mhurhangee/patent-ind-claim-en huggingface dataset:
A biophotonic composition comprising at least one photosynthetic organism-derived chromophore and at least one at least one xanthene dye and a carrier medium, wherein the at least one photosynthetic organism-derived chromophore is selected from: aloe-emodin, apigenin, berberine, caffeic acid, caffeine, curcumin, garcinia acid, gingerol, hyperforin, hypericin, ellagic acid, lycopene, oleuropein, piperine, resveratrol, sanguinarine, tannic acid, theobromine, zeaxanthin and combinations thereof wherein the at least one photosynthetic organism-derived chromophore or the at least one xanthene dye is a fluorescent chromophore; and wherein the at least one photosynthetic organism-derived chromophore or the at least one xanthene dye has an emission spectrum that overlaps at least 20% with an absorption spectrum of the at least second chromophore. wherein the at least one photosynthetic organism-derived chromophore or the at least one xanthene dye is a fluorescent chromophore; and wherein the at least one photosynthetic organism-derived chromophore or the at least one xanthene dye has an emission spectrum that overlaps at least 20% with an absorption spectrum of the at least second chromophore.
A method for operating a handheld free space pointing device having one or more motion sensors , including an accelerometer , the method comprising: a) obtaining, from said one or more motion sensors, a first data associated with movement of said handheld free space pointing device; b) detecting occurrence of a user initiated event; c) processing said first data into a second data, which comprises: in response to a pre-event activity warning received before the user initiated event is completed, using an adaptive filter that attenuates high frequency components of said first data corresponding to movement induced by said user in connection with said user initiated event; d) processing said second data to generate an output, wherein said processing comprises transforming said second data into information for supporting one or more user interface commands; and e) outputting said information via a wired or wireless interface . a) obtaining, from said one or more motion sensors, a first data associated with movement of said handheld free space pointing device; b) detecting occurrence of a user initiated event; c) processing said first data into a second data, which comprises: in response to a pre-event activity warning received before the user initiated event is completed, using an adaptive filter that attenuates high frequency components of said first data corresponding to movement induced by said user in connection with said user initiated event; d) processing said second data to generate an output, wherein said processing comprises transforming said second data into information for supporting one or more user interface commands; and e) outputting said information via a wired or wireless interface .
A smartphone comprising: a glass cover layer; a touch sensor which is located under the glass cover layer; a display module which is located under the glass cover layer and comprises a display panel and a component configured to cause the display panel to perform a display function; a pressure electrode which is located under the display module ; a substrate which is located under the display module; and a reference potential layer spaced from the pressure electrode , wherein a capacitance is changed according to a distance between the pressure electrode and the reference potential layer, wherein a distance between the display module and the substrate is maintained by an adhesive tape formed along the border of the substrate , and wherein when a pressure is applied to the display module , the display module is bent, and wherein the distance between the pressure electrode and the reference potential layer is changed when the display module is bent, the smartphone being configured to carry out the following steps: applying a drive signal to the touch sensor and detecting a touch position by a sensing signal which is outputted from the touch sensor , detecting a magnitude of a touch pressure based on a change amount of capacitance outputted from the pressure electrode . a glass cover layer; a touch sensor which is located under the glass cover layer; a display module which is located under the glass cover layer and comprises a display panel and a component configured to cause the display panel to perform a display function; a pressure electrode which is located under the display module ; a substrate which is located under the display module; and a reference potential layer spaced from the pressure electrode , wherein a capacitance is changed according to a distance between the pressure electrode and the reference potential layer, wherein a distance between the display module and the substrate is maintained by an adhesive tape formed along the border of the substrate , and wherein when a pressure is applied to the display module , the display module is bent, and wherein the distance between the pressure electrode and the reference potential layer is changed when the display module is bent, the smartphone being configured to carry out the following steps: applying a drive signal to the touch sensor and detecting a touch position by a sensing signal which is outputted from the touch sensor , detecting a magnitude of a touch pressure based on a change amount of capacitance outputted from the pressure electrode .
Wall cladding , comprising: - a supporting structure ; - wall cladding elements (3, 3', 3"); - at least one structure attachment element made of plastic which is attachable to the supporting structure ; - at least one cladding attachment element per wall cladding element (3, 3', 3"), which cladding attachment element forms part of said wall cladding element (3, 3', 3") or is attached thereto and is couplable to the structure attachment element so as to attach the wall cladding element (3, 3', 3") to the supporting structure ; characterized in that the wall cladding comprises a safety supporting structure , at least one safety attachment element per wall cladding element (3, 3', 3"), which safety attachment element forms part of said wall cladding element (3, 3', 3") or is attached thereto, and at least one safety element (6, 6', 6") per wall cladding element (3, 3', 3"), which safety element (6, 6', 6") is designed to be fire-resistant, is attachable to the safety supporting structure and is attachable to the safety attachment element of this wall cladding element (3, 3', 3"). - a supporting structure ; - wall cladding elements (3, 3', 3"); - at least one structure attachment element made of plastic which is attachable to the supporting structure ; - at least one cladding attachment element per wall cladding element (3, 3', 3"), which cladding attachment element forms part of said wall cladding element (3, 3', 3") or is attached thereto and is couplable to the structure attachment element so as to attach the wall cladding element (3, 3', 3") to the supporting structure ;
A system for foaming milk, comprising: - a milk container ; - an air inlet ; - a pump , wherein the milk is mixed with the air in order to produce foamed milk; and - an outlet , wherein foamed milk is supplied, the system for foaming milk further comprising means for regulating the pressure at which the mixing of the milk and the air is performed, characterized in that said means for regulating the pressure at which the mixing of the milk and the air is performed comprise a throttle arranged at the outlet of said pump and a pulse-modulated valve arranged after said pump . - a milk container ; - an air inlet ; - a pump , wherein the milk is mixed with the air in order to produce foamed milk; and - an outlet , wherein foamed milk is supplied, the system for foaming milk further comprising means for regulating the pressure at which the mixing of the milk and the air is performed, characterized in that said means for regulating the pressure at which the mixing of the milk and the air is performed comprise a throttle arranged at the outlet of said pump and a pulse-modulated valve arranged after said pump .
Method implemented by a processing unit of one servo device from among several redundant servo devices (FC-1, FC-2, FC-3) of a system for controlling an actuator (TS), each redundant servo device generating values of one and the same variable (G) on the basis of one and the same setpoint (Gsp) and one and the same measurement data item (Gs), said generated values being used by said system in order to control the actuator (TS), said redundant servo devices (FC-1, FC-2, FC-3) moreover being in communication with each other so that each redundant servo device accesses, by reading, the latest values of said variable (G) generated by said redundant servo devices, said method including iteratively (SP): - a step of generating the current value (GI) of the variable (G) on the basis of the setpoint (Gsp) and the measurement data item (Gs); - a step of reading the latest values of the variable (G) generated by the redundant servo devices and building up a set ( G ) of current values of said variable (G); - a step of determining a reference value (Gr) of said variable (G) taken from said set ( G ); - a step of calculating a difference (Ge) between the current value (GI) of the generated variable (G) and said reference value (Gr); - a step of correcting the current value (GI) and generating a corrected current value (GI') of the variable (G) consisting of subtracting from said current value (GI) a corrective (Gc) resulting from a calculation according to which said difference (Ge) is multiplied by a correction coefficient (Kc), greater than zero, of said current value (Gl). - a step of generating the current value (GI) of the variable (G) on the basis of the setpoint (Gsp) and the measurement data item (Gs); - a step of reading the latest values of the variable (G) generated by the redundant servo devices and building up a set ( G ) of current values of said variable (G); - a step of determining a reference value (Gr) of said variable (G) taken from said set ( G ); - a step of calculating a difference (Ge) between the current value (GI) of the generated variable (G) and said reference value (Gr); - a step of correcting the current value (GI) and generating a corrected current value (GI') of the variable (G) consisting of subtracting from said current value (GI) a corrective (Gc) resulting from a calculation according to which said difference (Ge) is multiplied by a correction coefficient (Kc), greater than zero, of said current value (Gl).
A method for determining the operability of a fluid driven safety valve with a valve member and a spring return, 1.1 wherein the valve member is to be moved to a safety position by the spring return in case of a complete pressure drop of the driving fluid; 1.2 wherein the safety valve has means for determining the pressure of the driving fluid; 1.2.1 wherein the pressure of the driving fluid acts against the spring ; 1.3 wherein the safety valve has means for determining the position of the valve member; wherein the method comprises the following steps: 1.4 a partial stroke test is performed on the safety valve by varying the pressure in the driving fluid; 1.5 the position of the valve member in dependence of the pressure in the driving fluid is recorded during the partial stroke test, whereby a stroke-pressure curve is obtained; characterized by the following steps: 1.6 the stroke-pressure curve is mathematically modeled beyond the measured range; 1.7 the mathematically determined stroke-pressure curve is extrapolated up to the safety position of the valve member ; 1.8 the pressure (320; 420; 520) corresponding to this safety position in the mathematically determined stroke-pressure curve is determined. 1.1 wherein the valve member is to be moved to a safety position by the spring return in case of a complete pressure drop of the driving fluid; 1.2 wherein the safety valve has means for determining the pressure of the driving fluid; 1.2.1 wherein the pressure of the driving fluid acts against the spring ; 1.3 wherein the safety valve has means for determining the position of the valve member; wherein the method comprises the following steps: 1.4 a partial stroke test is performed on the safety valve by varying the pressure in the driving fluid; 1.5 the position of the valve member in dependence of the pressure in the driving fluid is recorded during the partial stroke test, whereby a stroke-pressure curve is obtained; 1.6 the stroke-pressure curve is mathematically modeled beyond the measured range; 1.7 the mathematically determined stroke-pressure curve is extrapolated up to the safety position of the valve member ; 1.8 the pressure (320; 420; 520) corresponding to this safety position in the mathematically determined stroke-pressure curve is determined.
A method of determining the time of arrival of an incoming Binary Offset Carrier, BOC, satellite signal at a receiver, the BOC signal comprising a Binary Phase Shift Keying, BPSK, signal multiplied by a sub-carrier signal, wherein the method comprises the steps of: receiving an incoming signal, multiplying the incoming signal by a first real-valued periodic modifying signal to produce a first modified output, correlating the first modified output to obtain a first correlation output, multiplying the incoming signal by a second real-valued periodic modifying signal to produce a second modified output, correlating the second modified output to produce a second correlation output and comparing the first correlation output with the second correlation output, wherein the correlation of the first and second modified outputs is done with a correlation reference signal that has the same form as the BPSK signal that is contained within the BOC signal; and wherein the first and second real-valued periodic modifying signals are sine and cosine-phased respectively, are binary or ternary valued, and have the same or similar frequency to the BOC sub-carrier signal, and are similar in form to each other and further wherein a time delay of the incoming signal relative to the real-valued periodic modifying signals is calculated using a ratio of magnitudes of the first and second correlation outputs.
A device comprising: a first chip (202; 302) comprising: a first dielectric substrate and a superconducting qubit (222a, 222b; 322a, 322b) on the first dielectric substrate; a second chip (204; 304) bonded to the first chip, the second chip comprising: a second dielectric substrate, a qubit readout element (224, 224a, 224b; 324, 324a, 324b) on the second dielectric substrate, a control wire (230; 330) on the second dielectric substrate, a dielectric layer (216; 316) covering the control wire, and a shielding layer (218; 328) covering the dielectric layer, characterized in that the shielding layer is arranged to reduce crosstalk between the control wire on the second chip and the superconducting qubit on the first chip by isolating electromagnetic fields from the control wire and from the superconducting qubit, from interfering with one another. a first chip (202; 302) comprising: a first dielectric substrate and a superconducting qubit (222a, 222b; 322a, 322b) on the first dielectric substrate; a first dielectric substrate and a superconducting qubit (222a, 222b; 322a, 322b) on the first dielectric substrate; a second chip (204; 304) bonded to the first chip, the second chip comprising: a second dielectric substrate, a qubit readout element (224, 224a, 224b; 324, 324a, 324b) on the second dielectric substrate, a control wire (230; 330) on the second dielectric substrate, a dielectric layer (216; 316) covering the control wire, and a shielding layer (218; 328) covering the dielectric layer, characterized in that the shielding layer is arranged to reduce crosstalk between the control wire on the second chip and the superconducting qubit on the first chip by isolating electromagnetic fields from the control wire and from the superconducting qubit, from interfering with one another. a second dielectric substrate, a qubit readout element (224, 224a, 224b; 324, 324a, 324b) on the second dielectric substrate, a control wire (230; 330) on the second dielectric substrate, a dielectric layer (216; 316) covering the control wire, and a shielding layer (218; 328) covering the dielectric layer, characterized in that the shielding layer is arranged to reduce crosstalk between the control wire on the second chip and the superconducting qubit on the first chip by isolating electromagnetic fields from the control wire and from the superconducting qubit, from interfering with one another.
A combination of a disinfection cap and a needleless connector comprising a mating feature , the disinfection cap comprising: a housing comprising a closed top , an essentially cylindrical sidewall , and an open bottom formed by said sidewall with an opening to an inner cavity within said housing for receiving a tip including a mating feature of a needleless connector ; a disinfection sponge configured within said inner cavity; and a removable cover sealing said opening to said inner cavity to seal said sponge within said inner cavity prior to use of said cap, wherein said inner cavity comprises at least one cap thread on an inner sidewall surface of said sidewall, said cap thread being sufficient to interlock with said mating feature of said needleless connector , said open bottom does not form an airtight seal with an outer surface of said needleless connector when said cap thread interlocks with said mating feature of said needleless connector , characterized in that said cap thread does not correspond to said mating feature of said needleless connector, a portion of said at least one cap thread comprising a non-engaging portion that does not engage said mating feature of said needleless connector , achieving at least one venting path between said cap thread and said mating feature of said needless connector from said inner cavity to outside of said housing when said cap thread interlocks with said mating feature of said needleless connector . a housing comprising a closed top , an essentially cylindrical sidewall , and an open bottom formed by said sidewall with an opening to an inner cavity within said housing for receiving a tip including a mating feature of a needleless connector ; a disinfection sponge configured within said inner cavity; and a removable cover sealing said opening to said inner cavity to seal said sponge within said inner cavity prior to use of said cap, wherein said inner cavity comprises at least one cap thread on an inner sidewall surface of said sidewall, said cap thread being sufficient to interlock with said mating feature of said needleless connector , said open bottom does not form an airtight seal with an outer surface of said needleless connector when said cap thread interlocks with said mating feature of said needleless connector , characterized in that said cap thread does not correspond to said mating feature of said needleless connector, a portion of said at least one cap thread comprising a non-engaging portion that does not engage said mating feature of said needleless connector , achieving at least one venting path between said cap thread and said mating feature of said needless connector from said inner cavity to outside of said housing when said cap thread interlocks with said mating feature of said needleless connector .
A method of producing a multi-layer paperboard comprising a first layer, a second layer and a third layer, wherein the second layer is arranged between the first layer and the third layer, which method comprises the steps of: a) providing a first broke pulp and optionally a second broke pulp; b) mixing the first broke pulp with a chemical pulp to obtain a first pulp mixture; c) fractionation of the first pulp mixture to obtain a reject fraction and an accept fraction; d) mixing the reject fraction with the second broke pulp and/or an additional pulp to obtain a second pulp mixture; e) forming the second layer from the second pulp mixture; and f) forming the first layer from a pulp comprising the accept fraction. a) providing a first broke pulp and optionally a second broke pulp; b) mixing the first broke pulp with a chemical pulp to obtain a first pulp mixture; c) fractionation of the first pulp mixture to obtain a reject fraction and an accept fraction; d) mixing the reject fraction with the second broke pulp and/or an additional pulp to obtain a second pulp mixture; e) forming the second layer from the second pulp mixture; and f) forming the first layer from a pulp comprising the accept fraction.
A subassembly for a shaving razor cartridge comprising: a base having a front wall with a top surface and a rear wall with a top surface ; at least one blade (24a, 24b and 24c) being mounted to the base between the front wall and the rear wall, the at least one blade having a cutting edge (26a, 26b and 26c); wherein the top surface on the front wall of the base is positioned a vertical distance of at least 0.5mm below the cutting edge, characterized in that the subassembly further comprises a cage fixed to the base , the cage having an upper skin contacting surface and a front face that are defined by a plurality of ribs forming a plurality of open slots . a base having a front wall with a top surface and a rear wall with a top surface ; at least one blade (24a, 24b and 24c) being mounted to the base between the front wall and the rear wall, the at least one blade having a cutting edge (26a, 26b and 26c); wherein the top surface on the front wall of the base is positioned a vertical distance of at least 0.5mm below the cutting edge, characterized in that the subassembly further comprises a cage fixed to the base , the cage having an upper skin contacting surface and a front face that are defined by a plurality of ribs forming a plurality of open slots .