mhurhangee/ep-ind-claims huggingface dataset:
A measuring chip (1, 1A, 1B, 1C, 1D, 1E), comprising: an incoming part into which light is introduced; a propagating part having two main surfaces facing each other where the light propagates while totally reflecting between the main surfaces; an outgoing part from which light is led out; and a reactor having reactants arranged in a stripe shape that is formed in a propagating direction of the light in the propagating part and that is periodically arranged in a direction perpendicular to the propagating direction of the light and the reactants react with a to-be-detected substance on at least one of the main surfaces, configured to change a complex amplitude distribution in the direction perpendicular to the propagating direction of the light, the reactor is configured to reflect the light propagating in the propagating part a plurality of times in the propagating direction, and to accumulate the change of the complex amplitude distribution. an incoming part into which light is introduced; a propagating part having two main surfaces facing each other where the light propagates while totally reflecting between the main surfaces; an outgoing part from which light is led out; and a reactor having reactants arranged in a stripe shape that is formed in a propagating direction of the light in the propagating part and that is periodically arranged in a direction perpendicular to the propagating direction of the light and the reactants react with a to-be-detected substance on at least one of the main surfaces, configured to change a complex amplitude distribution in the direction perpendicular to the propagating direction of the light, the reactor is configured to reflect the light propagating in the propagating part a plurality of times in the propagating direction, and to accumulate the change of the complex amplitude distribution.
A method of processing data in an IP Multimedia Subsystem, IMS, network, the IMS network comprising a Home Subscriber Server, HSS, an Interrogating Call Session Control Function, I-CSCF, a Serving Call Session Control Function, S-CSCF, and a further S-CSCF, the method comprising: at the I-CSCF, transmitting a request message to the HSS, the request message identifying a user of the IMS network; at the I-CSCF, receiving an answer message from the HSS, the answer message comprising an indication that the user is assigned and not registered to the S-CSCF; and at the I-CSCF, determining whether the S-CSCF or the further S-CSCF is a preferred S-CSCF for registration of the user in response to the answer message indicating that the user is assigned and not registered to the S-CSCF, and registering the user to the further S-CSCF if it is determined that the further S-CSCF is a preferred S-CSCF. at the I-CSCF, transmitting a request message to the HSS, the request message identifying a user of the IMS network; at the I-CSCF, receiving an answer message from the HSS, the answer message comprising an indication that the user is assigned and not registered to the S-CSCF; and at the I-CSCF, determining whether the S-CSCF or the further S-CSCF is a preferred S-CSCF for registration of the user in response to the answer message indicating that the user is assigned and not registered to the S-CSCF, and registering the user to the further S-CSCF if it is determined that the further S-CSCF is a preferred S-CSCF.
A synthetic-aperture radar device comprising: an image reproducing unit for generating a plurality of radar images from the same reception signal of a radio wave transmitted from a moving platform to a target and reflected by said target, each of the radar images corresponding to a focal point, wherein to each focal point are associated pieces of information such as latitude, longitude, and altitude of the focal point; an aligning unit for executing an aligning process such that the target is located in a same pixel in the plurality of radar images generated for the respective focal points; an index calculating unit for setting a predetermined area in the plurality of radar images and calculating an index representing an image forming state for each area of the plurality of radar images using an amplitude value of each of the radar images, said index being an autocorrelation coefficient calculated on the basis of a power value calculated from the amplitude value; and a synthesizing unit for comparing the index for each area of the plurality of radar images and for synthesizing corresponding pixel values of the plurality of radar images on a basis of the index calculated for each area of the plurality of radar images by extracting a pixel which has the smallest index on the basis of the comparison result to generate one multifocal radar image. an image reproducing unit for generating a plurality of radar images from the same reception signal of a radio wave transmitted from a moving platform to a target and reflected by said target, each of the radar images corresponding to a focal point, wherein to each focal point are associated pieces of information such as latitude, longitude, and altitude of the focal point; an aligning unit for executing an aligning process such that the target is located in a same pixel in the plurality of radar images generated for the respective focal points; an index calculating unit for setting a predetermined area in the plurality of radar images and calculating an index representing an image forming state for each area of the plurality of radar images using an amplitude value of each of the radar images, said index being an autocorrelation coefficient calculated on the basis of a power value calculated from the amplitude value; and a synthesizing unit for comparing the index for each area of the plurality of radar images and for synthesizing corresponding pixel values of the plurality of radar images on a basis of the index calculated for each area of the plurality of radar images by extracting a pixel which has the smallest index on the basis of the comparison result to generate one multifocal radar image.
A method of manufacturing a color filter substrate, comprising: forming a glass plate having fixed thereon a black matrix pattern, the black matrix pattern having a plurality of openings; filling the openings of the black matrix pattern with glass raw materials, which are mixed with colorants in different colors, and firing the glass plate, so as to fire the glass raw materials mixed with different colorants into color filter layers (3,4,5) of different colors located in the openings of the black matrix pattern, wherein forming the glass plate having fixed thereon the black matrix pattern comprises: forming a matrix shaped macromolecular osmosis film which has absorbed thereon carbon powder grains; and encapsulating the matrix shaped macromolecular osmosis film, which has absorbed thereon carbon powder grains, by using a molten glass liquid, thereby fixing the black matrix pattern on the glass plate. forming a glass plate having fixed thereon a black matrix pattern, the black matrix pattern having a plurality of openings; filling the openings of the black matrix pattern with glass raw materials, which are mixed with colorants in different colors, and firing the glass plate, so as to fire the glass raw materials mixed with different colorants into color filter layers (3,4,5) of different colors located in the openings of the black matrix pattern, wherein forming the glass plate having fixed thereon the black matrix pattern comprises: forming a matrix shaped macromolecular osmosis film which has absorbed thereon carbon powder grains; and encapsulating the matrix shaped macromolecular osmosis film, which has absorbed thereon carbon powder grains, by using a molten glass liquid, thereby fixing the black matrix pattern on the glass plate. forming a matrix shaped macromolecular osmosis film which has absorbed thereon carbon powder grains; and encapsulating the matrix shaped macromolecular osmosis film, which has absorbed thereon carbon powder grains, by using a molten glass liquid, thereby fixing the black matrix pattern on the glass plate.
A method of quantifying a component to be analyzed in a blood sample using an internal standard substance and an external standard substance which is homeostatically comprised at a predetermined concentration in the blood sample, wherein the internal standard substance is lithium or glycerol-3-phosphate, and the external standard substance is selected from the group consisting of sodium, chloride, albumin, and total protein, the method comprising diluting the sample with a diluent buffer, wherein a predetermined concentration of the internal standard substance is added into the diluent buffer and the diluent buffer is free of a component that interferes with quantification of the internal standard substance and the external standard substance, removing blood cells from the sample after dilution, measuring a concentration of the internal standard substance and the external standard substance in the plasma sample diluted with the diluent buffer, calculating a dilution factor of the blood sample using the concentration of the internal standard substance and the concentration of the external standard substance and correcting the dilution factor of the blood sample determined based on the measured value of the concentration of the internal standard substance, using the measured value of the concentration of the external standard substance, measuring the component in the diluted plasma sample, and quantifying the component by multiplying the measured value of the component in the diluted sample by the calculated dilution factor.
Cutting portion for a drill bit, which is rotatable in a direction of rotation about an axis of rotation, comprising: • a ring portion, • one or more cutting elements, which are fastened at a first end of the ring portion, and • a plug-in element, which is connected to the ring portion at an end facing away from the cutting elements and has at least one slot-shaped recess with a transverse slot and a connecting slot, wherein the transverse slot is arranged perpendicularly to the axis of rotation and is connected to a top edge of the plug-in element via the connecting slot, wherein there is an annular abutment shoulder at the transition from the ring portion to the plug-in element and the plug-in element comprises an outer lateral surface, an inner lateral surface and an end face, characterized in that the at least one slot-shaped recess extends from the outer lateral surface to the inner lateral surface and the plug-in element has a groove which is arranged at the level of the slot-shaped recesses in a direction parallel to the axis of rotation. • a ring portion, • one or more cutting elements, which are fastened at a first end of the ring portion, and • a plug-in element, which is connected to the ring portion at an end facing away from the cutting elements and has at least one slot-shaped recess with a transverse slot and a connecting slot, wherein the transverse slot is arranged perpendicularly to the axis of rotation and is connected to a top edge of the plug-in element via the connecting slot, wherein there is an annular abutment shoulder at the transition from the ring portion to the plug-in element and the plug-in element comprises an outer lateral surface, an inner lateral surface and an end face, characterized in that the at least one slot-shaped recess extends from the outer lateral surface to the inner lateral surface and the plug-in element has a groove which is arranged at the level of the slot-shaped recesses in a direction parallel to the axis of rotation.
Method for producing a surface of a base material, wherein the base material comprises cast iron, having the steps of: - localizing a partial surface only on the surface of the one base material, - producing a first buffer layer on the partial surface, wherein a buffer welding process is used in conjunction with a buffer welding additive, wherein the welding parameters are selected such that the heat input into the base material is low, with the result that no cracks occur in the heat-affected zone, - producing a fill layer on the buffer layer, wherein the MAG welding process is used, wherein a NiFe welding filler material is used, wherein no preheating is performed, characterized in that the MIG welding process is employed during the production of the buffer layer, and a welding additive is used which comprises substantially 65% by weight of Ni and substantially 30% by weight of Fe, wherein, during the production of the fill layer, a welding additive is used which comprises substantially 55% by weight of Ni and substantially 30% by weight of Fe. - localizing a partial surface only on the surface of the one base material, - producing a first buffer layer on the partial surface, wherein a buffer welding process is used in conjunction with a buffer welding additive, wherein the welding parameters are selected such that the heat input into the base material is low, with the result that no cracks occur in the heat-affected zone, - producing a fill layer on the buffer layer, wherein the MAG welding process is used, wherein a NiFe welding filler material is used, characterized in that the MIG welding process is employed during the production of the buffer layer, and a welding additive is used which comprises substantially 65% by weight of Ni and substantially 30% by weight of Fe, wherein, during the production of the fill layer, a welding additive is used which comprises substantially 55% by weight of Ni and substantially 30% by weight of Fe.
- Hydraulic braking arrangement for controlling rear brakes of an off-road vehicle, said arrangement comprising a hydro-mechanical service brake system fluidly connecting said rear brakes to a first source of fluid in pressure in function of a mechanical input which may be imparted by a driver of said off-road vehicle, said hydraulic braking arrangement being characterized by comprising a remote controlled service brake system fluidly connecting said rear brakes to a second source of fluid in pressure in function of a remote input.
An oral care product array comprising: a handle component comprising a power source; a first refill component comprising a first light generating module configured to emit light in a first spectrum from the first refill component; and a second refill component comprising a second light generating module configured to emit light in a second spectrum from the second refill component, the second spectrum being different than the first spectrum; the first refill component alterable between: a decoupled state in which the first refill component is separated from the handle component; and a coupled state in which the first refill component is mounted to the handle component and the first light generating module is powered by the power source to emit light in the first spectrum from the first refill component; and the second refill component alterable between: a decoupled state in which the second refill component is separated from the handle component; and a coupled state in which the second refill component is mounted to the handle component and the second light generating module is powered by the power source to emit light in the second spectrum from the second refill component; characterized in that the first and second refill components (100a, 100b) each comprise a selection indicator feature and the handle component comprises a selection identifier which interacts with the selection indicator feature when either the first or second refill component (100a, 100b) is in the coupled state. a handle component comprising a power source; a first refill component comprising a first light generating module configured to emit light in a first spectrum from the first refill component; and a second refill component comprising a second light generating module configured to emit light in a second spectrum from the second refill component, the second spectrum being different than the first spectrum; the first refill component alterable between: a decoupled state in which the first refill component is separated from the handle component; and a coupled state in which the first refill component is mounted to the handle component and the first light generating module is powered by the power source to emit light in the first spectrum from the first refill component; and the second refill component alterable between: a decoupled state in which the second refill component is separated from the handle component; and a coupled state in which the second refill component is mounted to the handle component and the second light generating module is powered by the power source to emit light in the second spectrum from the second refill component; characterized in that the first and second refill components (100a, 100b) each comprise a selection indicator feature and the handle component comprises a selection identifier which interacts with the selection indicator feature when either the first or second refill component (100a, 100b) is in the coupled state.
An operating method of a terminal in a wireless communication system, the operating method comprising: identifying a configuration for code block group transmission; receiving downlink control information, DCI, for scheduling physical uplink shared control channel, PUSCH, transmission; determining a number of modulation symbols per layer, Q' ACK for transmission of uplink control information, UCI, wherein the UCI is a hybrid automatic repeat request - acknowledgement, HARQ-ACK, based on, ⌈ O ACK + L ACK ⋅ β offset PUSCH ⋅ ∑ l = 0 N symb, all − 1 PUSCH M SC UCl l ∑ r = 0 C UL − SCH − 1 K r ⌉ a number of code blocks associated with an uplink shared channel, UL-SCH, C UL - SCH, a code block size, K r, for each code block, r, a number of bits of the HARQ-ACK, O ack, a number of CRC bits added to the HARQ-ACK, L ACK, a number of resource elements used for transmission of the UCI, M SC UCl l, a number of symbols assigned for the PUSCH transmission, N symbol, all PUSCH and an offset for the UCI, β offset PUSCH, wherein in case that the DCI includes code block group transmission information, CBGTI, and the CBGTI indicates that an r-th code block associated with the UL-SCH, is not for transmission, the K r is determined as 0, else, the K r is determined as an r-th code block size for the UL-SCH; transmitting, to a base station, the HARQ-ACK on a PUSCH based on the determined number of modulation symbols per layer, Q' ACK. identifying a configuration for code block group transmission; receiving downlink control information, DCI, for scheduling physical uplink shared control channel, PUSCH, transmission; determining a number of modulation symbols per layer, Q' ACK for transmission of uplink control information, UCI, wherein the UCI is a hybrid automatic repeat request - acknowledgement, HARQ-ACK, based on, ⌈ O ACK + L ACK ⋅ β offset PUSCH ⋅ ∑ l = 0 N symb, all − 1 PUSCH M SC UCl l ∑ r = 0 C UL − SCH − 1 K r ⌉ a number of code blocks associated with an uplink shared channel, UL-SCH, C UL - SCH, a code block size, K r, for each code block, r, a number of bits of the HARQ-ACK, O ack, a number of CRC bits added to the HARQ-ACK, L ACK, a number of resource elements used for transmission of the UCI, M SC UCl l, a number of symbols assigned for the PUSCH transmission, N symbol, all PUSCH and an offset for the UCI, β offset PUSCH, wherein in case that the DCI includes code block group transmission information, CBGTI, and the CBGTI indicates that an r-th code block associated with the UL-SCH, is not for transmission, the K r is determined as 0, else, the K r is determined as an r-th code block size for the UL-SCH; transmitting, to a base station, the HARQ-ACK on a PUSCH based on the determined number of modulation symbols per layer, Q' ACK.
An apparatus for manufacturing a molten metal plated steel strip comprising a gas wiping nozzle for jetting a gas onto the surface of a steel strip continuously drawn up from a molten metal (m) plating bath to control the amount of plating on the surface of the steel strip, the gas wiping nozzle including a primary nozzle portion and at least one secondary nozzle portion (2a, 2b) provided either or both above and below the primary nozzle portion, the secondary nozzle portion (2a, 2b) being configured to jet the gas in a direction tilted from the direction in which the primary nozzle portion is configured to jet the gas so that the gas jet from the secondary nozzle portion (2a, 2b) meets the gas jet from the primary nozzle portion, wherein the secondary nozzle portion (2a, 2b) has a gas jetting port (6a, 6b) displaced in the direction opposite to the steel strip at least 5 mm apart from the gas jetting port of the primary nozzle portion, and the secondary nozzle portion (2a, 2b) is configured to jet the gas so that the flow rate of the gas jet from the secondary nozzle portion (2a, 2b) comes to 10 m/s or more at the confluence with the gas jet from the primary nozzle portion.
Operating element arrangement comprising an operating element for a vehicle, the operating element consisting of a region facing an operator and a region arranged in a vehicle panel, and the operating element being mounted so as to be pivotable about an axis of rotation, characterised in that the operating element comprises a plurality of operating fields (12.1, 12.2, 12.3, 12.4, 12.5, 12.6) in the form of pushbuttons or touch-sensitive surfaces, and an actuator associated with the operating element is provided and generates a movement of the operating element when the operating fields (12.1, 12.2, 12.3, 12.4, 12.5, 12.6) of the operating element are actuated.