mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas analyzing apparatus comprising: an analyzer main body for analyzing exhaust gas; an exhaust gas introducing part (L1, L2, 411) for guiding the exhaust gas from an exhaust pipe passing the exhaust gas therethrough to the analyzer main body; a heater (416, 417) for heating the analyzer main body and a heater (413, 414, 415) for heating the exhaust gas introducing part (L1, L2, 411); and a temperature regulating mechanism for controlling the heaters to regulate temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411), characterized in that a first mode which has the temperature regulating mechanism regulate the temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411) to an analyzable temperature that is a predetermined temperature allowing a start of analysis of the exhaust gas, and a second mode which has the temperature regulating mechanism regulate the temperature of the analyzer main body to the analyzable temperature and turning off the heater (413, 414, 415) for the exhaust gas introducing part (L1, L2, 411) can be selected. an analyzer main body for analyzing exhaust gas; an exhaust gas introducing part (L1, L2, 411) for guiding the exhaust gas from an exhaust pipe passing the exhaust gas therethrough to the analyzer main body; a heater (416, 417) for heating the analyzer main body and a heater (413, 414, 415) for heating the exhaust gas introducing part (L1, L2, 411); and a temperature regulating mechanism for controlling the heaters to regulate temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411), characterized in that a first mode which has the temperature regulating mechanism regulate the temperatures of the analyzer main body and the exhaust gas introducing part (L1, L2, 411) to an analyzable temperature that is a predetermined temperature allowing a start of analysis of the exhaust gas, and a second mode which has the temperature regulating mechanism regulate the temperature of the analyzer main body to the analyzable temperature and turning off the heater (413, 414, 415) for the exhaust gas introducing part (L1, L2, 411) can be selected.
A bandwidth estimation circuit for predicting the bandwidth, the bandwidth estimation circuit being characterized in comprising: a feature detection unit, which in an offline mode is configured to analyse at least one code of an application program and to detect features in this code, said features representing different instruction types; a memory unit, which is configured to store multiple predetermined bandwidth envelopes, wherein each one of the predetermined bandwidth envelopes is assigned to one feature of the code of the application program, and wherein an bandwidth envelope is a function of the bandwidth against the amount of transaction data; a bandwidth measurement unit, which is configured to online measure the bandwidths of data transactions of the detected features at runtime, wherein the online measurement of a bandwidth is synchronized with the moment a code is sent to a programmable circuit, by a driver which is configured to enable and manage access to the programmable circuit; a selection unit coupled either to the memory unit and the bandwidth measurement unit and configured to find the two nearest bandwidth envelopes in the memory unit for each of the measured bandwidth; and a calculation unit which is configured to calculate a ratio between the two selected bandwidth envelopes and the respective measured bandwidth, to construct a new bandwidth envelope by applying an interpolation function based on the calculated ratio, wherein the interpolation function best fits the respective measured bandwidth, and to calculate an estimated bandwidth by applying the new bandwidth envelope. a feature detection unit, which in an offline mode is configured to analyse at least one code of an application program and to detect features in this code, said features representing different instruction types; a memory unit, which is configured to store multiple predetermined bandwidth envelopes, wherein each one of the predetermined bandwidth envelopes is assigned to one feature of the code of the application program, and wherein an bandwidth envelope is a function of the bandwidth against the amount of transaction data; a bandwidth measurement unit, which is configured to online measure the bandwidths of data transactions of the detected features at runtime, wherein the online measurement of a bandwidth is synchronized with the moment a code is sent to a programmable circuit, by a driver which is configured to enable and manage access to the programmable circuit; a selection unit coupled either to the memory unit and the bandwidth measurement unit and configured to find the two nearest bandwidth envelopes in the memory unit for each of the measured bandwidth; and a calculation unit which is configured to calculate a ratio between the two selected bandwidth envelopes and the respective measured bandwidth, to construct a new bandwidth envelope by applying an interpolation function based on the calculated ratio, wherein the interpolation function best fits the respective measured bandwidth, and to calculate an estimated bandwidth by applying the new bandwidth envelope.
A method in a mobile electronic device for handling fall detection, the method comprising: detecting a suspected fall; and, preventing or suspending, at least temporarily, a triggering of a fall process based on a status of being used and/or historical status of being used of the mobile electronic device, the status of being used and/or historical status of being used being at the time the suspected fall was detected. detecting a suspected fall; and, preventing or suspending, at least temporarily, a triggering of a fall process based on a status of being used and/or historical status of being used of the mobile electronic device, the status of being used and/or historical status of being used being at the time the suspected fall was detected.
An apparatus comprising: a processor arranged to be coupled to non-volatile memory which stores data from one or more volatile buffers of the processor; one or more sensors to detect occurrence of an event that is to lead to a system reset or shut down; one or more capacitors, coupled to the non-volatile memory, to increase an amount of time the non-volatile memory remains operational after occurrence of the event; and logic to cause storage of the data from the one or more volatile buffers of the processor into the non-volatile memory in response to occurrence of the event; characterised in that: the processor includes a non-volatile shadow buffer formed therewithin, wherein in response to the one or more sensors detecting occurrence of the event, the processor is configured to: copy the data from the one or more volatile buffers into the non-volatile shadow buffer to be stored as backup data; and either: discard the backup data, if the data from the one or more volatile buffers is successfully stored into the non-volatile memory; or copy the backup data from the non-volatile shadow buffer into the non-volatile memory, if the data from the one or more volatile buffers is not successfully stored into the non-volatile memory. a processor arranged to be coupled to non-volatile memory which stores data from one or more volatile buffers of the processor; one or more sensors to detect occurrence of an event that is to lead to a system reset or shut down; one or more capacitors, coupled to the non-volatile memory, to increase an amount of time the non-volatile memory remains operational after occurrence of the event; and logic to cause storage of the data from the one or more volatile buffers of the processor into the non-volatile memory in response to occurrence of the event; characterised in that: the processor includes a non-volatile shadow buffer formed therewithin, wherein in response to the one or more sensors detecting occurrence of the event, the processor is configured to: copy the data from the one or more volatile buffers into the non-volatile shadow buffer to be stored as backup data; and either: discard the backup data, if the data from the one or more volatile buffers is successfully stored into the non-volatile memory; or copy the backup data from the non-volatile shadow buffer into the non-volatile memory, if the data from the one or more volatile buffers is not successfully stored into the non-volatile memory. discard the backup data, if the data from the one or more volatile buffers is successfully stored into the non-volatile memory; or copy the backup data from the non-volatile shadow buffer into the non-volatile memory, if the data from the one or more volatile buffers is not successfully stored into the non-volatile memory.
A measuring instrument, comprising a measuring unit for projecting a distance measuring light toward an object to be measured and for performing a distance measurement by receiving a reflected light from the object to be measured, and an attitude detecting device integrally provided with said measuring unit, wherein said attitude detecting device has tilt sensors (71, 72) for detecting a horizontality and relative tilt angle detectors (61, 65, 62, 66, 68) for tilting said tilt sensors and for detecting a tilt angle of said measuring unit with respect to the horizontality under such condition that said tilt sensors detect the horizontality so that the horizontality is detected by said tilt sensor, and wherein said measuring unit is adapted to perform the distance measurement of the object to be measured and to determine a vertical angle of a measuring point based on the result of the tilt angle detection by said attitude detecting device.
A rotary wing aircraft that extends along an associated roll axis between a nose region and an aft region, comprising: a fuselage with a front section and a rear section, a main rotor that is rotatably mounted at the front section, and a stabilizer arrangement that is arranged at the rear section in the aft region, wherein the rear section extends between the front section and the stabilizer arrangement and comprises an asymmetrical cross-sectional profile in direction of the associated roll axis, at least one lateral wing-type aerodynamic device that is arranged at the front section and comprises at least one wing element (172, 174) that is pivotable relative to the fuselage to generate sideward thrust for main rotor anti-torque from main rotor downwash, wherein the at least one wing element (172, 174) comprises at least a first wing element with a first airfoil profile and a second wing element with a second airfoil profile, and wherein the first and second wing elements (172, 174) are individually pivotable to different pivoting angles (772, 774), characterized in that the second airfoil profile differs from the first airfoil profile. a fuselage with a front section and a rear section, a main rotor that is rotatably mounted at the front section, and a stabilizer arrangement that is arranged at the rear section in the aft region, wherein the rear section extends between the front section and the stabilizer arrangement and comprises an asymmetrical cross-sectional profile in direction of the associated roll axis, at least one lateral wing-type aerodynamic device that is arranged at the front section and comprises at least one wing element (172, 174) that is pivotable relative to the fuselage to generate sideward thrust for main rotor anti-torque from main rotor downwash, wherein the at least one wing element (172, 174) comprises at least a first wing element with a first airfoil profile and a second wing element with a second airfoil profile, and wherein the first and second wing elements (172, 174) are individually pivotable to different pivoting angles (772, 774), characterized in that the second airfoil profile differs from the first airfoil profile.
A resin composition comprising: nanoparticles of alumina and/or boehmite having an average particle size from 1.0 nm or more to 100 nm or less; fine particles having an average particle size from 0.20 μm or more to 100 μm or less, and selected from the group consisting of silica, alumina, aluminum nitride, boron nitride, boehmite, molybdenum oxide, titanium oxide, silicone rubber, hybrid silicone powder, zinc borate, zinc stannate, clay, kaolin, talc, fired clay, fired kaolin, fired talc, mica, short glass fiber, hollow glass, and spherical glass, or a combination of two or more thereof; and a thermosetting resin, wherein the nanoparticles have their surfaces treated with a polysiloxane-based modifier, and are treated with one or more dispersing agents selected from the group consisting of phosphoric acid ester, phosphoric acid ester salt, and alkylbenzenesulfonic acid, and wherein the average particle size of both the nanoparticles and the fine particles is defined as the D50 value measured by a wet laser diffraction/scattering method.
An optical filter having a passband at least partially overlapping with a wavelength range of 800 nm to 1100 nm, comprising: a filter stack on a first side of a substrate, the filter stack includes alternating layers of hydrogenated silicon having a refractive index of greater than 3 over the wavelength range of 800 nm to 1100 nm; and layers of a lower-refractive-index material composed of silicon dioxide (SiO 2), aluminum oxide (Al 2 O 3), titanium dioxide (TiO 2), niobium pentoxide (Nb 2 O 5), tantalum pentoxide (Ta 2 O 5), or mixtures thereof; wherein the optical filter has a transmittance level, within the passband, of greater than 90% wherein the passband has a center wavelength in the wavelength range of 800 nm to 1100 nm and the center wavelength shifts by less than 20 nm in magnitude with a change in an incidence angle from 0° to 30°. a filter stack on a first side of a substrate, the filter stack includes alternating layers of hydrogenated silicon having a refractive index of greater than 3 over the wavelength range of 800 nm to 1100 nm; and layers of a lower-refractive-index material composed of silicon dioxide (SiO 2), aluminum oxide (Al 2 O 3), titanium dioxide (TiO 2), niobium pentoxide (Nb 2 O 5), tantalum pentoxide (Ta 2 O 5), or mixtures thereof; hydrogenated silicon having a refractive index of greater than 3 over the wavelength range of 800 nm to 1100 nm; and layers of a lower-refractive-index material composed of silicon dioxide (SiO 2), aluminum oxide (Al 2 O 3), titanium dioxide (TiO 2), niobium pentoxide (Nb 2 O 5), tantalum pentoxide (Ta 2 O 5), or mixtures thereof; wherein the optical filter has a transmittance level, within the passband, of greater than 90% wherein the passband has a center wavelength in the wavelength range of 800 nm to 1100 nm and the center wavelength shifts by less than 20 nm in magnitude with a change in an incidence angle from 0° to 30°.
Combination metering assembly for filling liquid products into containers comprising a base unit and pump components (3, 4, 5, 6, 11, 12, 13, 14) of at least two different pump types for metering operation, wherein the pump components of a respective pump type can be combined with the base unit to form a pump system of the relevant pump type and the base unit has connection means (19, 23) for this purpose which are compatible for connection to the pump components, wherein pump components of one pump type and pump components of at least one further pump type can be combined with the base unit at the same time in order to configure three operational pump systems, wherein the combination metering assembly further comprises a controllable switching device by means of which each of the pump systems to be formed can be selected for operation, wherein the pump systems comprise a rotary piston pump, a peristaltic pump and a time-pressure metering device.
A method of determining position of a mobile device using visible light, comprising: receiving positional information regarding a plurality of stationary light fixtures; receiving reset information indicating an occurrence of a reset event, wherein the reset information comprises either a subset of a plurality of identifiers or an index that is for identifying the subset of the plurality of identifiers; receiving an identifier from a first stationary light fixture of the plurality of stationary light fixtures via visible light; and determining a position of the first stationary light fixture based on the identifier, the received positional information and the received reset information comprising either the subset of a plurality of identifiers or the index that is for identifying the subset of the plurality of identifiers, wherein the positional information and the reset information are received via a wireless communication medium different from visible light. receiving positional information regarding a plurality of stationary light fixtures; receiving reset information indicating an occurrence of a reset event, wherein the reset information comprises either a subset of a plurality of identifiers or an index that is for identifying the subset of the plurality of identifiers; receiving an identifier from a first stationary light fixture of the plurality of stationary light fixtures via visible light; and determining a position of the first stationary light fixture based on the identifier, the received positional information and the received reset information comprising either the subset of a plurality of identifiers or the index that is for identifying the subset of the plurality of identifiers, wherein the positional information and the reset information are received via a wireless communication medium different from visible light.
A nonwoven abrasive article comprising: a lofty open nonwoven fiber web comprising intertwined fibers; an abrasive layer bonded to at least a portion of the lofty open nonwoven fiber web, the abrasive layer comprising abrasive particles retained in a binder composition and a peripheral antiloading composition at least partially disposed on the abrasive layer, characterized in that the peripheral antiloading composition comprises at least 50 percent by weight of wax, wherein the wax has a melting point onset in the range of from 82°C to 143°C (180°F to 290°F). a lofty open nonwoven fiber web comprising intertwined fibers; an abrasive layer bonded to at least a portion of the lofty open nonwoven fiber web, the abrasive layer comprising abrasive particles retained in a binder composition and a peripheral antiloading composition at least partially disposed on the abrasive layer, characterized in that the peripheral antiloading composition comprises at least 50 percent by weight of wax, wherein the wax has a melting point onset in the range of from 82°C to 143°C (180°F to 290°F).
An all-in-one composition comprising a perhydrolase enzyme, a hydrogen peroxide source, and an ester substrate, wherein said composition generates a peracid when mixed with water, and wherein said ester comprises less than 5% by weight of water, and wherein the ester substrate is a liquid and the perhydrolase enzyme and hydrogen peroxide source are dry solids suspended in the liquid, and wherein the ester substrate is selected from the group consisting of: methyl acetate, ethyl acetate, propyl acetate, triacetin (1,3-diacetyloxypropan-2-yl acetate) and propylene glycol diacetate.
Method for optimizing the combustion of fuel in a combustion chamber of a power plant, comprising the steps of: - measuring a real concentration distribution of a substance in the combustion chamber in at least one dimension, - evaluating the real concentration distribution, - controlling the combustion of the fuel such that a symmetric concentration distribution of the substance is created in the at least one dimension and - at least one characteristic for the symmetry of the real concentration distribution is established during the evaluation process and at least one control parameter is modified depending on the at least one characteristic during the control process. - measuring a real concentration distribution of a substance in the combustion chamber in at least one dimension, - evaluating the real concentration distribution, - controlling the combustion of the fuel such that a symmetric concentration distribution of the substance is created in the at least one dimension and - at least one characteristic for the symmetry of the real concentration distribution is established during the evaluation process and at least one control parameter is modified depending on the at least one characteristic during the control process.
A liquid dispensing system for a liquid dispenser, said liquid dispensing system comprising: (a) a reservoir (B, 76) including an inlet for receiving a liquid from a liquid supply source (70, V), a chamber for storing the liquid received from the liquid supply source (70, V) and a reservoir outlet for directing the liquid out of said chamber; and, (b) a manifold operably connected to said reservoir, said manifold including a first port through which liquid from an upper portion of said chamber and liquid from a lower portion of said chamber are directed to a first dispensing outlet so that liquid from said upper portion of said chamber and liquid from said lower portion of said chamber mix prior to being dispensed from said first dispensing outlet, characterized in that said manifold further includes a second port through which liquid from only said upper portion of said chamber is directed to a second dispensing outlet, and in that the temperature of liquid directed to said first dispensing outlet is at a temperature different from the temperature of liquid directed to said second dispensing outlet. (a) a reservoir (B, 76) including an inlet for receiving a liquid from a liquid supply source (70, V), a chamber for storing the liquid received from the liquid supply source (70, V) and a reservoir outlet for directing the liquid out of said chamber; and, (b) a manifold operably connected to said reservoir, said manifold including a first port through which liquid from an upper portion of said chamber and liquid from a lower portion of said chamber are directed to a first dispensing outlet so that liquid from said upper portion of said chamber and liquid from said lower portion of said chamber mix prior to being dispensed from said first dispensing outlet, characterized in that said manifold further includes a second port through which liquid from only said upper portion of said chamber is directed to a second dispensing outlet, and in that the temperature of liquid directed to said first dispensing outlet is at a temperature different from the temperature of liquid directed to said second dispensing outlet.