mhurhangee/patent-ind-claim-en huggingface dataset:
A method for checking tyres, comprising: - predisposing a tyre to be checked having a rotation axis and a surface; - determining a shift (S) along an acquisition direction between an acquisition point on said surface lying on a first radial plane, said first radial plane comprising the rotation axis , and a position occupied by said acquisition point following a rotation of said tyre about said rotation axis , said position lying on a second plane parallel to said first radial plane; - projecting a linear laser beam on a linear portion of surface of said tyre , wherein said linear portion of surface has a dimension much greater than another dimension orthogonal thereto and said linear laser beam propagates on said second plane with a propagation direction that is parallel to said acquisition direction , said linear laser beam having a linear cross section, taken perpendicularly to the propagation direction; - acquiring a matrix image of a matrix portion of surface of said tyre having two dimensions of comparable length and containing said linear portion of surface, wherein said matrix image contains a reflected laser line reflected by said linear portion of surface; - determining a sub-portion of said matrix image as a function of said shift (S), wherein said sub-portion of said matrix image contains said reflected laser line; - processing said sub-portion of said matrix image for determining an elevation profile of said linear portion of surface. - predisposing a tyre to be checked having a rotation axis and a surface; - determining a shift (S) along an acquisition direction between an acquisition point on said surface lying on a first radial plane, said first radial plane comprising the rotation axis , and a position occupied by said acquisition point following a rotation of said tyre about said rotation axis , said position lying on a second plane parallel to said first radial plane; - projecting a linear laser beam on a linear portion of surface of said tyre , wherein said linear portion of surface has a dimension much greater than another dimension orthogonal thereto and said linear laser beam propagates on said second plane with a propagation direction that is parallel to said acquisition direction , said linear laser beam having a linear cross section, taken perpendicularly to the propagation direction; - acquiring a matrix image of a matrix portion of surface of said tyre having two dimensions of comparable length and containing said linear portion of surface, wherein said matrix image contains a reflected laser line reflected by said linear portion of surface; - determining a sub-portion of said matrix image as a function of said shift (S), wherein said sub-portion of said matrix image contains said reflected laser line; - processing said sub-portion of said matrix image for determining an elevation profile of said linear portion of surface.
A method of auto-navigating a warehouse vehicle , wherein the warehouse vehicle comprises a sensor head that can be moved between first and second positions, the method comprising: providing a robotic vehicle , including: a first portion that is vertically stationary, the first portion including drive controls configured to provide operator drive control of the vehicle when in an operator area ; a second portion defining a payload area , wherein the second portion is configured to raise and lower between a first position and a second position; and characterized in that the robotic vehicle is auto-navigating and further characterized by, a sensor head supported by a mast , wherein the sensor head forms part of a navigation system , wherein the sensor head is disposed above the operator area and between the operator area and the payload area so that the sensor head and mast do not obstruct a field of view of an operator in the operator area when the second portion is in either of the first position and the second position; determining an offset of the sensor head when moved from the first position to the second position; the navigation system adjusting the sensor data using the offset; and auto-navigating the robotic vehicle based on the adjusted sensor data. providing a robotic vehicle , including: a first portion that is vertically stationary, the first portion including drive controls configured to provide operator drive control of the vehicle when in an operator area ; a second portion defining a payload area , wherein the second portion is configured to raise and lower between a first position and a second position; and a first portion that is vertically stationary, the first portion including drive controls configured to provide operator drive control of the vehicle when in an operator area ; a second portion defining a payload area , wherein the second portion is configured to raise and lower between a first position and a second position; and characterized in that the robotic vehicle is auto-navigating and further characterized by, a sensor head supported by a mast , wherein the sensor head forms part of a navigation system , wherein the sensor head is disposed above the operator area and between the operator area and the payload area so that the sensor head and mast do not obstruct a field of view of an operator in the operator area when the second portion is in either of the first position and the second position; determining an offset of the sensor head when moved from the first position to the second position; the navigation system adjusting the sensor data using the offset; and auto-navigating the robotic vehicle based on the adjusted sensor data.
A baler comprising: a bale chamber ; a plunger configured to compress crop material in said bale chamber in order to form a bale; a plurality of knotters ; a needle yoke with a plurality of needles configured to deliver a plurality of lower strands through said bale chamber to said plurality of knotters ; a tucker arm shaft carrying a plurality of tucker arms configured to deliver a plurality of upper strands to said plurality of knotters ; a driving shaft located above the bale chamber and extending in a traverse direction of the baler; wherein the tucker arm shaft extends parallel to the driving shaft ; a tucker arm coupling device configured to covert the rotation of the driving shaft into a rotation of the tucker arm shaft ; a needle coupling device configured to convert a rotation of the driving shaft into a movement of the needle yoke from a rest position to a twine delivery position and back; such that the movement of the needle yoke is synchronized with the rotation of the tucker arm shaft ; wherein said plurality of knotters is configured to receive the plurality of upper and lower strands from said plurality of tucker arms and from said plurality of needles , respectively; characterised by : a separate knotter coupling device between the driving shaft and a driveable knotter shaft coupled to the plurality of knotters , said knotter coupling device being configured to couple the driving shaft to the driveable knotter shaft . a bale chamber ; a plunger configured to compress crop material in said bale chamber in order to form a bale; a plurality of knotters ; a needle yoke with a plurality of needles configured to deliver a plurality of lower strands through said bale chamber to said plurality of knotters ; a tucker arm shaft carrying a plurality of tucker arms configured to deliver a plurality of upper strands to said plurality of knotters ; a driving shaft located above the bale chamber and extending in a traverse direction of the baler; wherein the tucker arm shaft extends parallel to the driving shaft ; a tucker arm coupling device configured to covert the rotation of the driving shaft into a rotation of the tucker arm shaft ; a needle coupling device configured to convert a rotation of the driving shaft into a movement of the needle yoke from a rest position to a twine delivery position and back; such that the movement of the needle yoke is synchronized with the rotation of the tucker arm shaft ; wherein said plurality of knotters is configured to receive the plurality of upper and lower strands from said plurality of tucker arms and from said plurality of needles , respectively; characterised by : a separate knotter coupling device between the driving shaft and a driveable knotter shaft coupled to the plurality of knotters , said knotter coupling device being configured to couple the driving shaft to the driveable knotter shaft .
A method of detecting defects in non-nested tubings or a casing , the non-nested tubings located within the casing, comprising: acquiring a first set of data including a first decay response from an electromagnetic ("EM") tool ) run inside a first of the non-nested tubings; acquiring a second set of data including a second decay response from the EM tool run inside a second of the non-nested tubings; calibrating the data to reduce effects from the second of the non-nested tubings; determining a time threshold , before which the decay response is substantially indicative of a potential defect in the first of the non-nested tubings, and after which the decay response is substantially indicative of a potential defect in the second of the non-nested tubings or in the casing; identifying whether a location of a defect is in the first or second of the non-nested tubings or the casing using the time threshold; adjusting the data to compensate for eccentricity of the tubings within the casing if the defect is located in the casing; performing an inversion algorithm on the data, the inversion algorithm corresponding to a single tubing configuration; and displaying the location. acquiring a first set of data including a first decay response from an electromagnetic ("EM") tool ) run inside a first of the non-nested tubings; acquiring a second set of data including a second decay response from the EM tool run inside a second of the non-nested tubings; calibrating the data to reduce effects from the second of the non-nested tubings; determining a time threshold , before which the decay response is substantially indicative of a potential defect in the first of the non-nested tubings, and after which the decay response is substantially indicative of a potential defect in the second of the non-nested tubings or in the casing; identifying whether a location of a defect is in the first or second of the non-nested tubings or the casing using the time threshold; adjusting the data to compensate for eccentricity of the tubings within the casing if the defect is located in the casing; performing an inversion algorithm on the data, the inversion algorithm corresponding to a single tubing configuration; and displaying the location.
A device for applying a hemostatic clip assembly, comprising: a proximal delivery catheter including a proximal handle assembly , an elongated catheter body defining a longitudinal axis (A) and extending distally from the proximal handle assembly , a drive wire movably positioned within the elongated catheter body , a release pin assembly coupled to a distal end of the drive wire , the release pin assembly including a release pin and a release pin housing positioned outward from the release pin , and a shaft spring positioned outward from the release pin housing , wherein the shaft spring includes an annular portion , wherein the release pin housing is configured and adapted to interfere with the annular portion of the shaft spring upon proximal translation of the release pin housing ; and a distal clip assembly removably connected to the distal end of the elongated catheter body , wherein the proximal delivery catheter is configured and adapted to transmit linear motion along the longitudinal axis (A) and torsion about the longitudinal axis (A) to at least a portion of the distal clip assembly characterised in that : the annular portion of the shaft spring is positioned around the release pin housing . a proximal delivery catheter including a proximal handle assembly , an elongated catheter body defining a longitudinal axis (A) and extending distally from the proximal handle assembly , a drive wire movably positioned within the elongated catheter body , a release pin assembly coupled to a distal end of the drive wire , the release pin assembly including a release pin and a release pin housing positioned outward from the release pin , and a shaft spring positioned outward from the release pin housing , wherein the shaft spring includes an annular portion , wherein the release pin housing is configured and adapted to interfere with the annular portion of the shaft spring upon proximal translation of the release pin housing ; and a distal clip assembly removably connected to the distal end of the elongated catheter body , wherein the proximal delivery catheter is configured and adapted to transmit linear motion along the longitudinal axis (A) and torsion about the longitudinal axis (A) to at least a portion of the distal clip assembly characterised in that : the annular portion of the shaft spring is positioned around the release pin housing .
A security document including a security document substrate having a face, a first fluorescent layer , a UV blocking layer , and a second fluorescent layer , the first fluorescent layer being fluorescent in a first visible colour when it is exposed to ultraviolet light, the UV blocking layer being opaque to ultraviolet light, but transmitting visible light, and the second fluorescent layer being fluorescent in a second, different, visible colour when it is exposed to ultraviolet light, wherein the second fluorescent layer is part of a security transfer affixed to the face of the security document , the security transfer having an inner face proximal to the security substrate and an outer face distal to the security substrate and the second fluorescent layer is closer to the outer face of the security transfer than either of the first fluorescent layer or the UV blocking layer , characterised in that an adhesive has been applied selectively to one or more portions of the security document and/or of the security transfer , so that only a portion of the security transfer is affixed to the face of the security document by the adhesive.
An article comprising: a body comprising a first material ; and at least one 3D-printable conductive composite segment in mechanical communication with the body, the at least one conductive composite segment comprising a matrix material , a plurality of carbon nanotubes ; and a plurality of conductive additives comprising metallic particulates, graphitic particles or a combination thereof. a body comprising a first material ; and at least one 3D-printable conductive composite segment in mechanical communication with the body, the at least one conductive composite segment comprising a matrix material , a plurality of carbon nanotubes ; and a plurality of conductive additives comprising metallic particulates, graphitic particles or a combination thereof. a matrix material , a plurality of carbon nanotubes ; and a plurality of conductive additives comprising metallic particulates, graphitic particles or a combination thereof.
A compact burner with both fuel and combustive-air regeneration comprising: a refractory block , a metallic body of the burner, internally coated with an insulating refractory layer , and an ignition device with flame detection, wherein said refractory block is positioned directly facing a combustion chamber of a furnace, wherein said metallic body of the burner comprises a pair of regeneration units both coated by said insulating refractory layer , an intermediate refractory block also being provided, which separates said pair of regeneration units and sealingly collaborates with said refractory block , said pair of regeneration units comprises an air-regeneration unit and a fuel-regeneration unit integrated with each other and supported in said metallic body , said air-regeneration unit and fuel-regeneration unit both being connected to a single combustion pre-chamber of the burner positioned in said refractory block , wherein said combustion pre-chamber of the burner is also connected to said ignition device with flame detection interposed in said two units , wherein said air-regeneration unit and fuel-regeneration unit are connected to said combustion pre-chamber of the burner through a respective first and second series of adjacent passages or ducts positioned in said refractory block . a refractory block , a metallic body of the burner, internally coated with an insulating refractory layer , and an ignition device with flame detection, wherein said refractory block is positioned directly facing a combustion chamber of a furnace, wherein said metallic body of the burner comprises a pair of regeneration units both coated by said insulating refractory layer , an intermediate refractory block also being provided, which separates said pair of regeneration units and sealingly collaborates with said refractory block , said pair of regeneration units comprises an air-regeneration unit and a fuel-regeneration unit integrated with each other and supported in said metallic body , said air-regeneration unit and fuel-regeneration unit both being connected to a single combustion pre-chamber of the burner positioned in said refractory block , wherein said combustion pre-chamber of the burner is also connected to said ignition device with flame detection interposed in said two units , wherein said air-regeneration unit and fuel-regeneration unit are connected to said combustion pre-chamber of the burner through a respective first and second series of adjacent passages or ducts positioned in said refractory block .
A method performed by a streaming client device , the method comprising: obtaining external device information from one or more external audio/visual, A/V, devices (112-1 to 112-N) connected to the streaming client device ; registering with a subscriber policy management system to add the external device information of the one or more external A/V devices (112-1 to 112-N) in a subscriber profile associated with the streaming client device in order to enable a streaming content policy server to assign a specific priority weight, responsive to the external device information, for adaptively streaming a particular content to the streaming client device via a content delivery network; receiving manifest files responsive to a streaming session request for a particular content, the manifest files including a plurality of encoding bitrates and one or more pointers to content segments of the particular content; and using the plurality of encoding bitrates and the one or more pointers included in the manifest files for obtaining appropriate content segments based at least in part upon the external device information when the particular content is requested by the streaming client device . obtaining external device information from one or more external audio/visual, A/V, devices (112-1 to 112-N) connected to the streaming client device ; registering with a subscriber policy management system to add the external device information of the one or more external A/V devices (112-1 to 112-N) in a subscriber profile associated with the streaming client device in order to enable a streaming content policy server to assign a specific priority weight, responsive to the external device information, for adaptively streaming a particular content to the streaming client device via a content delivery network; receiving manifest files responsive to a streaming session request for a particular content, the manifest files including a plurality of encoding bitrates and one or more pointers to content segments of the particular content; and using the plurality of encoding bitrates and the one or more pointers included in the manifest files for obtaining appropriate content segments based at least in part upon the external device information when the particular content is requested by the streaming client device .
A method for transmitting and receiving a device-to-device, D2D, signal by a first device in a wireless communication system, the method comprising: receiving a discovery signal with a Demodulation Reference Signal, DMRS, from a second device; determining a number of antenna ports, wherein the antenna ports are for transmission of the discovery signal by the second device; and decoding the discovery signal based on the number of antenna ports, wherein an initial value of a sequence constituting the DMRS is determined by a cell ID, wherein the cell ID is differently determined based on whether the first device is an in-network or out-of-network D2D device and characterized in that the number of antenna ports is indicated by a sequence shift pattern determining the initial value of the sequence constituting the DMRS for the discovery signal. receiving a discovery signal with a Demodulation Reference Signal, DMRS, from a second device; determining a number of antenna ports, wherein the antenna ports are for transmission of the discovery signal by the second device; and decoding the discovery signal based on the number of antenna ports, wherein an initial value of a sequence constituting the DMRS is determined by a cell ID, wherein the cell ID is differently determined based on whether the first device is an in-network or out-of-network D2D device and characterized in that the number of antenna ports is indicated by a sequence shift pattern determining the initial value of the sequence constituting the DMRS for the discovery signal.
Front flap for a vehicle, in particular motor vehicle, which front flap has an external sheet , where in a predetermined region or in the entire region of the front flap there is at least one inertial mass arranged underneath the external sheet , where the said inertial mass is formed by a flexible heavy layer , characterized in that the inertial mass in the form of the heavy layer comprises bitumen composition, and that the plastics composition moreover comprises foreign plastic.