mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: an electrical submersible pump assembly including an electric motor , a motor shaft and a shaft axis, a pump , and at least one sensor system positioned to measure a rotational parameter of the motor shaft, characterized in that the sensor system comprises a rotational transmitter assembly attached to an end of the motor shaft , wherein two magnets are inserted into a face of the end, each magnet exposing an opposite polarity and each magnet facing outwardly of the motor shaft, and a receiver assembly secured to a stationary portion of the electric motor, and the receiver assembly comprising a former on which is wound a receiver assembly coil . a rotational transmitter assembly attached to an end of the motor shaft , wherein two magnets are inserted into a face of the end, each magnet exposing an opposite polarity and each magnet facing outwardly of the motor shaft, and a receiver assembly secured to a stationary portion of the electric motor, and the receiver assembly comprising a former on which is wound a receiver assembly coil .
Distribution device for a specimen exposition arrangement that comprises at least two specimen receptacles and a fluid supply for fluid to be supplied to the specimen receptacles , the distribution device comprising: - a distribution means comprising -- a distribution means inlet for supplying fluid to the distribution device, -- for each specimen receptacle a respective distribution means outlet , and -- a distribution chamber between the distribution means inlet and the distribution means outlets ; and - at least one fluid outlet means for each distribution means outlet , wherein the at least one fluid outlet means respectively comprises -- a fluid outlet means inlet being in fluid connection with the respective distribution means outlet , -- a first fluid outlet means outlet for outputting fluid in the respective specimen receptacle , and -- a second fluid outlet means outlet for outputting excess fluid; characterized in that the second fluid outlet means outlet is adapted to conduct away fluid supplied to fluid inlet means via the fluid outlet means inlet , which fluid shall not or cannot supplied to the respective specimen receptacle , and not the specimen receptacle . - a distribution means comprising -- a distribution means inlet for supplying fluid to the distribution device, -- for each specimen receptacle a respective distribution means outlet , and -- a distribution chamber between the distribution means inlet and the distribution means outlets ; and -- a distribution means inlet for supplying fluid to the distribution device, -- for each specimen receptacle a respective distribution means outlet , and -- a distribution chamber between the distribution means inlet and the distribution means outlets ; and - at least one fluid outlet means for each distribution means outlet , wherein the at least one fluid outlet means respectively comprises -- a fluid outlet means inlet being in fluid connection with the respective distribution means outlet , -- a first fluid outlet means outlet for outputting fluid in the respective specimen receptacle , and -- a second fluid outlet means outlet for outputting excess fluid; -- a fluid outlet means inlet being in fluid connection with the respective distribution means outlet , -- a first fluid outlet means outlet for outputting fluid in the respective specimen receptacle , and -- a second fluid outlet means outlet for outputting excess fluid;
A manual and electric dual-mode trailer hitching apparatus, comprising: a trailer hitch and a driving device for actuating the trailer hitch , wherein the driving device comprises a housing , a motor, a transmission arrangement , a main shaft , and a rotary shaft , the trailer hitch being coupled to the main shaft , the rotary shaft having an automated position and a manual position, the rotary shaft comprising a first transmission section , a second transmission section , and a rotating section between the first transmission section and the second transmission section ; characterized in that when the rotary shaft moves axially to the automated position, the first transmission section is fitted with the transmission arrangement , and the second transmission section is fitted with the main shaft , such that the motor drives the rotary shaft and the main shaft to rotate via the transmission arrangement ; wherein when the rotary shaft moves axially to the manual position, the second transmission section is fitted with the main shaft , such that the rotary shaft rotates relative to the transmission arrangement ; and wherein a locking member is detachably mounted on the housing , the locking member being configured to hold the rotary shaft at the automated position.
A method of forming complex structures in a ceramic-, glass- or glass-ceramic-body microfluidic module, the method comprising the steps of: providing at green-state refractory-material structure comprising least a portion of a body of a microfluidic module; providing a removeable insert formed of graphite , an external surface of the insert comprising a negative surface of a desired surface to be formed in the microfluidic module; machining an opening in the green-state structure ; positioning the insert in the opening ; firing the green-state structure and the insert together ; after firing is complete, removing the insert . providing at green-state refractory-material structure comprising least a portion of a body of a microfluidic module; providing a removeable insert formed of graphite , an external surface of the insert comprising a negative surface of a desired surface to be formed in the microfluidic module; machining an opening in the green-state structure ; positioning the insert in the opening ; firing the green-state structure and the insert together ; after firing is complete, removing the insert .
An apparatus for treating horticultural products, such as blueberries and the like, comprising in series at least one station for loading the horticultural products (A), at least one preliminary checking station , at least one alignment station , for their subsequent advancement aligned on at least one row, at least one viewing station , for acquiring information related to at least one parameter of interest of each horticultural product (A), such as the color, size, shape, sugar content, defectiveness, and the like, at least one distribution station , for sorting the products (A) into uniform subgroups, as a function of the information acquired by said viewing station , and at least one recirculation apparatus, for returning, at least to said viewing station , any horticultural products (A) that have not been sorted by said distribution station , characterized in that said recirculation apparatus comprises at least one conveyor belt , which is functionally arranged downstream of said distribution station and leads even indirectly to said viewing station , said apparatus comprising at least one sensor for detecting the transit of horticultural products (A) above and at a predefined height, with respect to said conveyor belt , said height being chosen so as to correspond to a predefined limit value of products (A) that have accumulated and are passing on said conveyor belt .
An imaging system, comprising: at least one storage medium including a set of instructions; and at least one processor in communication with the storage medium, wherein when executing the set of instructions, the at least one processor is directed to perform operations including: determining a first remaining power based on a maximum power of a camera and a working power of the camera ; determining whether an operation condition of a first load is satisfied based on the first remaining power; and in response to a determination that the operation condition of the first load is satisfied, enabling the first load; characterized in that the first load is a fill flash and the determining whether the operation condition of the first load is satisfied includes: obtaining a mapping relation between a duty ratio of the fill flash and a consumed power of the fill flash; determining a maximum duty ratio of the fill flash based on the mapping relation and the first remaining power; determining whether the maximum duty ratio of the fill flash exceeds a duty ratio threshold; and in response to a determination that the maximum duty ratio exceeds the duty ratio threshold, determining that the operation condition of the first load is satisfied. at least one storage medium including a set of instructions; and at least one processor in communication with the storage medium, wherein when executing the set of instructions, the at least one processor is directed to perform operations including: determining a first remaining power based on a maximum power of a camera and a working power of the camera ; determining whether an operation condition of a first load is satisfied based on the first remaining power; and determining a first remaining power based on a maximum power of a camera and a working power of the camera ; determining whether an operation condition of a first load is satisfied based on the first remaining power; and in response to a determination that the operation condition of the first load is satisfied, enabling the first load; characterized in that the first load is a fill flash and the determining whether the operation condition of the first load is satisfied includes: obtaining a mapping relation between a duty ratio of the fill flash and a consumed power of the fill flash; determining a maximum duty ratio of the fill flash based on the mapping relation and the first remaining power; determining whether the maximum duty ratio of the fill flash exceeds a duty ratio threshold; and in response to a determination that the maximum duty ratio exceeds the duty ratio threshold, determining that the operation condition of the first load is satisfied. obtaining a mapping relation between a duty ratio of the fill flash and a consumed power of the fill flash; determining a maximum duty ratio of the fill flash based on the mapping relation and the first remaining power; determining whether the maximum duty ratio of the fill flash exceeds a duty ratio threshold; and in response to a determination that the maximum duty ratio exceeds the duty ratio threshold, determining that the operation condition of the first load is satisfied.
A process to form a polyester resin container from a preform comprising an opening, preferably at the level of a neck, utilizing a step of expansion carried out with a cavity or a mould, wherein during said expansion step, an incompressible fluid is injected through the opening of said preform to form said container; the preform being made of an improved polyester resin comprising a crystallizable polyester polymer wherein the polyester polymer is comprised of acid moieties and glycol moieties, with at least 85% of the total moles of acid moieties being terephthalate derived from terephthalic acid or its dimethyl ester and at least 85% of the total moles of glycol moieties derived from ethylene glycol and with at least 2 % of the total moles of acid plus glycol moieties derived from a primary comonomer with the mole percents of the acid plus glycol moieties totaling 100 mole %, wherein the crystallizable polyester has a melting temperature in the range of 235°C to 242°C and a glass transition temperature in the range of 60°C to 73°C.
An apparatus for providing therapy to a patient to reduce a work of breathing comprising: an oral interface adapted to provide sealed communication to the patient's oral cavity and to direct a flow of gas through a teeth engaging portion and towards the sides of the oral cavity, where the air is released; a breathable gas source to provide a supply of pressurized breathable gas to the oral interface ; and a controller configured to control the delivery of the supply of pressurized breathable gas to the oral interface for release inside the oral cavity at the end of the patient's expiratory phase of a respiratory cycle to wash out carbon dioxide in the patient's oral and/or nasal cavities . an oral interface adapted to provide sealed communication to the patient's oral cavity and to direct a flow of gas through a teeth engaging portion and towards the sides of the oral cavity, where the air is released; a breathable gas source to provide a supply of pressurized breathable gas to the oral interface ; and a controller configured to control the delivery of the supply of pressurized breathable gas to the oral interface for release inside the oral cavity at the end of the patient's expiratory phase of a respiratory cycle to wash out carbon dioxide in the patient's oral and/or nasal cavities .
A Multi-Functional Peripheral comprising: a processor comprising a plurality of cores that share an internal Random Access Memory (RAM) of the processor, wherein each of the plurality of cores (1 CR) is different in computing performance; a first estimating portion configured to estimate a processing capability of each of the cores ; a second estimating portion configured to estimate, based on the processing capability of each of the plurality of cores , a required time for each of the plurality of cores to perform a specific process executable by the plurality of cores ; a third estimating portion configured to estimate a load required to perform the specific process; and a controller , wherein the second estimating portion is further configured to select from the plurality of cores one or more candidate cores , the required time for each of the one or more candidate cores being equal to or smaller than a threshold, and to select from the one or more candidate cores (1 CR) a core that performs the specific process for which the required time is longest, and the controller is configured to control the selected core to perform the specific process, and the second estimating portion estimates the required time further based on the load. a processor comprising a plurality of cores that share an internal Random Access Memory (RAM) of the processor, wherein each of the plurality of cores (1 CR) is different in computing performance; a first estimating portion configured to estimate a processing capability of each of the cores ; a second estimating portion configured to estimate, based on the processing capability of each of the plurality of cores , a required time for each of the plurality of cores to perform a specific process executable by the plurality of cores ; a third estimating portion configured to estimate a load required to perform the specific process; and a controller , wherein the second estimating portion is further configured to select from the plurality of cores one or more candidate cores , the required time for each of the one or more candidate cores being equal to or smaller than a threshold, and to select from the one or more candidate cores (1 CR) a core that performs the specific process for which the required time is longest, and the controller is configured to control the selected core to perform the specific process, and the second estimating portion estimates the required time further based on the load.
A control unit for a heavy duty vehicle , the vehicle comprising an electric machine connected to first and second driven wheels via a differential , the control unit comprising a first wheel slip control module associated with the first driven wheel, and a second wheel slip control module associated with the second driven wheel, where each wheel slip control module is arranged to determine an obtainable torque (T 1 , T 2 ) by the respective wheel, wherein the control unit is arranged to determine a required torque (T req ) to satisfy a requested acceleration profile (a req ) by the vehicle , and to request a torque (T EM ) from the electrical machine corresponding to the smallest torque out of the obtainable torques (T 1 , T 2 ) for each driven wheel and the required torque (T req ), characterized in that each wheel slip control module is arranged to determine the obtainable torque (T 1 , T 2 ) by the respective wheel based on a comparison between a current wheel slip and a configurable wheel slip limit ( λ LIM ) .
An adhesive article comprising a pressure-sensitive adhesive layer having first and second opposed major surfaces, wherein a first release liner is releasably adhered to the first major surface, and wherein the first release liner comprises a first thermoplastic polymer and a first release agent represented by the formula: wherein each R 1 represents a hydrocarbylene group having from 2 to 40 carbon atoms; each R f independently represents a perfluorinated alkyl group of having 3 to 5 carbon atoms; and each X 1 is -NH- or a covalent bond. each R 1 represents a hydrocarbylene group having from 2 to 40 carbon atoms; each R f independently represents a perfluorinated alkyl group of having 3 to 5 carbon atoms; and each X 1 is -NH- or a covalent bond.
A side-emitting optical waveguide , comprising a core with at least one inner core extending therein, and a transparent cladding surrounding the core , wherein said core and said cladding are formed from transparent plastics material, with the core having a higher refractive index than the cladding , and with the inner core being adapted to deflect light, in particular to reflect or scatter light, in order to scatter light that is carried in the optical waveguide and to emit it to the outside through the cladding ; characterized in that the scattering length of the inner core is at most twice the maximum cross dimension of the inner core , the scattering length being defined as the length at which, due to the scattering, the initial intensity of the light in the direction of irradiation has dropped to a factor of 1/e; and wherein the inner core comprises light-scattering elements and extends centrally through the core , so that the light-scattering elements of the inner core are arranged in a concentrated fashion in a discrete area within the core at least partially or in sections thereof.
Smoke detection device for detecting smoke from a fire in a monitoring area , having a camera interface for accepting an image sequence having temporally successive individual images from a monitoring camera , wherein the individual images show the monitoring area , having an evaluation device for determining at least one moving object in the monitoring area , wherein the evaluation device is designed to determine a movement of the at least one moving object from at least two individual images in the image sequence , having a filter device for distinguishing the moving object as smoke or a non-smoke object on the basis of the movement of the moving object, characterized in that the evaluation device comprises a speed measuring unit for determining a speed v F of the average optical flow of the moving object and for determining a speed v G of a contour area of the moving object, wherein the filter device comprises a comparison unit , wherein the comparison unit is designed to detect the moving object as smoke if v G < v F and/or to detect the moving object as a non-smoke object if v G >= v F .
A computer implemented method for scoring in real time at least two neural signals of a subject with respect to a reference state characterized by k=1...K reference covariance matrices, the method comprising the following steps: i. obtaining the at least two neural signals from the subject; ii. filtering the at least two neural signals in at least two frequency bands; iii. concatenating the at least two filtered signals; iv. computing a spatiofrequential covariance matrix of said at least two filtered neural signals; v. computing Riemannian distances d k between said spatiofrequential covariance matrix and k=1...K reference covariance matrices; characterised in that the method further comprises: vi. computing of a real time score s continuous, bounded between two predetermined values, and based on at least one of the distances d k computed in step v; wherein the score s is further function of at least one distance d r obtained as follows: - obtaining r=1...R baseline covariance matrices which are characteristic of a baseline state; - computing the Riemannian distances d r between at least one of said baseline covariance matrices, for r=1...R, and the k=1...K reference covariance matrices. i. obtaining the at least two neural signals from the subject; ii. filtering the at least two neural signals in at least two frequency bands; iii. concatenating the at least two filtered signals; iv. computing a spatiofrequential covariance matrix of said at least two filtered neural signals; v. computing Riemannian distances d k between said spatiofrequential covariance matrix and k=1...K reference covariance matrices; vi. computing of a real time score s continuous, bounded between two predetermined values, and based on at least one of the distances d k computed in step v; wherein the score s is further function of at least one distance d r obtained as follows: - obtaining r=1...R baseline covariance matrices which are characteristic of a baseline state; - computing the Riemannian distances d r between at least one of said baseline covariance matrices, for r=1...R, and the k=1...K reference covariance matrices. - obtaining r=1...R baseline covariance matrices which are characteristic of a baseline state; - computing the Riemannian distances d r between at least one of said baseline covariance matrices, for r=1...R, and the k=1...K reference covariance matrices.
A zoom lens comprising, in order from an object side to an image side: a first lens unit (L1) having a positive refractive power; a second lens unit (L2) having a negative refractive power; a third lens unit (L3) having a positive refractive power; and a rear lens group that has one or more lens units, wherein spacings between lens units adjacent to each other change during zooming, wherein at least of a part of the second lens unit (L2) constitutes a first correction lens system that is rotatable about a first center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein at least of a part of an optical system disposed on the image side of the second lens unit (L2) constitutes a second correction lens system that is rotatable about a second center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein the first center of rotation (A) is positioned on the image side of a surface vertex of a lens surface of the first correction lens system closest to the object side, and wherein the second center of rotation (B) is positioned on the image side of a surface vertex of a lens surface of the second correction lens system closest to the object side. a first lens unit (L1) having a positive refractive power; a second lens unit (L2) having a negative refractive power; a third lens unit (L3) having a positive refractive power; and a rear lens group that has one or more lens units, wherein spacings between lens units adjacent to each other change during zooming, wherein at least of a part of the second lens unit (L2) constitutes a first correction lens system that is rotatable about a first center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein at least of a part of an optical system disposed on the image side of the second lens unit (L2) constitutes a second correction lens system that is rotatable about a second center of rotation, which is one point on an optical axis or in the vicinity of the optical axis, during image blur correction, wherein the first center of rotation (A) is positioned on the image side of a surface vertex of a lens surface of the first correction lens system closest to the object side, and wherein the second center of rotation (B) is positioned on the image side of a surface vertex of a lens surface of the second correction lens system closest to the object side.