mhurhangee/ep-ind-claims huggingface dataset:
A process of adsorbing oxygen from a feed stream containing oxygen, comprising passing the feed stream through a bed of an adsorbent selective for oxygen so as to adsorb oxygen from the feed stream, thereby producing a product stream depleted in oxygen, wherein the adsorbent comprises a RHO zeolite having a Si/AI ratio of from 3.2 to 4.5 and containing non-proton extra-framework cations, wherein the size, number, and charge of the extra-framework cations that are present in the zeolite are such that 1.8 or fewer non-proton extra-framework cations per unit cell are required to occupy 8-ring sites, wherein the zeolite has a unit cell axis length of from 14.23A to 14.55A and wherein the nonproton extra-framework cations comprise Li +, Mg 2+, Mn 2+, Fe 2+, Co 2+, Ni 2+, Cu 2+ and/or Zn 2+ cations.
An anti-icing system for an aircraft nacelle comprising: a first bulkhead and a second bulkhead; and an inner duct extending through the first bulkhead between a gas turbine engine and a plenum of the nacelle, the inner duct configured to deliver heated gases from the gas turbine engine to the plenum; and an outer duct comprising a first end (48E1) and a second end (48E2), the outer duct circumferentially encompassing at least a portion of the inner duct on a first side (46S1) of the first bulkhead; wherein the inner duct is supported by at least one link on a second side (46S2) of the first bulkhead, opposite the first side (46S1); wherein the at least one link couples the inner duct to a fixed structure; and wherein the at least one link is mounted to at least one of the fixed structure and the inner duct by at least one spherical bushing; characterised in that: at least one of the first end (48E1) and the second end (48E2) of the outer duct is mounted to at least one of the respective first bulkhead and the second bulkhead by a bellows forming an annular seal between the respective bulkhead (46, 36) and the outer duct. a first bulkhead and a second bulkhead; and an inner duct extending through the first bulkhead between a gas turbine engine and a plenum of the nacelle, the inner duct configured to deliver heated gases from the gas turbine engine to the plenum; and an outer duct comprising a first end (48E1) and a second end (48E2), the outer duct circumferentially encompassing at least a portion of the inner duct on a first side (46S1) of the first bulkhead; wherein the inner duct is supported by at least one link on a second side (46S2) of the first bulkhead, opposite the first side (46S1); wherein the at least one link couples the inner duct to a fixed structure; and wherein the at least one link is mounted to at least one of the fixed structure and the inner duct by at least one spherical bushing; characterised in that: at least one of the first end (48E1) and the second end (48E2) of the outer duct is mounted to at least one of the respective first bulkhead and the second bulkhead by a bellows forming an annular seal between the respective bulkhead (46, 36) and the outer duct.
A method for causing one or more stage elements to be arranged on a performance stage, the method comprising: determining a current arrangement for a first stage element on the performance stage; determining a desired arrangement for the first stage element on the performance stage; and activating one or more indicators of a plurality of indicators mechanically coupled to the first stage element to indicate how to alter the current arrangement of the first stage element on the performance stage to reflect the desired arrangement of the first stage element on the performance stage, each of the plurality of indicators indicating a different direction in which the stage element should be repositioned or reoriented, or transmitting one or more motor control signals to at least one mechanical actuator that is coupled to the first stage element to cause the first stage element to autonomously move from a first position on a plane of the performance stage to a second position on the plane of the performance stage or both from the first position and a first orientation on the plane of the performance stage to the second position and a second orientation on the plane of the performance stage to reflect the desired arrangement of the first stage element on the performance stage, wherein the first stage element is a drum monitor, a stage box, a public address speaker, a monitor, or a microphone. determining a current arrangement for a first stage element on the performance stage; determining a desired arrangement for the first stage element on the performance stage; and activating one or more indicators of a plurality of indicators mechanically coupled to the first stage element to indicate how to alter the current arrangement of the first stage element on the performance stage to reflect the desired arrangement of the first stage element on the performance stage, each of the plurality of indicators indicating a different direction in which the stage element should be repositioned or reoriented, or transmitting one or more motor control signals to at least one mechanical actuator that is coupled to the first stage element to cause the first stage element to autonomously move from a first position on a plane of the performance stage to a second position on the plane of the performance stage or both from the first position and a first orientation on the plane of the performance stage to the second position and a second orientation on the plane of the performance stage to reflect the desired arrangement of the first stage element on the performance stage, wherein the first stage element is a drum monitor, a stage box, a public address speaker, a monitor, or a microphone.
Control method for a power tool for rotary tools with the following steps: continuously rotating a tool holder in a forward direction about a working axis by means of a rotary drive in response to an actuation of an operating button, interrupting the continuous rotation in the forward direction by a protective process when a protective device detects blocking of the tool holder, wherein, during the protective process, one or more cycles are performed in which the rotary drive is actuated successively in accordance with a rotary movement in a reverse direction and in accordance with a rotary movement in the forward direction, characterized in that the rotary drive is supplied with a first amount of energy for the rotary movement in the reverse direction and with a second amount of energy for the rotary movement in the forward direction, the first amount of energy being smaller than the second amount of energy. continuously rotating a tool holder in a forward direction about a working axis by means of a rotary drive in response to an actuation of an operating button, interrupting the continuous rotation in the forward direction by a protective process when a protective device detects blocking of the tool holder, wherein, during the protective process, one or more cycles are performed in which the rotary drive is actuated successively in accordance with a rotary movement in a reverse direction and in accordance with a rotary movement in the forward direction, characterized in that the rotary drive is supplied with a first amount of energy for the rotary movement in the reverse direction and with a second amount of energy for the rotary movement in the forward direction, the first amount of energy being smaller than the second amount of energy.
A method, during the feeding out of layers of timber, for forming stacks of timber by positioning laths between different layers perpendicular to the longitudinal direction of the layer, whereby one or several layer-deposition means that support the layers of timber move towards, over, down and back away from a lift arrangement on which the layers are laid, that laths are placed on the upper surface of layers of timber that have been laid on the lift arrangement by means of a mobile lath-deposition means for each lath, which means feeds down the lath from a position above the lift arrangement essentially parallel to the direction of motion of the lift arrangement, characterised in that it comprises any one of the following steps: (i) that the lath-deposition means, during the gripping of the rear end of a lath and thus that end of the lath that faces away from the direction of motion of the layer-deposition means towards the lift arrangement, feeds the lath down towards the lift arrangement at the same time as the feed motion of the layer-deposition means towards the lift arrangement such that laths and layers of timber at least during a part of the procedure carry out transversely directed relative motion at different levels above the lift arrangement, not in contact with each other: (ii) that the lath-deposition means during the gripping of the rear end of a lath, and thus that end of the lath that faces away from the direction of motion of the layer-deposition means towards the lift arrangement, feeds the lath down towards the lift arrangement to interaction with the upper surface of a layer of timber that has been laid on the lift arrangement and retains its interaction with the rear end of the lath at the same time as the return motion of the layer-deposition means, such that the layer-deposition means carries out a return motion from the lift arrangement while the lath-deposition means retains its grip on the lath. (i) that the lath-deposition means, during the gripping of the rear end of a lath and thus that end of the lath that faces away from the direction of motion of the layer-deposition means towards the lift arrangement, feeds the lath down towards the lift arrangement at the same time as the feed motion of the layer-deposition means towards the lift arrangement such that laths and layers of timber at least during a part of the procedure carry out transversely directed relative motion at different levels above the lift arrangement, not in contact with each other: (ii) that the lath-deposition means during the gripping of the rear end of a lath, and thus that end of the lath that faces away from the direction of motion of the layer-deposition means towards the lift arrangement, feeds the lath down towards the lift arrangement to interaction with the upper surface of a layer of timber that has been laid on the lift arrangement and retains its interaction with the rear end of the lath at the same time as the return motion of the layer-deposition means, such that the layer-deposition means carries out a return motion from the lift arrangement while the lath-deposition means retains its grip on the lath.
An optimized management method for the vertical trajectory of an aircraft upon a flight along a predetermined approach trajectory with which a theoretical vertical trajectory is associated so as to provide a stabilized final approach defined by a setpoint approach speed and a setpoint stabilization altitude (Zs) on said predetermined approach trajectory, characterized in that, during a flight of the aircraft along said predetermined approach trajectory, the following successive steps are carried out automatically, consisting in: A/ determining the current values of parameters of the aircraft; B/ predicting by calculation the stabilization altitude at which the aircraft will reach said approach speed as a function of the determined current values of at least some of the parameters of the aircraft, the theoretical vertical trajectory and predetermined models; C/ comparing the predicted stabilization altitude to the setpoint stabilization altitude (Zs); D/ when the difference between the predicted stabilization altitude and the setpoint stabilization altitude (Zs) is in an absolute value higher than a predefined altitude threshold, providing an optimized vertical trajectory as a function of the determined current values of at least some of the parameters of the aircraft, of the auxiliary parameter values including an interception point of the final approach axis (Ax) and a breaking point of the optimized vertical trajectory being determined upon a preceding iteration and of the difference between the predicted stabilization altitude and the setpoint stabilization altitude (Zs) determined upon step C/; and E/ transmitting said optimized vertical trajectory to guiding means embedded aboard the aircraft. A/ determining the current values of parameters of the aircraft; B/ predicting by calculation the stabilization altitude at which the aircraft will reach said approach speed as a function of the determined current values of at least some of the parameters of the aircraft, the theoretical vertical trajectory and predetermined models; C/ comparing the predicted stabilization altitude to the setpoint stabilization altitude (Zs); D/ when the difference between the predicted stabilization altitude and the setpoint stabilization altitude (Zs) is in an absolute value higher than a predefined altitude threshold, providing an optimized vertical trajectory as a function of the determined current values of at least some of the parameters of the aircraft, of the auxiliary parameter values including an interception point of the final approach axis (Ax) and a breaking point of the optimized vertical trajectory being determined upon a preceding iteration and of the difference between the predicted stabilization altitude and the setpoint stabilization altitude (Zs) determined upon step C/; and E/ transmitting said optimized vertical trajectory to guiding means embedded aboard the aircraft.
A method for processing interference, comprising: sending downlink transmission parameter indication information of a second User Equipment, UE, to a first UE through a Physical Downlink Shared Channel, PDSCH, wherein the second UE belongs to a second access node, and the first UE, which belongs to the first access node, performs Interference Cancellation, IC, processing according to the received downlink transmission parameter indication information; wherein sending the downlink transmission parameter indication information of the second UE to the first UE through the PDSCH, comprises: sending the downlink transmission parameter indication information to the first UE in a manner of bearing the downlink transmission parameter indication information of the second UE in a Radio Resource Control, RRC, signaling in the PDSCH of the first access node, and the method is characterized in that: a scrambling code used for representing the execution of IC is adopted to scramble the PDSCH of the first access node sending downlink transmission parameter indication information of a second User Equipment, UE, to a first UE through a Physical Downlink Shared Channel, PDSCH, wherein the second UE belongs to a second access node, and the first UE, which belongs to the first access node, performs Interference Cancellation, IC, processing according to the received downlink transmission parameter indication information; wherein sending the downlink transmission parameter indication information of the second UE to the first UE through the PDSCH, comprises: sending the downlink transmission parameter indication information to the first UE in a manner of bearing the downlink transmission parameter indication information of the second UE in a Radio Resource Control, RRC, signaling in the PDSCH of the first access node, and the method is characterized in that: a scrambling code used for representing the execution of IC is adopted to scramble the PDSCH of the first access node
A device for cutting hair comprising a skin contacting face that is arranged to be placed against a surface of the skin of a user during use; an optical system configured to direct a cutting laser beam across a cutting zone parallel to and spaced from said skin contacting face to cut hairs extending into the cutting zone; a laser beam sensor configured to generate information indicative of one or more optical properties of the cutting laser beam, including information indicative of the position and/or orientation of the path of the cutting laser beam; and a controller configured to adjust one or more characteristics of the optical system in dependence on the information generated by the laser beam sensor; characterised in that that the laser beam sensor is configured to generate information indicative of the distance between the cutting laser beam and a reference position on the device.
A method of operation of a carrier aggregation enabled wireless device in a cellular communications network, comprising: reconfiguring (102, 202, 608 or 614) the wireless device during a measurement gap such that the wireless device is enabled to receive a first set of one or more carriers after the measurement gap that are different than a second set of one or more carriers that the wireless device was receiving before the measurement gap.
System for controlled loading of a reconstructed or restored ligament of a human or animal body during the recovery phase, which comprises an anchoring element for implantation in a first bone, at least one connecting element and a holding element for the at least one connecting element on a second bone, wherein the anchoring element and/or the connecting element and the holding element are made of self-dissolving bioresorbable material and the holding element is made of bioresorbable calcium phosphate or magnesium, characterised in that the holding element is button-shaped and one end of the connecting element is passed around a central member of the button-shaped holding element and spliced, welded or glued to the connecting element.
An input device, said input device being a depressible touch pad for a computer and comprising an operation-input part to receive an input operation that is vertically movably supported above a base plate, wherein the base plate has a first hook standing toward the operation-input part, the operation-input part has a first arm member that can come into contact with the first hook, a contact of the first arm member with the first hook specifies an ascending limit of the operation-input part, and the first arm member, or the first hook, or both are elastically deformable in their contacting direction to cushion the contact of the first arm member with the first hook, wherein a contact surface of the first hook is configured in such a way, that it is in contact with a corresponding surface of the first arm member when the operation-input part does not receive an input operation, characterized in that the first hook is further configured in such a way, that an upper surface of the first hook opposite to the contact surface does not come into contact with any other element, and wherein the base plate has a second hook opposed to the first hook, the operation-input part has a second arm member opposed to the first arm member, and the second hook is disposed at a position higher than the first hook, such that the second hook does not come into contact with the second arm member when the operation-input part does not receive an input operation, wherein the second arm member is configured so that it can come into contact with the second hook at a position above the ascending limit of the operation-input part.
A network element for forming a mobile communications network, the network element comprising a transmitter configured to transmit signals via a wireless access interface to one or more communications devices, a receiver configured to receive signals from the one or more communications devices via the wireless access interface, and a controller configured to control the transmitter and the receiver to form the wireless access interface, the wireless access interface including downlink resources extending across a predetermined bandwidth and being divided in time into a plurality of frames, and to control the transmitter to transmit control data to the communications devices in resources of a control channel, wherein the control channel is formed from a plurality of control channel modules (601, 602), each control channel module being formed from a part of the predetermined bandwidth, the part of the predetermined bandwidth of each control channel module being less than the predetermined bandwidth and mutually exclusive from the parts of the predetermined bandwidths from which the other control channel modules are formed, wherein the controller is configured to dynamically control the size of the part of the predetermined bandwidth of each control channel module based on current or expected traffic conditions of the network, and wherein the controller is configured to control the transmitter to transmit an indication of the size of the part of the predetermined bandwidth of each control channel module to the communications devices in a default control channel module.
Precipitation simulator consisting of a collecting area, onto which the bulk-material-like precipitants can fall, and a tube, which extends from the lowest point of the collecting area to a transporting device and from there upwards as far as the nozzle, wherein the precipitant can be transported to the upper end of the tube by the transporting device and emerges there, characterised in that the nozzle is a hollow-body-like rail with outlet openings and in that an ionization system, consisting of at least one electrode is present, which projects into the stream of air/precipitant mixture and/or into the supply air and is connected to an alternating voltage of at least 1 kV.
A reamer comprising: a shaft, a cutting head with a plurality of cutting wedges on the circumference, said cutting wedges each being paired with a flute and each having a cutter, which extends in an axial direction at least in some sections, carries out a cutting process on the basis of a relative movement between reamer and workpiece, and lies on a virtual cylindrical rotational surface with a diameter that corresponds to the nominal diameter of the reamer, and at least one cutting wedge-free and flute-free surface region, at least one fluid channel, which is closed on the cutting head side and which extends through the shaft and into the cutting head, and at least one puncture channel, which starts from the fluid channel and comprises an opening that lies in the cutting wedge-free and flute-free surface region characterized in that the flutes are straight, and the opening that lies in the cutting wedge-free and flute-free surface region lies in a dynamic-pressure active surface (60, 160, 260), which is radially recessed relative to the virtual rotational surface of the cutting head and runs axially parallel to the longitudinal central axis, and which is larger than a flow cross sectional surface of the at least one puncture channel at the opening. a shaft, a cutting head with a plurality of cutting wedges on the circumference, said cutting wedges each being paired with a flute and each having a cutter, which extends in an axial direction at least in some sections, carries out a cutting process on the basis of a relative movement between reamer and workpiece, and lies on a virtual cylindrical rotational surface with a diameter that corresponds to the nominal diameter of the reamer, and at least one cutting wedge-free and flute-free surface region, at least one fluid channel, which is closed on the cutting head side and which extends through the shaft and into the cutting head, and at least one puncture channel, which starts from the fluid channel and comprises an opening that lies in the cutting wedge-free and flute-free surface region characterized in that the flutes are straight, and the opening that lies in the cutting wedge-free and flute-free surface region lies in a dynamic-pressure active surface (60, 160, 260), which is radially recessed relative to the virtual rotational surface of the cutting head and runs axially parallel to the longitudinal central axis, and which is larger than a flow cross sectional surface of the at least one puncture channel at the opening.