mhurhangee/patent-ind-claim-en huggingface dataset:
An implement , comprising: a frame a plurality of ground working tools coupled to the frame; a ground engaging mechanism pivotally coupled to the frame, wherein a hydraulic system is coupled to both the frame and the ground engaging mechanism; a load identifying sensor configured to identify a load value acting on the ground engaging mechanism ; and a controller configured to communicate with the load identifying sensor ; and a user interface configured to communicate with the controller , the user interface configured to identify a desired tool depth of the ground working tool; wherein, the controller is configured to alter the ground engaging mechanism using the hydraulic system to position the ground working tools at the desired tool depth; wherein the controller is configured to initiate a response when the load value is not within a load threshold and to adjust the position of the ground working tools at the desired tool depth . a frame a plurality of ground working tools coupled to the frame; a ground engaging mechanism pivotally coupled to the frame, wherein a hydraulic system is coupled to both the frame and the ground engaging mechanism; a load identifying sensor configured to identify a load value acting on the ground engaging mechanism ; and a controller configured to communicate with the load identifying sensor ; and a user interface configured to communicate with the controller , the user interface configured to identify a desired tool depth of the ground working tool; wherein, the controller is configured to alter the ground engaging mechanism using the hydraulic system to position the ground working tools at the desired tool depth; wherein the controller is configured to initiate a response when the load value is not within a load threshold and to adjust the position of the ground working tools at the desired tool depth .
Method for treating textiles in a washing machine comprising a suds container for receiving washing liquid and a drum rotatably mounted in the suds container for receiving the textiles, in which method a washing programme having a total running time of at least 110 minutes is started, a washing liquid that contains rejuvenating agent is fed to the suds container and the textiles in the drum are washed in the washing liquid containing rejuvenating agent, characterised in that the washing liquid is formed from water and a detergent, the detergent containing 2.5 to 10.0 wt.% cellulase as a rejuvenating agent.
An anaerobically curable composition comprising: from 50 percent to 90 percent by weight of the total composition at least one (meth)acrylate component; an anaerobic cure system, wherein the anaerobic cure system comprises a cure initiator in the amount of 0.1 percent to 5 percent by weight of the total composition and a cure accelerator in the amount of 0.1 percent to 5 percent by weight of the total composition; and from 1 to 35 wt.%, based on the weight of the composition, of a (meth)acrylate-functionalized biorenewable oleaginous polyurethane polymer, wherein the (meth)acrylate-functionalized bio-renewable oleaginous polyurethane polymer comprises a (meth)acrylate-functionalized soybean oil component. from 50 percent to 90 percent by weight of the total composition at least one (meth)acrylate component; an anaerobic cure system, wherein the anaerobic cure system comprises a cure initiator in the amount of 0.1 percent to 5 percent by weight of the total composition and a cure accelerator in the amount of 0.1 percent to 5 percent by weight of the total composition; and from 1 to 35 wt.%, based on the weight of the composition, of a (meth)acrylate-functionalized biorenewable oleaginous polyurethane polymer, wherein the (meth)acrylate-functionalized bio-renewable oleaginous polyurethane polymer comprises a (meth)acrylate-functionalized soybean oil component.
An adaptive damping shock absorber for automobile, comprising a cylinder barrel , a piston rod , a damping valve and a nitrogen tank , characterized in that : the adaptive damping shock absorber for automobile further comprises a flute-like assembly arranged in the cylinder barrel, the flute-like assembly comprises a core tube seat , an inner tube and an outer tube , wherein each of two ends of the outer tube are provided with at least one row of damping holes , one of the two ends of the outer tube is provided with a first check valve and is inserted into the piston rod, another of the two ends of the outer tube is arranged on the core tube seat and is connected with the nitrogen tank via a first oil tube pipeline , the core tube seat is communicated with the first oil tube pipeline via a second check valve , the inner tube is arranged in the outer tube, a bottom end of the inner tube is fixed on the core tube seat and is connected with the nitrogen tank via a second oil tube pipeline , the core tube seat is fixed to a bottom of the cylinder barrel, the damping valve is fixed to one end of the piston rod and is arranged in the cylinder barrel, one end of the piston rod has a sealing pipe fixed thereto, and another end of the piston rod passes through an end cover of the cylinder barrel and is provided with a lower lug , and an upper lug is fixed to the bottom of the cylinder barrel. the adaptive damping shock absorber for automobile further comprises a flute-like assembly arranged in the cylinder barrel, the flute-like assembly comprises a core tube seat , an inner tube and an outer tube , wherein each of two ends of the outer tube are provided with at least one row of damping holes , one of the two ends of the outer tube is provided with a first check valve and is inserted into the piston rod, another of the two ends of the outer tube is arranged on the core tube seat and is connected with the nitrogen tank via a first oil tube pipeline , the core tube seat is communicated with the first oil tube pipeline via a second check valve , the inner tube is arranged in the outer tube, a bottom end of the inner tube is fixed on the core tube seat and is connected with the nitrogen tank via a second oil tube pipeline , the core tube seat is fixed to a bottom of the cylinder barrel, the damping valve is fixed to one end of the piston rod and is arranged in the cylinder barrel, one end of the piston rod has a sealing pipe fixed thereto, and another end of the piston rod passes through an end cover of the cylinder barrel and is provided with a lower lug , and an upper lug is fixed to the bottom of the cylinder barrel.
A microscope comprising: a structured illumination section that emits structured illumination light having a light-dark pattern; a phase difference measurement illumination section that emits illumination light for phase difference measurement onto a subject-mount surface; a phase contrast lens that has a phase plate having a phase ring for dimming illumination light for phase difference measurement, where the illumination light for phase difference measurement having passed through the subject-mount surface is incident into the phase contrast lens , and the structured illumination light is incident into the phase contrast lens in a direction different from a direction of incidence of the illumination light for phase difference measurement through an optical system ; a detection section that detects reflected light of the structured illumination light which is reflected on the subject-mount surface; and an observation section that images the illumination light for phase difference measurement which has passed through the phase contrast lens , wherein when Fourier transform is applied to the structured illumination light through the optical system , a spatial frequency of the structured illumination light is set on a high-frequency side or a low-frequency side with respect to a position of the phase ring on optical Fourier space. a structured illumination section that emits structured illumination light having a light-dark pattern; a phase difference measurement illumination section that emits illumination light for phase difference measurement onto a subject-mount surface; a phase contrast lens that has a phase plate having a phase ring for dimming illumination light for phase difference measurement, where the illumination light for phase difference measurement having passed through the subject-mount surface is incident into the phase contrast lens , and the structured illumination light is incident into the phase contrast lens in a direction different from a direction of incidence of the illumination light for phase difference measurement through an optical system ; a detection section that detects reflected light of the structured illumination light which is reflected on the subject-mount surface; and an observation section that images the illumination light for phase difference measurement which has passed through the phase contrast lens , wherein when Fourier transform is applied to the structured illumination light through the optical system , a spatial frequency of the structured illumination light is set on a high-frequency side or a low-frequency side with respect to a position of the phase ring on optical Fourier space.
A corona igniter , comprising: an insulator including an inner surface surrounding a bore and extending from an upper connection end to an insulator nose end ; said inner surface of said insulator including an electrode seat between said upper connection end and said insulator nose end; said inner surface of said insulator presenting an inner diameter (Di), said inner diameter decreasing along said electrode seat in a direction moving toward said insulator nose end; a center electrode disposed in said bore of said insulator; said center electrode including a head disposed on said electrode seat of said inner surface of said insulator; a metallic coating disposed on said inner surface of said insulator between said electrode seat and said upper connection end; said metallic coating not disposed on said inner surface of said insulator below said electrode seat; and characterised by a braze disposed along said inner surface of said insulator between said electrode seat and said upper connection end. an insulator including an inner surface surrounding a bore and extending from an upper connection end to an insulator nose end ; said inner surface of said insulator including an electrode seat between said upper connection end and said insulator nose end; said inner surface of said insulator presenting an inner diameter (Di), said inner diameter decreasing along said electrode seat in a direction moving toward said insulator nose end; a center electrode disposed in said bore of said insulator; said center electrode including a head disposed on said electrode seat of said inner surface of said insulator; a metallic coating disposed on said inner surface of said insulator between said electrode seat and said upper connection end; said metallic coating not disposed on said inner surface of said insulator below said electrode seat; and characterised by a braze disposed along said inner surface of said insulator between said electrode seat and said upper connection end.
An intraocular lens comprising: a base refractive structure having anterior and posterior surfaces that are shaped for producing a first optical power; a diffractive structure formed in one of the surfaces of the base refractive structure including overlapping first and second diffractive patterns over a common aperture for producing second and third optical powers; and the second optical power being an uneven division of the third optical power, wherein the first and second diffractive patterns convey the first optical power through zero order diffraction for forming a distance focus, wherein the first and second diffractive patterns convey the second and third optical powers through a first order diffraction for forming in combination with the first optical power respective intermediate and near foci, and wherein the first and second diffractive patterns have non-harmonic periodicities so that a second order diffraction through the first diffractive pattern produces a focus that is slightly offset from the near focus formed by the first order diffraction through the second diffractive pattern in combination with the first optical power for extending an effective depth of the near focus. a base refractive structure having anterior and posterior surfaces that are shaped for producing a first optical power; a diffractive structure formed in one of the surfaces of the base refractive structure including overlapping first and second diffractive patterns over a common aperture for producing second and third optical powers; and the second optical power being an uneven division of the third optical power, wherein the first and second diffractive patterns convey the first optical power through zero order diffraction for forming a distance focus, wherein the first and second diffractive patterns convey the second and third optical powers through a first order diffraction for forming in combination with the first optical power respective intermediate and near foci, and wherein the first and second diffractive patterns have non-harmonic periodicities so that a second order diffraction through the first diffractive pattern produces a focus that is slightly offset from the near focus formed by the first order diffraction through the second diffractive pattern in combination with the first optical power for extending an effective depth of the near focus.
A method of operating an engine having one or more cylinders each having a piston within the cylinder and each piston having an expansion stroke and a return stroke and a top dead centre (TDC) position and a bottom dead centre position (BDC) and said engine employing a working fluid (WF) and a heat exchange fluid (HEF), characterised by the steps of: I. introducing the HEF during the return stroke of the engine ; II. introducing the working fluid (WF) during the expansion stroke of the engine ; III. causing the exhaust valve to be opened at or near bottom dead centre of the piston (BDC); IV. delivering the HEF to the cylinder after an exhaust valve of the engine has been opened; and V. closing the exhaust valve before TDC, such as to allow the working fluid to be compressed by the piston within the cylinder . I. introducing the HEF during the return stroke of the engine ; II. introducing the working fluid (WF) during the expansion stroke of the engine ; III. causing the exhaust valve to be opened at or near bottom dead centre of the piston (BDC); IV. delivering the HEF to the cylinder after an exhaust valve of the engine has been opened; and V. closing the exhaust valve before TDC, such as to allow the working fluid to be compressed by the piston within the cylinder .
A system for installing a blade insert between a root portion and a tip portion of a rotor blade of a wind turbine, the system comprising: a root cradle assembly configured to support the root portion of the rotor blade ; a tip cradle assembly configured to support the tip portion of the rotor blade , at least one of the tip cradle assembly or the root cradle assembly being movable relative to the other of the tip cradle assembly or the root cradle assembly to allow the tip portion to be spaced apart from the root portion after the rotor blade has been divided between the root and tip portions; an insert cradle assembly configured to support a blade insert for the rotor blade , the insert cradle assembly configured to be positioned between the root cradle assembly and the tip cradle assembly so as to position the blade insert between the root portion and the tip portion ; and a movement device configured to move at least one of the tip cradle assembly or the root cradle assembly relative to the other of the tip cradle assembly or the root cradle assembly, wherein the movement device comprises a rail assembly on which the tip cradle assembly is positioned, the tip cradle assembly configured to be moved laterally along the rail assembly relative to the root cradle assembly . a root cradle assembly configured to support the root portion of the rotor blade ; a tip cradle assembly configured to support the tip portion of the rotor blade , at least one of the tip cradle assembly or the root cradle assembly being movable relative to the other of the tip cradle assembly or the root cradle assembly to allow the tip portion to be spaced apart from the root portion after the rotor blade has been divided between the root and tip portions; an insert cradle assembly configured to support a blade insert for the rotor blade , the insert cradle assembly configured to be positioned between the root cradle assembly and the tip cradle assembly so as to position the blade insert between the root portion and the tip portion ; and a movement device configured to move at least one of the tip cradle assembly or the root cradle assembly relative to the other of the tip cradle assembly or the root cradle assembly, wherein the movement device comprises a rail assembly on which the tip cradle assembly is positioned, the tip cradle assembly configured to be moved laterally along the rail assembly relative to the root cradle assembly .
A method comprising: computing , by a deterministic random number generator at a wireless local area network, WLAN, Access Point, AP communication node (AP1, AP2), a pseudorandom number; computing, by a deterministic random number generator at a WLAN Station, WLAN STA, , another pseudorandom number, the deterministic random number generator at the WLAN AP (AP1, AP2) communication node employing the same random number generation algorithm to compute the pseudorandom number at the WLAN AP as the deterministic random number generator at the WLAN STA ; the WLAN AP and the WLAN STA sharing a value associated with the deterministic random number generator, wherein the computing by the deterministic random number generator at the WLAN STA results in the same pseudorandom number as the pseudorandom number computed by the deterministic random number generator at the WLAN AP; and determining , by the WLAN AP communication node (AP1, AP2), a timing of a randomized beacon transmission using the computed pseudorandom number, determining, by the WLAN STA, the timing of the randomized beacon transmission using the computed pseudorandom number using the timing to transmit, by the WLAN AP communication node, the randomized beacon transmission to the WLAN STA ; and using the timing to receive, by the WLAN STA, the randomized beacon transmission from the WLAN AP communication node; the WLAN STA transitioning from a power saving mode to an active receiving state at the timing determined, by the WLAN STA, using the computed pseudorandom number. computing , by a deterministic random number generator at a wireless local area network, WLAN, Access Point, AP communication node (AP1, AP2), a pseudorandom number; computing, by a deterministic random number generator at a WLAN Station, WLAN STA, , another pseudorandom number, the deterministic random number generator at the WLAN AP (AP1, AP2) communication node employing the same random number generation algorithm to compute the pseudorandom number at the WLAN AP as the deterministic random number generator at the WLAN STA ; the WLAN AP and the WLAN STA sharing a value associated with the deterministic random number generator, wherein the computing by the deterministic random number generator at the WLAN STA results in the same pseudorandom number as the pseudorandom number computed by the deterministic random number generator at the WLAN AP; and determining , by the WLAN AP communication node (AP1, AP2), a timing of a randomized beacon transmission using the computed pseudorandom number, determining, by the WLAN STA, the timing of the randomized beacon transmission using the computed pseudorandom number using the timing to transmit, by the WLAN AP communication node, the randomized beacon transmission to the WLAN STA ; and using the timing to receive, by the WLAN STA, the randomized beacon transmission from the WLAN AP communication node; the WLAN STA transitioning from a power saving mode to an active receiving state at the timing determined, by the WLAN STA, using the computed pseudorandom number.
A catalytic oxidizer for reusing waste, which comprises: - a cylindrical oxidation chamber, intended to be fed with catalytically oxidizable waste, and which comprises a chamber body and at least one wall that surrounds the outer part of the chamber body ; - waste feeding means for feeding the oxidation chamber with oxidizable waste; - comburent supplying means , which comprise first comburent supplying means , connected to the middle part and the lower part of the oxidation chamber and oriented for introducing pressurized oxygenated gas in the oxidation chamber at a speed that comprises a tangential component, and - a recirculation system, which comprises: - a particle separator in the upper part of the oxidation chamber for trapping hot particles of ash and unburned material, - a sucker for suctioning combustion gases in the upper part of the oxidation chamber, and - a transportation system for transferring the particles trapped in the particle separator , together with the combustion gases suctioned in the sucker from the separator to the base of the oxidation chamber. characterized in that the first comburent supplying means comprise nozzles that have a larger diameter on the lower part of the oxidation chamber with respect to the nozzles of the middle part of the oxidation chamber. - a cylindrical oxidation chamber, intended to be fed with catalytically oxidizable waste, and which comprises a chamber body and at least one wall that surrounds the outer part of the chamber body ; - waste feeding means for feeding the oxidation chamber with oxidizable waste; - comburent supplying means , which comprise first comburent supplying means , connected to the middle part and the lower part of the oxidation chamber and oriented for introducing pressurized oxygenated gas in the oxidation chamber at a speed that comprises a tangential component, and - a recirculation system, which comprises: - a particle separator in the upper part of the oxidation chamber for trapping hot particles of ash and unburned material, - a sucker for suctioning combustion gases in the upper part of the oxidation chamber, and - a transportation system for transferring the particles trapped in the particle separator , together with the combustion gases suctioned in the sucker from the separator to the base of the oxidation chamber. - a particle separator in the upper part of the oxidation chamber for trapping hot particles of ash and unburned material, - a sucker for suctioning combustion gases in the upper part of the oxidation chamber, and - a transportation system for transferring the particles trapped in the particle separator , together with the combustion gases suctioned in the sucker from the separator to the base of the oxidation chamber.
An isolated induced dendritic cell (iDC) engineered to express a) the cytokines GM-CSF and IFN-α which induce the self-differentiation of human dendritic cell (DC) progenitor cells into DCs; and b) at least one antigen; wherein the iDC comprises at least one integrase defective lentiviral vector, wherein the vector encodes said cytokines and the at least one antigen, for use in the treatment of an immunodeficient subject following transplantation of hematopoietic stem cells (HSC) by regenerating the immune system. a) the cytokines GM-CSF and IFN-α which induce the self-differentiation of human dendritic cell (DC) progenitor cells into DCs; and b) at least one antigen; wherein the iDC comprises at least one integrase defective lentiviral vector, wherein the vector encodes said cytokines and the at least one antigen, for use in the treatment of an immunodeficient subject following transplantation of hematopoietic stem cells (HSC) by regenerating the immune system.