mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a tracer-encapsulated solid pellet for magnetic-confinement fusion, the method comprising: a liquid droplet formation step of discharging an organic liquid comprising an organic solvent into a stabilizing liquid to thereby form a liquid droplet; and an organic solvent removal step of removing the organic solvent from the liquid droplet, wherein the organic liquid is a liquid having a first organic polymer comprising a tracer atom and a second organic polymer being an organic polymer different from the first organic polymer dissolved in the organic solvent; and the first organic polymer and the second organic polymer can be mutually phase-separated. a liquid droplet formation step of discharging an organic liquid comprising an organic solvent into a stabilizing liquid to thereby form a liquid droplet; and an organic solvent removal step of removing the organic solvent from the liquid droplet, wherein the organic liquid is a liquid having a first organic polymer comprising a tracer atom and a second organic polymer being an organic polymer different from the first organic polymer dissolved in the organic solvent; and the first organic polymer and the second organic polymer can be mutually phase-separated.
An injection device including an injection complete indicator for providing a kinetic impact indication, the device including: a housing; a plunger movable in said housing between cocked and fired positions under the influence of a plunger drive source; and an indicator element, the device being characterised in that the indicator element is movable between an extended position and a retracted position and being biased towards said extended position by an indicator bias; and in that the device includes an indicator latch arrangement (70,34) for latching said indicator element in a retracted position; a motion transfer arrangement between the plunger and the indicator element for retracting said indicator element to said retracted position as said plunger is moved to its cocked position but allowing forward movement of said plunger relative to the indicator element; the device being arranged such that, after firing, as the plunger nears or reaches the end of its operating stroke, it enables release of the indicator latch arrangement (70,34) to cause the indicator element to move to its extended position under the influence of said bias to impact a stop surface to create said kinetic impact. a housing; a plunger movable in said housing between cocked and fired positions under the influence of a plunger drive source; and an indicator element, the device being characterised in that the indicator element is movable between an extended position and a retracted position and being biased towards said extended position by an indicator bias; and in that the device includes an indicator latch arrangement (70,34) for latching said indicator element in a retracted position; a motion transfer arrangement between the plunger and the indicator element for retracting said indicator element to said retracted position as said plunger is moved to its cocked position but allowing forward movement of said plunger relative to the indicator element; the device being arranged such that, after firing, as the plunger nears or reaches the end of its operating stroke, it enables release of the indicator latch arrangement (70,34) to cause the indicator element to move to its extended position under the influence of said bias to impact a stop surface to create said kinetic impact.
A timing device comprising a timer, an informative device, and a trigger (12; 20) and wherein the timing device is adapted for attachment to a product container; the trigger is connected to the timer and adapted to automatically activate the timer the first time the product container is opened; and the timer is connected to the informative device to confirm expiration of a predetermined duration of time since the product container has been opened representative of the end of useful life of the product, characterised in that the timer is a flexible zinc air battery with a selected amount of components adapted to be depleted over the predetermined duration of time.
A stable solid dosage form comprising a non-toxic base and an amorphous benzimidazole compound having a proton pump inhibitor activity, wherein the benzimidazole compound is lansoprazole R-isomer.
A gammaretroviral recombinant expression vector comprising a nucleic acid comprising a codon-optimized nucleotide sequence encoding a chimeric antigen receptor, wherein the CAR comprises: an antigen binding domain of SS1, a CD28 transmembrane domain, an intracellular T cell signaling domain, and a granulocyte-macrophage colony-stimulating factor (GM-CSF) receptor 2 leader, wherein the intracellular T cell signaling domain comprises a CD28 intracellular T cell signaling domain and a CD3ζ intracellular T cell signaling domain; preferably wherein: (a) the antigen binding domain comprises a light chain variable region comprising SEQ ID NO: 2; and/or (b) the antigen binding domain comprises a heavy chain variable region comprising SEQ ID NO: 5. (a) the antigen binding domain comprises a light chain variable region comprising SEQ ID NO: 2; and/or (b) the antigen binding domain comprises a heavy chain variable region comprising SEQ ID NO: 5.
Steam turbine including: a nozzle casing component, a control wheel, and a turbine casing comprising a radially inner surface, wherein the nozzle casing component comprises a first section extending along a circumferential direction of the steam turbine, and a second section extending along the circumferential direction of the steam turbine, wherein the first section comprises a flow channel and an outlet configured such that a first inlet steam flow flowing through the flow channel is injectable through the outlet into a flow path of the steam turbine upstream of the control wheel, wherein the second section comprises a flow deflecting surface and a radius defined between the flow deflecting surface and a rotation axis of the steam turbine, wherein the nozzle casing component is arranged in the turbine casing, wherein a further flow channel is formed in-between the flow deflecting surface and the radially inner surface, and wherein a second inlet steam flow of the steam turbine is guided along the flow deflecting surface such that the second inlet steam flow enters the flow path of the steam turbine downstream of the control wheel, characterised in that a length of the radius varies along the second section in the circumferential direction such that a volume of the further flow channel varies depending on the variation of the length of the radius. a nozzle casing component, a control wheel, and a turbine casing comprising a radially inner surface, wherein the nozzle casing component comprises a first section extending along a circumferential direction of the steam turbine, and a second section extending along the circumferential direction of the steam turbine, wherein the first section comprises a flow channel and an outlet configured such that a first inlet steam flow flowing through the flow channel is injectable through the outlet into a flow path of the steam turbine upstream of the control wheel, wherein the second section comprises a flow deflecting surface and a radius defined between the flow deflecting surface and a rotation axis of the steam turbine, wherein the nozzle casing component is arranged in the turbine casing, wherein a further flow channel is formed in-between the flow deflecting surface and the radially inner surface, and wherein a second inlet steam flow of the steam turbine is guided along the flow deflecting surface such that the second inlet steam flow enters the flow path of the steam turbine downstream of the control wheel, characterised in that a length of the radius varies along the second section in the circumferential direction such that a volume of the further flow channel varies depending on the variation of the length of the radius.
Photonic frequency converter for converting a first input radiofrequency signal (V RF1) and a second input radiofrequency signal (V RF2) respectively having different frequencies into at least two output radiofrequency signals comprising: - an electro-optical intensity modulator having an optical input and at least one optical output; - a set of optical sources (SL1-SL4) that are configured to generate optical signals (SO1-SO4) at at least two different wavelengths (λ 1 -λ 4), said signals being modulated by respective local-oscillator signals (SOL1-SOL4) at least two of which have different frequencies; - an optical multiplexer arranged to multiplex said optical signals and to inject them into the optical input of the modulator; - an optical/electrical detecting system (SCOE, COE1, COE2, PDE) configured to convert the optical signals from the electro-optical intensity modulator to the radiofrequency domain; and - a bank of electrical filters, which is configured to extract spectral components of the signals converted to the radiofrequency domain, characterized in that the electro-optical intensity modulator also has at least one input for a DC voltage and at least one RF input (EC, EC1, EC2) for receiving the two input radiofrequency signals (V RF1, V RF2) at different frequencies or a combination of said two input radiofrequency signals (V RF1, V RF2); and in that the spectral components extracted by the electrical filters each correspond to an input radiofrequency signal (V RF1, V RF2) mixed with one of the local-oscillator signals (SOL1-SOL4). - an electro-optical intensity modulator having an optical input and at least one optical output; - a set of optical sources (SL1-SL4) that are configured to generate optical signals (SO1-SO4) at at least two different wavelengths (λ 1 -λ 4), said signals being modulated by respective local-oscillator signals (SOL1-SOL4) at least two of which have different frequencies; - an optical multiplexer arranged to multiplex said optical signals and to inject them into the optical input of the modulator; - an optical/electrical detecting system (SCOE, COE1, COE2, PDE) configured to convert the optical signals from the electro-optical intensity modulator to the radiofrequency domain; and - a bank of electrical filters, which is configured to extract spectral components of the signals converted to the radiofrequency domain, characterized in that the electro-optical intensity modulator also has at least one input for a DC voltage and at least one RF input (EC, EC1, EC2) for receiving the two input radiofrequency signals (V RF1, V RF2) at different frequencies or a combination of said two input radiofrequency signals (V RF1, V RF2);
A power amplifier, comprising: one or more radiofrequency, RF, output terminals (20A, 20B); and a Gallium Nitride, GaN, semiconductor die on which a power field-effect transistor, FET, is integrated, said FET comprising a plurality of FET cells (U1, U4, U5, U8) that are adjacently arranged in a row, wherein the FET cells (U1, U4, U5, U8) are connected either directly or indirectly to the one or more RF output terminals (20A, 20B) via a respective first inductor (L3,n), wherein, for FET cells (U1, U8) arranged at opposing ends of the row of FET cells: a total FET cell gate width (Uw) is larger than the total FET cell gate width (Uw) for one or more FET cells (U4, U5) arranged in the middle of the row of FET cells; and an inductance of the first inductor (L3,n) is smaller than the inductance of the first inductor (L3,n) for one or more FET cells (U4, U5) arranged in the middle of the row of FET cells. one or more radiofrequency, RF, output terminals (20A, 20B); and a Gallium Nitride, GaN, semiconductor die on which a power field-effect transistor, FET, is integrated, said FET comprising a plurality of FET cells (U1, U4, U5, U8) that are adjacently arranged in a row, wherein the FET cells (U1, U4, U5, U8) are connected either directly or indirectly to the one or more RF output terminals (20A, 20B) via a respective first inductor (L3,n), wherein, for FET cells (U1, U8) arranged at opposing ends of the row of FET cells: a total FET cell gate width (Uw) is larger than the total FET cell gate width (Uw) for one or more FET cells (U4, U5) arranged in the middle of the row of FET cells; and an inductance of the first inductor (L3,n) is smaller than the inductance of the first inductor (L3,n) for one or more FET cells (U4, U5) arranged in the middle of the row of FET cells. a total FET cell gate width (Uw) is larger than the total FET cell gate width (Uw) for one or more FET cells (U4, U5) arranged in the middle of the row of FET cells; and an inductance of the first inductor (L3,n) is smaller than the inductance of the first inductor (L3,n) for one or more FET cells (U4, U5) arranged in the middle of the row of FET cells.
Method for the manufacture of U-shaped geothermal energy probes which can be connected directly as evaporators to a heat pump, comprising the following process steps: a) two plastic-coated copper tubes of specified installation length are synchronously wound on to a drum, b) the two free ends are then stripped to form two bare copper tube end sections, c) a separately manufactured U-shaped tube section made of bare copper with a wall thickness at least 20% greater and an external diameter at least 10% greater is pushed on to the two bare copper tube end sections, secured and connected in a pressure tight manner to the copper tube end sections, d) the U-shaped tube probe section produced after carrying out process step c) is loaded into a multipart casting mold and positioned in such a way that the plastic-coated section on the two tube ends projects into the mold cavity of the tool, with a projecting length at least matching the external diameter of the tube, e) a plastic melt is subsequently fed or injected into the casting mold and the U-shaped tube probe section is completely enclosed, with a cohesive connection made between the plastic-coated tube sections projecting into the mold cavity and the melt fed in, and f) the casting mold is opened after cooling, the coated geothermal energy probe is removed from the mold and the remaining end rewound on to the drum. a) two plastic-coated copper tubes of specified installation length are synchronously wound on to a drum, b) the two free ends are then stripped to form two bare copper tube end sections, c) a separately manufactured U-shaped tube section made of bare copper with a wall thickness at least 20% greater and an external diameter at least 10% greater is pushed on to the two bare copper tube end sections, secured and connected in a pressure tight manner to the copper tube end sections, d) the U-shaped tube probe section produced after carrying out process step c) is loaded into a multipart casting mold and positioned in such a way that the plastic-coated section on the two tube ends projects into the mold cavity of the tool, with a projecting length at least matching the external diameter of the tube, e) a plastic melt is subsequently fed or injected into the casting mold and the U-shaped tube probe section is completely enclosed, with a cohesive connection made between the plastic-coated tube sections projecting into the mold cavity and the melt fed in, and f) the casting mold is opened after cooling, the coated geothermal energy probe is removed from the mold and the remaining end rewound on to the drum.
A method for making a pillow pouch having a flat bottom, said method comprising the steps of: a) forming a first end seal with a pair of sealing jaws to form an open-ended tube wherein said first end seal is formed beneath a product delivery tube having at least two pairs of fingers in a retracted position; b) providing said at least two pairs of fingers in an extended position thereby forming a package bottom having a pair of outwardly-extending flaps; c) folding said first end seal with a folding device; d) folding each of said flaps inwardly and beneath said package bottom. a) forming a first end seal with a pair of sealing jaws to form an open-ended tube wherein said first end seal is formed beneath a product delivery tube having at least two pairs of fingers in a retracted position; b) providing said at least two pairs of fingers in an extended position thereby forming a package bottom having a pair of outwardly-extending flaps; c) folding said first end seal with a folding device; d) folding each of said flaps inwardly and beneath said package bottom.
A system of an engine and a starting device, wherein the starting device comprises a vibration damping device (20, 20X, 20Y) disposed in an oil chamber filled with oil and comprising: a support member (16, 16Y) that rotates together with a rotary element, to which torque from the engine is transferred, about a center of rotation of the rotary element; a restoring force generation member (22, 22Y) that is coupled to the support member (16, 16Y) and that is swingable along with rotation of the support member (16, 16Y); and an inertial mass body (23, 23X, 23Y) coupled to the support member (16, 16Y) via the restoring force generation member (22, 22Y) and swung about the center of rotation in conjunction with the restoring force generation member (22, 22Y) along with rotation of the support member (16, 16Y), characterised in that: an order (q eff) of the vibration damping device (20, 20X, 20Y) is larger than a sum of an excitation order (q tag) of the engine and an offset value (Δq) determined in consideration of an effect of oil in the oil chamber; a reference order (q ref), which is a convergent value of the order (q eff) of the vibration damping device which operates in the oil chamber when an amplitude (λ) of vibration of input torque transferred to the rotary element becomes smaller, is higher than the excitation order (q tag). an order (q eff) of the vibration damping device (20, 20X, 20Y) is larger than a sum of an excitation order (q tag) of the engine and an offset value (Δq) determined in consideration of an effect of oil in the oil chamber; a reference order (q ref), which is a convergent value of the order (q eff) of the vibration damping device which operates in the oil chamber when an amplitude (λ) of vibration of input torque transferred to the rotary element becomes smaller, is higher than the excitation order (q tag).
A decoding method comprising: accessing information from a first parameter set contained in a first network abstraction layer unit, the first parameter set being a syntax structure which contains syntax elements that apply to zero or more entire coded video sequences, and the information describing a parameter for use in decoding multiple layers of the video sequences; accessing supplemental information contained in a second network abstraction layer unit, the second NAL unit having a specific NAL unit type code and corresponding to one layer of said multiple layers, and the supplemental information describing (i) an identifier of the first parameter set to indicate that the second NAL unit is used to supplement the first NAL unit, (ii) a video usability information ("VUI") parameter having layer dependent information for use in decoding said one layer of said multiple layers; and decoding said one layer of said multiple layers based on, the accessed information from the first NAL unit and the accessed supplemental information from the second NAL unit. accessing information from a first parameter set contained in a first network abstraction layer unit, the first parameter set being a syntax structure which contains syntax elements that apply to zero or more entire coded video sequences, and the information describing a parameter for use in decoding multiple layers of the video sequences; accessing supplemental information contained in a second network abstraction layer unit, the second NAL unit having a specific NAL unit type code and corresponding to one layer of said multiple layers, and the supplemental information describing (i) an identifier of the first parameter set to indicate that the second NAL unit is used to supplement the first NAL unit, (ii) a video usability information ("VUI") parameter having layer dependent information for use in decoding said one layer of said multiple layers; and decoding said one layer of said multiple layers based on, the accessed information from the first NAL unit and the accessed supplemental information from the second NAL unit.
Electrodialysis module comprising: - at least a first chamber and a second chamber, wherein each chamber (110, 120) comprises a pair of planar electrodes (211, 221, 212, 222) comprising a planar cathode (211, 221) and a planar anode (212, 222), parallel to one another and separated by a membrane pack (310, 320), and wherein each chamber (110, 120) has a mean plane parallel to the planes of said planar electrodes (211, 221, 212, 222), - an inlet, a first outlet, a second outlet, wherein said inlet is in fluid communication with each of said chambers (110, 120), and said first outlet and said second outlet are each in fluid communication with each of said chambers (110, 120); and wherein said inlet is configured to introduce raw liquid into said chambers (110, 120), said first outlet is configured to remove diluted liquid from said chambers (110, 120), and said second outlet is configured to remove concentrated liquid from said chambers (110, 120), and - at least three planar ultrasonic transducers (601, 602, 603); wherein said electrodialysis module comprises successively, in a direction from the inlet towards the first and second outlets (501, 502), a first transducer, said first chamber, a second transducer, said second chamber and the third transducer; said transducers (601, 602, 603) and the mean planes of said chambers (110, 120) being disposed parallel to one another. - at least a first chamber and a second chamber, wherein each chamber (110, 120) comprises a pair of planar electrodes (211, 221, 212, 222) comprising a planar cathode (211, 221) and a planar anode (212, 222), parallel to one another and separated by a membrane pack (310, 320), and wherein each chamber (110, 120) has a mean plane parallel to the planes of said planar electrodes (211, 221, 212, 222), - an inlet, a first outlet, a second outlet, wherein said inlet is in fluid communication with each of said chambers (110, 120), and said first outlet and said second outlet are each in fluid communication with each of said chambers (110, 120); and wherein said inlet is configured to introduce raw liquid into said chambers (110, 120), said first outlet is configured to remove diluted liquid from said chambers (110, 120), and said second outlet is configured to remove concentrated liquid from said chambers (110, 120), and - at least three planar ultrasonic transducers (601, 602, 603); wherein said electrodialysis module comprises successively, in a direction from the inlet towards the first and second outlets (501, 502), a first transducer, said first chamber, a second transducer, said second chamber and the third transducer; said transducers (601, 602, 603) and the mean planes of said chambers (110, 120) being disposed parallel to one another.