mhurhangee/ep-ind-claims huggingface dataset:
An electron tube comprising: an envelope formed with a photocathode at a predetermined part of an internal surface thereof; an insulating tube extending in an axial direction and having one end and another end along the axial direction, the another end being connected to the envelope and the one end protruding inside the envelope; an alkali source to generate alkali metal vapor; and a separating member (21', 23', 26) disposed between the alkali source and the tube, characterized in that: - said electron tube comprises an electron-bombarded semiconductor device provided on the one end of the tube, said semiconductor device detecting photoelectrons emitted from the photocathode in response to an incident light thereon; - the separating member includes a partition wall (21', 23', 26) extending in the axial direction; and - the alkali source is provided inside the envelope, between the partition wall (21', 23', 26) and said envelope. an envelope formed with a photocathode at a predetermined part of an internal surface thereof; an insulating tube extending in an axial direction and having one end and another end along the axial direction, the another end being connected to the envelope and the one end protruding inside the envelope; an alkali source to generate alkali metal vapor; and a separating member (21', 23', 26) disposed between the alkali source and the tube, - said electron tube comprises an electron-bombarded semiconductor device provided on the one end of the tube, said semiconductor device detecting photoelectrons emitted from the photocathode in response to an incident light thereon; - the separating member includes a partition wall (21', 23', 26) extending in the axial direction; and - the alkali source is provided inside the envelope, between the partition wall (21', 23', 26) and said envelope.
A shaped catalyst body for the oxidation of SO 2 to SO 3, which comprises vanadium, at least one alkali metal and sulfate on a silicon dioxide support material, wherein the shaped body has the shape of a cylinder having 4 hollow-cylindrical convexities, obtainable by extrusion of a catalyst precursor composition comprising vanadium, at least one alkali metal and sulfate on a silicon dioxide support material through the opening of an extrusion tool, wherein the opening of the extrusion tool has a cross section formed by 4 partly overlapping annular rings whose midpoints lie essentially on a circular line having a diameter of y, wherein the rings are bounded by an outer circle having an external diameter x1 and an inner circle having an internal diameter x2, wherein the midpoints of the rings forming the cross section form a square, all rings have the same external diameter x1 and the same internal diameters x2 and the ratio of the external diameter to the internal diameter of the rings x1:x2 is from 1.5:1 to 5:1.
Endoscopy apparatus for introducing an expandable body into a cavity, said apparatus having a first endoscope with a working channel and having a further endoscope which is located in the working channel, wherein the further endoscope has an expandable body and a video unit which is located parallel to the expandable body in the further endoscope, having the following features: a) the further endoscope with the expandable body to be introduced is inserted into the first endoscope with the working channel; b) a distal end of the video unit is located next to a distal end of the expandable body in order to place the expandable body under visual control in the cavity prior to expansion; characterised in that c) the video unit is designed to be withdrawn after positioning of the expandable body in order to form an abutment at the proximal end of the expandable body when the further endoscope is withdrawn. a) the further endoscope with the expandable body to be introduced is inserted into the first endoscope with the working channel; b) a distal end of the video unit is located next to a distal end of the expandable body in order to place the expandable body under visual control in the cavity prior to expansion; characterised in that c) the video unit is designed to be withdrawn after positioning of the expandable body in order to form an abutment at the proximal end of the expandable body when the further endoscope is withdrawn.
Infrared heater comprising - two outer plates (2a, 2b) which are arranged at a distance from one another with the inclusion of an intermediate space, - at least one spacer arranged at the edges of the outer plates, - an electrically operated heating layer arranged in the intermediate space, characterized by - a firmly bonded connection between each spacer and the edges of the outer plates (2a, 2b), - a vacuum panel arranged behind the heating layer, wherein the heating layer abuts flush and directly against the vacuum panel, - a control which is adapted in such a manner that the heating layer does not exceed a previously specified maximum temperature. - two outer plates (2a, 2b) which are arranged at a distance from one another with the inclusion of an intermediate space, - at least one spacer arranged at the edges of the outer plates, - an electrically operated heating layer arranged in the intermediate space, characterized by - a firmly bonded connection between each spacer and the edges of the outer plates (2a, 2b), - a vacuum panel arranged behind the heating layer, wherein the heating layer abuts flush and directly against the vacuum panel, - a control which is adapted in such a manner that the heating layer does not exceed a previously specified maximum temperature.
An automated collection point including: a plurality of lockers, a local electronic controller, and a local user interface cooperating with the controller, each of the lockers having a door mounted in a doorframe, a closing mechanism for moving the door from a fully-open position towards a fully-closed position (10""), and a lock controlled by the controller for locking and unlocking the door; the door having an opening edge which is displaced away from the doorframe when the door is moved to the fully-open position and lies adjacent the doorframe when the door is in the fully-closed position, the opening edge having a length; characterised in that the closing mechanism is arranged to move the door at a first speed in a first phase of movement from the fully-open position to a partially-open position (10"), and then at a second, slower speed in a second phase of movement from the partially-open position to a nearly-closed position (10"'), wherein the door is re-openable by a user during both the first and second phases; and the lock comprises a closure element (30; 30') coupled to an actuator, the actuator being controlled by the controller, and the actuator is arranged to operate the closure element responsive to the door reaching the nearly-closed position to move the door in a third phase from the nearly-closed position to the fully-closed position, and to lock the door in the fully-closed position. a plurality of lockers, a local electronic controller, and a local user interface cooperating with the controller, each of the lockers having a door mounted in a doorframe, a closing mechanism for moving the door from a fully-open position towards a fully-closed position (10""), and a lock controlled by the controller for locking and unlocking the door; the door having an opening edge which is displaced away from the doorframe when the door is moved to the fully-open position and lies adjacent the doorframe when the door is in the fully-closed position, the opening edge having a length; characterised in that the closing mechanism is arranged to move the door at a first speed in a first phase of movement from the fully-open position to a partially-open position (10"), and then at a second, slower speed in a second phase of movement from the partially-open position to a nearly-closed position (10"'), wherein the door is re-openable by a user during both the first and second phases; and the lock comprises a closure element (30; 30') coupled to an actuator, the actuator being controlled by the controller, and the actuator is arranged to operate the closure element responsive to the door reaching the nearly-closed position to move the door in a third phase from the nearly-closed position to the fully-closed position, and to lock the door in the fully-closed position.
An orthodontic apparatus with an upper jaw brace and a lower jaw brace, wherein at least one of these jaw braces comprises an engagement part (14, 30) adjustable in the sagittal direction of the jaw brace by means of an adjustment mechanism, wherein the adjustment mechanism is provided with an adjustment spindle having a shaft end exposed in the frontal arch region of the jaw brace, where it has a coupling structure adapted for the application of a turning tool from the front, wherein the coupling structure is arranged sunken in the material of the jaw brace, without protruding beyond the contour of this jaw brace, wherein the engagement part is part of a head element made of synthetic resin, whose position is continuously variable in the frontward and backward directions by actuation of the adjustment mechanism, wherein a spindle nut is situated in the head element, which receives a screw-shaped spindle that extends in the median plane of the jaw brace, characterized in that the spindle nut supports two guide pins projecting in parallel, the front ends thereof being connected by a yoke.
Method for detecting receivers, implemented by a detection system comprising a general antenna suitable for emitting a primary wave, and a general controller connected to the general antenna, the system comprising an adjustable receiver having a receiver antenna suitable for receiving the primary wave and for emitting a secondary wave, the adjustable receiver having a receiver controller connected to the receiver antenna, the receiver controller being suitable for detecting the primary wave received by the receiver antenna and for commanding the emission of the secondary wave by the receiver antenna, the adjustable receiver having an adjustable component connected to the controller and to the antenna, the adjustable component and the adjustable receiver, having an impedance modifiable by the controller so as to influence the secondary wave emitted, the adjustable receiver initially being in a detection mode where the adjustable receiver has a base impedance, the method comprising: - a receiver detection step in which the adjustable receiver is detected by the general controller when the general antenna receives the secondary wave emitted by the adjustable receiver, followed by - a reconfiguration step in which the general controller commands the receiver controller to switch to an interaction mode where the impedance of the adjustable receiver is alternated between a first configuration impedance and a second configuration impedance in order to detect other receivers, the reconfiguration step being of a duration that is an order of magnitude higher than the duration (T2, T3) of each alternation of the first and second configuration impedances. - a receiver detection step in which the adjustable receiver is detected by the general controller when the general antenna receives the secondary wave emitted by the adjustable receiver, followed by - a reconfiguration step in which the general controller commands the receiver controller to switch to an interaction mode where the impedance of the adjustable receiver is alternated between a first configuration impedance and a second configuration impedance in order to detect other receivers, the reconfiguration step being of a duration that is an order of magnitude higher than the duration (T2, T3) of each alternation of the first and second configuration impedances.
A method for transmitting broadcast signals, the method comprising; dividing data of at least one of Physical Layer Pipes, PLPs into first and second data; Quadrature Amplitude Modulation, QAM, mapping the first and second data of the at least one of the PLPs onto constellations by a unit of QAM symbol; Multi-input Multi-Output, MIMO, processing the QAM mapped first and second data of the at least one of the PLPs, wherein the MIMO processing includes at least one of pre-coding processing and phase hopping processing, wherein the pre-coding processing is performed by using a pre-coding matrix which is carried out on pairs of normalized QAM symbols, wherein the phase hopping processing is performed by using a phase hopping matrix; cell interleaving the MIMO processed data of the at least one of the PLPs; time interleaving the cell interleaved data of the at least one of the PLPs, wherein data of the other PLPs are processed by Multi-input Single-Output, MISO, scheme, wherein the MISO scheme includes dividing the data of the other PLPs, QAM maping the divided data of the other PLPs, cell interleaving the QAM mapped data of the other PLPs, time interleaving the cell interleaved data of the other PLPs, and MISO processing the time interleaved data of the other PLPs; building at least two signal frames by mapping the data of the PLPs, wherein the building at least two signal frames further includes: frequency interleaving data in the built at least two signal frames by interleaving paired consecutive input cells as an interleaving unit; and modulating the frequency interleaved data in the at least two signal frames by Orthogonal Frequency Division Multiplexing, OFDM, method and transmitting at least two broadcast signals having the modulated data by at least two transmit antennas. frequency interleaving data in the built at least two signal frames by interleaving paired consecutive input cells as an interleaving unit; and modulating the frequency interleaved data in the at least two signal frames by Orthogonal Frequency Division Multiplexing, OFDM, method and
A tissue suturing system comprising: a first roller, a second roller, a first power unit, a second power unit and a suture needle; wherein the suture needle is inserted and clamped between the first and second rollers (1, 2) having parallel axes, at least one of the two rollers offering active rotation and the two rollers applying a force to the suture needle at the position where it is clamped; wherein the first power unit is configured to provide a position where the first and second rollers (1, 2) are relatively close to each other so that their axes are parallel and the suture needle is clamped; wherein the second power unit is configured to provide rotation power for the active rotation; and wherein the suture needle is in form of a curved structure and driven by the active rotation to enter and exit the tissue following a curved direction, and always having an external exposed position for clamping by the two rollers, characterized in that wherein the first and second rollers (1, 2) move synchronously when they are moving close to each other and the first power unit is configured to provide a relative movement between the first and second rollers (1, 2) wherein the relative movement is relative rotation or relative linear movement of the axis. wherein the suture needle is inserted and clamped between the first and second rollers (1, 2) having parallel axes, at least one of the two rollers offering active rotation and the two rollers applying a force to the suture needle at the position where it is clamped; wherein the first power unit is configured to provide a position where the first and second rollers (1, 2) are relatively close to each other so that their axes are parallel and the suture needle is clamped; wherein the second power unit is configured to provide rotation power for the active rotation; and wherein the suture needle is in form of a curved structure and driven by the active rotation to enter and exit the tissue following a curved direction, and always having an external exposed position for clamping by the two rollers, characterized in that wherein the first and second rollers (1, 2) move synchronously when they are moving close to each other and the first power unit is configured to provide a relative movement between the first and second rollers (1, 2) wherein the relative movement is relative rotation or relative linear movement of the axis.
A method for transmitting a buffer status report, BSR, performed by a terminal, the method comprising: • receiving an instruction message from a transmission point, TRP, wherein the instruction message is used to instruct the terminal to report the BSR on a first beam link, ∘ wherein the BSR is a BSR corresponding to a second beam link, and the first beam link is different from the second beam link, ∘ wherein the first beam link corresponds to a first directional beam and the second beam link corresponds to a second directional beam, and ∘ wherein the first beam link is a beam link for a communication between the terminal and the TRP, and the second beam link is either a beam link for a communication between the terminal and the TRP other than the first beam link or a beam link for a communication between the terminal and another TRP; • when the terminal determines that a reference signals received power, RSRP, or a reference signal received quality, RSRQ, of the second beam link is less than or equal to a preset threshold, reporting the BSR on the first beam link according to the instruction message. • receiving an instruction message from a transmission point, TRP, wherein the instruction message is used to instruct the terminal to report the BSR on a first beam link, ∘ wherein the BSR is a BSR corresponding to a second beam link, and the first beam link is different from the second beam link, ∘ wherein the first beam link corresponds to a first directional beam and the second beam link corresponds to a second directional beam, and ∘ wherein the first beam link is a beam link for a communication between the terminal and the TRP, and the second beam link is either a beam link for a communication between the terminal and the TRP other than the first beam link or a beam link for a communication between the terminal and another TRP; ∘ wherein the BSR is a BSR corresponding to a second beam link, and the first beam link is different from the second beam link, ∘ wherein the first beam link corresponds to a first directional beam and the second beam link corresponds to a second directional beam, and ∘ wherein the first beam link is a beam link for a communication between the terminal and the TRP, and the second beam link is either a beam link for a communication between the terminal and the TRP other than the first beam link or a beam link for a communication between the terminal and another TRP; • when the terminal determines that a reference signals received power, RSRP, or a reference signal received quality, RSRQ, of the second beam link is less than or equal to a preset threshold, reporting the BSR on the first beam link according to the instruction message.
A method for manufacturing a vehicle wheel (1, 61) having a rim including outboard and inboard bead seats for supporting a bead (Va, Vb) of a tire and a valve hole provided inside in a radial direction of the outboard bead seat for mounting an air valve, characterized in that the method comprises the steps of: forming an annular vertical wall which protrudes outward in the radial direction from an outer surface of the rim throughout the whole circumference, and forming a protruding portion which protrudes outward in the radial direction from the outer surface of the rim and has a larger cross section than a hole cross section of the valve hole and a recessed portion which has a smaller outer diameter than the protruding portion between an outboard flange and the vertical wall in series in a circumferential direction of the wheel (1, 61); forming the outboard bead seat configured with the bent vertical wall formed by bending the vertical wall toward the outboard flange and joining an end portion of the vertical wall to the outboard flange throughout a whole circumference, a hollow-state hollow portion (21, 66) configured with the bent vertical wall and the recessed portion, and a solid-state non-hollow portion configured with the protruding portion; and forming the valve hole in the non-hollow portion by a cutting process, the steps being sequentially conducted. forming an annular vertical wall which protrudes outward in the radial direction from an outer surface of the rim throughout the whole circumference, and forming a protruding portion which protrudes outward in the radial direction from the outer surface of the rim and has a larger cross section than a hole cross section of the valve hole and a recessed portion which has a smaller outer diameter than the protruding portion between an outboard flange and the vertical wall in series in a circumferential direction of the wheel (1, 61); forming the outboard bead seat configured with the bent vertical wall formed by bending the vertical wall toward the outboard flange and joining an end portion of the vertical wall to the outboard flange throughout a whole circumference, a hollow-state hollow portion (21, 66) configured with the bent vertical wall and the recessed portion, and a solid-state non-hollow portion configured with the protruding portion; and forming the valve hole in the non-hollow portion by a cutting process, the steps being sequentially conducted.
A method for utilizing furnace off-gas for reduction of Iron Oxide Pellets wherein: - the iron oxide in the Iron Oxide Pellets is directly reduced and re-oxidation is prevented in a reactor by leading furnace off-gas directly into said reactor, and wherein - a negative pressure from a primary dedusting system induces an off-gas flow from said main furnace into said reactor by a bypass duct, said bypass duct leading furnace off-gas passing through the reactor and also leads the flow back towards the main duct of primary dedusting system; and wherein - the iron oxide pellets in the reactor are directly heated by the off-gas and under the reducing atmosphere in the reactor provided by the off-gas to reduce the iron oxide in the pellet while preventing re-oxidation, and wherein the entry of the bypass duct at furnace side is made of double ducts with the inner duct leading to reactor and the outer duct has suction pressure to take atmospheric air and minimize the penetration into inner duct; and/or the bypass duct has dampers to control inlet and outlet flow of Reactor. - the iron oxide in the Iron Oxide Pellets is directly reduced and re-oxidation is prevented in a reactor by leading furnace off-gas directly into said reactor, and wherein - a negative pressure from a primary dedusting system induces an off-gas flow from said main furnace into said reactor by a bypass duct, said bypass duct leading furnace off-gas passing through the reactor and also leads the flow back towards the main duct of primary dedusting system; and wherein - the iron oxide pellets in the reactor are directly heated by the off-gas and under the reducing atmosphere in the reactor provided by the off-gas to reduce the iron oxide in the pellet while preventing re-oxidation, and wherein the entry of the bypass duct at furnace side is made of double ducts with the inner duct leading to reactor and the outer duct has suction pressure to take atmospheric air and minimize the penetration into inner duct; and/or the bypass duct has dampers to control inlet and outlet flow of Reactor.