mhurhangee/ep-ind-claims huggingface dataset:
A method of managing carrier aggregation for a multi-radio access technology, RAT, wireless transmit/receive unit, WTRU,, the method comprising: receiving, by the WTRU over a primary channel associated with a RAT of a first type, provisioning information for provisioning a supplementary channel associated with a RAT of a second type; establishing the supplementary channel associated with the RAT of the second type based on the received provisioning information; and wirelessly exchanging, by the WTRU, first data associated with a communication over the primary channel via the RAT of the first type, while wirelessly exchanging second data associated with the communication over the supplementary channel via the RAT of the second type, said method characterized by further comprising the steps of: determining, from the received provisioning information, one or more component carriers associated with the RAT of the second type to be provisioned for wirelessly exchanging the second data over the supplementary channel; and determining an activation/deactivation state of at least one component carrier of the RAT of the second type based on control signaling received in the RAT of the first type. receiving, by the WTRU over a primary channel associated with a RAT of a first type, provisioning information for provisioning a supplementary channel associated with a RAT of a second type; establishing the supplementary channel associated with the RAT of the second type based on the received provisioning information; and wirelessly exchanging, by the WTRU, first data associated with a communication over the primary channel via the RAT of the first type, while wirelessly exchanging second data associated with the communication over the supplementary channel via the RAT of the second type, said method characterized by further comprising the steps of: determining, from the received provisioning information, one or more component carriers associated with the RAT of the second type to be provisioned for wirelessly exchanging the second data over the supplementary channel; and determining an activation/deactivation state of at least one component carrier of the RAT of the second type based on control signaling received in the RAT of the first type. determining, from the received provisioning information, one or more component carriers associated with the RAT of the second type to be provisioned for wirelessly exchanging the second data over the supplementary channel; and determining an activation/deactivation state of at least one component carrier of the RAT of the second type based on control signaling received in the RAT of the first type.
A medical device, comprising: an elongate member having a distal end and a proximal end; an inflow lumen disposed within the elongate member, the inflow lumen having a proximal end, a distal end and a slanting exit opening at the distal end of the inflow lumen; and an outflow lumen also disposed within the elongate member, the outflow lumen having a proximal end, a distal end and a slanting receiving opening at the distal end of the outflow lumen; wherein the distal end of the inflow lumen and the distal end of the outflow lumen are configured to be connected, wherein the connecting portion (5, 6) surrounds both the exit opening of the inflow lumen and the receiving opening of the outflow lumen, characterised in that the slanting exit opening of the inflow lumen and the slanting receiving opening of the outflow lumen are configured to face each other, and the exit opening of the inflow lumen meets the receiving opening of the outflow lumen at an open space. an elongate member having a distal end and a proximal end; an inflow lumen disposed within the elongate member, the inflow lumen having a proximal end, a distal end and a slanting exit opening at the distal end of the inflow lumen; and an outflow lumen also disposed within the elongate member, the outflow lumen having a proximal end, a distal end and a slanting receiving opening at the distal end of the outflow lumen; wherein the distal end of the inflow lumen and the distal end of the outflow lumen are configured to be connected, wherein the connecting portion (5, 6) surrounds both the exit opening of the inflow lumen and the receiving opening of the outflow lumen, characterised in that the slanting exit opening of the inflow lumen and the slanting receiving opening of the outflow lumen are configured to face each other, and the exit opening of the inflow lumen meets the receiving opening of the outflow lumen at an open space.
A textile fabric in the form of a knitted fabric as loop components for a Velcro fastener of hook and loop type, in which stitch and loop are made of yarn threads as a unit inasmuch as in each continuous stitch loops are present simultaneously in the longitudinal direction as well as in the transversal direction, characterised in that a stitch density is in the range comprised between 2500 and 7000 stitches/dm 2 for a stitch length in the range comprised between 0.5 and 2 mm with a basis weight from 5 to 15 g/m 2.
A light emitting diode, LED, chip, comprising: a substrate; a GaN-based compound semiconductor stacked structure arranged on the substrate, the semiconductor stacked structure comprising a first conductivity-type semiconductor layer, an active layer, and a second conductivity-type semiconductor layer; an electrode electrically connected to the semiconductor stacked structure; and a wavelength converting layer covering a portion of the semiconductor stacked structure, wherein the electrode passes through the wavelength converting layer, wherein the electrode comprises a first electrode arranged on the semiconductor stacked structure, and a first additional electrode arranged on the first electrode, characterized in that the first additional electrode becomes continuously narrower as it extends away from the first electrode, wherein a top surface of the first additional electrode is exposed to the outside of the LED chip by passing through the wavelength converting layer, wherein the top surface of the first additional electrode and the top surface of the wavelength converting layer are substantially flat, and wherein the top surface of the first additional electrode is flush with the top surface of the wavelength converting layer. a substrate; a GaN-based compound semiconductor stacked structure arranged on the substrate, the semiconductor stacked structure comprising a first conductivity-type semiconductor layer, an active layer, and a second conductivity-type semiconductor layer; an electrode electrically connected to the semiconductor stacked structure; and a wavelength converting layer covering a portion of the semiconductor stacked structure, wherein the electrode passes through the wavelength converting layer, wherein the electrode comprises a first electrode arranged on the semiconductor stacked structure, and a first additional electrode arranged on the first electrode, characterized in that the first additional electrode becomes continuously narrower as it extends away from the first electrode, wherein a top surface of the first additional electrode is exposed to the outside of the LED chip by passing through the wavelength converting layer, wherein the top surface of the first additional electrode and the top surface of the wavelength converting layer are substantially flat, and wherein the top surface of the first additional electrode is flush with the top surface of the wavelength converting layer.
An anti-tamper method for protecting a program code portion against tampering, the anti-tamper method comprising: dividing said program code portion into a plurality of code segments (C, C a, C b); defining a sequence of code segments from the code segments, wherein said sequence of code segments comprises a root-code segment and a plurality of sub-code segments (C a, C b); providing each sub-code segment with an integrity checking portion for checking the integrity of a target code segment, said target code segment of a given sub-code segment being the code segment that is sequentially adjacent in a checking direction towards said root-code segment; wherein the integrity checking portion of a given sub-code segment is operable to carry out a checking procedure (P, P 1, P 2) on memory associated with the respective target code segment to obtain a runtime result (r 1, r 2), and to compare said runtime result with a reference result (R 1, R 2) comprised in said given sub-code segment, characterized in that the integrity checking portion of a given sub-code segment (C, C a, C b) is further operable to write said runtime result (r 1, r 2) into memory (M Car1, M Cbr2) associated with the given sub-code segment, such that the integrity checking procedure (P, P 1, P 2) of a further sub-code segment sequentially adjacent in a checking direction away from said root-code segment carries out the checking procedure on memory including the runtime result. dividing said program code portion into a plurality of code segments (C, C a, C b); defining a sequence of code segments from the code segments, wherein said sequence of code segments comprises a root-code segment and a plurality of sub-code segments (C a, C b); providing each sub-code segment with an integrity checking portion for checking the integrity of a target code segment, said target code segment of a given sub-code segment being the code segment that is sequentially adjacent in a checking direction towards said root-code segment; wherein the integrity checking portion of a given sub-code segment is operable to carry out a checking procedure (P, P 1, P 2) on memory associated with the respective target code segment to obtain a runtime result (r 1, r 2), and to compare said runtime result with a reference result (R 1, R 2) comprised in said given sub-code segment, characterized in that the integrity checking portion of a given sub-code segment (C, C a, C b) is further operable to write said runtime result (r 1, r 2) into memory (M Car1, M Cbr2) associated with the given sub-code segment, such that the integrity checking procedure (P, P 1, P 2) of a further sub-code segment sequentially adjacent in a checking direction away from said root-code segment carries out the checking procedure on memory including the runtime result.
An X-ray imaging system comprising means for obtaining sizing information to estimate the extent of a lesion; wherein the X-ray imaging system is configured to: - obtain a vessel X-ray image of a vessel including the lesion; - obtain a fluoroscopy X-ray image of a radiopaque wire tip of a guide wire introduced in the vessel; - segment and model the wire tip; and - provide the sizing information based on the length of the wire tip; wherein the X-ray imaging system is further comprising computing means which are configured to provide the sizing information by computing a virtual ruler made of a curve parallel to the tip curve; wherein the curve has a tip-length-based graduation based on the length of the segmented and modelled wire tip; and wherein the X-ray imaging system is further configured to overlay the virtual ruler on the vessel X-ray image. - obtain a vessel X-ray image of a vessel including the lesion; - obtain a fluoroscopy X-ray image of a radiopaque wire tip of a guide wire introduced in the vessel; - segment and model the wire tip; and - provide the sizing information based on the length of the wire tip;
An internal combustion engine, comprising: a combustion chamber with a first aperture; a compression chamber with a second aperture; and a crossover valve comprising an internal chamber, first and second valve seats (121, 122; 221, 222), a valve head, and first and second valve faces on the valve head, wherein the first aperture allows fluid communication between the combustion chamber and the internal chamber, the second aperture allows fluid communication between the compression chamber and the internal chamber, the first valve face couples to the first valve seat to occlude the first aperture, the second valve face couples to the second valve seat to occlude the second aperture; and the valve head moves within the internal chamber and between the first and second apertures so that the crossover valve alternatively occludes the first aperture and the second aperture, and occludes neither the first aperture nor second aperture at some position during movement within the internal chamber; a bias that provides a force to assist the valve head move within the internal chamber in the direction of both the first and the second apertures, wherein the bias further comprises a camshaft, a camshaft follower, a rocker, a return spring, and a push rod; and wherein the crossover valve head is smaller than the internal chamber in at least one dimension to allow fluid communication between the compression chamber and combustion chamber when the valve head is positioned within the internal chamber and does not occlude the first aperture and the second aperture. a combustion chamber with a first aperture; a compression chamber with a second aperture; and a crossover valve comprising an internal chamber, first and second valve seats (121, 122; 221, 222), a valve head, and first and second valve faces on the valve head, wherein the first aperture allows fluid communication between the combustion chamber and the internal chamber, the second aperture allows fluid communication between the compression chamber and the internal chamber, the first valve face couples to the first valve seat to occlude the first aperture, the second valve face couples to the second valve seat to occlude the second aperture; and the valve head moves within the internal chamber and between the first and second apertures so that the crossover valve alternatively occludes the first aperture and the second aperture, and occludes neither the first aperture nor second aperture at some position during movement within the internal chamber; a bias that provides a force to assist the valve head move within the internal chamber in the direction of both the first and the second apertures, wherein the bias further comprises a camshaft, a camshaft follower, a rocker, a return spring, and a push rod; and wherein the crossover valve head is smaller than the internal chamber in at least one dimension to allow fluid communication between the compression chamber and combustion chamber when the valve head is positioned within the internal chamber and does not occlude the first aperture and the second aperture.
A method for determining corrected wind speed data for a wind driven turbine comprising a nacelle based anemometer disposed within a stream tube of free wind impinging upon rotor blades of the turbine, the method comprising: measuring wind speed with the anemometer to produce uncorrected wind speed data; receiving the uncorrected wind speed data in a processing unit; obtaining values for parameters for the turbine operation by at least one of measuring the parameter values and selecting predetermined parameter values; and processing the uncorrected wind speed data and the values with the processing unit to determine the corrected wind speed data corresponding to a free stream wind speed. measuring wind speed with the anemometer to produce uncorrected wind speed data; receiving the uncorrected wind speed data in a processing unit; obtaining values for parameters for the turbine operation by at least one of measuring the parameter values and selecting predetermined parameter values; and processing the uncorrected wind speed data and the values with the processing unit to determine the corrected wind speed data corresponding to a free stream wind speed.
A method of recovering excess energy in an electric power station, the electric power station being for powering an electrical installation and comprising a converter device for converting renewable energy into electrical energy and main storage means for storing the electrical energy, the method comprising the steps of: - connecting a recovery device to the electric power station for the purpose of drawing surplus current (Is) coming from the electric power station, the recovery device including a power converter; - current controlling the power converter while performing a regulation loop (27, 28); - defining, at a time Tn a surplus current setpoint (Is_n) for the regulation loop; - incrementing, at a time Tn+1=Tn+ΔT0, the surplus current setpoint (Is_n) by a first predetermined value (ΔIs0); - measuring a battery current (Ibatt_n+1) of the main storage means; - if the increment in the surplus current setpoint results in a decrease in the battery current greater than a second predetermined value (k.ΔIs0), decrementing the surplus current setpoint by the first predetermined value (ΔIs0); - else, incrementing the surplus current setpoint (Is_n+1) once more by the first predetermined value. - connecting a recovery device to the electric power station for the purpose of drawing surplus current (Is) coming from the electric power station, the recovery device including a power converter; - current controlling the power converter while performing a regulation loop (27, 28); - defining, at a time Tn a surplus current setpoint (Is_n) for the regulation loop; - incrementing, at a time Tn+1=Tn+ΔT0, the surplus current setpoint (Is_n) by a first predetermined value (ΔIs0); - measuring a battery current (Ibatt_n+1) of the main storage means; - if the increment in the surplus current setpoint results in a decrease in the battery current greater than a second predetermined value (k.ΔIs0), decrementing the surplus current setpoint by the first predetermined value (ΔIs0); - else, incrementing the surplus current setpoint (Is_n+1) once more by the first predetermined value.
A light emitting device (100,200) comprising: an optical component (10,20,30) comprising: multiple light transmissive members, each of the light transmissive members having an upper face, a lower face, and at least one lateral face; and a light reflecting member that surrounds the at least one lateral face of each of the light transmissive members, wherein the light reflecting member is made of a ceramic that contains a plurality of pores, and wherein the plurality of pores are localized in a vicinity of each of the light transmissive members in a cross section that extends through the light transmissive member and the light reflecting member, multiple light emitting elements disposed on an upper surface of a substrate, and wherein the optical component is arranged on upper faces of the light emitting elements such that one of the light transmissive members is positioned on the upper face of one or two or more light emitting elements. an optical component (10,20,30) comprising: multiple light transmissive members, each of the light transmissive members having an upper face, a lower face, and at least one lateral face; and a light reflecting member that surrounds the at least one lateral face of each of the light transmissive members, wherein the light reflecting member is made of a ceramic that contains a plurality of pores, and wherein the plurality of pores are localized in a vicinity of each of the light transmissive members in a cross section that extends through the light transmissive member and the light reflecting member, multiple light transmissive members, each of the light transmissive members having an upper face, a lower face, and at least one lateral face; and a light reflecting member that surrounds the at least one lateral face of each of the light transmissive members, wherein the light reflecting member is made of a ceramic that contains a plurality of pores, and wherein the plurality of pores are localized in a vicinity of each of the light transmissive members in a cross section that extends through the light transmissive member and the light reflecting member, multiple light emitting elements disposed on an upper surface of a substrate, and wherein the optical component is arranged on upper faces of the light emitting elements such that one of the light transmissive members is positioned on the upper face of one or two or more light emitting elements.
A control device of a radiography system (1, 2) that comprises a mammography apparatus (10, 11) that includes a radiation source, a radiation detector, and a compression member, wherein the mammography apparatus (10, 11) is configured to compress a breast disposed between the radiation source and the radiation detector and capture a radiographic image of a breast in the compressed state using the radiation detector, and wherein the mammography apparatus (10, 11) is configured for performing continuous imaging in which a breast of a subject is irradiated with radiation emitted from the radiation source to capture a radiographic image in a compressed state in which the breast is compressed against an imaging table by the compression member and then an ultrasound image of the breast in the compressed state is captured using a hand-held ultrasonography apparatus; the control device comprising: a specification unit configured to specify the position of the hand-held ultrasonography apparatus from an image captured by an imaging device, which is configured to capture an image of the surroundings of the mammography apparatus, or from user input information; and a control unit configured to, when said continuous imaging is performed, perform control to locate the radiation source during capture of the ultrasound image at a non-facing position in which the radiation axis of the radiation source is inclined with respect to the imaging table, wherein the control unit sets the position of the radiation source to a position opposite to the hand-held ultrasonography apparatus on the left and right sides of the subject, based on the position of the hand-held ultrasonography apparatus specified by the specification unit. a specification unit configured to specify the position of the hand-held ultrasonography apparatus from an image captured by an imaging device, which is configured to capture an image of the surroundings of the mammography apparatus, or from user input information; and a control unit configured to, when said continuous imaging is performed, perform control to locate the radiation source during capture of the ultrasound image at a non-facing position in which the radiation axis of the radiation source is inclined with respect to the imaging table, wherein the control unit sets the position of the radiation source to a position opposite to the hand-held ultrasonography apparatus on the left and right sides of the subject, based on the position of the hand-held ultrasonography apparatus specified by the specification unit.