mhurhangee/patent-ind-claim-en huggingface dataset:
A spherical aberration correction device for non-descanned detection or detectors, comprising: a scanning microscope, preferably for multi-photon imaging, adapted for non-descanned detection; and an optical system including an enclosure , the enclosure housing a first port , a second port and a moving lens assembly including a moveable lens , wherein the optical system is adapted to select a convergence of illumination light on a back aperture of an objective , wherein, as the light changes from convergent to divergent, a focal point moves further away from the objective or vice versa, such that the convergence of illumination light corrects spherical aberration, wherein the light is collimated and reaches the moveable lens , which is configured to move along its optical axis , such that the position of the focal point along the optical axis of the light can be controlled with motion of the lens , and wherein the optical system is directly attached via the second port to an entrance port of the scanning microscope and the input illumination beam enters the optical system through the first port . a scanning microscope, preferably for multi-photon imaging, adapted for non-descanned detection; and an optical system including an enclosure , the enclosure housing a first port , a second port and a moving lens assembly including a moveable lens , wherein the optical system is adapted to select a convergence of illumination light on a back aperture of an objective , wherein, as the light changes from convergent to divergent, a focal point moves further away from the objective or vice versa, such that the convergence of illumination light corrects spherical aberration, wherein the light is collimated and reaches the moveable lens , which is configured to move along its optical axis , such that the position of the focal point along the optical axis of the light can be controlled with motion of the lens , and wherein the optical system is directly attached via the second port to an entrance port of the scanning microscope and the input illumination beam enters the optical system through the first port .
A foam formed from: an agricultural foaming formulation in the form of a water-in-oil emulsion comprising (i) an emulsifiable foaming concentrate comprising (a) an organic phase comprising bifenthrin, an organic solvent comprising a linear amide solvent selected from N,N-dimethyloctanamide, N,N-dimethyldecanamide, N-methyl-N-(2-propylheptyl)-acetamide, N-methyl-N-(2-propylheptyl)-formamide, and dimethyl formamide, and optionally at least one surfactant, and (b) a second phase comprising at least one surfactant and a foaming agent selected from sodium decyl sulfate, sodium lauryl sulfate and sodium dodecylbenzene sulfonate, and (ii) water, wherein the formulation stays stable for at least 90 days at ambient pressure; and wherein the ratio of said emulsifiable foaming concentrate to said water is in the range between 95: 5 - 5: 95; and a gas, wherein the gas is air. an agricultural foaming formulation in the form of a water-in-oil emulsion comprising (i) an emulsifiable foaming concentrate comprising (a) an organic phase comprising bifenthrin, an organic solvent comprising a linear amide solvent selected from N,N-dimethyloctanamide, N,N-dimethyldecanamide, N-methyl-N-(2-propylheptyl)-acetamide, N-methyl-N-(2-propylheptyl)-formamide, and dimethyl formamide, and optionally at least one surfactant, and (b) a second phase comprising at least one surfactant and a foaming agent selected from sodium decyl sulfate, sodium lauryl sulfate and sodium dodecylbenzene sulfonate, and (ii) water, wherein the formulation stays stable for at least 90 days at ambient pressure; and wherein the ratio of said emulsifiable foaming concentrate to said water is in the range between 95: 5 - 5: 95; and (i) an emulsifiable foaming concentrate comprising (a) an organic phase comprising bifenthrin, an organic solvent comprising a linear amide solvent selected from N,N-dimethyloctanamide, N,N-dimethyldecanamide, N-methyl-N-(2-propylheptyl)-acetamide, N-methyl-N-(2-propylheptyl)-formamide, and dimethyl formamide, and optionally at least one surfactant, and (b) a second phase comprising at least one surfactant and a foaming agent selected from sodium decyl sulfate, sodium lauryl sulfate and sodium dodecylbenzene sulfonate, and (ii) water, a gas, wherein the gas is air.
A system , comprising: an inspection robot comprising a main body and a plurality of payloads , wherein each payload of the plurality of payloads is horizontally moveable relative to the main body of the inspection robot; a plurality of arms , wherein each of the plurality of arms is pivotally mounted to a corresponding payload of the plurality of payloads ; a plurality of sleds , wherein each sled is mounted to one of the plurality of arms ; a plurality of inspection sensors , each of the inspection sensors coupled to one of the plurality of sleds such that each sensor is operationally couplable to an inspection surface in contact with a bottom surface of the corresponding one of the sleds; and wherein the plurality of sleds are distributed horizontally across the corresponding payload, and wherein the horizontal distribution of the plurality of sleds provides for a selected horizontal resolution of the plurality of inspection sensors . an inspection robot comprising a main body and a plurality of payloads , wherein each payload of the plurality of payloads is horizontally moveable relative to the main body of the inspection robot; a plurality of arms , wherein each of the plurality of arms is pivotally mounted to a corresponding payload of the plurality of payloads ; a plurality of sleds , wherein each sled is mounted to one of the plurality of arms ; a plurality of inspection sensors , each of the inspection sensors coupled to one of the plurality of sleds such that each sensor is operationally couplable to an inspection surface in contact with a bottom surface of the corresponding one of the sleds; and wherein the plurality of sleds are distributed horizontally across the corresponding payload, and wherein the horizontal distribution of the plurality of sleds provides for a selected horizontal resolution of the plurality of inspection sensors .
A device for projecting laser light , the device comprising: a diffuser having a diffuser plane , the diffuser plane being a primary longitudinal plane of the diffuser, the diffuser plane being perpendicular to an optical axis of the diffuser; at least a portion of a printed circuit board positioned substantially parallel to the diffuser plane ; an edge-emitting semiconductor laser diode configured to emit the laser light propagating along the optical axis and having a fast axis and a slow axis each being perpendicular to the optical axis, the fast axis of the laser light defining a fast axis plane corresponding to a path the laser light travels from the edge-emitting semiconductor laser diode ; and a submount on which the edge-emitting semiconductor laser diode is affixed and configured to orient the diffuser relative to the edge-emitting semiconductor laser diode such that the fast axis and the optical axis of the emitted light are each substantially parallel with the diffuser plane between the diffuser and at least the parallel portion of the printed circuit board . a diffuser having a diffuser plane , the diffuser plane being a primary longitudinal plane of the diffuser, the diffuser plane being perpendicular to an optical axis of the diffuser; at least a portion of a printed circuit board positioned substantially parallel to the diffuser plane ; an edge-emitting semiconductor laser diode configured to emit the laser light propagating along the optical axis and having a fast axis and a slow axis each being perpendicular to the optical axis, the fast axis of the laser light defining a fast axis plane corresponding to a path the laser light travels from the edge-emitting semiconductor laser diode ; and a submount on which the edge-emitting semiconductor laser diode is affixed and configured to orient the diffuser relative to the edge-emitting semiconductor laser diode such that the fast axis and the optical axis of the emitted light are each substantially parallel with the diffuser plane between the diffuser and at least the parallel portion of the printed circuit board .
A method, comprising: receiving a communication packet including phase domain input samples including a preamble and a frame delimiter; converting the phase domain input samples corresponding to the preamble into frequency domain input samples; generating an I/Q-formatted dot product from a dot product process between the frequency domain input samples and a reference pattern indicative of an expected preamble; averaging the I/Q-formatted dot product with at least one previously generated I/Q-formatted dot product to generate an I/Q-formatted averaged dot product; reformatting the I/Q-formatted averaged dot product into a polar-formatted averaged dot product, the polar-formatted averaged dot product including a magnitude of the polar-formatted averaged dot product and an angle of the polar-formatted averaged dot product; and generating a preamble-found signal in response to the magnitude of the polar-formatted averaged dot product exceeding a preamble magnitude threshold. receiving a communication packet including phase domain input samples including a preamble and a frame delimiter; converting the phase domain input samples corresponding to the preamble into frequency domain input samples; generating an I/Q-formatted dot product from a dot product process between the frequency domain input samples and a reference pattern indicative of an expected preamble; averaging the I/Q-formatted dot product with at least one previously generated I/Q-formatted dot product to generate an I/Q-formatted averaged dot product; reformatting the I/Q-formatted averaged dot product into a polar-formatted averaged dot product, the polar-formatted averaged dot product including a magnitude of the polar-formatted averaged dot product and an angle of the polar-formatted averaged dot product; and generating a preamble-found signal in response to the magnitude of the polar-formatted averaged dot product exceeding a preamble magnitude threshold.
Vibration damper with hydraulic damping of a pressure stage stop, comprising a damper tube and a working piston guided in the damper tube along a longitudinal axis , wherein the working piston is accommodated on a piston rod leading out of the damper tube and wherein, for damping the pressure stage stop, a tubular body is arranged in the damper tube , in which an auxiliary piston is accommodated such that it is guided along the longitudinal axis and in which this auxiliary piston is pre-stressed in the direction towards the working piston by a spring element , and wherein a stop piston which is movable with the working piston is provided, which, upon a drive-in movement of the piston rod into the damper tube , comes to lie against the auxiliary piston and, together with this, plunges into the tubular body under a hydraulic damping effect and under compression of the spring element , whereby a damping agent present in the tubular body is displaced and flows through the auxiliary piston and the stop piston , characterized in that at least one flow cross-section geometry is formed in the tubular body , through which the damping agent flows out of the tubular body parallel to the throughflow through the stop piston when the auxiliary piston and the stop piston drive into the tubular body together, wherein the flow cross-section geometry is formed such that the flow cross-section becomes smaller as the drive-in path increases.
A method for a multielement analysis on the basis of neutron activation, including the steps of: generating fast neutrons with an energy in the range of 10 keV to 20 MeV; irradiating the sample with the neutrons, wherein the method comprises moderating the fast neutrons; measuring the gamma radiation emitted by the irradiated sample in order to determine at least one element of the sample; wherein the sample is irradiated continuously in non-pulsed fashion, wherein the measurement is implemented during the irradiation, wherein at least prompt or both prompt and delayed gamma radiation from the continuous neutron irradiation is measured and evaluated for the purposes of determining the at least one element, characterized in that the determination comprises: energy-resolved determination of the neutron flux within the sample respectively within the respective partitions (P1, P2, Pn) of the sample through an analytical process and calculation of energy-dependent photopeak efficiencies of the emitted gamma radiation. generating fast neutrons with an energy in the range of 10 keV to 20 MeV; irradiating the sample with the neutrons, wherein the method comprises moderating the fast neutrons; measuring the gamma radiation emitted by the irradiated sample in order to determine at least one element of the sample; wherein the sample is irradiated continuously in non-pulsed fashion, wherein the measurement is implemented during the irradiation, wherein at least prompt or both prompt and delayed gamma radiation from the continuous neutron irradiation is measured and evaluated for the purposes of determining the at least one element, characterized in that the determination comprises: energy-resolved determination of the neutron flux within the sample respectively within the respective partitions (P1, P2, Pn) of the sample through an analytical process and calculation of energy-dependent photopeak efficiencies of the emitted gamma radiation.
A battery pack , comprising: at least one cell assembly including a plurality of secondary batteries stacked in a stack direction; a module housing having an internal space in which the at least one cell assembly is received; and a spacer member interposed between the plurality of secondary batteries, and configured to press the plurality of secondary batteries along two opposite directions to space the plurality of secondary batteries apart when a temperature of at least one of the plurality of secondary batteries is equal to or higher than a predetermined temperature; wherein the spacer member is configured to expand volume when a temperature of the spacer member equals or rises above the predetermined temperature; characterized in that it further comprises a guide member configured to surround sides of the spacer member to guide the spacer member to expand in the stack direction. at least one cell assembly including a plurality of secondary batteries stacked in a stack direction; a module housing having an internal space in which the at least one cell assembly is received; and a spacer member interposed between the plurality of secondary batteries, and configured to press the plurality of secondary batteries along two opposite directions to space the plurality of secondary batteries apart when a temperature of at least one of the plurality of secondary batteries is equal to or higher than a predetermined temperature; wherein the spacer member is configured to expand volume when a temperature of the spacer member equals or rises above the predetermined temperature; characterized in that it further comprises a guide member configured to surround sides of the spacer member to guide the spacer member to expand in the stack direction.
Method for producing an electrical sheet from a printing paste with the following steps: a) applying a printing paste to a substrate by a stencil or screen-printing method, b) drying the printing paste on the substrate, c) transferring the dried printing paste from the substrate to a sintering underlay, wherein before step c) the surface of the dried printing paste which is intended for contact with the sintering underlay is acted upon by a separating layer to facilitate separation of the thermally treated printing paste from the sintering underlay, d) thermally treating the printing paste on the sintering underlay, and e) separating the thermally treated printing paste from the sintering underlay. a) applying a printing paste to a substrate by a stencil or screen-printing method, b) drying the printing paste on the substrate, c) transferring the dried printing paste from the substrate to a sintering underlay, wherein before step c) the surface of the dried printing paste which is intended for contact with the sintering underlay is acted upon by a separating layer to facilitate separation of the thermally treated printing paste from the sintering underlay, d) thermally treating the printing paste on the sintering underlay, and e) separating the thermally treated printing paste from the sintering underlay.
A method of treating a carbon structure, comprising: applying a stoichiometric adjustment preparation comprising at least one of silicon dioxide, zirconium oxide, or titanium oxide to the carbon structure; drying the carbon structure in response to the applying the stoichiometric adjustment preparation; infiltrating the carbon structure with a silicon compound preparation in response to drying the carbon structure; heat treating the carbon structure forming a plurality of silicon carbide whiskers in the carbon structure in response to infiltrating the carbon structure: and densifying the carbon structure in response to the heat treating the carbon structure; wherein the silicon compound preparation comprises silicon nitride, wherein a stoichiometric weight ratio of carbon to silicon nitride within the silicon compound preparation is between 0.15 and 0.26. applying a stoichiometric adjustment preparation comprising at least one of silicon dioxide, zirconium oxide, or titanium oxide to the carbon structure; drying the carbon structure in response to the applying the stoichiometric adjustment preparation; infiltrating the carbon structure with a silicon compound preparation in response to drying the carbon structure; heat treating the carbon structure forming a plurality of silicon carbide whiskers in the carbon structure in response to infiltrating the carbon structure: and densifying the carbon structure in response to the heat treating the carbon structure; wherein the silicon compound preparation comprises silicon nitride, wherein a stoichiometric weight ratio of carbon to silicon nitride within the silicon compound preparation is between 0.15 and 0.26. infiltrating the carbon structure with a silicon compound preparation in response to drying the carbon structure; heat treating the carbon structure forming a plurality of silicon carbide whiskers in the carbon structure in response to infiltrating the carbon structure: and densifying the carbon structure in response to the heat treating the carbon structure; wherein the silicon compound preparation comprises silicon nitride, wherein a stoichiometric weight ratio of carbon to silicon nitride within the silicon compound preparation is between 0.15 and 0.26.
A method of making a particulate filter carry a catalyst, said particulate filter being adapted to be arranged in an exhaust passage of an internal combustion engine for trapping particulate matter which is contained in exhaust gas, said particulate filter comprising a plurality of exhaust flow passages which extend in parallel with each other and porous partition walls which separate these exhaust flow passages from each other, said exhaust flow passages comprising first exhaust flow passages with specific ends in the longitudinal direction which are open ends and with other ends in the longitudinal direction which are closed ends and second exhaust flow passages with specific ends in the longitudinal direction which are closed ends and other ends in the longitudinal direction which are open ends , said method being characterized in that it comprises: preparing a gel (G) which contains a component of said catalyst; next applying said gel to said partition walls; and next making said particulate filter dry to thereby make said partition walls carry said catalyst on their surfaces or in their micropores, wherein another gel (GA) which is different from said gel (G) is prepared, next said gel and said other gel are arranged at a position which faces open ends of said exhaust flow passages, and next a pusher (P) is used to push and pack said gel and said other gel through said open ends into said exhaust flow passages to thereby apply said gel and said other gel to said partition walls . preparing a gel (G) which contains a component of said catalyst; next applying said gel to said partition walls; and next making said particulate filter dry to thereby make said partition walls carry said catalyst on their surfaces or in their micropores, wherein another gel (GA) which is different from said gel (G) is prepared, next said gel and said other gel are arranged at a position which faces open ends of said exhaust flow passages, and next a pusher (P) is used to push and pack said gel and said other gel through said open ends into said exhaust flow passages to thereby apply said gel and said other gel to said partition walls .
A display apparatus, comprising: a display panel including a non-display area (NDA) and a display area (DA) configured to display an image; an optical module on a rear surface of the display panel ; at least one first sound generator on a rear surface of the optical module ; and at least one second sound generator in the non-display area (NDA) and between the display panel and the optical module . a display panel including a non-display area (NDA) and a display area (DA) configured to display an image; an optical module on a rear surface of the display panel ; at least one first sound generator on a rear surface of the optical module ; and at least one second sound generator in the non-display area (NDA) and between the display panel and the optical module .
Distributor boom for an agricultural distribution machine, having a plurality of boom portions that are able to be folded in with respect to one another in a transporting position and are able to be folded out in a working position, and having, on each side of the distributor boom, deflecting joints formed, by means of a plurality of joint devices, from two complementary joint elements that are movable apart, and end portions that are arranged so as to be deflectable about at least one axis with respect to a holding apparatus, generating an elastic spring force, and/or spring device in a forward and/or rearward direction with respect to the direction of travel and/or an upward direction when striking obstacles, wherein the holding apparatus and/or spring device is arranged between the respective end portion of the boom and the respective adjacent internal boom portion and holds the respective end portions in a deflectable manner with respect to the internal boom portions, wherein the deflecting joints are formed, at least in the working position, in each case by a plurality of joint devices in at least two planes that are arranged in a spaced-apart manner one above the other at least approximately parallel to the ground, and the end portions of the boom are, as a result, coupled to the respective adjacent internal boom portion , characterized in that the deflecting joints are each formed by a total of at least four joint devices .
Method for running a computer network comprising a number of devices being arranged in a stable daisy-chained loop, wherein each device comprises a bridge having at least three ports, whereby during running the computer network each device can take different states to avoid a loop, and whereby in case of rebooting of at least two of the devices the ports of the rebooting devices keep their current port states without interrupting the communication path during rebooting, characterised in that the devices inform each other of their existence about every z seconds, wherein z corresponds to 1⁄2 of their boot time.