mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: providing , by one or more computing devices an application programming interface (API) for processing imagery using one or more machine learning (ML) models to identify imagery determined to be suitable for one or more different and distinct uses; receiving , by the one or more computing devices , from a requesting application, and via the API, data describing imagery comprising a plurality of different and distinct frames for processing using the one or more ML models; determining , by the one or more computing devices , based at least in part on the one or more ML models and the data describing the imagery, and for each frame of the plurality of different and distinct frames, one or more scores for the frame, each score of the one or more scores indicating a determined measure of suitability of the frame with respect to a use of the one or more different and distinct uses; and communicating , by the one or more computing devices , to the requesting application, and via the API, data indicating, for each frame of one or more frames of the plurality of different and distinct frames, at least one of the one or more scores for the frame. providing , by one or more computing devices an application programming interface (API) for processing imagery using one or more machine learning (ML) models to identify imagery determined to be suitable for one or more different and distinct uses; receiving , by the one or more computing devices , from a requesting application, and via the API, data describing imagery comprising a plurality of different and distinct frames for processing using the one or more ML models; determining , by the one or more computing devices , based at least in part on the one or more ML models and the data describing the imagery, and for each frame of the plurality of different and distinct frames, one or more scores for the frame, each score of the one or more scores indicating a determined measure of suitability of the frame with respect to a use of the one or more different and distinct uses; and communicating , by the one or more computing devices , to the requesting application, and via the API, data indicating, for each frame of one or more frames of the plurality of different and distinct frames, at least one of the one or more scores for the frame.
A device for determining brain oxygen level and/or monitoring a brain hematoma in a subject, comprising: a probe comprising a first, a second, and a third light sources configured to respectively emit a first, a second, and a third near infrared (NIR) wavelengths across the brain of the subject, wherein the first, second and third NIR wavelengths are respectively about 790-810 nm, 650-790 nm, and 810-1,000 nm; a detecting means comprising a first, a second, and a third NIR detectors , wherein each of the NIR detectors is configured to respectively measure the first, the second, and the third intensities of the first, second, and third NIR wavelengths after being transmitted across the brain of the subject; a processor coupled to the probe and the detecting means , and is configured to determine the brain oxygen level or analyze the brain hematoma based on the first, second, and third intensities detected by the detecting means , and a headset ; characterized in that the probe is configured to respectively emit a first, a second, and a third near infrared (NIR) wavelengths across the brain of the subject simultaneously; the probe and the detecting means are mounted on the headset , such that the probe and the detecting means are spaced apart by 180 degrees; and the device further comprises a driving means disposed on the headset and coupled to the probe and the detecting means for driving the probe and the detecting means to move on the headset synchronously in circular motion. a probe comprising a first, a second, and a third light sources configured to respectively emit a first, a second, and a third near infrared (NIR) wavelengths across the brain of the subject, wherein the first, second and third NIR wavelengths are respectively about 790-810 nm, 650-790 nm, and 810-1,000 nm; a detecting means comprising a first, a second, and a third NIR detectors , wherein each of the NIR detectors is configured to respectively measure the first, the second, and the third intensities of the first, second, and third NIR wavelengths after being transmitted across the brain of the subject; a processor coupled to the probe and the detecting means , and is configured to determine the brain oxygen level or analyze the brain hematoma based on the first, second, and third intensities detected by the detecting means , and a headset ; characterized in that the probe is configured to respectively emit a first, a second, and a third near infrared (NIR) wavelengths across the brain of the subject simultaneously; the probe and the detecting means are mounted on the headset , such that the probe and the detecting means are spaced apart by 180 degrees; and the device further comprises a driving means disposed on the headset and coupled to the probe and the detecting means for driving the probe and the detecting means to move on the headset synchronously in circular motion.
A scraper sponge for cleaning and scraping away unwanted substances from an object or surface comprising a sponge body defining a first surface , first layer , second layer , third layer , second surface opposite the first surface , a continuous side surface around the perimeter; and the back of a scraper secured to the first layer opposite the first surface and the scraper defined by the first layer and a circular aperture through and approximately in the middle of the second layer , third layer and second surface of the sponge body , wherein entire surface area of the scraper , on its front surface, is covered with pyramid shaped edges extending outwardly in the direction of the second surface of the sponge body and is made level with the second surface of the sponge body when forces are applied to the first surface and subsequent back of scraper to manipulate the rigid scraper on a hard surface.
A tissue protecting device for use in treatment of congestive heart failure comprising: a control mechanism ; an elongate shaft having a proximal end and a distal end, the proximal end being coupled with the control mechanism and the elongate shaft being insertable within a body so that the distal end of the elongate shaft is advancable distally of a front wall of the heart while the control mechanism is positioned outside of the body; and wherein the tissue protecting device comprises a protective plate pivotably coupled with the distal end of the elongate shaft , the protective plate having a relatively wide and thin body portion and being wider than the elongate shaft , characterised in that the protective plate is advanceable distally of a rear wall of the heart and pivotable, from a first position in which a first plane that is roughly aligned with the protective plate's main body is aligned with the axis of the elongate shaft by forming a small angle of less than 20 degrees with the axis , to a second position in which the body portion of the protective plate is angled relative to the axis of the elongate shaft by an angle with the axis of more than 20 degrees, by operation of the control mechanism so as to position the protective plate adjacent the rear wall of the heart to shield body organs or tissue surrounding the rear wall from being damaged by surgical instruments inserted through the rear wall a control mechanism ; an elongate shaft having a proximal end and a distal end, the proximal end being coupled with the control mechanism and the elongate shaft being insertable within a body so that the distal end of the elongate shaft is advancable distally of a front wall of the heart while the control mechanism is positioned outside of the body; and wherein the tissue protecting device comprises a protective plate pivotably coupled with the distal end of the elongate shaft , the protective plate having a relatively wide and thin body portion and being wider than the elongate shaft , characterised in that the protective plate is advanceable distally of a rear wall of the heart and pivotable, from a first position in which a first plane that is roughly aligned with the protective plate's main body is aligned with the axis of the elongate shaft by forming a small angle of less than 20 degrees with the axis , to a second position in which the body portion of the protective plate is angled relative to the axis of the elongate shaft by an angle with the axis of more than 20 degrees, by operation of the control mechanism so as to position the protective plate adjacent the rear wall of the heart to shield body organs or tissue surrounding the rear wall from being damaged by surgical instruments inserted through the rear wall
A variable exhaust nozzle for a jet engine , comprising a fixed structure , a plurality of flap means circumferentially arranged about and extending along a central axis of the fixed structure and being pivotally connectable to the fixed structure , and actuator means being arranged to actuate said flap means for variation of the nozzles cross sectional area between a first position and a second position, the cross sectional area being the area inside the nozzle defined by said flap means , the respective flap means comprises first flap means and second flap means each comprising a sliding surface arranged in continuous contact with adjacent flap means during said variation, such that a first flap means always will overlie two adjacent second flap means , each actuator means comprises two sliding surfaces , which are angularly arranged to each other with an angle (α), characterized in that said cross sectional area is hexagonal or pentagonal and asymmetric, or squared, symmetric and has equal angles, or rectangular, symmetric and has equal angles, or triangular, symmetric and has equal angles. the respective flap means comprises first flap means and second flap means each comprising a sliding surface arranged in continuous contact with adjacent flap means during said variation, such that a first flap means always will overlie two adjacent second flap means , each actuator means comprises two sliding surfaces , which are angularly arranged to each other with an angle (α), characterized in that said cross sectional area is hexagonal or pentagonal and asymmetric, or squared, symmetric and has equal angles, or rectangular, symmetric and has equal angles, or triangular, symmetric and has equal angles.
Motor vehicle fuel storage system comprising: - a fuel tank , - a canister fluidically connected to the fuel tank and configured to receive a mixture of air and hydrocarbon vapours from the fuel tank , - at least one separation unit fluidically connected to the canister and the fuel tank , the separation unit being configured to receive the mixture of air and hydrocarbon vapours from the canister and to separate said mixture into a hydrocarbon-rich fraction and a hydrocarbon-poor fraction, the hydrocarbon-rich fraction being sent to the fuel tank , - means of return of the hydrocarbon-poor fraction to the canister , - a purge pump of the canister arranged between the canister and the separation unit , - at least one solenoid valve arranged between the purge pump and the separation unit , characterised in that said at least one solenoid valve is configured to selectively send the mixture of air and hydrocarbon vapours either to the separation unit or directly to the fuel tank . - a fuel tank , - a canister fluidically connected to the fuel tank and configured to receive a mixture of air and hydrocarbon vapours from the fuel tank , - at least one separation unit fluidically connected to the canister and the fuel tank , the separation unit being configured to receive the mixture of air and hydrocarbon vapours from the canister and to separate said mixture into a hydrocarbon-rich fraction and a hydrocarbon-poor fraction, the hydrocarbon-rich fraction being sent to the fuel tank , - means of return of the hydrocarbon-poor fraction to the canister , - a purge pump of the canister arranged between the canister and the separation unit , - at least one solenoid valve arranged between the purge pump and the separation unit , characterised in that said at least one solenoid valve is configured to selectively send the mixture of air and hydrocarbon vapours either to the separation unit or directly to the fuel tank .
A process on solid support for the preparation of the cRGD-Cy5.5 conjugate of formula (I) which comprises the steps of: a) synthesising a tripeptide of formula (II) on a solid support wherein P 1 and P 2 are suitable protecting groups and S is the solid support; b) coupling of the tripeptide of formula (II) linked to the solid support with an aza-bicycloalkane of formula (III) wherein P 3 is a suitable protecting group, to provide a compound of formula (IV) wherein P 1 , P 2 , P 3 and S are as defined above; c) removing the protecting groups P 2 and P 3 from compound (IV) to provide a compound of formula (V) wherein P 1 and S are as defined above; d) performing an intramolecular cyclization to provide a compound of formula (VI) wherein P 1 and S are as defined above; e) subjecting the resulting compound of formula (VI) to a reduction reaction to provide a corresponding amino-derivative of formula (VII) wherein P 1 and S are as defined above; f) conjugating of the resulting compound of formula (VII) with a compound of formula (VIII) to obtain a compound of formula (IX) wherein P 1 and S are ad defined above; g) removing the protecting group P 1 and cleavaging the peptido-like compound (IX) from the solid support S to obtain the compound of formula (I) as defined above. a) synthesising a tripeptide of formula (II) on a solid support wherein P 1 and P 2 are suitable protecting groups and S is the solid support; b) coupling of the tripeptide of formula (II) linked to the solid support with an aza-bicycloalkane of formula (III) wherein P 3 is a suitable protecting group, to provide a compound of formula (IV) wherein P 1 , P 2 , P 3 and S are as defined above; c) removing the protecting groups P 2 and P 3 from compound (IV) to provide a compound of formula (V) wherein P 1 and S are as defined above; d) performing an intramolecular cyclization to provide a compound of formula (VI) wherein P 1 and S are as defined above; e) subjecting the resulting compound of formula (VI) to a reduction reaction to provide a corresponding amino-derivative of formula (VII) wherein P 1 and S are as defined above; f) conjugating of the resulting compound of formula (VII) with a compound of formula (VIII) to obtain a compound of formula (IX) wherein P 1 and S are ad defined above; g) removing the protecting group P 1 and cleavaging the peptido-like compound (IX) from the solid support S to obtain the compound of formula (I) as defined above.
A system for use in a subsea operation, comprising: a wellhead having an internal wellhead passage ; a subsea tree system having an internal passage , the subsea tree system being sealably coupled with the wellhead via a seal ; and an isolation sleeve extending from the internal passage of the subsea tree system into the internal wellhead passage to facilitate pressure testing of the seal , the isolation sleeve comprising: a mandrel formed as a single, continuous structure having an internal mandrel passage ; a lower seal positioned along an exterior of the mandrel for sealing engagement with the wellhead ; an upper seal positioned along the exterior of the mandrel for sealing engagement with the subsea tree system ; and characterised in that a retention nut with an external thread is rotatably mounted on the exterior of the mandrel between the upper seal and the lower seal , and the retention nut is threadably engaged with a corresponding thread located along the internal passage of the subsea tree system . a wellhead having an internal wellhead passage ; a subsea tree system having an internal passage , the subsea tree system being sealably coupled with the wellhead via a seal ; and an isolation sleeve extending from the internal passage of the subsea tree system into the internal wellhead passage to facilitate pressure testing of the seal , the isolation sleeve comprising: a mandrel formed as a single, continuous structure having an internal mandrel passage ; a lower seal positioned along an exterior of the mandrel for sealing engagement with the wellhead ; an upper seal positioned along the exterior of the mandrel for sealing engagement with the subsea tree system ; and a mandrel formed as a single, continuous structure having an internal mandrel passage ; a lower seal positioned along an exterior of the mandrel for sealing engagement with the wellhead ; an upper seal positioned along the exterior of the mandrel for sealing engagement with the subsea tree system ; and characterised in that a retention nut with an external thread is rotatably mounted on the exterior of the mandrel between the upper seal and the lower seal , and the retention nut is threadably engaged with a corresponding thread located along the internal passage of the subsea tree system .
A method for manufacturing an absorbent core (C) of a disposable wearable article, wherein the method uses a feed device , a first drum , and a second drum , the feed device feeds crushed fiber (F), the first drum is provided with a first area (α1), where the crushed fiber (F) is sucked and made to cling to an outer circumferential portion of the first drum and stacked, and the second drum is provided with a second area (α2), where the crushed fiber (F) is sucked and made to cling to an outer circumferential portion of the second drum and stacked, the second area (α2) being smaller than the first area (α1), the first area (α1) of the first drum is continuously provided in the circumferential direction (R) of the first drum , and the second area (α2) of the second drum is intermittently provided at regular intervals in the circumferential direction (R) of the second drum ; wherein the method comprises: a step of forming a thick portion (C2) on the second area (α2) of the second drum by stacking the fiber (F) fed from the feed device ; a step of transferring the thick portion (C2) to a predetermined position in the first area (α1); and a step of forming a thin portion (C1) on the first area (α1) of the first drum by stacking the fiber (F) fed from the feed device around the transferred thick portion (C2) with the transferred thick portion (C2) placed on the first area (α1). wherein the method uses a feed device , a first drum , and a second drum , the feed device feeds crushed fiber (F), the first drum is provided with a first area (α1), where the crushed fiber (F) is sucked and made to cling to an outer circumferential portion of the first drum and stacked, and the second drum is provided with a second area (α2), where the crushed fiber (F) is sucked and made to cling to an outer circumferential portion of the second drum and stacked, the second area (α2) being smaller than the first area (α1), the first area (α1) of the first drum is continuously provided in the circumferential direction (R) of the first drum , and the second area (α2) of the second drum is intermittently provided at regular intervals in the circumferential direction (R) of the second drum ; wherein the method comprises: a step of forming a thick portion (C2) on the second area (α2) of the second drum by stacking the fiber (F) fed from the feed device ; a step of transferring the thick portion (C2) to a predetermined position in the first area (α1); and a step of forming a thin portion (C1) on the first area (α1) of the first drum by stacking the fiber (F) fed from the feed device around the transferred thick portion (C2) with the transferred thick portion (C2) placed on the first area (α1). a step of forming a thick portion (C2) on the second area (α2) of the second drum by stacking the fiber (F) fed from the feed device ; a step of transferring the thick portion (C2) to a predetermined position in the first area (α1); and a step of forming a thin portion (C1) on the first area (α1) of the first drum by stacking the fiber (F) fed from the feed device around the transferred thick portion (C2) with the transferred thick portion (C2) placed on the first area (α1).
A method of ablation of a metal-ceramic substrate, characterized in that the method is carried out with a laser that is used under process conditions in which the formation of solid metal particles on the metal-ceramic substrate, which can separate from metal particles released by laser ablation near the ablation edge, is essentially avoided, characterized in that the laser used is a p-sec laser with a relationship between the laser power (W) and the maximal processing speed of the laser (m/sec) which corresponds to the following formula : y ≤ 4,7 ln x − 15 with x = laser power in W; and y = effective laser processing speed in m/sec. x = laser power in W; and y = effective laser processing speed in m/sec.
Method for mounting a compressor and a gas turbine of a first design at a position of an existing power plant , at which position a compressor and a gas turbine of a second design were previously mounted on a foundation specifically designed for this second design, wherein the designs differ from each other at least in terms of the position and/or the number of anchoring points, at which the compressor and the gas turbine are connected directly and/or via supporting structures to the foundation, wherein the new compressor and the new gas turbine are mounted on the existing foundation using an adapter construction , wherein the existing foundation has a plurality of upwardly projecting foundation blocks , and in that the adapter construction comprises a number of metallic base plates corresponding to the number of foundation blocks , on the top side of which structures are positioned, which structures define anchoring points for the new compressor and/or for the new gas turbine and/or for supporting structures for the new compressor and/or the new gas turbine , wherein the base plates are each positioned on one of the foundation blocks and are fastened to it. for mounting a compressor and a gas turbine of a first design at a position of an existing power plant , at which position a compressor and a gas turbine of a second design were previously mounted on a foundation specifically designed for this second design, wherein the designs differ from each other at least in terms of the position and/or the number of anchoring points, at which the compressor and the gas turbine are connected directly and/or via supporting structures to the foundation, wherein the new compressor and the new gas turbine are mounted on the existing foundation using an adapter construction , wherein the existing foundation has a plurality of upwardly projecting foundation blocks , and in that the adapter construction comprises a number of metallic base plates corresponding to the number of foundation blocks , on the top side of which structures are positioned, which structures define anchoring points for the new compressor and/or for the new gas turbine and/or for supporting structures for the new compressor and/or the new gas turbine , wherein the base plates are each positioned on one of the foundation blocks and are fastened to it.