mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a presence of an object located in close proximity to a lens through which an image capturing device monitors a scene, the method comprising: activating a first infrared illumination source arranged to illuminate the scene from a first angle; acquiring, by the image capturing device , a first image through the lens; deactivating the first infrared illumination source , and activating a second infrared illumination source arranged to illuminate the scene from a second angle; acquiring, by the image capturing device , a second image through the lens; and comparing intensity information of the first image and the second image to determine the presence of an object located in close proximity to the lens wherein comparing intensity information includes: compensating for overall intensity differences between the first image and the second image ; determining whether any local intensity differences remain; and in response to a positive determination that there are local intensity differences, providing an indication of the presence of an object located in close proximity to the lens. activating a first infrared illumination source arranged to illuminate the scene from a first angle; acquiring, by the image capturing device , a first image through the lens; deactivating the first infrared illumination source , and activating a second infrared illumination source arranged to illuminate the scene from a second angle; acquiring, by the image capturing device , a second image through the lens; and comparing intensity information of the first image and the second image to determine the presence of an object located in close proximity to the lens wherein comparing intensity information includes: compensating for overall intensity differences between the first image and the second image ; determining whether any local intensity differences remain; and in response to a positive determination that there are local intensity differences, providing an indication of the presence of an object located in close proximity to the lens. compensating for overall intensity differences between the first image and the second image ; determining whether any local intensity differences remain; and in response to a positive determination that there are local intensity differences, providing an indication of the presence of an object located in close proximity to the lens.
Turbomachine comprising a rotor and a support casing for the rotor , the casing comprising: - an outer annular wall with an inner annular surface ; - an inner hub able to support the rotor of the axial turbomachine and comprising an outer annular surface ; - an annular passage between the annular wall and the inner hub ; - an annular row of struts passing radially through the annular passage ; characterized in that the annular row comprises a first strut with a plurality of orifices arranged in the annular passage radially aligned with the outer annular surfaces and axially within the downstream third of the strut and a plurality of orifices arranged in the annular passage radially aligned with the inner annular surfaces and axially within the downstream third of the strut . - an outer annular wall with an inner annular surface ; - an inner hub able to support the rotor of the axial turbomachine and comprising an outer annular surface ; - an annular passage between the annular wall and the inner hub ; - an annular row of struts passing radially through the annular passage ;
A preparation method of a nitride/graphitized carbon nanosheet-coated ternary positive electrode material, wherein graphitized carbon is formed in situ in the coating process of the nitride including the following steps: providing ternary positive electrode material matrix; the coating element is coated on the surface of the ternary positive electrode material matrix by wet coating to obtain an intermediate product; wherein the coating element is one or more of Al, Si, Ti, Zr, Ta, Nb; the intermediate product is mixed with a carbonaceous and nitrogenous compound evenly, and the nitride/graphitized carbon nanosheet-coated ternary positive electrode material is obtained after sintering, pulvering, sieving and iron removal; wherein the sintering is carried out under the protection of inert gas. providing ternary positive electrode material matrix; the coating element is coated on the surface of the ternary positive electrode material matrix by wet coating to obtain an intermediate product; wherein the coating element is one or more of Al, Si, Ti, Zr, Ta, Nb; the intermediate product is mixed with a carbonaceous and nitrogenous compound evenly, and the nitride/graphitized carbon nanosheet-coated ternary positive electrode material is obtained after sintering, pulvering, sieving and iron removal; wherein the sintering is carried out under the protection of inert gas.
A workpiece placement platform device comprising: an X-axis direction positioning member provided on one side of a placement platform on which to place a plate-shaped workpiece (W) and configured to position one side edge of the workpiece (W) in an X-axis direction by contacting the one side edge; a Y-axis direction positioning member provided on another side of the placement platform and configured to position another side edge of the workpiece (W) in a Y-axis direction by contacting the another side edge; an in-out member that is provided on the one side or the another side of the placement platform and that is movable in and out relative to the workpiece placement surface ; and a workpiece positioning member that is provided to the in-out member and configured to partition the workpiece placement surface into sections in the X-axis direction or the Y-axis direction, the workpiece placement platform device being characterized in that the workpiece positioning member is capable of being laid down and is capable of positioning the one side edge or the another side edge of the workpiece (W) by contacting the one side edge or the another side edge. an X-axis direction positioning member provided on one side of a placement platform on which to place a plate-shaped workpiece (W) and configured to position one side edge of the workpiece (W) in an X-axis direction by contacting the one side edge; a Y-axis direction positioning member provided on another side of the placement platform and configured to position another side edge of the workpiece (W) in a Y-axis direction by contacting the another side edge; an in-out member that is provided on the one side or the another side of the placement platform and that is movable in and out relative to the workpiece placement surface ; and a workpiece positioning member that is provided to the in-out member and configured to partition the workpiece placement surface into sections in the X-axis direction or the Y-axis direction,
A method of manufacturing an ink sensing lead frame assembly carrying an integrated circuit assembly configured to perform the ink sensing, the method comprising: encapsulating a first circuit component and a first portion of a trace array of a pre-molded lead frame for the integrated circuit assembly by a first insert molding component , wherein the trace array connects the first circuit component to a second circuit component of the pre-molded lead frame and wherein the first insert molding component electrically isolates traces in the trace array to prevent an electrical short in the trace array ; and encapsulating a second portion of the trace array by a second insert molding component , wherein the second portion of the trace array is left exposed by the first insert molding component . encapsulating a first circuit component and a first portion of a trace array of a pre-molded lead frame for the integrated circuit assembly by a first insert molding component , wherein the trace array connects the first circuit component to a second circuit component of the pre-molded lead frame and wherein the first insert molding component electrically isolates traces in the trace array to prevent an electrical short in the trace array ; and encapsulating a second portion of the trace array by a second insert molding component , wherein the second portion of the trace array is left exposed by the first insert molding component .
A travelling cable support arrangement of an elevator comprising: at least two travelling cables , a guide rail extending from a pit floor (PF) at least to a middle (MS) of an elevator shaft , an intermediate fixing point (F3) positioned in connection with the guide rail , the at least two travelling cables being fixedly attached in said intermediate fixing point (F3), a travelling cable keeper being movably supported on the guide rail so that the travelling cable keeper is movable upwards and downwards along the guide rail , the at least two travelling cables being movably supported in support points (S1, S2, S3, S4, S5) on the travelling cable keeper , a path of the at least two travelling cables through the support points (S1, S2, S3, S4, S5) in the travelling cable keeper being curved, the at least two travelling cables being movable through the support points (S1, S2, S3, S4, S5), the travelling cable keeper comprising a frame formed of two frame halves and a support part being movably supported on the guide rail , each support point (S1, S2, S3, S4, S5) being formed of a group of roller elements or gliding elements, characterized in that each group comprises at least three roller elements or gliding elements positioned at a distance from each other in a radial direction of the curved path of the at least two travelling cables through the support points, each roller element or gliding element extending between the two frame halves , the curved path of each travelling cable passing between a pair of roller elements or gliding elements in the group of roller elements or gliding elements. at least two travelling cables , a guide rail extending from a pit floor (PF) at least to a middle (MS) of an elevator shaft , an intermediate fixing point (F3) positioned in connection with the guide rail , the at least two travelling cables being fixedly attached in said intermediate fixing point (F3), a travelling cable keeper being movably supported on the guide rail so that the travelling cable keeper is movable upwards and downwards along the guide rail , the at least two travelling cables being movably supported in support points (S1, S2, S3, S4, S5) on the travelling cable keeper , a path of the at least two travelling cables through the support points (S1, S2, S3, S4, S5) in the travelling cable keeper being curved, the at least two travelling cables being movable through the support points (S1, S2, S3, S4, S5), the travelling cable keeper comprising a frame formed of two frame halves and a support part being movably supported on the guide rail , each support point (S1, S2, S3, S4, S5) being formed of a group of roller elements or gliding elements, characterized in that each group comprises at least three roller elements or gliding elements positioned at a distance from each other in a radial direction of the curved path of the at least two travelling cables through the support points, each roller element or gliding element extending between the two frame halves , the curved path of each travelling cable passing between a pair of roller elements or gliding elements in the group of roller elements or gliding elements.
A method for cleaning a spinning rotor of a spinning device of an open-end spinning machine, in which at least one cleaning measure (RM) is carried out on the spinning rotor with the aid of a pneumatic and/or a mechanical cleaning device , wherein settings (E), with the aid of which the at least one cleaning measure (RM) is carried out, are specified by a control unit of the open-end spinning machine, characterized in that various parameters (P) are stored in a memory bank , wherein the parameters (P) include one or multiple operating parameters of the spinning device , wherein the parameters (P) include a type (KPA) of a conduit plate adapter and/or a type (RT) of the spinning rotor , that previously empirically determined settings (E) for carrying out the cleaning measure (RM), which are suitable for the particular parameters (P), and/or rules (R) for determining settings (E) which are suitable for the particular parameters (P) are stored, wherein a drive serves for opening a cover element of the spinning device and the settings (E) of the cleaning device include at least an opening angle (ÖW) of the cover element of the spinning device and that the settings (E) for carrying out the at least one cleaning measure (RM) are automatically determined by the control unit with the aid of the memory bank depending on the presently given parameters (P) at the spinning device .
Sealing device for sealing packagings, wherein the packaging comprises a base film and a cover film , wherein the base film and/or the cover film is/are formed from a water-soluble film web , wherein the device comprises a liquid supply for an aqueous liquid , at least one wetting unit for wetting the water-soluble film web with the liquid , which wetting unit is positioned at a distance (a) from the water-soluble film web , and a pressing-on device for pressing and sealing the cover film to the base film when wetted with the liquid , characterised in that the wetting unit is designed as a spraying device for the contactless spraying of the liquid onto the water-soluble film web , and in that the spraying device comprises an electromechanical spraying system with a row of discharge nozzles for the contactless spraying of the liquid onto the water-soluble film web .
Current transformer module for switchgear , in particular gas-insulated switchgear , which has an encapsulated current path , comprising - a sleeve-shaped base element for forming at least one insulation portion for insulating the current path to the outside, and - at least one annular current transformer unit that is arranged on the sleeve-shaped base element and circumferentially surrounds the sleeve-shaped base element , wherein the sleeve-shaped base element forms a solid insulator of the insulation portion, wherein the current transformer module has a number of module segments corresponding to the number of annular current transformer units , each comprising - a line segment for forming a respective section of the current path , - an insulator segment , which circumferentially surrounds the corresponding line segment , for forming the solid insulator , and - an annular current transformer unit , which circumferentially surrounds the insulator segment for the solid insulator , characterized in that the current transformer module has multiple module segments arranged in series along an axis (A). - a sleeve-shaped base element for forming at least one insulation portion for insulating the current path to the outside, and - at least one annular current transformer unit that is arranged on the sleeve-shaped base element and circumferentially surrounds the sleeve-shaped base element , wherein the sleeve-shaped base element forms a solid insulator of the insulation portion, wherein the current transformer module has a number of module segments corresponding to the number of annular current transformer units , each comprising - a line segment for forming a respective section of the current path , - an insulator segment , which circumferentially surrounds the corresponding line segment , for forming the solid insulator , and - an annular current transformer unit , which circumferentially surrounds the insulator segment for the solid insulator , - a line segment for forming a respective section of the current path , - an insulator segment , which circumferentially surrounds the corresponding line segment , for forming the solid insulator , and - an annular current transformer unit , which circumferentially surrounds the insulator segment for the solid insulator , characterized in that the current transformer module has multiple module segments arranged in series along an axis (A).
A work vehicle comprising a fuel tank , wherein the fuel tank of the work vehicle is characterized by : a drain port which is open to an outside on a side surface and through which fuel is discharged to the outside; a suction port which is open to the outside on the side surface and has a center (C44) positioned lower than a center (C43) of the drain port and through which the fuel is sucked by an engine , wherein the drain port is formed on a side surface which faces one side in the right-left direction. a drain port which is open to an outside on a side surface and through which fuel is discharged to the outside; a suction port which is open to the outside on the side surface and has a center (C44) positioned lower than a center (C43) of the drain port and through which the fuel is sucked by an engine , wherein the drain port is formed on a side surface which faces one side in the right-left direction.
A high voltage power generating system comprising: a first poly-phase permanent magnet generator including at least one control winding and a plurality of power windings ; a second poly-phase permanent magnet generator including at least one control winding and a plurality of power windings ; the first and second poly-phase permanent magnet generators being arranged in series in at least one operational mode; and the first poly-phase permanent magnet generator being phase shifted relative to the second poly-phase permanent magnet generator such that residual voltage output of the first poly-phase permanent magnet generator is offset by the second poly-phase permanent magnet generator during a first operational mode; characterised in that the first poly-phase permanent magnet generator is connected to an input of the second poly-phase permanent magnet generator via a first set of switches and connected to a first power generating bus via a second set of switches , the first set of switches and the second set of switches having an inverted state relative to each other. a first poly-phase permanent magnet generator including at least one control winding and a plurality of power windings ; a second poly-phase permanent magnet generator including at least one control winding and a plurality of power windings ; the first and second poly-phase permanent magnet generators being arranged in series in at least one operational mode; and the first poly-phase permanent magnet generator being phase shifted relative to the second poly-phase permanent magnet generator such that residual voltage output of the first poly-phase permanent magnet generator is offset by the second poly-phase permanent magnet generator during a first operational mode; characterised in that the first poly-phase permanent magnet generator is connected to an input of the second poly-phase permanent magnet generator via a first set of switches and connected to a first power generating bus via a second set of switches , the first set of switches and the second set of switches having an inverted state relative to each other.
A device for measuring femur displacement during a surgical procedure to correct a damaged hip, especially during a total hip arthroplasty, whereby said device comprises: a base element immovably mountable to an ilium bone, and a measurement arm, detachably mounted to the base element via a support , whereby the measurement arm is fitted at least with an accelerometer located in the support and connected to a computing system unit, wherein the measurement arm includes at least two movable links (1-4) and (II-6), coupled in series to each other and to the support using rotational joints of at least one degree of freedom, and both movable links (1-4) and (II-6) are fitted with an accelerometer and/or a magnetic field sensor and/or a gyroscopic sensor connected to the computing system unit.
A compound of formula (I), wherein R 1 is dioxooxathiazinanyl, dioxotetrahydro thiadiazolo[3,2-c] oxazinyl, dioxothiadiazinanyl, dioxothiadiazolidinyl, dioxothiazetidinyl,dioxothiazolidinyl, oxothiazolidinyl or trioxotetrahydropyrrolo[2,1-d] thiadiazinyl, said dioxooxathiazinanyl, dioxotetrahydro thiadiazolo[3,2-c] oxazinyl, dioxothiadiazinanyl, dioxothiadiazolidinyl, dioxothiazetidinyl,dioxothiazolidinyl, oxothiazolidinyl and trioxotetrahydropyrrolo[2,1-d] thiadiazinyl being unsubstituted or substituted once, twice or three times by substituents independently selected from hydroxy, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 alkylcarbonyl, benzyloxycarbonyl, carboxyphenyl, carboxypyrrolidinyl and pyrimidinyloxy; R 2 is H or C 1-6 alkyl; R 3 is C 1-6 alkyl; R 4 is benzothiazolyl, phenylC 1-6 alkyl, phenyl, pyridinyl, thienyl or thienylC 1-6 alkyl said benzothiazolyl, phenylC 1-6 alkyl, phenyl, pyridinyl, thienyl and thienylC 1-6 alky being unsubstituted or once, twice or three times substituted by substituents independently selected from halogen, cyano, C 1-6 alkyl and haloC 1-6 alkyl; Q is CH or N; or pharmaceutically acceptable salt, enantiomer or diastereomer thereof. R 1 is dioxooxathiazinanyl, dioxotetrahydro thiadiazolo[3,2-c] oxazinyl, dioxothiadiazinanyl, dioxothiadiazolidinyl, dioxothiazetidinyl,dioxothiazolidinyl, oxothiazolidinyl or trioxotetrahydropyrrolo[2,1-d] thiadiazinyl, said dioxooxathiazinanyl, dioxotetrahydro thiadiazolo[3,2-c] oxazinyl, dioxothiadiazinanyl, dioxothiadiazolidinyl, dioxothiazetidinyl,dioxothiazolidinyl, oxothiazolidinyl and trioxotetrahydropyrrolo[2,1-d] thiadiazinyl being unsubstituted or substituted once, twice or three times by substituents independently selected from hydroxy, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 alkylcarbonyl, benzyloxycarbonyl, carboxyphenyl, carboxypyrrolidinyl and pyrimidinyloxy; R 2 is H or C 1-6 alkyl; R 3 is C 1-6 alkyl; R 4 is benzothiazolyl, phenylC 1-6 alkyl, phenyl, pyridinyl, thienyl or thienylC 1-6 alkyl said benzothiazolyl, phenylC 1-6 alkyl, phenyl, pyridinyl, thienyl and thienylC 1-6 alky being unsubstituted or once, twice or three times substituted by substituents independently selected from halogen, cyano, C 1-6 alkyl and haloC 1-6 alkyl; Q is CH or N;
A wound dressing composition comprising a hydrogel, wherein the hydrogel comprises a co-polymer of polyvinylpyrrolidone (PVP) and citric acid.
Method for improving an operation of a technical installation, wherein the technical process (P) running within the installation is controlled and/or monitored by means of a process control system (L) according to the functions specified in a function plan as part of a configuration, and wherein process-related and control-related data is recorded and written into an archive (A), characterised in that the archive entries, which are associated with reports, operating actions and switching operations, within a time range to be defined are analysed by a statistical relevance of the archive entries under consideration first being identified, a cause identification is performed for the statistically most relevant archive entries, using all archive entries which have occurred during the time range under consideration, by evaluating the function plans, and from the causes identified in this manner, proposed solutions for reducing the reports, operating actions and switching operations are derived, in order to improve the operation of the technical installation.