mhurhangee/ep-ind-claims huggingface dataset:
A portable handheld device for determining a status of a tanker truck safety system, the device comprising a housing having a cylindrical hollow handle portion and a circumferential coupling portion defined about an opening at a first end of the housing and for connecting to a connection socket of the tanker truck safety system, said connection socket including a plurality of contact pads, the hollow handle portion having disposed therein: a microprocessor configured to run a testing program to determine the status of the tanker truck safety system; and a first plurality of spring-loaded pins (P1-P7), each pin being configured to couple with a corresponding contact pad of the connection socket, the first plurality of pins (P1-P7) being coupled to a plurality of inputs of the microprocessor; characterized in that the hollow handle portion having further disposed therein: a first intrinsically safe power supply coupled to the microprocessor and coupled to the first plurality of spring-loaded pins (P1-P7) and configured to provide a first intrinsically safe voltage to each pin of the first plurality of spring-loaded pins (P1-P7) individually under control of the microprocessor; a second intrinsically safe power supply coupled to the microprocessor and configured to provide a second intrinsically safe voltage, separate from the first intrinsically safe voltage under control of the microprocessor, and a spring-loaded pin configured to couple with a corresponding contact pad of the connection socket and coupled to the second intrinsically safe power supply to receive the second intrinsically safe voltage, wherein the first and second intrinsically safe voltages are on separate rails. a microprocessor configured to run a testing program to determine the status of the tanker truck safety system; and a first plurality of spring-loaded pins (P1-P7), each pin being configured to couple with a corresponding contact pad of the connection socket, the first plurality of pins (P1-P7) being coupled to a plurality of inputs of the microprocessor; a first intrinsically safe power supply coupled to the microprocessor and coupled to the first plurality of spring-loaded pins (P1-P7) and configured to provide a first intrinsically safe voltage to each pin of the first plurality of spring-loaded pins (P1-P7) individually under control of the microprocessor; a second intrinsically safe power supply coupled to the microprocessor and configured to provide a second intrinsically safe voltage, separate from the first intrinsically safe voltage under control of the microprocessor, and a spring-loaded pin configured to couple with a corresponding contact pad of the connection socket and coupled to the second intrinsically safe power supply to receive the second intrinsically safe voltage, wherein the first and second intrinsically safe voltages are on separate rails.
A method for the preparation of SnO comprising: (a) reacting a Sn salt with a C 2-12 dicarboxylic acid in the aqueous phase to form a suspension comprising a Sn-dicarboxylate complex; (b) washing the Sn-dicarboxylate complex with water to obtain a wash solution and a washed Sn-dicarboxylate complex wherein a concentration of the anion of the Sn salt in the washed Sn-dicarboxylate complex is less than 1% by weight, wherein the washing of the Sn-dicarboxylate complex continues until the wash solution has a neutral pH; and (c) reacting the washed Sn-dicarboxylate complex with a base to form SnO, wherein the SnO has an alpha radiation count of less than 0.002 cph/cm 2, and wherein the SnO has a purity of at least 99% by weight, excluding any SnO 2 present. (a) reacting a Sn salt with a C 2-12 dicarboxylic acid in the aqueous phase to form a suspension comprising a Sn-dicarboxylate complex; (b) washing the Sn-dicarboxylate complex with water to obtain a wash solution and a washed Sn-dicarboxylate complex wherein a concentration of the anion of the Sn salt in the washed Sn-dicarboxylate complex is less than 1% by weight, wherein the washing of the Sn-dicarboxylate complex continues until the wash solution has a neutral pH; and (c) reacting the washed Sn-dicarboxylate complex with a base to form SnO,
Telescopic site for a firearm comprising a tubular body with an eyepiece and a lens and a lighting device for an illuminated target, wherein the lighting device comprises control electronics and an energy store, wherein the control electronics are arranged in a housing which can be detachably held in a saddle on the outside of the telescopic sight, wherein the housing can be screwed to the saddle and wherein the housing has an external thread and the saddle has an internal thread, characterised in that the control electronics are programmable and in that the saddle has a sleeve-like wall which is mounted rotatably and axially immovably on the telescopic sight, wherein the internal thread is arranged in the wall and the housing can, at least for the most part, be screwed into the wall, wherein the housing is guided non-rotatably relative to the telescopic sight.
Filter system for the purification of a gas flow laden with particles, wherein the filter system comprising a filter housing with a central axis X-X includes a filter device separating the filter housing into a dirty gas chamber and a clean gas chamber, having a filter outside surface and a filter inside surface, for separating the particles from the gas flow, and a first cleaning device with a cleaning nozzle for cleaning the filter device when filtration activity is interrupted wherein, with filtration activity interrupted, the filter device and the first cleaning device may be moved relative to one another, so that the filter outside surface and/or filter inside surface of the filter device contaminated by particles may be cleaned by the cleaning nozzle of the first cleaning device, characterised in that a second cleaning device with a cleaning nozzle is located in the dirty gas chamber of the filter system, wherein the cleaning nozzle of the second cleaning device is movable radially from the central axis X-X in the direction of the filter housing wall and in the opposite direction.
A system for reducing a stopping distance of an aircraft, characterised in that the system comprises an edge control system configured to control a leading edge device mounted to a wing of an aircraft, the edge control system configured such that if a ground speed of the aircraft is greater than a threshold ground speed, the edge control system will automatically command extension of the leading edge device from a first position to a second position in response to deployment of a spoiler.
A method of accessing a cloud based service, the method comprising: responsive to a user of a first communication device initiating access to the cloud based service via the first communication device, receiving by the first communication device a prompt for a valid password to be entered to access the cloud based service; responsive to the valid password required to access the cloud based service not being stored on the first communication device, the first communication device, via a processor, automatically retrieving the valid password from a second communication device (120, 125, 130) via a peer-to-peer ad hoc communication link between the first communication device and the second communication device (120, 125, 130); and automatically providing, by the first communication device, the valid password to a login service for the cloud based service to obtain access by the first communication device to the cloud based service. responsive to a user of a first communication device initiating access to the cloud based service via the first communication device, receiving by the first communication device a prompt for a valid password to be entered to access the cloud based service; responsive to the valid password required to access the cloud based service not being stored on the first communication device, the first communication device, via a processor, automatically retrieving the valid password from a second communication device (120, 125, 130) via a peer-to-peer ad hoc communication link between the first communication device and the second communication device (120, 125, 130); and automatically providing, by the first communication device, the valid password to a login service for the cloud based service to obtain access by the first communication device to the cloud based service.
A motion sensing system, comprising: at least two sense electrodes (218a, 218b, 220a, 220b), wherein a sense drive signal (SD1, SD2) having a sense drive frequency (ΩDRV) is applied to each of the sense electrodes (218a, 218b, 220a, 220b); a first auxiliary electrode, wherein a first auxiliary drive signal having an auxiliary drive frequency (ΩAUX) is applied to the first auxiliary electrode; a second auxiliary electrode, wherein a second auxiliary drive signal having the auxiliary drive frequency (ΩAUX) is applied to the second auxiliary electrode; a first proof mass, wherein the first proof mass is located adjacent to one or more of the at least two sense electrodes (218a, 220a) and adjacent to the first auxiliary electrode; a second proof mass, wherein the second proof mass is located adjacent to one or more of the at least two sense electrodes (218b, 220b) and adjacent to the second auxiliary electrode; and processing circuitry coupled to each of the first proof mass and the second proof mass to provide a received signal from the first proof mass and the second proof mass, wherein the processing circuitry determines motion parameter based on a portion of the received signal that is associated with the sense drive frequency (ΩDRV) and that changes based on a motion of capacitively coupled proof mass, and the processing circuitry identifies a failure based on a portion of the received signal that is associated with the auxiliary drive frequency (ΩAUX) and that changes based on a change in electrical characteristics created by the failure. at least two sense electrodes (218a, 218b, 220a, 220b), wherein a sense drive signal (SD1, SD2) having a sense drive frequency (ΩDRV) is applied to each of the sense electrodes (218a, 218b, 220a, 220b); a first auxiliary electrode, wherein a first auxiliary drive signal having an auxiliary drive frequency (ΩAUX) is applied to the first auxiliary electrode; a second auxiliary electrode, wherein a second auxiliary drive signal having the auxiliary drive frequency (ΩAUX) is applied to the second auxiliary electrode; a first proof mass, wherein the first proof mass is located adjacent to one or more of the at least two sense electrodes (218a, 220a) and adjacent to the first auxiliary electrode; a second proof mass, wherein the second proof mass is located adjacent to one or more of the at least two sense electrodes (218b, 220b) and adjacent to the second auxiliary electrode; and processing circuitry coupled to each of the first proof mass and the second proof mass to provide a received signal from the first proof mass and the second proof mass, wherein the processing circuitry determines motion parameter based on a portion of the received signal that is associated with the sense drive frequency (ΩDRV) and that changes based on a motion of capacitively coupled proof mass, and the processing circuitry identifies a failure based on a portion of the received signal that is associated with the auxiliary drive frequency (ΩAUX) and that changes based on a change in electrical characteristics created by the failure.
An optical element comprising an optical surface having a fine uneven structure, wherein the fine uneven structure is a microstructure with a period smaller than a wavelength of light and includes a plurality of holes, and the plurality of holes has a hole depth H and a surface opening diameter φt which satisfy an expression of 0.3 ≤ H/φt ≤ 0.6; characterized in that the plurality of holes has a cylindrical shape proximal to a bottom surface and a circular truncated cone shape distal to the bottom surface and proximal to a top surface of the optical surface, the circular truncated cone shape having a diameter gradually increasing toward the top surface of the optical surface, and an angle θ between the top surface of the optical surface and a side surface of the circular truncated cone shape of the plurality of holes satisfies 78° ≤ θ ≤ 85°. the fine uneven structure is a microstructure with a period smaller than a wavelength of light and includes a plurality of holes, and the plurality of holes has a hole depth H and a surface opening diameter φt which satisfy an expression of 0.3 ≤ H/φt ≤ 0.6; characterized in that the plurality of holes has a cylindrical shape proximal to a bottom surface and a circular truncated cone shape distal to the bottom surface and proximal to a top surface of the optical surface, the circular truncated cone shape having a diameter gradually increasing toward the top surface of the optical surface, and an angle θ between the top surface of the optical surface and a side surface of the circular truncated cone shape of the plurality of holes satisfies 78° ≤ θ ≤ 85°.
A biopsy device comprising: (a) a body; (b) a needle extending distally from the body, wherein the needle includes a lateral aperture; (c) a hollow cutter, wherein the cutter is movable relative to the needle to sever a tissue sample, wherein the hollow cutter defines a cutter lumen; and (d) a tissue sample holder, wherein the tissue sample holder includes: (i) a manifold, wherein the manifold includes a plurality of passages and an indexing portion, wherein each passage of the plurality of passages is configured to selectively index relative to a proximal end of the hollow cutter, and (ii) an outer cover, wherein the outer cover includes a resilient member, characterized by: the resilient member is configured to be resiliently movable relative to the outer cover and is configured to move in response to rotation of the manifold such that the resilient member is configured to engage with the indexing portion of the manifold to selectively bias the manifold while permitting independent bi-directional rotation of the manifold relative to the outer cover as a result of a symmetrical shape of the indexing portion and an engaging portion of the resilient member, thereby indexing a passage of the plurality of passages with the distal end of the hollow cutter. (a) a body; (b) a needle extending distally from the body, wherein the needle includes a lateral aperture; (c) a hollow cutter, wherein the cutter is movable relative to the needle to sever a tissue sample, wherein the hollow cutter defines a cutter lumen; and (d) a tissue sample holder, wherein the tissue sample holder includes: (i) a manifold, wherein the manifold includes a plurality of passages and an indexing portion, wherein each passage of the plurality of passages is configured to selectively index relative to a proximal end of the hollow cutter, and (ii) an outer cover, wherein the outer cover includes a resilient member, characterized by: the resilient member is configured to be resiliently movable relative to the outer cover and is configured to move in response to rotation of the manifold such that the resilient member is configured to engage with the indexing portion of the manifold to selectively bias the manifold while permitting independent bi-directional rotation of the manifold relative to the outer cover as a result of a symmetrical shape of the indexing portion and an engaging portion of the resilient member, thereby indexing a passage of the plurality of passages with the distal end of the hollow cutter. (i) a manifold, wherein the manifold includes a plurality of passages and an indexing portion, wherein each passage of the plurality of passages is configured to selectively index relative to a proximal end of the hollow cutter, and (ii) an outer cover, wherein the outer cover includes a resilient member,
A nonaqueous electrolyte battery, comprising: a positive electrode; a negative electrode comprising a negative electrode material layer comprising a negative electrode active material, the negative electrode comprising a titanium-containing oxide as the negative electrode active material; a separator positioned at least between the positive electrode and the negative electrode; and a nonaqueous electrolyte, wherein a logarithmic differential pore volume distribution curve of the separator by a mercury intrusion method includes a first peak and a second peak, the first peak is a local maximum value where a pore diameter is in a range of 0.02 μm or more and 0.15 μm or less, the second peak is a local maximum value where a pore diameter is in a range of 1.5 μm or more and 30 μm or less, and a ratio P2 I/ P1 I of an intensity P2 I of the second peak to an intensity P1 I of the first peak is more than 1.00 and not more than 3.00, and wherein a pore specific surface area of the separator by the mercury intrusion method is 70 m 2 /g or more. a positive electrode; a negative electrode comprising a negative electrode material layer comprising a negative electrode active material, the negative electrode comprising a titanium-containing oxide as the negative electrode active material; a separator positioned at least between the positive electrode and the negative electrode; and a nonaqueous electrolyte, wherein a logarithmic differential pore volume distribution curve of the separator by a mercury intrusion method includes a first peak and a second peak, the first peak is a local maximum value where a pore diameter is in a range of 0.02 μm or more and 0.15 μm or less, the second peak is a local maximum value where a pore diameter is in a range of 1.5 μm or more and 30 μm or less, and a ratio P2 I/ P1 I of an intensity P2 I of the second peak to an intensity P1 I of the first peak is more than 1.00 and not more than 3.00, and wherein a pore specific surface area of the separator by the mercury intrusion method is 70 m 2 /g or more.
A system comprising an image forming means and an image combiner having a main body in which a reflective type holographic optical element is installed, and light from an image forming means and light passing through the main body are superimposed, wherein the light that is emitted from the image forming means has only a single wavelength region component or a plurality of discrete wavelength region components, characterized in that the following conditions are established between an angle of incidence at which the principal rays emitted from the center of a display part of the image forming means are incident on the surface of the reflective type holographic optical element and the angle of reflection/diffraction: − 5 < θ 1 < 5, and θ 1 − θ 2 < 3 Θ1: the angle of incidence in degrees at which the principal rays emitted from the center of the display part of the image forming means are incident on the surface of the reflective type holographic optical element Θ2: the reflection/diffraction angle in degrees when the principal rays emitted from the center of the display part are diffracted/reflected by the reflective type holographic optical element; wherein the reflective type holographic optical element has an optical power which is not eccentric with respect to an optical axis. image combiner having a main body in which a reflective type holographic optical element is installed, and light from an image forming means and light passing through the main body are superimposed, wherein the light that is emitted from the image forming means has only a single wavelength region component or a plurality of discrete wavelength region components, characterized in that the following conditions are established between an angle of incidence at which the principal rays emitted from the center of a display part of the image forming means are incident on the surface of the reflective type holographic optical element and the angle of reflection/diffraction: − 5 < θ 1 < 5, and θ 1 − θ 2 < 3 Θ1: the angle of incidence in degrees at which the principal rays emitted from the center of the display part of the image forming means are incident on the surface of the reflective type holographic optical element Θ2: the reflection/diffraction angle in degrees when the principal rays emitted from the center of the display part are diffracted/reflected by the reflective type holographic optical element; wherein the reflective type holographic optical element has an optical power which is not eccentric with respect to an optical axis.
A process for the protein stabilization of an oenological liquid, comprising: - a step of preparation of an oenological liquid containing a concentration of unstable proteins; characterized in that it comprises the following operating steps: - a step of application of at least one pulsed electric field to said oenological liquid; - a step of introducing at least one protease in said oenological liquid; said step of introducing of said at least one protease being subsequent to said step of application of said pulsed electric field; - a hydrolysis step, in which said protease catalyzes the breakage of at least one peptide bond between an amino group and a carboxyl group of the proteins of said protein concentration in said oenological liquid, thereby forming compounds containing said amino and carboxyl groups; said hydrolysis step transforming said oenological liquid into a stabilized oenological liquid. - a step of preparation of an oenological liquid containing a concentration of unstable proteins; - a step of application of at least one pulsed electric field to said oenological liquid; - a step of introducing at least one protease in said oenological liquid; said step of introducing of said at least one protease being subsequent to said step of application of said pulsed electric field; - a hydrolysis step, in which said protease catalyzes the breakage of at least one peptide bond between an amino group and a carboxyl group of the proteins of said protein concentration in said oenological liquid, thereby forming compounds containing said amino and carboxyl groups; said hydrolysis step transforming said oenological liquid into a stabilized oenological liquid.
Heating apparatus for at least one housing section of a screw extruder comprising - at least two electrical heating elements, - at least two electrical connection lines, which are each connected to one of the at least two electrical heating elements, - an electrical supply line for supplying power to the at least two electrical heating elements via the at least two connection lines, characterized in that the supply line is connected to a plug-in contact distributor, in that the plug-in contact distributor comprises at least two plug-in contacts, in that the at least two connection lines are each connected to one of the at least two plug-in contacts by means of a contact plug, and in that the heating apparatus comprises at least one switching element for switching at least one electrical heating element. - at least two electrical heating elements, - at least two electrical connection lines, which are each connected to one of the at least two electrical heating elements, - an electrical supply line for supplying power to the at least two electrical heating elements via the at least two connection lines, in that the supply line is connected to a plug-in contact distributor, in that the plug-in contact distributor comprises at least two plug-in contacts, in that the at least two connection lines are each connected to one of the at least two plug-in contacts by means of a contact plug, and in that the heating apparatus comprises at least one switching element for switching at least one electrical heating element.