mhurhangee/ep-ind-claims huggingface dataset:
A method of generating a mass spectrum, comprising: acquiring a plurality of mass spectra from a mass spectrometer using image current detection to generate time domain signals from the oscillation of ions in the spectrometer, which are transformed into the mass spectra, wherein most of the peaks are due to the detection of individual ions; characterised by determining the centroids of at least some of the peaks which are due to the individual ions and which have a signal-to-noise (S/N) ratio of at least 2 so that the variation of the centroid of each such peak from the plurality of mass spectra is lower than the average full-width at half-maximum, dM, of the peak in the m/z domain; and generating a histogram of the centroids determined from the plurality of acquired mass spectra thereby forming a composite mass spectrum wherein the composite mass spectrum comprises peaks and the full-width at half-maximum, dMC, of these peaks in the m/z domain is narrower than the average full-width at half-maximum, dM, of the corresponding peaks in the plurality of acquired mass spectra. acquiring a plurality of mass spectra from a mass spectrometer using image current detection to generate time domain signals from the oscillation of ions in the spectrometer, which are transformed into the mass spectra, wherein most of the peaks are due to the detection of individual ions; characterised by determining the centroids of at least some of the peaks which are due to the individual ions and which have a signal-to-noise (S/N) ratio of at least 2 so that the variation of the centroid of each such peak from the plurality of mass spectra is lower than the average full-width at half-maximum, dM, of the peak in the m/z domain; and generating a histogram of the centroids determined from the plurality of acquired mass spectra thereby forming a composite mass spectrum wherein the composite mass spectrum comprises peaks and the full-width at half-maximum, dMC, of these peaks in the m/z domain is narrower than the average full-width at half-maximum, dM, of the corresponding peaks in the plurality of acquired mass spectra.
A method for modernising an elevator facility, which has a first elevator car movable in a shaft by means of a first drive, wherein the method comprises the following steps: a) installing at least one second drive without changing the first drive; b) installing at least one second elevator car in the shaft, c) connecting the second drive to the second elevator car, d) installing or configuring a control unit (50, 52), so that this controls the first drive and the second drive, and e) configuring the control unit (50, 52) so that the first elevator car stops at only predetermined storeys during steps a) to c). a) installing at least one second drive without changing the first drive; b) installing at least one second elevator car in the shaft, c) connecting the second drive to the second elevator car, d) installing or configuring a control unit (50, 52), so that this controls the first drive and the second drive, and e) configuring the control unit (50, 52) so that the first elevator car stops at only predetermined storeys during steps a) to c).
A method for determining the presence or absence of a microbe in a sample, comprising: (i) contacting a test sample with the microbe-targeting molecule; and (ii) detecting binding of a microbe to the microbe-targeting molecule, wherein the microbe is present in the test sample if binding is detected and wherein the microbe-targeting molecule comprises: a. at least one first domain comprising a c-reactive protein or a fragment thereof retaining microbe binding activity; b. at least one second domain comprising an Fc region of an immunoglobulin; and c. a linker conjugating the first and second domains, and wherein the C-terminus of the first domain is conjugated to the N-terminus of the second domain; and wherein the microbe-targeting molecule is a multimeric molecule. (i) contacting a test sample with the microbe-targeting molecule; and (ii) detecting binding of a microbe to the microbe-targeting molecule, wherein the microbe is present in the test sample if binding is detected and wherein the microbe-targeting molecule comprises: a. at least one first domain comprising a c-reactive protein or a fragment thereof retaining microbe binding activity; b. at least one second domain comprising an Fc region of an immunoglobulin; and c. a linker conjugating the first and second domains, and a. at least one first domain comprising a c-reactive protein or a fragment thereof retaining microbe binding activity; b. at least one second domain comprising an Fc region of an immunoglobulin; and c. a linker conjugating the first and second domains, and wherein the C-terminus of the first domain is conjugated to the N-terminus of the second domain; and wherein the microbe-targeting molecule is a multimeric molecule.
A light-emitting display device, comprising: a substrate including a circuit board and a color filter layer (R-CF, G-CF, B-CF, W-CF) disposed above the circuit board, wherein the circuit board includes a driving thin-film transistor (Td); a passivation film disposed above the substrate; a color conversion layer (R-CCM, G-CCM) disposed above the passivation film and overlapped with the color filter layer (R-CF, G-CF, B-CF, W-CF); an anode of a red pixel or a green pixel comprising the color conversion layer and the color filter layer and disposed above the passivation film and the color conversion layer (R-CCM, G-CCM); and a light-emitting layer disposed above the passivation film and the anode, wherein a first part of the anode is connected to the driving thin-film transistor (Td) via a contact hole which penetrates the passivation film characterised in that the anode comprises a second part which is formed along a surface of a color conversion unit (R-CCM, G-CCM) of the color conversion layer and protrudes convexly with respect to the first part of the anode, wherein the light emitting layer includes a flat part and a convex part which is disposed above the color conversion layer (R-CCM, G-CCM) and extends higher than the flat part. a substrate including a circuit board and a color filter layer (R-CF, G-CF, B-CF, W-CF) disposed above the circuit board, wherein the circuit board includes a driving thin-film transistor (Td); a passivation film disposed above the substrate; a color conversion layer (R-CCM, G-CCM) disposed above the passivation film and overlapped with the color filter layer (R-CF, G-CF, B-CF, W-CF); an anode of a red pixel or a green pixel comprising the color conversion layer and the color filter layer and disposed above the passivation film and the color conversion layer (R-CCM, G-CCM); and a light-emitting layer disposed above the passivation film and the anode, wherein a first part of the anode is connected to the driving thin-film transistor (Td) via a contact hole which penetrates the passivation film characterised in that the anode comprises a second part which is formed along a surface of a color conversion unit (R-CCM, G-CCM) of the color conversion layer and protrudes convexly with respect to the first part of the anode, wherein the light emitting layer includes a flat part and a convex part which is disposed above the color conversion layer (R-CCM, G-CCM) and extends higher than the flat part.
A method for producing a luminescent pavement including distributing particles having luminescent properties on the hot asphalt pavement, and then pressing those particles into the pavement and leaving it to cool down, characterized in that a luminescent aggregate comprising particles being a combination comprising a thermosetting synthetic carrier bonded with a photoluminescent agent is used as particles having luminescent properties, wherein the photoluminescent agent is alkaline earth metal aluminate activated by at least one rare earth metal, and wherein the luminescent aggregate has a polyaspartic resin coating in an amount from about 0.1 to about 2.5 wt. %.
A system for power management of an automated storage and retrieval system comprising a plurality of container handling vehicles (201, 301) with at least one exchangeable and rechargeable power source for handling containers in a three dimensional underlying storage grid, a charging device for charging or drawing power from the at least one exchangeable and rechargeable power source, a power source for supplying power to the automated storage and retrieval system and to the charging device, a monitoring system for monitoring energy prices, and a power manager, characterized in that: said monitoring system is configured to continuously update the power manager with energy prices, and the power manager is configured to adjust a power strategy of the automated storage and retrieval system according to the energy prices and to be updated with information regarding the level of charge of the at least one exchangeable and rechargeable power source and current resources in terms of the capacity and usage requirements of the container handling vehicles (201, 301), and said power manager is configured to control the stored energy from the at least one exchangeable and rechargeable power source via the charging device as an additional power source for the automated storage and retrieval system during periods of high energy cost. a charging device for charging or drawing power from the at least one exchangeable and rechargeable power source, a power source for supplying power to the automated storage and retrieval system and to the charging device, a monitoring system for monitoring energy prices, and a power manager, characterized in that: said monitoring system is configured to continuously update the power manager with energy prices, and the power manager is configured to adjust a power strategy of the automated storage and retrieval system according to the energy prices and to be updated with information regarding the level of charge of the at least one exchangeable and rechargeable power source and current resources in terms of the capacity and usage requirements of the container handling vehicles (201, 301), and said power manager is configured to control the stored energy from the at least one exchangeable and rechargeable power source via the charging device as an additional power source for the automated storage and retrieval system during periods of high energy cost. said monitoring system is configured to continuously update the power manager with energy prices, and the power manager is configured to adjust a power strategy of the automated storage and retrieval system according to the energy prices and to be updated with information regarding the level of charge of the at least one exchangeable and rechargeable power source and current resources in terms of the capacity and usage requirements of the container handling vehicles (201, 301), and said power manager is configured to control the stored energy from the at least one exchangeable and rechargeable power source via the charging device as an additional power source for the automated storage and retrieval system during periods of high energy cost.
An intravascular device for filtering particulates released during an intravascular procedure performed upon a patient to prevent distal migration of the released particulates, the intravascular device comprising: an outer delivery shaft; an expandable basket movable between a collapsed configuration and an expanded configuration, the expandable basket configured to be in the collapsed configuration during delivery into a vasculature of the patient and in the expanded configuration to filter particulates released during the intravascular procedure, the expandable basket including a proximal end and a distal end, the proximal end configured to be centrally and pivotally coupled to the outer delivery shaft, the expandable basket comprising a proximal portion and a distal portion, the proximal portion comprising a single braided layer and the distal portion comprising multiple braided layers, wherein the multiple layers include an inner layer and an outer layer; and an inner core wire extending through the outer delivery shaft, a distal portion of the inner core wire coupled to the distal end of the expandable basket, wherein at least one of the proximal end or the distal end is movable relative to each other via movement of the inner core wire such that a proximal portion of the expandable basket is invertible towards a distal portion of the expandable basket to form a proximally oriented cavity configured to filter the released particulates therein. an outer delivery shaft; an expandable basket movable between a collapsed configuration and an expanded configuration, the expandable basket configured to be in the collapsed configuration during delivery into a vasculature of the patient and in the expanded configuration to filter particulates released during the intravascular procedure, the expandable basket including a proximal end and a distal end, the proximal end configured to be centrally and pivotally coupled to the outer delivery shaft, the expandable basket comprising a proximal portion and a distal portion, the proximal portion comprising a single braided layer and the distal portion comprising multiple braided layers, wherein the multiple layers include an inner layer and an outer layer; and an inner core wire extending through the outer delivery shaft, a distal portion of the inner core wire coupled to the distal end of the expandable basket, wherein at least one of the proximal end or the distal end is movable relative to each other via movement of the inner core wire such that a proximal portion of the expandable basket is invertible towards a distal portion of the expandable basket to form a proximally oriented cavity configured to filter the released particulates therein.
Cooling rotating interface for a propulsion oriented device pivotable relative to a vessel around an axis of rotation, the cooling rotating interface including an air box intended to be attached to the vessel, and an air diffuser intended to be attached to the propulsion oriented device, and including a main portion being a solid of revolution around the axis of rotation characterized in that the air box comprises: - an upper cylinder of revolution and a lower cylinder of revolution, each having a circular axial cross-section around the axis of rotation, the diameter of the lower cylinder of revolution being strictly greater than the diameter of the upper cylinder of revolution, and - an upper duct and a lower duct, in that the air diffuser comprises: - a peripheral portion surrounding the main portion and radially located outwards from the lower cylinder and axially located right below said lower cylinder, the main portion being located radially inside the lower cylinder, and comprising an inner cylinder of revolution circular around the axis of rotation and having a diameter equal to the diameter of the upper cylinder of revolution and a truncated cone having a first circular end and a second circular end, the second circular end having a larger diameter than the first circular end, the first circular end being preferably intended to be closer to the vessel than the second circular end, and in that the main portion delimits a first fluid path inside the inner cylinder of revolution and the truncated cone through the upper cylinder and the upper duct and a second fluid path, between the inner cylinder of revolution and the lower cylinder of revolution through the lower duct. - an upper cylinder of revolution and a lower cylinder of revolution, each having a circular axial cross-section around the axis of rotation, the diameter of the lower cylinder of revolution being strictly greater than the diameter of the upper cylinder of revolution, and - an upper duct and a lower duct, in that the air diffuser comprises: - a peripheral portion surrounding the main portion and radially located outwards from the lower cylinder and axially located right below said lower cylinder, the main portion being located radially inside the lower cylinder, and comprising an inner cylinder of revolution circular around the axis of rotation and having a diameter equal to the diameter of the upper cylinder of revolution and a truncated cone having a first circular end and a second circular end, the second circular end having a larger diameter than the first circular end, the first circular end being preferably intended to be closer to the vessel than the second circular end, and in that the main portion delimits a first fluid path inside the inner cylinder of revolution and the truncated cone through the upper cylinder and the upper duct and a second fluid path, between the inner cylinder of revolution and the lower cylinder of revolution through the lower duct.
A window covering control assembly (200A, 200B, 200C, 200D) for a window covering system, the window covering system comprises a shell and a weight element under the shell, wherein the weight element is operatively configured to ascend close to or descend away from the shell, the window covering control assembly (200A, 200B, 200C, 200D) comprisesa driving module, which is adapted to be provided in the shell, and is adapted to be engaged to the weight element to operate simultaneously with the weight element, wherein the driving module comprises a cord collecting assembly, which is adapted to be mounted in the shell; the cord collecting assembly is configured to operate in a first direction while a first driving force acting upon the cord collecting assembly such that the weight element descends away from the shell, wherein the first driving force comprises at least a weight of the weight element; and a speed control module (30, 40, 50, 60) positioned corresponding to the driving module, wherein a resistance force is selectively generated between the speed control module (30, 40, 50, 60) and the driving module, and wherein an operation speed of the cord collecting assembly in the first direction is reduced when the resistance force is generated between the speed control module (30, 40, 50, 60) and the driving module; the window covering control assembly (200A, 200B, 200C, 200D), wherein the cord collecting assembly comprises a cord collecting wheel; wherein the driving module further comprises a driving unit; the driving unit of the driving module further comprises a resilient member; characterized in that the resistance force is a friction force; the speed control module (30, 40, 50, 60) comprises a friction member (32, 42, 52, 62), the friction member (32, 42, 52, 62) is positioned corresponding to the cord collecting wheel; while the cord collecting wheel is rotating in the first direction, the friction member (32, 42, 52, 62) provides the friction force to the driving module to reduce the rotating speed of the cord collecting wheel; the cord collecting wheel is configured to rotate in a second direction while a second driving force is acting upon the cord collecting wheel, wherein the second driving force is a recovery force from the resilient member, and wherein the first driving force is greater than the second driving force.
Joining unit (10, 40) for an articulated robot (12, 44), for joining a component (24, 58) to a joining element (28, 60) while applying an axial force, said joining unit (10, 40) comprising a base element (14, 42) for connection to an articulated robot (12, 44), said base element (14, 42) being connected to a feed unit (13, 46) which latter is adapted to move relative to the base element (14, 42) in an axial direction in and against a setting direction, with said feed unit (13, 46) being connected to a setting device (16, 54) which latter is adapted to move together with said feed unit (13, 46), wherein furthermore a pressure piece (26, 50) which is mounted so as to be movable in and against the setting direction relative to said feed unit (13, 46) is connected to said feed unit (13, 46) via a coupling unit (17, 48), characterized in that the coupling unit (17, 48) comprises a blocking unit (18, 56) which, from a predefined axial blocking position, prevents a relative movement of said pressure piece (26, 50) with respect to said feed unit (13, 46) against the setting direction as long as the feed force is smaller than the blocking force set, said blocking unit comprising a release device (20, 62) which enables the relative movement of said pressure piece (26, 50) against the setting direction.
An electronic module comprising at least one circuit board, possibly fitted with components on both sides, of a first type (referred to as "circuit board A"), which is fitted with at least one circuit board of a second type (referred to as "circuit board B") in an overlapping manner, wherein the circuit board B is fitted with at least one electronic component with specific requirements and the interconnected circuit boards A and B form a tiered circuit board combination (100, 200, 300, 400, 500), wherein the tiered circuit board combination (100, 200, 300, 400, 500) is delimited at least in some areas by end portions which are formed by sections of the at least one circuit board A, and the tiered circuit board combination (100, 200, 300, 400, 500) is mounted on a heat sink, wherein a mounting side of the at least one circuit board B rests flat on a support surface of the heat sink, characterized in that the support surface of the heat sink is dimensioned and positioned in such a way that it at least partially extends laterally beyond the mounting side of the at least one circuit board B in the respective directions of the end portions formed by the sections of at least one circuit board A, and that support elements (23, 24, 25, 26) are designed on the support surface of the heat sink for mechanically supporting the end portions formed by the sections of the at least one circuit board A.
A kitchen hob at least comprising a first and a second subassembly, - the first subassembly at least comprising: - a frame for inserting into a workplate; - a protective cover covering the frame in an assembled state; - a first support structure to support a second subassembly; - the second subassembly at least comprising: - a functional part of the household appliance, and - a second support structure adapted to engage the first support structure; the first and second support structures (150, 160) being adapted to engage each other when the protective cover is fixed to the frame in the assembled state, characterized in that the first support structure is separately fixed to the workplate and the frame with the protective cover is inserted into a cutout of the workplate, thereby fixing the first subassembly to the workplate and in that the first support structure has the form of a hook and the second support structure has the form of the edge of an opening or cutout allowing for a hinge operation and relative movement against each other. - the first subassembly at least comprising: - a frame for inserting into a workplate; - a protective cover covering the frame in an assembled state; - a first support structure to support a second subassembly; - a frame for inserting into a workplate; - a protective cover covering the frame in an assembled state; - a first support structure to support a second subassembly; - the second subassembly at least comprising: - a functional part of the household appliance, and - a second support structure adapted to engage the first support structure; the first and second support structures (150, 160) being adapted to engage each other when the protective cover is fixed to the frame in the assembled state, characterized in that the first support structure is separately fixed to the workplate and the frame with the protective cover is inserted into a cutout of the workplate, thereby fixing the first subassembly to the workplate and in that the first support structure has the form of a hook and the second support structure has the form of the edge of an opening or cutout allowing for a hinge operation and relative movement against each other. - a functional part of the household appliance, and - a second support structure adapted to engage the first support structure;