mhurhangee/ep-ind-claims huggingface dataset:
A photovoltaic power generation system comprising a plurality of inverter stations in separate buildings, wherein AC sides of the inverter stations are connected in parallel, each inverter station comprising: photovoltaic power cells and power conditioners, the photovoltaic power cells supplying generated power to a DC side of the power conditioners; wherein the photovoltaic power cells are provided as photovoltaic arrays; wherein each power conditioner includes a power converter to convert power generated by the photovoltaic power cells into power to be supplied to a power system; wherein AC sides of the power conditioners are connected in parallel and the power conditioners are distributed among the buildings; characterised in that one of the arrays of photovoltaic power cells of each of the inverter stations is provided as a power source for supplying control power of the power conditioners in addition to supplying generated power to the DC side of the power conditioners. photovoltaic power cells and power conditioners, the photovoltaic power cells supplying generated power to a DC side of the power conditioners; wherein the photovoltaic power cells are provided as photovoltaic arrays; wherein each power conditioner includes a power converter to convert power generated by the photovoltaic power cells into power to be supplied to a power system; wherein AC sides of the power conditioners are connected in parallel and the power conditioners are distributed among the buildings; characterised in that one of the arrays of photovoltaic power cells of each of the inverter stations is provided as a power source for supplying control power of the power conditioners in addition to supplying generated power to the DC side of the power conditioners.
A method performed by an Access and Mobility Management Function, AMF, in a wireless communication system, the method comprising: detecting that a User Equipment, UE, has established a PDU session for an emergency service or the UE is establishing a PDU session for the emergency service; detecting that a network slice authentication and authorization fails for all allowed Network Slice Selection Identifiers, NSSAIs, wherein when the AMF detects that the network slice authentication and authorization fails for all allowed NSSAIs, the method further comprises the AMF keeping a registration of the UE with regard to the PDU session; and sending, to the UE, a configuration update command including at least one rejected NSSAI with a rejection cause value. detecting that a User Equipment, UE, has established a PDU session for an emergency service or the UE is establishing a PDU session for the emergency service; detecting that a network slice authentication and authorization fails for all allowed Network Slice Selection Identifiers, NSSAIs, wherein when the AMF detects that the network slice authentication and authorization fails for all allowed NSSAIs, the method further comprises the AMF keeping a registration of the UE with regard to the PDU session; and sending, to the UE, a configuration update command including at least one rejected NSSAI with a rejection cause value.
An assembly for positioning sensors within a tire, comprising: a first bead sensor; a second bead sensor; a first sidewall/shoulder sensor; a second sidewall/shoulder sensor; a first actuator that moves the first bead sensor, the second bead sensor, the first sidewall/shoulder sensor, and the second sidewall/shoulder sensor in a radial direction of the tire; a second actuator that moves the first bead sensor and the second bead sensor in an axial direction of the tire such that the first bead sensor and the second bead sensor move in the axial direction relative to the first sidewall/shoulder sensor and the second sidewall/shoulder sensor; a third actuator that moves the first bead sensor and the second bead sensor in the radial direction such that the first bead sensor and the second bead sensor move in the radial direction relative to the first sidewall/shoulder sensor and the second sidewall/shoulder sensor; a fourth actuator that moves the first bead sensor and the second bead sensor in the axial direction relative to one another; and a fifth actuator that moves the first sidewall/shoulder sensor and the second sidewall/shoulder sensor in the axial direction relative to one another. a first bead sensor; a second bead sensor; a first sidewall/shoulder sensor; a second sidewall/shoulder sensor; a first actuator that moves the first bead sensor, the second bead sensor, the first sidewall/shoulder sensor, and the second sidewall/shoulder sensor in a radial direction of the tire; a second actuator that moves the first bead sensor and the second bead sensor in an axial direction of the tire such that the first bead sensor and the second bead sensor move in the axial direction relative to the first sidewall/shoulder sensor and the second sidewall/shoulder sensor; a third actuator that moves the first bead sensor and the second bead sensor in the radial direction such that the first bead sensor and the second bead sensor move in the radial direction relative to the first sidewall/shoulder sensor and the second sidewall/shoulder sensor; a fourth actuator that moves the first bead sensor and the second bead sensor in the axial direction relative to one another; and a fifth actuator that moves the first sidewall/shoulder sensor and the second sidewall/shoulder sensor in the axial direction relative to one another.
A surface-enhanced Raman scattering element comprising: a substrate having a principal surface; a fine structure part formed on the principal surface and having a plurality of projections; and a conductor layer formed on the fine structure part and constituting an optical function part for generating surface-enhanced Raman scattering; wherein the conductor layer has a base part formed along the principal surface and a plurality of protrusions protruding from the base part at respective positions corresponding to the projections; wherein the base part has a thickness greater than a height of the projections, wherein the plurality of projections are pillars arranged periodically along the principal surface, the base part and protrusions form a plurality of gaps, each opening to the side opposite from the substrate, in the conductor layer, characterized in that: the plurality of gaps are formed into a trench extending like a ring surrounding each pillar when seen in the projecting direction of the pillar. a substrate having a principal surface; a fine structure part formed on the principal surface and having a plurality of projections; and a conductor layer formed on the fine structure part and constituting an optical function part for generating surface-enhanced Raman scattering; wherein the conductor layer has a base part formed along the principal surface and a plurality of protrusions protruding from the base part at respective positions corresponding to the projections; wherein the base part has a thickness greater than a height of the projections, wherein the plurality of projections are pillars arranged periodically along the principal surface, the base part and protrusions form a plurality of gaps, each opening to the side opposite from the substrate, in the conductor layer, characterized in that: the plurality of gaps are formed into a trench extending like a ring surrounding each pillar when seen in the projecting direction of the pillar.
A pro-fluorophore of Formula: wherein R 1 to R 8, R 11 -R 12 and R 14 -R 15 are independently selected from hydrogen, hydroxyl, halogen, cyano, nitro, optionally substituted C 1 -C 10 alkyl, optionally substituted amino C 1 -C 10 alkyl, optionally substituted C 1 -C 10 alkoxy, R 13 is selected from optionally substituted C 1 -C 10 alkyl such as optionally substituted ethyl, optionally substituted propyl or optionally substituted butyl, Z is -CR 16 R 17 wherein R 16 and R 17 are independently selected from hydrogen and optionally substituted C 1 -C 6 alkyl, or any tautomer, conjugate or salts thereof, wherein the term "substituted" refers to groups substituted with from 1 to 5 substituents selected from the group consisting of C 1 -C 6 alkyl, amino, aminosulfonyl, amino carbonyl, sulfonyl, alkoxy, alkoxy carbonyl, halogen, trihalomethyl, cyano, hydroxy, mercapto and nitro, wherein said conjugate is of Formula: Wherein Ra is a moiety -R 13 -R 13a, R b is a moiety -R 12 -R 12 b, R c is a moiety -R 11 -R 11c, R d is a moiety -R 15 -R 15d, R g is a moiety -R 14 -R 14g, wherein R 11c, R 12b, R 13a, R 14g and R 15d are independently optionally present and at least one of the groups R 11c, R 12b, R 13a, R 14g and R 15d is a linking group having a specific affinity for the target molecule.
A radiological imaging device comprising: • a gantry defining an analysis zone in which at least part of a patient is placed; • a source suitable to emit radiation that passes through the at least part of the patient, the radiation defining a central axis of propagation; a detector suitable to receive the radiation; • a translation mechanism adapted to translate the source and the detector in a direction of movement substantially perpendicular to the central axis of propagation; • and a control unit adapted to acquire an image from data signals received continuously from the detector while the translation mechanism continuously translates the source emitting the radiation and the detector receiving the radiation, so as to scan the at least part of the patient; characterized by the fact that the detector includes at least one first linear sensor having a first sensitive surface and a second linear sensor having a second sensitive surface, wherein the sensitive surfaces are partially overlapping along the direction of movement. • a gantry defining an analysis zone in which at least part of a patient is placed; • a source suitable to emit radiation that passes through the at least part of the patient, the radiation defining a central axis of propagation; a detector suitable to receive the radiation; • a translation mechanism adapted to translate the source and the detector in a direction of movement substantially perpendicular to the central axis of propagation; • and a control unit adapted to acquire an image from data signals received continuously from the detector while the translation mechanism continuously translates the source emitting the radiation and the detector receiving the radiation, so as to scan the at least part of the patient;
An orthopedic implant comprising a continuous reinforced composite filament in a freely predetermined fiber orientation in multiple continuous successive layers, wherein the continuous reinforced composite filament comprises a bioabsorbable polymer matrix and a continuous bioabsorbable reinforcing fiber or fiber bundle, and whereby the continuous bioabsorbable reinforcing fiber or fiber bundle of consecutive layers at least partly intermingles and/or intertwines forming a three dimensionally interlocked continuous fiber structure.
Securing system for a railway apparatus, comprising: - a support platform capable of being positioned in a loading position, and - at least one mechanism for securing the railway apparatus on the support platform, which securing mechanism is capable of moving from an unlocked state to a locked state and comprises at least one attachment member (32.1, 32.2) for the railway apparatus; - a guide rail (36.1, 36.2); - members for locking the guide rail (36.1, 36.2) relative to the support platform, which members are arranged so as to move from an unlocking position to a locking position when the securing mechanism moves from the unlocked state to the locked state in the loading position of the support platform by urging the guide rail (36.1, 36.2) downward with respect to the support platform; characterized in that the attachment member (32.1, 32.2) is secured to a carriage (34.1, 34.2) of the securing mechanism, the carriage (34.1, 34.2) being guided by the guide rail (36.1, 36.2) along a path which, when the support platform is in the loading position, is located in a reference plane, the securing mechanism further comprising: - a drive mechanism (46.1, 46.2) of the carriage (34.1, 34.2), which is optionally motor-driven, for moving the carriage (34.1, 34.2) along the guide rail (36.1, 36.2); - means for locking the carriage (34.1, 34.2) with respect to the guide rail (36.1, 36.2). - a support platform capable of being positioned in a loading position, and - at least one mechanism for securing the railway apparatus on the support platform, which securing mechanism is capable of moving from an unlocked state to a locked state and comprises at least one attachment member (32.1, 32.2) for the railway apparatus; - a guide rail (36.1, 36.2); - members for locking the guide rail (36.1, 36.2) relative to the support platform, which members are arranged so as to move from an unlocking position to a locking position when the securing mechanism moves from the unlocked state to the locked state in the loading position of the support platform by urging the guide rail (36.1, 36.2) downward with respect to the support platform; - a drive mechanism (46.1, 46.2) of the carriage (34.1, 34.2), which is optionally motor-driven, for moving the carriage (34.1, 34.2) along the guide rail (36.1, 36.2); - means for locking the carriage (34.1, 34.2) with respect to the guide rail (36.1, 36.2).
A color measurement device comprising: a color measuring unit which measures a color; a moving unit which moves the color measuring unit along a given first direction; a conveyance unit which conveys and re-conveys a color chart having a plurality of patches each of which is a region of a given color, along a second direction orthogonal to the first direction; an imaging unit which acquires an image; a positional deviation processing section which acquires an entire image of the color chart by causing the imaging unit to image the color chart while causing the conveyance unit to convey the color chart; acquires a partial image of the color chart by causing the imaging unit to image the color chart while causing the conveyance unit to re-convey the color chart; and, based on the acquired entire and partial images, derives an amount of positional deviation of the color chart occurring between the conveyance and the re-conveyance; and a color measurement processing section which causes the color measuring unit to measure the color of each of the plurality of patches, while correcting a measurement position at which the color measuring unit performs the color measurement, according to the amount of positional deviation of the color chart derived by the positional deviation processing section. a color measuring unit which measures a color; a moving unit which moves the color measuring unit along a given first direction; a conveyance unit which conveys and re-conveys a color chart having a plurality of patches each of which is a region of a given color, along a second direction orthogonal to the first direction; an imaging unit which acquires an image; a positional deviation processing section which acquires an entire image of the color chart by causing the imaging unit to image the color chart while causing the conveyance unit to convey the color chart; acquires a partial image of the color chart by causing the imaging unit to image the color chart while causing the conveyance unit to re-convey the color chart; and, based on the acquired entire and partial images, derives an amount of positional deviation of the color chart occurring between the conveyance and the re-conveyance; and a color measurement processing section which causes the color measuring unit to measure the color of each of the plurality of patches, while correcting a measurement position at which the color measuring unit performs the color measurement, according to the amount of positional deviation of the color chart derived by the positional deviation processing section.
A container with a container lid and a container lower section, wherein the container lid and the container lower section are connectible with each other via thread configurations in the form of thread ribs (5, 6, 7, 8) on the container lid and on the container lower section, by twisting the container lid and the container lower section relative to each other about a screwing axis of rotation, wherein the thread ribs (5, 6, 7, 8) formed on each of the container lid and on the container lower section are created to extend over a circumferential angle of 90 degrees or less, and leave a clearance (circumferential angle β) at least equal to the circumferential extension in the circumferential direction on the container lid and the container lower section, characterized in that on each of the container lid and the container lower section at least two thread ribs (5, 6, 7, 8) are provided for in an opposing position in the circumferential direction, so that in the course of a screwed connection in two defined circumferential angled directions the thread ribs (5, 6, 7, 8) of the container lid and the container lower section can be brought into an overlapping position in the direction of the screwing axis of rotation, wherein in one of both overlapping positions of the thread ribs (5, 6,7, 8) the screwed connetion of the container lid and the container lower section is given in the screwed end position, and wherein the thread ribs (7, 8) of the container lid and the thread ribs (5, 6) of the container lower section are in such a vertical distance from each other, that they are separated from each other in view of a peripheral band they take in circumferential direction in direction of the screwing axis under consideration of their pitch, such that in the other of both superimposed positions of each of the thread ribs, which means in such circumference angle direction, in which the thread end position is not reached, a complete overrun of the thread rib in circumferential direction is possible.
A cell determination device comprising: a measurement unit configured to measure a complex dielectric constant spectrum of the cells and comprising a flow passage; a classification unit configured to classify individual cells based on any one of a relaxation strength, a relaxation frequency, and low-frequency conductance obtained from the complex dielectric constant spectrum of the cells; wherein the classification unit calculates the cell diameter d of the cells, film capacitance Cm, and cytoplasm electric conductivity K, based respectively on the low-frequency conductance, relaxation strength and the relaxation frequency using the following single relaxation expressions obtained by modelling a simple spherical cell: d = G low a 1 b C m = De d 4 K = C m dFc wherein G low indicates low-frequency conductance, De indicates the relaxation strength, Fc indicates the relaxation frequency and a and b are parameters that depend on a configuration of the flow passage of the measurement unit; and a sorting section configured to sort the cells into two or more groups based on a signal output by the classification unit. a measurement unit configured to measure a complex dielectric constant spectrum of the cells and comprising a flow passage; a classification unit configured to classify individual cells based on any one of a relaxation strength, a relaxation frequency, and low-frequency conductance obtained from the complex dielectric constant spectrum of the cells; wherein the classification unit calculates the cell diameter d of the cells, film capacitance Cm, and cytoplasm electric conductivity K, based respectively on the low-frequency conductance, relaxation strength and the relaxation frequency using the following single relaxation expressions obtained by modelling a simple spherical cell: d = G low a 1 b C m = De d 4 K = C m dFc wherein G low indicates low-frequency conductance, De indicates the relaxation strength, Fc indicates the relaxation frequency and a and b are parameters that depend on a configuration of the flow passage of the measurement unit; and a sorting section configured to sort the cells into two or more groups based on a signal output by the classification unit.
Method for transmitting a measured value (12, 50) in a data transmission signal, comprising: - inputting the measured value (12, 50) into the data transmission signal, - inputting error information into the data transmission signal downstream of the measured value (12, 50), from which error information it is apparent whether the measured value (12, 50) has an error, and - inputting evaluation information (54 to 68), which describes the error information, in the data transmission signal downstream of the error information if the measured value (12, 50) has the error, wherein the method is characterized in that the evaluation information (54 to 68) comprises an error qualification range and an error quantification range. - inputting the measured value (12, 50) into the data transmission signal, - inputting error information into the data transmission signal downstream of the measured value (12, 50), from which error information it is apparent whether the measured value (12, 50) has an error, and - inputting evaluation information (54 to 68), which describes the error information, in the data transmission signal downstream of the error information if the measured value (12, 50) has the error, wherein the method is characterized in that the evaluation information (54 to 68) comprises an error qualification range and an error quantification range.
A modular system for the dry building of building or non building structures, such as walls, floors, balconies, roofs or the like, comprising: - a plurality of modular elements; wherein each of said modular elements includes: - a plate-shaped element which includes at least one upper or lower substantially planar wall; - at least one side face having a first end edge in correspondence with said at least one substantially planar upper or lower wall and a second end edge opposite to the first one; - a functional zone (3 0); wherein said functional zone comprises at least one planar plate ( 31, 36) transversely projecting from said plate-shaped element, said at least one planar plate ( 31, 36) including said second end edge, said at least one planar plate ( 31, 36) being substantially perpendicular to said frst plane ( π 1); wherein the plate-shaped elements and the functional zones of the anchored modular elements cooperate each other so that: - the substantially planar walls of the plate-shaped elements define a first plane ( π 1) substantially parallel to or coinciding with the plane ( π) of the structure to be built; and - said at least one side face of each modular element is in contact engagement with a corresponding at least one side face of the adjacent modular element ( 10 '); characterized in that the system further comprises means for reciprocally anchoring said modular elements and each planar plate ( 31, 36) of each of said modular elements is in contact with a corresponding planar plate ( 31, 36) of the adjacent modular element ( 10 '), in such a manner that the structure is able to withstand to tensile, compressive and shear stresses. - a plurality of modular elements; wherein each of said modular elements includes: - a plate-shaped element which includes at least one upper or lower substantially planar wall; - at least one side face having a first end edge in correspondence with said at least one substantially planar upper or lower wall and a second end edge opposite to the first one; - a functional zone (3 0); - a plate-shaped element which includes at least one upper or lower substantially planar wall; - at least one side face having a first end edge in correspondence with said at least one substantially planar upper or lower wall and a second end edge opposite to the first one; - a functional zone (3 0); - the substantially planar walls of the plate-shaped elements define a first plane ( π 1) substantially parallel to or coinciding with the plane ( π) of the structure to be built; and - said at least one side face of each modular element is in contact engagement with a corresponding at least one side face of the adjacent modular element ( 10 ');