mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a seat padding comprising: - /A/ providing a padding comprising a 3D entanglement of irregularly arranged continuous thermoplastic fibers forming loops welded together, the padding having a length direction (Xa, Xb), a width direction (Ya,; Yb) and a thickness direction (Za, Zb), and a border on the periphery extending along the edges of the padding - /B/ hot pressing the 3D entanglement of fibers, at all or part of the periphery of the padding, so as to produce a densified and stiffened border (Bdr) of the padding, relative to a central zone of the padding of less density and of less rigidity, and wherein the hot pressing at /B/ generates a densified and stiffened border (Bdr) which adjoins with a proximal end (Exp) the central zone of the padding, and has a free distal end (Exd), and wherein the densified and stiffened border (Brd) extends along its thickness, over a portion of the thickness of the central zone, lengthwise along the edge of the periphery, and widthwise from its proximal end (Exp) to its distal end (Exd), and wherein the densified and stiffened border (Brd) forms a shoulder with a free edge of the central zone of the padding and wherein the method provides for: - /C/ the folding of the densified and stiffened border (Brd) against the free edge of the central zone. - /A/ providing a padding comprising a 3D entanglement of irregularly arranged continuous thermoplastic fibers forming loops welded together, the padding having a length direction (Xa, Xb), a width direction (Ya,; Yb) and a thickness direction (Za, Zb), and a border on the periphery extending along the edges of the padding - /B/ hot pressing the 3D entanglement of fibers, at all or part of the periphery of the padding, so as to produce a densified and stiffened border (Bdr) of the padding, relative to a central zone of the padding of less density and of less rigidity, and wherein the hot pressing at /B/ generates a densified and stiffened border (Bdr) which adjoins with a proximal end (Exp) the central zone of the padding, and has a free distal end (Exd), and wherein the densified and stiffened border (Brd) extends along its thickness, over a portion of the thickness of the central zone, lengthwise along the edge of the periphery, and widthwise from its proximal end (Exp) to its distal end (Exd), and wherein the densified and stiffened border (Brd) forms a shoulder with a free edge of the central zone of the padding and wherein the method provides for: - /C/ the folding of the densified and stiffened border (Brd) against the free edge of the central zone. - /C/ the folding of the densified and stiffened border (Brd) against the free edge of the central zone.
A method of clock recovery in a receiver in a communication system, the method comprising: generating a free running clock with a free running oscillator for clocking an analog to digital converter; converting an input analog signal derived from a received signal with the analog to digital converter to produce digital data; digitally resampling the digital data using a numerically controlled oscillator clock signal; performing phase detection on the digital data after it is digitally resampled to determine any phase offset; adjusting the numerically controlled oscillator clock signal based on the phase offset; feeding forward the phase offset to a digital delay element; and delaying the digital data with the digital delay element after the digitally resampling operation; the method further comprising; if the analog to digital convertor is undersampling; performing chromatic dispersion filtering on the digital data before resampling of the digital data. generating a free running clock with a free running oscillator for clocking an analog to digital converter; converting an input analog signal derived from a received signal with the analog to digital converter to produce digital data; digitally resampling the digital data using a numerically controlled oscillator clock signal; performing phase detection on the digital data after it is digitally resampled to determine any phase offset; adjusting the numerically controlled oscillator clock signal based on the phase offset; feeding forward the phase offset to a digital delay element; and delaying the digital data with the digital delay element after the digitally resampling operation; the method further comprising; if the analog to digital convertor is undersampling; performing chromatic dispersion filtering on the digital data before resampling of the digital data.
An endoscopic imaging system comprising: a camera head; a camera control unit coupleable to the camera head, the camera control unit further comprising a network port for receiving a request or information; at least one input device in communication with the camera control unit, a display coupleable to the camera control unit for displaying images from the camera head and information from the camera control unit; characterized in that the at least one input device being selected from the group consisting of: a camera head button (18, 20), a foot switch, and a hands free gesture recognition system; the at least one input device is configurable by the camera control unit to have a first function and reconfigurable by the camera control unit to have a second function upon receipt of the request or information. a camera head; a camera control unit coupleable to the camera head, the camera control unit further comprising a network port for receiving a request or information; at least one input device in communication with the camera control unit, a display coupleable to the camera control unit for displaying images from the camera head and information from the camera control unit; characterized in that the at least one input device being selected from the group consisting of: a camera head button (18, 20), a foot switch, and a hands free gesture recognition system; the at least one input device is configurable by the camera control unit to have a first function and reconfigurable by the camera control unit to have a second function upon receipt of the request or information.
A method, comprising: receiving, from an eNB in user equipment, UE, when discontinuous reception, DRX, is configured, a new command medium access control, MAC, control element, CE, which will stop an inactivity timer and an onDuration timer; if the new command MAC CE is a DRX Command MAC CE and if a short DRX cycle is configured, starting or restarting a short cycle timer and using the short DRX cycle; characterized by if the new command MAC CE is a long DRX Command MAC CE, pushing the UE directly to a long DRX cycle; and not starting the short cycle timer, and wherein the new command MAC CE includes a timing advance, TA, command MAC CE to restart a timing alignment timer, TAT, and adjust the timing advance. receiving, from an eNB in user equipment, UE, when discontinuous reception, DRX, is configured, a new command medium access control, MAC, control element, CE, which will stop an inactivity timer and an onDuration timer; if the new command MAC CE is a DRX Command MAC CE and if a short DRX cycle is configured, starting or restarting a short cycle timer and using the short DRX cycle; characterized by if the new command MAC CE is a long DRX Command MAC CE, pushing the UE directly to a long DRX cycle; and not starting the short cycle timer, and wherein the new command MAC CE includes a timing advance, TA, command MAC CE to restart a timing alignment timer, TAT, and adjust the timing advance.
Centrifuge, in particular a laboratory centrifuge, comprising a) a rotor for receiving containers holding material to be centrifuged, b) a driveshaft on which the rotor is mounted, c) a motor which drives the rotor via the driveshaft, d) a bearing unit with damping elements that each have a spring axis, and e) a support element for fixing the motor in the centrifuge by means of the bearing unit, wherein the spring axes of the damping elements are placed at an acute angle σ relative to the rotary axis Y of the motor, said bearing unit comprises a plurality of struts, preferably 3 to 21, which are connected to the damping elements, wherein the struts are placed and arranged so as to be concentrically aligned with the respective spring axis, and wherein the bearing unit has at least one support plate (32, 38) which cooperates with spring elements (48, 50), characterized in that an upper support plate, which is firmly connected to the motor, and a lower support plate, which is firmly connected to the support element, are provided, and that the upper support plate and the struts are connected to one another via first spring elements. a) a rotor for receiving containers holding material to be centrifuged, b) a driveshaft on which the rotor is mounted, c) a motor which drives the rotor via the driveshaft, d) a bearing unit with damping elements that each have a spring axis, and e) a support element for fixing the motor in the centrifuge by means of the bearing unit,
A plant growing cabinet comprising; a body in which at least one growing unit is placed, a growing tray which is placed in to the growing unit via a frame peripherally extending away from the growing tray and wherein the growing tray has at least one perforation at its base so as to allow passage of water between the growing unit and the growing tray, a filter is placed on to the growing tray whereon the turf mixture enabling the plants to grow is placed thereby preventing the propagation of the turf mixture between the growing tray and the growing unit and clogging the at least one perforation, wherein the growing tray has a flap extending at least partially along the frame and fixing the filter in between the frame and the flap via a first magnet fixed on to the flap and a second magnet placed underneath the frame, wherein the first magnet is configured to vertically coincide with the second magnet.
Air outlet of a nacelle for a bypass turbojet engine, said turbojet engine extending along a longitudinal axis and comprising a radially inner primary flow path and a radially outer secondary flow path wherein circulates a secondary air flow from upstream to downstream during a thrust phase and a reverse air flow (F-INV) from downstream to upstream during a reverse thrust phase, said nacelle forming a revolution around the longitudinal axis of the turbojet engine and comprising at its downstream end the air outlet, said air outlet comprising a downstream inner wall, turned towards the longitudinal axis and configured to externally delimit the secondary flow path and to guide the secondary air flow and the reverse air flow (F-INV), and a downstream outer wall, opposite to the downstream inner wall and configured to guide an outer air flow (F-EXT) circulating from upstream to downstream, said downstream inner wall and said downstream outer wall being connected together downstream by a trailing edge, air outlet characterized by the fact that it comprises a straightening device comprising a plurality of flaps mounted on the trailing edge and extending projecting downstream, each flap being mounted along a pivoting axis (X9, X9') forming with respect to the longitudinal axis an angle of convergence (β) comprised between 0° and 45° in a radial plane, each flap being pivotably mounted between: - a closed position, wherein each flap extends along the pivoting axis (X9, X9') in the aerodynamic extension of the trailing edge to facilitate the thrust phase, and - at least one deployed position, wherein each flap extends in a deployed plane forming an angle of deployment (α) with respect to the closed position around the pivoting axis (X9, X9'), said angle of deployment (α) being greater than 20°, in order to straighten the reverse air flow (F-INV) admitted into the air outlet, so as to facilitate the reverse thrust phase. - a closed position, wherein each flap extends along the pivoting axis (X9, X9') in the aerodynamic extension of the trailing edge to facilitate the thrust phase, and - at least one deployed position, wherein each flap extends in a deployed plane forming an angle of deployment (α) with respect to the closed position around the pivoting axis (X9, X9'), said angle of deployment (α) being greater than 20°, in order to straighten the reverse air flow (F-INV) admitted into the air outlet, so as to facilitate the reverse thrust phase.
Retaining and anchoring device comprising a functional support, having the following features: - the retaining and anchoring device comprises a retaining and anchoring portion on a metal plate, - the retaining and anchoring portion comprises a recess made in the metal plate, - adjacent to the upper side of the metal plate, the recess comprises a circumferential edge or edge portions which are spaced apart from one another, - below the circumferential edge or the edge portions, there is formed an undercut or a plurality of undercut portions, - the recess is configured so as to be free from holes or passages, - a functional support is or can be anchored in the retaining and anchoring portion, and - the functional support comprises a snap-in means having protruding snap-in lugs for anchoring in the at least one undercut, characterised in that a locking device is provided which prevents unintentional removal of the snap-in means from the recess beyond the edge which covers the undercut. - the retaining and anchoring device comprises a retaining and anchoring portion on a metal plate, - the retaining and anchoring portion comprises a recess made in the metal plate, - adjacent to the upper side of the metal plate, the recess comprises a circumferential edge or edge portions which are spaced apart from one another, - below the circumferential edge or the edge portions, there is formed an undercut or a plurality of undercut portions, - the recess is configured so as to be free from holes or passages, - a functional support is or can be anchored in the retaining and anchoring portion, and - the functional support comprises a snap-in means having protruding snap-in lugs for anchoring in the at least one undercut, characterised in that a locking device is provided which prevents unintentional removal of the snap-in means from the recess beyond the edge which covers the undercut.
A charging device of a robot cleaner, the charging device comprising: a main body comprising a terminal unit configured to charge the robot cleaner, the main body defining an appearance; an induction signal generating unit disposed at a side of the main body and arranged to transmit a return induction signal to the robot cleaner; and an induction signal guide member disposed at a side of the induction signal generating unit and arranged to enhance docking performance of the robot cleaner by improving linearity of the induction signal, characterized in that the induction signal generating unit comprises at least a pair of access induction sensors arranged to transmit a signal for guiding the robot cleaner to a return position, and at least one docking induction sensor arranged to guide the robot cleaner to a docking position by transmitting a docking induction signal, wherein the docking induction sensor is disposed between the access induction sensors, wherein the induction signal guide member comprises a guide which surrounds the docking induction sensor, wherein the induction signal guide member further comprises at least one pair of reflection units arranged to improve the linearity by restricting a transmission angle of the docking induction signal, and wherein the at least one pair of reflection units inwardly protrude from the guide and face each other to form a layer having a central opening arranged to provide an optical path to light emitted by the docking induction sensor. a main body comprising a terminal unit configured to charge the robot cleaner, the main body defining an appearance; an induction signal generating unit disposed at a side of the main body and arranged to transmit a return induction signal to the robot cleaner; and an induction signal guide member disposed at a side of the induction signal generating unit and arranged to enhance docking performance of the robot cleaner by improving linearity of the induction signal, characterized in that the induction signal generating unit comprises at least a pair of access induction sensors arranged to transmit a signal for guiding the robot cleaner to a return position, and at least one docking induction sensor arranged to guide the robot cleaner to a docking position by transmitting a docking induction signal, wherein the docking induction sensor is disposed between the access induction sensors, wherein the induction signal guide member comprises a guide which surrounds the docking induction sensor, wherein the induction signal guide member further comprises at least one pair of reflection units arranged to improve the linearity by restricting a transmission angle of the docking induction signal, and wherein the at least one pair of reflection units inwardly protrude from the guide and face each other to form a layer having a central opening arranged to provide an optical path to light emitted by the docking induction sensor.
Thread draw-off nozzle for an open-end rotor spinning device with a front surface, a nozzle bore and a funnel-shaped yarn deflection surface connecting the front surface and the nozzle bore, whereas the front surface adjoins the yarn deflection surface and whereas the front surface and the yarn deflection surface form an effective diameter (D W) of the thread draw-off nozzle, characterized in that the effective diameter (D W) of the thread draw-off nozzle is less than 8 mm, and the yarn deflection surface features a radius of curvature of less than 2.5 mm.
An engine controlling apparatus for controlling a cylinder injected volume (F DI) of fuel injected from a cylinder injection valve of an engine into a cylinder and a port injected volume (F MPI) of fuel injected from a port injection valve of the engine into an intake port of the cylinder, the engine controlling apparatus characterized by comprising: an adhesion volume calculator to calculate a cylinder adhesion volume (R C) of fuel adhering to the cylinder, the fuel being injected from the cylinder injection valve, and a port adhesion volume (R V + R W) of fuel adhering to the intake port, the fuel being injected from the port injection valve; an evaporation volume calculator to calculate a cylinder evaporated volume of fuel evaporated from the fuel (R C) adhering to the cylinder and a port evaporated volume of fuel evaporated from the fuel (R V + R W) adhering to the intake port; a required volume calculator to calculate a required port-inj ected volume of fuel (QF MPI) required to be injected from the port injection valve and a required cylinder-injected volume of fuel (QF DI) required to be injected from the cylinder injection valve; and a controller (3D, 4) to control the cylinder injected volume (F DI) and the port injected volume (F MPI), based on both the cylinder evaporated volume (Z×R C) and the port evaporated volume (x×R V +Y×R W), characterised in that the controller (3D, 4): controls the port injected volume (F MPI) based on a difference (QF MpI - (Z×R C)) calculated through subtraction of the cylinder evaporated volume from the required port-injected volume. an adhesion volume calculator to calculate a cylinder adhesion volume (R C) of fuel adhering to the cylinder, the fuel being injected from the cylinder injection valve, and a port adhesion volume (R V + R W) of fuel adhering to the intake port, the fuel being injected from the port injection valve; an evaporation volume calculator to calculate a cylinder evaporated volume of fuel evaporated from the fuel (R C) adhering to the cylinder and a port evaporated volume of fuel evaporated from the fuel (R V + R W) adhering to the intake port; a required volume calculator to calculate a required port-inj ected volume of fuel (QF MPI) required to be injected from the port injection valve and a required cylinder-injected volume of fuel (QF DI) required to be injected from the cylinder injection valve; and a controller (3D, 4) to control the cylinder injected volume (F DI) and the port injected volume (F MPI), based on both the cylinder evaporated volume (Z×R C) and the port evaporated volume (x×R V +Y×R W), characterised in that the controller (3D, 4): controls the port injected volume (F MPI) based on a difference (QF MpI - (Z×R C)) calculated through subtraction of the cylinder evaporated volume from the required port-injected volume.
A locating tool intended to be installed in a bore in a component that passes through a wall of the latter delimited between an outer face and an inner face, having: - a locating member that is extended by a seating that projects from the latter for the introduction thereof with a tight fit into the bore in the component until a shoulder that ends the seating makes contact with the outer face of the component; - a flange that is intended to bear against the inner face of the component characterized by a clamping rod that is equipped with a head that bears against the flange, said clamping rod passing through the flange and the centering member in order to take a clamping nut for clamping against a bottom of the locating member; and in that the head of the rod has a base with a convex shape that engages with a bearing surface on the flange so as to allow an angular orientation of the flange. - a locating member that is extended by a seating that projects from the latter for the introduction thereof with a tight fit into the bore in the component until a shoulder that ends the seating makes contact with the outer face of the component; - a flange that is intended to bear against the inner face of the component characterized by a clamping rod that is equipped with a head that bears against the flange, said clamping rod passing through the flange and the centering member in order to take a clamping nut for clamping against a bottom of the locating member;
An ophthalmic infusion support, comprising: a base region having a contact surface adapted for positioning against a patient's eye; an infusion tube support region extending from the base region; and a fastener to hold the ophthalmic infusion support to an infusion tube, wherein the fastener is integral with the infusion tube support region; wherein the fastener includes a "C" shaped clip, and wherein the "C" shaped clip also serves as the infusion tube support region. a base region having a contact surface adapted for positioning against a patient's eye; an infusion tube support region extending from the base region; and a fastener to hold the ophthalmic infusion support to an infusion tube, wherein the fastener is integral with the infusion tube support region; wherein the fastener includes a "C" shaped clip, and wherein the "C" shaped clip also serves as the infusion tube support region.