device and a parent repetition load value of the radio device defined for each of the associated at least one parent device of the radio device , wherein the own repetition load value of the router device depends on the number of router devices within the radio neighborhood and the number of member devices of said router device , wherein the parent repetition load value of the radio device depends on the number of router devices within the radio neighborhood and the number of member devices of the associated parent device of said radio device , and wherein the member devices comprise one or more router member devices and/or one or more non-router member devices . define a total repetition load value representing a contribution of said radio device to the collective target amount of repetitions of the broadcast message within said each radio neighborhood to which it belongs, and decide whether to repeat the transmission of the broadcast message in accordance with the defined total repetition load value, wherein each radio device is associated with at least one parent device being a router device , characterized in that the total repetition load value is defined based on an own repetition load value of the radio device and a parent repetition load value of the radio device defined for each of the associated at least one parent device of the radio device , wherein the own repetition load value of the router device depends on the number of router devices within the radio neighborhood and the number of member devices of said router device , wherein the parent repetition load value of the radio device depends on the number of router devices within the radio neighborhood and the number of member devices of the associated parent device of said radio device , and wherein the member devices comprise one or more router member devices and/or one or more non-router member devices .
An atom chip (Ach) for an ultracold-atom inertial sensor, containing an XY-plane normal to a Z-axis, the atom chip comprising: - a first and a second coplanar waveguide (CPWX1, CPWX2), both suitable for propagating microwaves at respective angular frequencies ω a and ω b and disposed symmetrically on either side of the X-axis and being referred to as X-wise guides, - a first and a second coplanar waveguide (CPWY'1, CPWY'2), both suitable for propagating microwaves at respective angular frequencies ω' a and ω' b and disposed symmetrically on either side of an axis the projection of which in the XY-plane is along a Y'-axis that is different from the X-axis and that is contained in the XY-plane, and being referred to as Y'-wise guides, the X-wise guides being electrically insulated from the Y'-wise guides, an intersection of said guides forming a parallelogram of centre O defining an origin of the reference frame XYZ, - at least a first conductive wire (W1) and a second conductive wire (W2) the respective projections of which in the XY-plane are secant at O and form an angle larger than or equal to 20° between them, said conductive wires being suitable for being passed through by DC currents. - a first and a second coplanar waveguide (CPWX1, CPWX2), both suitable for propagating microwaves at respective angular frequencies ω a and ω b and disposed symmetrically on either side of the X-axis and being referred to as X-wise guides, - a first and a second coplanar waveguide (CPWY'1, CPWY'2), both suitable for propagating microwaves at respective angular frequencies ω' a and ω' b and disposed symmetrically on either side of an axis the projection of which in the XY-plane is along a Y'-axis that is different from the X-axis and that is contained in the XY-plane, and being referred to as Y'-wise guides, the X-wise guides being electrically insulated from the Y'-wise guides, an intersection of said guides forming a parallelogram of centre O defining an origin of the reference frame XYZ, - at least a first conductive wire (W1) and a second conductive wire (W2) the respective projections of which in the XY-plane are secant at O and form an angle larger than or equal to 20° between them, said conductive wires being suitable for being passed through by DC currents.