mhurhangee/patent-ind-claim-en huggingface dataset:
A rejection mechanism for a conveyor system including a conveyor for conveying parcels, comprising: a linear actuator ; a paddle mounted to the linear actuator for movement between a first position and a second position, wherein the paddle includes (i) a lower bracket portion for mounting the paddle to the linear actuator , (ii) an upright portion extending upward and adjacent to an edge of the conveyor, and (iii) a lateral wall portion that extends from the upright portion ; and wherein, in use, the lateral wall portion is positioned over a portion of an upper surface of the conveyor as the paddle is moved from the first position to the second position, such that parcels positioned on the conveyor in a path of the lateral wall portion are pushed by the lateral wall portion as the paddle is moved from the first position to the second position; characterized in that the rejection mechanism further comprises a way cover having a first end fixed in position and a second end mounted to the lateral wall portion of the paddle ; and wherein the way cover expands and contracts with movement of the paddle . a linear actuator ; a paddle mounted to the linear actuator for movement between a first position and a second position, wherein the paddle includes (i) a lower bracket portion for mounting the paddle to the linear actuator , (ii) an upright portion extending upward and adjacent to an edge of the conveyor, and (iii) a lateral wall portion that extends from the upright portion ; and wherein, in use, the lateral wall portion is positioned over a portion of an upper surface of the conveyor as the paddle is moved from the first position to the second position, such that parcels positioned on the conveyor in a path of the lateral wall portion are pushed by the lateral wall portion as the paddle is moved from the first position to the second position; characterized in that and wherein, in use, the lateral wall portion is positioned over a portion of an upper surface of the conveyor as the paddle is moved from the first position to the second position, such that parcels positioned on the conveyor in a path of the lateral wall portion are pushed by the lateral wall portion as the paddle is moved from the first position to the second position; characterized in that the rejection mechanism further comprises a way cover having a first end fixed in position and a second end mounted to the lateral wall portion of the paddle ; and wherein the way cover expands and contracts with movement of the paddle .
A process for forming a long-chain branched polymer, comprising: reacting (a) a polyolefin base polymer with (b) a coupling agent comprising a polymeric coupling agent, optionally blended with a molecular coupling agent, the polymeric coupling agent being a modified polyolefin having a reactive coupling group at one or more terminal ends of the modified polyolefin chain, to couple the polyolefin base polymer (a) with the coupling agent (b) to form a long-chain branched polymer having a long-chain branching and/or higher surface energy relative to the polyolefin base polymer; wherein the polyolefin base polymer is a homopolymer or copolymer prepared from one or more linear or branched α-olefins having from 2 to 20 carbon atoms; and, wherein the reactive coupling group at one or more terminal ends of the modified polyolefin chain is an azide group. reacting (a) a polyolefin base polymer with (b) a coupling agent comprising a polymeric coupling agent, optionally blended with a molecular coupling agent, the polymeric coupling agent being a modified polyolefin having a reactive coupling group at one or more terminal ends of the modified polyolefin chain, to couple the polyolefin base polymer (a) with the coupling agent (b) to form a long-chain branched polymer having a long-chain branching and/or higher surface energy relative to the polyolefin base polymer; wherein the polyolefin base polymer is a homopolymer or copolymer prepared from one or more linear or branched α-olefins having from 2 to 20 carbon atoms; and, wherein the reactive coupling group at one or more terminal ends of the modified polyolefin chain is an azide group.
A display device comprising: a substrate on which a pixel (Pa) and a transmissive area (TA) are located in a sensor area (SA), the pixel (Pa) including a display element (OLED'), and wherein the transmissive area (TA) is an area capable of transmitting light or signals; a plurality of wirings (WL) on the substrate , the wirings (WL) being on one side of the transmissive area (TA); a pixel electrode and an emission layer each included in the pixel (Pa); an opposite electrode on the emission layer and including an opening corresponding to the transmissive area (TA); and a first metal layer (BSM1) overlapping the wirings (WL), the first metal layer (BSM1) being below the wirings (WL), wherein a lateral surface of the first metal layer (BSM1) has an inverse-tapered shape with respect to a top surface of the substrate . a substrate on which a pixel (Pa) and a transmissive area (TA) are located in a sensor area (SA), the pixel (Pa) including a display element (OLED'), and wherein the transmissive area (TA) is an area capable of transmitting light or signals; a plurality of wirings (WL) on the substrate , the wirings (WL) being on one side of the transmissive area (TA); a pixel electrode and an emission layer each included in the pixel (Pa); an opposite electrode on the emission layer and including an opening corresponding to the transmissive area (TA); and a first metal layer (BSM1) overlapping the wirings (WL), the first metal layer (BSM1) being below the wirings (WL), wherein a lateral surface of the first metal layer (BSM1) has an inverse-tapered shape with respect to a top surface of the substrate .
A Rac1 inhibitor for use for treating a bronchoconstrictive disease selected from the group consisting of asthma, COPD and cystic fibrosis by inducing bronchodilation independently of its inhibitory effect on inflammation.
A process for manufacturing a silver-plated copper or copper alloy blank wire, having a silver layer thickness of 1.5 μm to 15 μm, comprising the step of electrolytically depositing silver on the copper or copper alloy blank wire, said electrolytic deposition being performed at a pulsating current with reversal in a silver-plating bath comprising from 40 to 70 g/l of silver cyanide and from 90 g/l to 150 g/l of potassium cyanide, the electrolytic conditions being as follows: - average current density Jm comprised between 1.5 A/dm 2 and 15 A/dm 2 , advantageously between 1.78 A/dm 2 and 5 A/dm 2 ; - pulse frequency f comprised between 0.8 Hz and 1.6 Hz, advantageously between 0.8 Hz and 1.4 Hz, in particular 1 Hz; - duty cycle Q comprised between 50 and 80%, advantageously between 55% and 65%; - current density of the cathode peak Jc comprised between 3 A/dm 2 and 11 A/dm 2 , advantageously between 5 A/dm 2 and 10 A/dm 2 ; - current density of the anode peak Ja comprised between 1 A/dm 2 and 5 A/dm 2 , advantageously between 1.28 A/dm 2 and 4.2 A/dm 2 ; - time of maintaining the cathodic pulse Tc comprised between 0.2 s and 0.8 s, advantageously between 0.55 s and 0.65 s and - time of maintaining the anode pulse Ta comprised between 0.06 s and 0.5 s, advantageously between 0.35 s and 0.45 s. - average current density Jm comprised between 1.5 A/dm 2 and 15 A/dm 2 , advantageously between 1.78 A/dm 2 and 5 A/dm 2 ; - pulse frequency f comprised between 0.8 Hz and 1.6 Hz, advantageously between 0.8 Hz and 1.4 Hz, in particular 1 Hz; - duty cycle Q comprised between 50 and 80%, advantageously between 55% and 65%; - current density of the cathode peak Jc comprised between 3 A/dm 2 and 11 A/dm 2 , advantageously between 5 A/dm 2 and 10 A/dm 2 ; - current density of the anode peak Ja comprised between 1 A/dm 2 and 5 A/dm 2 , advantageously between 1.28 A/dm 2 and 4.2 A/dm 2 ; - time of maintaining the cathodic pulse Tc comprised between 0.2 s and 0.8 s, advantageously between 0.55 s and 0.65 s and - time of maintaining the anode pulse Ta comprised between 0.06 s and 0.5 s, advantageously between 0.35 s and 0.45 s.
Radiometric fill level measuring device, comprising: a detector arrangement , configured to convert radioactive radiation into a pulsed electrical current signal; an integrator , configured to integrate the electric current signal, resulting in charging a component of the integrator; wherein the fill level measuring device is configured to determine an amplitude spectrum, and to determine a fill level or a limit level; characterized by a delay circuit for selectively delaying and accelerating a discharge of the component of the integrator; a control circuit , configured to analyze the integrated electrical current signal while the discharge of the component of the integrator is delayed a detector arrangement , configured to convert radioactive radiation into a pulsed electrical current signal; an integrator , configured to integrate the electric current signal, resulting in charging a component of the integrator; wherein the fill level measuring device is configured to determine an amplitude spectrum, and to determine a fill level or a limit level; characterized by a delay circuit for selectively delaying and accelerating a discharge of the component of the integrator; a control circuit , configured to analyze the integrated electrical current signal while the discharge of the component of the integrator is delayed
A flusher comprising: a body that defines a collapsible flush dome ; a passive flow path that extends between an upstream port and a downstream port , at least a portion of the flow path being defined by a pinch tube that extends across an exterior surface of the flush dome ; and a valve having a first position in which the flush dome is not in fluid communication with the upstream port or the passive flow path and a second position in which the flush dome is in fluid communication with the upstream port and the passive flow path ; wherein application of a force to the pinch tube is effective to collapse the pinch tube to block the passive flow path and to collapse the dome to move the valve to the second position and flush fluid through the upstream port . a body that defines a collapsible flush dome ; a passive flow path that extends between an upstream port and a downstream port , at least a portion of the flow path being defined by a pinch tube that extends across an exterior surface of the flush dome ; and a valve having a first position in which the flush dome is not in fluid communication with the upstream port or the passive flow path and a second position in which the flush dome is in fluid communication with the upstream port and the passive flow path ; wherein application of a force to the pinch tube is effective to collapse the pinch tube to block the passive flow path and to collapse the dome to move the valve to the second position and flush fluid through the upstream port .
Procedure for the configuration of a first electric motor driven pump unit with configuration data in a hydraulic pipe network of a heating system with radiators or heating surfaces or a drinking water system with tap connections, characterised by operating data or operating and configuration data of a second pump unit previously operated in the hydraulic pipe network of the heating or drinking water system being stored in a non-volatile memory unit of the pump electronics of the second pump unit and being transferred from the second pump unit to the first pump unit , in which the operating data of the second pump unit define operating states and/or working points that have been reached in the form of measurement data or calculated or estimated values of physical parameters of the second pump unit , and configuration data in the form of parameter value settings and/or at least a function setting of the first pump unit or a characteristic curve are obtained from the operating data of the second pump unit , which the first pump unit transfers to the operating software of its pump electronics .
A two-phase separator device, the device comprising: a housing having an inlet for receiving a two-phase mixture, wherein the two-phase mixture includes a gas stream and condensate or particulate; and a rotatable vane assembly within the housing and along a flow path of the gas stream, the rotatable vane assembly comprising: a rotatable drum configured to rotate about an axis of rotation along an axial direction of the two-phase separator device; and a plurality of vanes arranged about the axis of rotation and extending radially outwardly from the axis of rotation to the rotatable drum , wherein the plurality of vanes are connected to the rotatable drum at an inner wall that is sloped, wherein a plurality of non-planar features are formed in at least a major surface of each of the plurality of vanes , the plurality of non-planar features configured to capture condensate or particulate from the gas stream. a housing having an inlet for receiving a two-phase mixture, wherein the two-phase mixture includes a gas stream and condensate or particulate; and a rotatable vane assembly within the housing and along a flow path of the gas stream, the rotatable vane assembly comprising: a rotatable drum configured to rotate about an axis of rotation along an axial direction of the two-phase separator device; and a plurality of vanes arranged about the axis of rotation and extending radially outwardly from the axis of rotation to the rotatable drum , wherein the plurality of vanes are connected to the rotatable drum at an inner wall that is sloped, wherein a plurality of non-planar features are formed in at least a major surface of each of the plurality of vanes , the plurality of non-planar features configured to capture condensate or particulate from the gas stream. a rotatable drum configured to rotate about an axis of rotation along an axial direction of the two-phase separator device; and a plurality of vanes arranged about the axis of rotation and extending radially outwardly from the axis of rotation to the rotatable drum , wherein the plurality of vanes are connected to the rotatable drum at an inner wall that is sloped, wherein a plurality of non-planar features are formed in at least a major surface of each of the plurality of vanes , the plurality of non-planar features configured to capture condensate or particulate from the gas stream.
A cardboard sheet-cutting method performed by a cardboard sheet-cutting device including a digital printing machine , a first cutting machine , a second cutting machine , a mark detector , and a control unit , comprising: printing, by the digital printing machine , a cutting mark on a cardboard sheet (E) under transport; cutting, by the first cutting machine , the cardboard sheet (E) under transport to a predetermined width in a longitudinal direction; detecting, by the mark detector , the cutting mark in the cardboard sheet (E) under transport; cutting, by the second cutting machine , the cardboard sheet (E) under transport to a predetermined length in a width direction, when the mark detector detects the cutting mark; and controlling, by the control unit , operation of the first cutting machine and the second cutting machine and a movement of the mark detector on the basis of a change in printing image information, wherein the printing image information is a cutting width, of the cardboard sheet (E) to be cut by the first cutting machine , changed with a change in the printing image, and the control unit moves the mark detector on the basis of the changed printing image, without stopping the transport of the cardboard sheet (E). printing, by the digital printing machine , a cutting mark on a cardboard sheet (E) under transport; cutting, by the first cutting machine , the cardboard sheet (E) under transport to a predetermined width in a longitudinal direction; detecting, by the mark detector , the cutting mark in the cardboard sheet (E) under transport; cutting, by the second cutting machine , the cardboard sheet (E) under transport to a predetermined length in a width direction, when the mark detector detects the cutting mark; and controlling, by the control unit , operation of the first cutting machine and the second cutting machine and a movement of the mark detector on the basis of a change in printing image information, wherein the printing image information is a cutting width, of the cardboard sheet (E) to be cut by the first cutting machine , changed with a change in the printing image, and the control unit moves the mark detector on the basis of the changed printing image, without stopping the transport of the cardboard sheet (E).
A semantic robotic system comprising a plurality of communicatively coupled robotic devices (101, a-n) comprising at least one sensing element , characterized in ; the system having a plurality of stored semantic routes, the semantic routes each being associated with a distinct physical movement or path of travel for one or more of the robotic devices; the system further having a plurality of stored semantic rules that allow semantic inference, the semantic rules comprising composition and management plans including one or more of timing, ratings, weightings, or access control; wherein the system is configured to use semantic factorization to adjust a quantifiable factor or indicator for at least one of the stored semantic routes or semantic rules based on semantic inference or analysis to cause the semantic robotic system to implement guiding paths by causing at least two robotic devices from among the plurality of robotic devices to move toward one another and to physically connect to one another via at least one of a band, rope, belt, net, or foldable barrier . the system having a plurality of stored semantic routes, the semantic routes each being associated with a distinct physical movement or path of travel for one or more of the robotic devices; the system further having a plurality of stored semantic rules that allow semantic inference, the semantic rules comprising composition and management plans including one or more of timing, ratings, weightings, or access control; wherein the system is configured to use semantic factorization to adjust a quantifiable factor or indicator for at least one of the stored semantic routes or semantic rules based on semantic inference or analysis to cause the semantic robotic system to implement guiding paths by causing at least two robotic devices from among the plurality of robotic devices to move toward one another and to physically connect to one another via at least one of a band, rope, belt, net, or foldable barrier .
Timepiece component containing a high-entropy alloy, the high-entropy alloy formed of 4 to 6 elements forming a single solid solution, the high-entropy alloy having a concentration of each main alloying element comprised between 1 and 55 at.%, wherein the high-entropy alloy satisfies the following formula: Fe 80-x Mn x Co 10 Cr 10 , where x is comprised between 25 and 79 at.%, and preferably x is comprised between 25 and 45 at.%.
A method of scanning a feature in a sample surface with a scanning probe microscopy system, the scanning probe microscopy system comprising a probe, the probe comprising a cantilever mount , a cantilever extending from the cantilever mount to a free end, and a probe tip carried by the free end of the cantilever, the method comprising: measuring an orientation of the probe relative to a reference surface to generate a probe orientation measurement, wherein the reference surface defines a reference surface axis which is normal to the reference surface and the probe tip has a reference tilt angle relative to the reference surface axis; changing a shape of the cantilever in accordance with the probe orientation measurement so that the probe tip moves relative to the cantilever mount and the reference tilt angle decreases from a first reference tilt angle to a second reference tilt angle; and scanning the sample surface with the probe, wherein the sample surface defines a sample surface axis which is normal to the sample surface and the probe tip has a scanning tilt angle relative to the sample surface axis, characterised in that during the scanning of the sample surface the cantilever mount is moved so that the probe tip is inserted into the feature in the sample surface with the scanning tilt angle below the first reference tilt angle.
A shaft arrangement for a vehicle , wherein the shaft arrangement comprises a shaft comprising a fluid channel extending along an axial direction of the shaft , wherein in said fluid channel , a cooling and/or lubrication fluid is arranged to flow during use, wherein the shaft comprises at least one fluid inlet arranged at an axial distance from a first end of the shaft and extending radially between an outside surface of the shaft and the fluid channel , the shaft arrangement further comprises a sensor comprising a first sensor part and a second sensor part , wherein the first sensor part is attached to a first end part of the shaft at the first end of the shaft and the second sensor part is arranged to be attached to a first shaft housing part , characterized in that the first sensor part is a magnet comprising at least two pieces having different magnetic field orientations and the second sensor part is arranged to detect changes in the magnetic field of the first sensor part due to a rotational motion of the shaft , and in that the shaft arrangement comprises a fluid flow path adapted such that in use at least part of the fluid will flow outside of the shaft , past the first sensor part at the first end of the shaft, from the outside of the shaft , and at said axial distance from the first end of the shaft , through the at least one fluid inlet into the fluid channel .
A method of optical sensing comprising: determining optical image data associated with a three dimensional object of interest , through differing optical media, wherein the object of interest is in a fluid in a container containing the fluid; retrieving non-optical data associated with the object of interest and relating to the container, media, backgrounds and fluid; analyzing the optical image data and non-optical data; and determining a position of the object of interest with respect to the container based on the analyzed optical image data and non-optical data. determining optical image data associated with a three dimensional object of interest , through differing optical media, wherein the object of interest is in a fluid in a container containing the fluid; retrieving non-optical data associated with the object of interest and relating to the container, media, backgrounds and fluid; analyzing the optical image data and non-optical data; and determining a position of the object of interest with respect to the container based on the analyzed optical image data and non-optical data.