mhurhangee/patent-ind-claim-en huggingface dataset:
An input circuit arrangement, comprising - a terminal for supplying a terminal signal (SWI), and - an evaluation circuit which has its input side connected to the terminal and comprises a first and a second comparator , which each have their input side connected to the terminal and are configured to compare the terminal signal (SWI) or a signal derived from said terminal signal (SWI) with a first and a second predefined threshold value (SREF1, SREF2), respectively, and to provide a first and a second comparator signal (SK1, SK2), respectively, depending on the result of the comparison, the evaluation circuit being configured to supply a clock signal (CLK) exclusively depending on the first comparator signal (SK1) and to supply a data signal (DIN) exclusively depending on the second comparator signal (SK2), and the terminal signal (SWI) comprising clock impulses which are based on a reference value (VSS) and have a first height (VDD) at a first logical value of the data signal (DIN), and an intermediate level (SZ), lying between the first height (VDD) and the reference value (VSS), at a second logical value of the data signal (DIN), the input circuit arrangement comprising a signal converter , so that the input circuit arrangement is configured to have an influence on the terminal signal (SWI) depending on an output signal (DOUT) or an inverted output signal (DOUTN) and thus deliver data to the terminal , wherein the signal converter comprises a resistive element and a switch , and a series connection comprising the switch and the resistive element connects the terminal to a reference potential terminal , and wherein the input circuit arrangement comprises a measurement object which is connected to the terminal via the resistive element and is coupled to the reference potential terminal via an activating switch . - a terminal for supplying a terminal signal (SWI), and - an evaluation circuit which has its input side connected to the terminal and comprises a first and a second comparator , which each have their input side connected to the terminal and are configured to compare the terminal signal (SWI) or a signal derived from said terminal signal (SWI) with a first and a second predefined threshold value (SREF1, SREF2), respectively, and to provide a first and a second comparator signal (SK1, SK2), respectively, depending on the result of the comparison,
Liquid cathode cell comprising: - a calcium anode; - an electrolyte comprising a sulfur and/or phosphorus oxidizing solvent and at least one salt; - a cathode comprising a compound identical to the aforementioned oxidizing solvent as active material; characterized in that the cathode comprises a first zone consisting of a carbon matrix comprising entwined carbon fibers having a porosity of at least 90% and a specific surface area of less than or equal to 5 m 2 /g, and comprising a second zone distinct from the first zone, wherein the second zone consists of a composite material comprising a binder and carbon black. - a calcium anode; - an electrolyte comprising a sulfur and/or phosphorus oxidizing solvent and at least one salt; - a cathode comprising a compound identical to the aforementioned oxidizing solvent as active material;
Timepiece comprising a rotating bezel mounted on a part of external parts of this timepiece and which can be actuated in rotation by a user, this rotating bezel having N given stable angular positions, N being an integer greater than two, which have between them an angular pitch (α) equal to 360° divided by N (α = 360°/ N), the timepiece further comprising a magnetic device composed of a first set of first polar parts carried in a fixed manner by the rotating bezel and of a second set of second polar parts carried in a fixed manner by said part of external parts, the first set of first polar parts and the second set of second polar parts each being arranged circularly in such a way that the first polar parts have a magnetic interaction with the second polar parts that engenders on the rotating bezel a resisting magnetic torque, over at least a part of said angular pitch, when this rotating bezel is driven in rotation, at least in one given direction, from any one of the N stable angular positions towards a following stable angular position, in which the number Z1 of first polar parts in said first set is greater than one and less than N (1 < Z1 < N) and the number Z2 of second polar parts in said second set is also greater than one and less than N (1 < Z2 < N), and in which the first set of the Z1 first polar parts is distributed among N first angular positions, linked to the rotating bezel and having between them said angular pitch, with at most one first polar part per first angular position, characterised in that the second set of the Z2 second polar parts is distributed among N second angular positions, linked to said part of external parts and having between them said angular pitch, with at most one second polar part per second angular position, in such a way that said resisting magnetic torque has a variation according to the stable angular position of the rotating bezel, among the N stable angular positions, at least according to said given direction for the rotation of this rotating bezel.
A method of fabricating a SiC epitaxial wafer comprising the steps of: - preparing a SiC ingot; - cutting the prepared SiC ingot with an off angle of 2 degrees; - polishing the cut SiC ingot to form a SiC bare wafer; - removing a cut surface of the SiC bare wafer to form a SiC substrate containing 4H-SiC having the off angle of 2 degrees in a [11-20] axis direction with respect to a surface ; and - crystal-growing a SiC epitaxial growth layer disposed on the substrate at a growth pressure of 10.3 kPa and a growth temperature of 1680 °C, wherein the gas used for the epitaxial growth includes SiH 4 (monosilane) which is used as Si material, C 3 H 8 (propane) which is used as carbon (C) material and N 2 (nitrogen) which is used as n-type dopant, wherein - a C/Si ratio between the C material and the Si material for the SiC epitaxial growth is within a range of 0.85 to 0.95, so that the SiC epitaxial wafer has a uniformity, expressed in the form of σ/mean, of the carrier density (ND-NA) as obtained by C-V measurement over the entire wafer surface of less than 10% and a triangular defect density of less than 1 /cm2 . - preparing a SiC ingot; - cutting the prepared SiC ingot with an off angle of 2 degrees; - polishing the cut SiC ingot to form a SiC bare wafer; - removing a cut surface of the SiC bare wafer to form a SiC substrate containing 4H-SiC having the off angle of 2 degrees in a [11-20] axis direction with respect to a surface ; and - crystal-growing a SiC epitaxial growth layer disposed on the substrate at a growth pressure of 10.3 kPa and a growth temperature of 1680 °C, wherein the gas used for the epitaxial growth includes SiH 4 (monosilane) which is used as Si material, C 3 H 8 (propane) which is used as carbon (C) material and N 2 (nitrogen) which is used as n-type dopant, wherein - a C/Si ratio between the C material and the Si material for the SiC epitaxial growth is within a range of 0.85 to 0.95, so that the SiC epitaxial wafer has a uniformity, expressed in the form of σ/mean, of the carrier density (ND-NA) as obtained by C-V measurement over the entire wafer surface of less than 10% and a triangular defect density of less than 1 /cm2 . - crystal-growing a SiC epitaxial growth layer disposed on the substrate at a growth pressure of 10.3 kPa and a growth temperature of 1680 °C, wherein the gas used for the epitaxial growth includes SiH 4 (monosilane) which is used as Si material, C 3 H 8 (propane) which is used as carbon (C) material and N 2 (nitrogen) which is used as n-type dopant, wherein - a C/Si ratio between the C material and the Si material for the SiC epitaxial growth is within a range of 0.85 to 0.95, so that the SiC epitaxial wafer has a uniformity, expressed in the form of σ/mean, of the carrier density (ND-NA) as obtained by C-V measurement over the entire wafer surface of less than 10% and a triangular defect density of less than 1 /cm2 .
Method for conditioning of drilling fluid, wherein the method comprise supplying drilling fluid at high pressure to opposite placed inline directed high pressure nozzles arranged in fluid communication with a sealed spacing for shearing the supplied drilling fluid followed by additionally mixing by high velocity streams colliding, and discharging the conditioned drilling fluid through an outlet of the sealed spacing, characterized in that the method comprising measuring one or more of: pressure difference, temperature, flow, quality and/or content of the conditioned drilling fluid and controlling opening of the high pressure nozzles based on the measured pressure difference, temperature, flow, quality and/or content of the conditioned drilling fluid.
A glass strand including: a plurality of glass filaments containing, in % by mass, 54 to 65% SiO 2 , 12 to 25% ZrO 2 , 0 to 5% Li 2 O, 10 to 17% Na 2 O, 0 to 8% K 2 O, 0 to 10% R'O (where R' represents Mg, Ca, Sr, Ba or Zn), 0 to 7% TiO 2 , and 0 to 2% Al 2 O 3 ; and a coating covering surfaces of the glass filaments, wherein the coating contains polyvinyl acetate resin and polyether-based urethane resin, wherein a content of the polyether-based urethane resin in the coating is, in solid content ratio, not less than 10% by mass and not more than 90% by mass, and wherein an ether portion of the polyether-based urethane resin is made of polytetramethylene ether glycol.
A fastener driver comprising: a main housing ; a drive blade movable from a retracted position to a driven position for driving a fastener into a workpiece; a gas spring mechanism for driving the drive blade from the retracted position to the driven position, the gas spring mechanism including a cylinder housing containing a pressurized gas, and a piston protruding from the cylinder housing , movable relative to the cylinder housing and biased by the pressurized gas from a retracted position toward a driven position in which the piston is fully extended from the cylinder housing ; wherein the cylinder housing is displaceable along a longitudinal axis of the piston relative to the main housing and away from the drive blade , while the piston remains stationary relative to the main housing , to reduce the pressure of the pressurized gas within the cylinder housing. a main housing ; a drive blade movable from a retracted position to a driven position for driving a fastener into a workpiece; a gas spring mechanism for driving the drive blade from the retracted position to the driven position, the gas spring mechanism including a cylinder housing containing a pressurized gas, and a piston protruding from the cylinder housing , movable relative to the cylinder housing and biased by the pressurized gas from a retracted position toward a driven position in which the piston is fully extended from the cylinder housing ; a cylinder housing containing a pressurized gas, and a piston protruding from the cylinder housing , movable relative to the cylinder housing and biased by the pressurized gas from a retracted position toward a driven position in which the piston is fully extended from the cylinder housing ; wherein the cylinder housing is displaceable along a longitudinal axis of the piston relative to the main housing and away from the drive blade , while the piston remains stationary relative to the main housing , to reduce the pressure of the pressurized gas within the cylinder housing.
A method of mass spectrometry comprising: initially calibrating or re-calibrating a mass spectrometer at a time T 0 and at substantially the same time measuring a time of flight or mass to charge ratio M 0 of one or more first ions; operating the mass spectrometer at a subsequent time T 1 ; measuring the time of flight or mass to charge ratio M 1 of said one or more first ions at said time T 1 ; and characterised by : adjusting the time of flight or mass to charge ratio of ions by or based upon the difference between the time of flight or mass to charge ratio M 1 of said one or more first ions as measured at said time T 1 and said time of flight or mass to charge ratio M 0 of said one or more first ions as measured at said time T 0 . initially calibrating or re-calibrating a mass spectrometer at a time T 0 and at substantially the same time measuring a time of flight or mass to charge ratio M 0 of one or more first ions; operating the mass spectrometer at a subsequent time T 1 ; measuring the time of flight or mass to charge ratio M 1 of said one or more first ions at said time T 1 ; and characterised by : adjusting the time of flight or mass to charge ratio of ions by or based upon the difference between the time of flight or mass to charge ratio M 1 of said one or more first ions as measured at said time T 1 and said time of flight or mass to charge ratio M 0 of said one or more first ions as measured at said time T 0 .
A method of mapping local conductive activity in a lesion comprising: receiving a plurality of electrophysiology (EP) data points at an electroanatomical mapping system, wherein each EP data point of the plurality of EP data points includes electrophysiological signals measured by a high-density grid catheter, computing a plurality of omnipolar electrograms ,corresponding to omnipoles with different orientations, for the respective EP data point using the electrophysiological signals for the respective EP data point; computing a plurality of scalograms corresponding to the plurality of omnipolar electrograms; computing a plurality of peak-frequency functions corresponding to the plurality of scalograms; defining an orientation exhibiting a maximum peak frequency of the plurality of peak-frequency functions as the optimized omnipole orientation for the respective EP data point; computing, with the electroanatomical mapping system, a peak-frequency metric at the optimized omnipole orientation for each EP data point using the electrophysiological signals for the respective EP data point; and outputting, with the electroanatomical mapping system, a graphical representation of the peak-frequency metric that facilitates visualization of near-field conduction activity in the lesion. receiving a plurality of electrophysiology (EP) data points at an electroanatomical mapping system, wherein each EP data point of the plurality of EP data points includes electrophysiological signals measured by a high-density grid catheter, computing a plurality of omnipolar electrograms ,corresponding to omnipoles with different orientations, for the respective EP data point using the electrophysiological signals for the respective EP data point; computing a plurality of scalograms corresponding to the plurality of omnipolar electrograms; computing a plurality of peak-frequency functions corresponding to the plurality of scalograms; defining an orientation exhibiting a maximum peak frequency of the plurality of peak-frequency functions as the optimized omnipole orientation for the respective EP data point; computing, with the electroanatomical mapping system, a peak-frequency metric at the optimized omnipole orientation for each EP data point using the electrophysiological signals for the respective EP data point; and outputting, with the electroanatomical mapping system, a graphical representation of the peak-frequency metric that facilitates visualization of near-field conduction activity in the lesion.
A semiconductor device , comprising: a lateral transistor device having a source, a drain and a gate; a monolithically integrated additional capacitor coupled between the gate and the drain that is also coupled in parallel with an inherent gate drain capacitance C GD of the lateral transistor device , wherein the monolithically integrated additional capacitor has a capacitance C M that is larger than C GD , wherein the semiconductor device comprises a reverse transfer capacitance C rss , wherein C rss(Vds = 0V) /C rss (V ds = 400V) < 50. a lateral transistor device having a source, a drain and a gate; a monolithically integrated additional capacitor coupled between the gate and the drain that is also coupled in parallel with an inherent gate drain capacitance C GD of the lateral transistor device , wherein the monolithically integrated additional capacitor has a capacitance C M that is larger than C GD , wherein the semiconductor device comprises a reverse transfer capacitance C rss , wherein C rss(Vds = 0V) /C rss (V ds = 400V) < 50.
A device for integrating lighting having a front assembly of lamps for bow lighting; a rear assembly of lamps for stern lighting; upper strobe lighting for anchoring lighting; signaling assembly, arranged at the rear for stern lighting; green signalizing assembly placed to starboard; red signaling assembly placed to port for navigation with watercraft mandatory signaling, intended for the nautical sector, especially for watercraft, grouped into device , comprising a split hull, with fixed skid endowed with flanges having holes, mounted on the top frame or column or suitable support of the watercraft including the light assembly for bow lighting , frontally arranged, interposing the green lighting signaling assembly , arranged to starboard, allowing visualization, being in a position perpendicular to the watercraft, with visibility sector (B) of 112.5o, from bow to 22.5o abaft the beam of its respective side, and to the red lighting signaling assembly , arranged to port, allowing visualization, being in a position perpendicular to the watercraft, with visibility sector (C) of 112,5o, from bow to 22.5o abaft the beam of its respective side; the support device including strobe lighting , superimposed on front lighting and port and starboard , with visibility sector of 360o for anchoring lighting; the support device includes sternlights , with visibility sector of 135o, characterized in that it comprises a hull attachable to a fixed skid by means of latches (301/401); it comprises a rear cover formed by a central portion , which is flexible due to the rips forming it, having a lower tooth for locking with grooves of the locking device of the fixed skid whose flanges comprise channels having an asymmetrical portion of interlocking with latches (301/401); the hull is superimposed by the upper headlamp of the anchoring lighting comprising an upper lens , an upper reflector and lighting ; the hull comprises a combined support being shaped with frontal sectors (701, 702 and 703) to support an assembly having sockets and lighting (800, 801 and 802), mounted with a front reflector and front lens ; the combined support comprises a base sector for a radar deflector device , adjacent to a platform sector of a pole of the flag superimposed to the backlights of said pole ; the combined support comprises a rear sector for sockets and stern lightings ; the hull laterally comprises a reflector support (14 and 1401), having lenses (1402 and 1403) for side signaling (15 and 1501); the assembly is electrically interconnected to the fixed skid by means of a flexible cable with connectors.
Tablet comprising one or more omega-3 fatty acid amino acid salt(s), characterized in that the content of binders and structure-forming substances selected from the group consisting of polyvinylpyrrolidone (PVP), starch, lactose, microcrystalline cellulose, calcium sulphate, mannitol, calcium phosphate or mixtures thereof is in total 20% by weight or less, based on the total weight of the tablet, and that the content of omega-3 fatty acids is in total 40% by weight or more, based on the total weight of the tablet, wherein the composition comprises mixtures of eicosapentaenoic acid (EPA) and docosahexaenoic acid (DHA). and that the content of omega-3 fatty acids is in total 40% by weight or more, based on the total weight of the tablet, wherein the composition comprises mixtures of eicosapentaenoic acid (EPA) and docosahexaenoic acid (DHA).
An archery finger tab comprising: a body part that has a plate shape one surface of which face a palm and has a first guide rail , having a length in a forward-rearward direction, formed at a rear part thereof; a mount that has a plate shape, is guided or fixed/unfixed by a first fastening part with respect to the first guide rail, is rotatable about the first fastening part, and is provided with a first hinge part disposed in the forward-rearward direction at a lower part; and a little finger support that has a plate shape, is provided with a second hinge part on an upper side thereof, is fixed or unfixed by a second fastening part in a state where the first hinge part and the second hinge part are disposed in a straight line, and is rotatable about the second fastening part. a body part that has a plate shape one surface of which face a palm and has a first guide rail , having a length in a forward-rearward direction, formed at a rear part thereof; a mount that has a plate shape, is guided or fixed/unfixed by a first fastening part with respect to the first guide rail, is rotatable about the first fastening part, and is provided with a first hinge part disposed in the forward-rearward direction at a lower part; and a little finger support that has a plate shape, is provided with a second hinge part on an upper side thereof, is fixed or unfixed by a second fastening part in a state where the first hinge part and the second hinge part are disposed in a straight line, and is rotatable about the second fastening part.
Mantle hose comprising at least one inner layer and a mantle layer , characterized in that the inner layer is constructed from at least 90% by weight ethylene-acrylate rubber (AEM) and/or (partially) hydrogenated nitrile rubber (HNBR) and/or acrylate rubber (ACM) and the mantle layer is constructed from at least 90% by weight polyester (PES), wherein the mantle hose comprises no elastomeric outer layer on the mantle layer.