mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network node for handling simultaneous measurement signaling and data communication with a communications device, the method comprising: - transmitting data to the communication device using a transmission mode corresponding to the communication device using a first number of reception elements (123, 125), - establishing a need for the communication device to perform measurements and a capability of the communication device for receiving measurement signaling using a second number of reception elements (123, 125) while receiving data using a reduced number of reception elements (123, 125), - sending, to the communication device, a request to initialize the measurements, the request comprising a measurement configuration, and - transmitting the data using a transmission mode corresponding to the communication device using the reduced number of reception elements (123, 125) for the data, wherein the first number of reception elements (123, 125) comprises a first set of reception elements comprising all reception elements of the communication device and wherein the reduced number of reception elements comprises a first subset of the reception elements of the first set and the second number of reception elements comprises a second subset comprising the remaining reception elements of the first set not included in the first subset, and wherein the measurement configuration comprises a measurement pattern defining communication resources during which to use the reduced number of reception elements (123, 125) for receiving the data and/or defining communication resources during which to use the first number of reception elements (123, 125) for receiving the data. - transmitting data to the communication device using a transmission mode corresponding to the communication device using a first number of reception elements (123, 125), - establishing a need for the communication device to perform measurements and a capability of the communication device for receiving measurement signaling using a second number of reception elements (123, 125) while receiving data using a reduced number of reception elements (123, 125), - sending, to the communication device, a request to initialize the measurements, the request comprising a measurement configuration, and - transmitting the data using a transmission mode corresponding to the communication device using the reduced number of reception elements (123, 125) for the data,
A device for monitoring flaring activities on a drill ship, the device comprising: a resistive temperature detector located on the drill ship and configured to determine a temperature within a sensing area of the resistive temperature detector, the resistive temperature detector installed within a distance of a flaring boom where a flaring heat of a flaring activity is detected, and configured to determine a temperature within a sensing area of the resistive temperature detector; and a communication device operably connected to the resistive temperature detector, wherein the communication device is configured to receive the temperature data from the resistive temperature detector and to send the temperature data to a flare monitoring system that is operable to record a start time, a duration, and an end time of the flaring activity. a resistive temperature detector located on the drill ship and configured to determine a temperature within a sensing area of the resistive temperature detector, the resistive temperature detector installed within a distance of a flaring boom where a flaring heat of a flaring activity is detected, and configured to determine a temperature within a sensing area of the resistive temperature detector; and a communication device operably connected to the resistive temperature detector, wherein the communication device is configured to receive the temperature data from the resistive temperature detector and to send the temperature data to a flare monitoring system that is operable to record a start time, a duration, and an end time of the flaring activity.
A transparent electrode comprising: a metal thin wire pattern that is constituted by use of metal nanoparticles and that is provided on one main surface of a transparent substrate and a metal oxide layer that is provided on the main surface of the transparent substrate so as to cover a surface of the metal thin wire pattern and that has a surface roughness of 5 nm or less. a metal thin wire pattern that is constituted by use of metal nanoparticles and that is provided on one main surface of a transparent substrate and a metal oxide layer that is provided on the main surface of the transparent substrate so as to cover a surface of the metal thin wire pattern and that has a surface roughness of 5 nm or less.
Method for controlling an apparatus transmitting power between two electricity networks or between an electricity network and a polyphase electric machine (M/G), which electricity networks are polyphase alternating-current networks, and which apparatus comprises transformers and low-voltage power cells, which power cells each comprise a single-phase output connection with output connectors and a single-phase input connection with input connectors and power semiconductor switches connected to the input connectors as well as controllable power semiconductor switches connected to the output connectors, and where the power cells are arranged into groups (G 1 - G N, G P1 - G PN1, G S1 - G SN2, G 1 "'- G N "') such that each group comprises at least one power cell per each phase of both electricity networks or of the electricity network and the polyphase electric machine, and where the power semiconductor switches connected to the input connectors of all the power cells supplying power to the same transformer are controllable and controlled essentially cophasally with a 50% pulse ratio, characterized in that the input connectors of all the power cells belonging to the same group are connected to a common group-specific transformer, which transformer comprises a separate winding for each power cell connected to it and each such winding being galvanically isolated from the other windings.
A method performed by a base station to support network entry of a mobile station in a communication system, the method comprising: transmitting, to the mobile station, system information comprising random access configuration over each of a plurality of downlink, DL, transmission beams; receiving, from the mobile station, an initial random access signal based on the random access configuration, wherein the initial random access signal indicates a preferred DL beam from among the plurality of DL transmission beams; and transmitting a random access acknowledge signal in response to the initial random access signal based on the indicated preferred DL beam to the mobile station. transmitting, to the mobile station, system information comprising random access configuration over each of a plurality of downlink, DL, transmission beams; receiving, from the mobile station, an initial random access signal based on the random access configuration, wherein the initial random access signal indicates a preferred DL beam from among the plurality of DL transmission beams; and transmitting a random access acknowledge signal in response to the initial random access signal based on the indicated preferred DL beam to the mobile station.
A multi-core optical fibre having a plurality of cores, a visual recognition marker, and a shared cladding enclosing the plurality of cores and the visual recognition marker, wherein the plurality of cores and the visual recognition marker extend along the fibre-axis direction, the refractive index of the visual recognition marker is different from the refractive index of the cladding, characterised in that in the cross-section perpendicular to the fibre-axis, the plurality of cores are symmetrically arranged to have a 6-fold rotational symmetry and line symmetry or a 4-fold rotational symmetry and line symmetry, and the visual recognition marker is arranged at a position that breaks such symmetry, and in that the refractive index of at least a part of the visual recognition marker is higher than the refractive index of the cladding. the plurality of cores and the visual recognition marker extend along the fibre-axis direction, the refractive index of the visual recognition marker is different from the refractive index of the cladding, characterised in that in the cross-section perpendicular to the fibre-axis, the plurality of cores are symmetrically arranged to have a 6-fold rotational symmetry and line symmetry or a 4-fold rotational symmetry and line symmetry, and the visual recognition marker is arranged at a position that breaks such symmetry, and in that the refractive index of at least a part of the visual recognition marker is higher than the refractive index of the cladding.
An ocular motor controller for preventing blurring of an image picked up by an ocular device provided in a moving object, the ocular motor controller comprising: an image pickup section, which includes a pair of image pickup devices, used as an ocular device; an ocular drive section adapted to rotate the pair of image pickup devices of the image pickup section based on visual feedback_tracking of a visual target, such that the visual target is located at a predetermined position in images picked up by the pair of image pickup devices of the image pickup section; a distance information acquisition section comprising a rotation angle measurement section for measuring the rotation angles of the pair of image pickup devices and adapted to acquire information related to the distance between the image pickup section and the visual target using the distance between the pair of image pickup devices and the rotation angles thereof; a translational movement sensor adapted to measure a parameter which varies due to translational movement of the moving object, the measured translational movement being independent of the rotational movement of the image pick up section driven by the ocular drive section; and a correction section adapted to correct for the translational movement of the moving object by using the ocular drive section to drive the rotational movement of the image pickup section so as to fix the image pickup position of the visual target, based on the acquired distance information between the image pickup section and the visual target, and on the measured parameter variation occurring in association with the translational movement. an image pickup section, which includes a pair of image pickup devices, used as an ocular device; an ocular drive section adapted to rotate the pair of image pickup devices of the image pickup section based on visual feedback_tracking of a visual target, such that the visual target is located at a predetermined position in images picked up by the pair of image pickup devices of the image pickup section; a distance information acquisition section comprising a rotation angle measurement section for measuring the rotation angles of the pair of image pickup devices and adapted to acquire information related to the distance between the image pickup section and the visual target using the distance between the pair of image pickup devices and the rotation angles thereof; a translational movement sensor adapted to measure a parameter which varies due to translational movement of the moving object, the measured translational movement being independent of the rotational movement of the image pick up section driven by the ocular drive section; and a correction section adapted to correct for the translational movement of the moving object by using the ocular drive section to drive the rotational movement of the image pickup section so as to fix the image pickup position of the visual target, based on the acquired distance information between the image pickup section and the visual target, and on the measured parameter variation occurring in association with the translational movement.
A phase grating (520, 15) for X-ray differential phase-contrast imaging, comprising - a plurality of portions of a first sub-area; and - a plurality of portions of a second sub-area; wherein the first sub-area comprises a grating structure with a plurality of bars and gaps being arranged periodically with a first grating pitch P G1; wherein the bars are arranged such that they change the phase of an X-ray radiation and wherein the gaps are X-ray transparent; wherein the second sub-area is X-ray transparent and wherein the plurality of portions of the second sub-area provide X-ray transparent apertures in the grating; wherein portions of the first and second sub-areas are arranged in an alternating manner in at least one direction, such that during one image acquisition step, phase-contrast image information can be recorded as well as density information. - a plurality of portions of a first sub-area; and - a plurality of portions of a second sub-area; wherein the first sub-area comprises a grating structure with a plurality of bars and gaps being arranged periodically with a first grating pitch P G1; wherein the bars are arranged such that they change the phase of an X-ray radiation and wherein the gaps are X-ray transparent; wherein the second sub-area is X-ray transparent and wherein the plurality of portions of the second sub-area provide X-ray transparent apertures in the grating; wherein portions of the first and second sub-areas are arranged in an alternating manner in at least one direction, such that during one image acquisition step, phase-contrast image information can be recorded as well as density information.
A synthetic closure for a product retaining container constructed for being inserted and securely retained in a portal forming neck of said container, said closure comprising at least one thermoplastic polymer and at least one fatty acid derivative, characterised by said closure having an oxygen transfer rate in axial direction as determined by Mocon measurement using 100% oxygen from about 0.0001 to about 0.1000 cc/day/closure, in particular from about 0.0005 to about 0.050 cc/day/closure.
A blood treatment device comprising: a dialyser; an inlet pump assembly configured to deliver a first volume of dialysate from a dialysate source to the dialyser in an inlet pump cycle having a dialysate delivery stroke; an outlet pump assembly configured to remove a second volume of dialysate from the dialyser and deliver the dialysate away from the dialyser in an outlet pump cycle having a dialysate removal stroke; a control system configured to operate the inlet pump assembly in the inlet pump cycle, and configured to operate the outlet pump assembly in the outlet pump cycle, wherein for each inlet pump cycle there is a corresponding outlet pump cycle, wherein each inlet pump assembly dialysate delivery stroke has a commencement time t 1 and a termination time t 2, each outlet pump assembly dialysate removal stroke has a commencement time t 3 and a termination time t 4, and characterized in that either: each dialysate removal stroke commencement time t 3 is after the respective corresponding dialysate delivery stroke commencement time t 1 and before the respective corresponding dialysate delivery stroke termination time t 2; or each dialysate delivery stroke commencement time t 1 is after the respective corresponding dialysate removal stroke commencement time t 3 and before the respective corresponding dialysate removal stroke termination time t 4. a dialyser; an inlet pump assembly configured to deliver a first volume of dialysate from a dialysate source to the dialyser in an inlet pump cycle having a dialysate delivery stroke; an outlet pump assembly configured to remove a second volume of dialysate from the dialyser and deliver the dialysate away from the dialyser in an outlet pump cycle having a dialysate removal stroke; a control system configured to operate the inlet pump assembly in the inlet pump cycle, and configured to operate the outlet pump assembly in the outlet pump cycle, wherein for each inlet pump cycle there is a corresponding outlet pump cycle, wherein each inlet pump assembly dialysate delivery stroke has a commencement time t 1 and a termination time t 2, each outlet pump assembly dialysate removal stroke has a commencement time t 3 and a termination time t 4, and characterized in that either: each dialysate removal stroke commencement time t 3 is after the respective corresponding dialysate delivery stroke commencement time t 1 and before the respective corresponding dialysate delivery stroke termination time t 2; or each dialysate delivery stroke commencement time t 1 is after the respective corresponding dialysate removal stroke commencement time t 3 and before the respective corresponding dialysate removal stroke termination time t 4. each dialysate removal stroke commencement time t 3 is after the respective corresponding dialysate delivery stroke commencement time t 1 and before the respective corresponding dialysate delivery stroke termination time t 2; or each dialysate delivery stroke commencement time t 1 is after the respective corresponding dialysate removal stroke commencement time t 3 and before the respective corresponding dialysate removal stroke termination time t 4.
A tobacco-heating smoking set comprising: a first component and a second component, wherein the first component is detachably fixed on the second component; the first component comprising: a first housing and a bracket, wherein the bracket is fixed on the first housing, and a heating chamber is formed inside the bracket for accommodating at least one part of a cigarette; the second component comprises: a second housing and a heating component, wherein the second housing is matched and engaged with the first housing to form a housing of the tobacco-heating smoking set, the heating component is fixed on the second housing, the heating component comprises a heating element, the heating element is accommodated in the heating chamber, and is configured for heating a cigarette, and the first component is capable of being removed from the second component to expose the heating element; characterized in that: the first component further comprises a coil and a first electrical connection part connected to the coil, the coil is arranged on the bracket and is configured for generating an alternating magnetic field, the heating component of the second component is also provided with a second electrical connection part connected to a battery, and the first electrical connection part is configured to electrically contact the second electrical connection part when the first component and the second component are in a connection state. a first component and a second component, wherein the first component is detachably fixed on the second component; the first component comprising: a first housing and a bracket, wherein the bracket is fixed on the first housing, and a heating chamber is formed inside the bracket for accommodating at least one part of a cigarette; the second component comprises: a second housing and a heating component, wherein the second housing is matched and engaged with the first housing to form a housing of the tobacco-heating smoking set, the heating component is fixed on the second housing, the heating component comprises a heating element, the heating element is accommodated in the heating chamber, and is configured for heating a cigarette, and the first component is capable of being removed from the second component to expose the heating element; characterized in that: the first component further comprises a coil and a first electrical connection part connected to the coil, the coil is arranged on the bracket and is configured for generating an alternating magnetic field, the heating component of the second component is also provided with a second electrical connection part connected to a battery, and the first electrical connection part is configured to electrically contact the second electrical connection part when the first component and the second component are in a connection state.
Connection arrangement for establishing an electrical connection from an interior room of a sealed housing to an outside of the sealed housing, comprising a first connection line adapted to be electrically coupled to an electric source arranged outside the housing; a second connection line adapted to be electrically coupled to an electric element arranged in the interior room; and an interconnecting element; wherein the first connection line is configured for being guided through an opening in a wall of the housing into the interior room; wherein an end section of the first connection line and an end section of the second connection line are both electrically and mechanically connected to the interconnecting element in order to establish an electrical connection from the interior room of the sealed housing to the outside of the sealed housing; characterized in that the end section of the first connection line and the interconnecting element are both sealed by means of a sealing material with respect to the opening in the wall such that the interior room of the housing is sealed with respect to the surroundings of the housing; and wherein the sealing material completely surrounds the interconnecting element.
A sheet stacking apparatus comprising: discharge means configured to discharge a sheet; a stacking tray (700, 701) on which the sheet to be discharged by the discharge means is stacked; detection means (730, 731) configured to detect the presence of the sheet on the stacking tray (700, 701); alignment means (710, 711) configured to perform an alignment operation to align the sheet stacked on the stacking tray in a width direction which is orthogonal to a direction in which the sheet is discharged, the alignment means including first and second alignment members operable to move in the width direction and to contact side ends in the width direction of the sheet stacked on the stacking tray to align the sheet; control means configured to, on a first sheet stacked on the stacking tray, when a second sheet of a different dimension in the width direction from the first sheet is stacked, prohibit an alignment operation by the alignment means on the second sheet; and characterized in that the control means is further configured to prohibit the alignment operation in the case that a plurality of other sheets having a dimension in the width direction that is the same as the dimension in the width direction of the second sheet are stacked on the second sheet, and the detection unit (730, 731) detects the presence of sheets on the stacking tray (700, 701). discharge means configured to discharge a sheet; a stacking tray (700, 701) on which the sheet to be discharged by the discharge means is stacked; detection means (730, 731) configured to detect the presence of the sheet on the stacking tray (700, 701); alignment means (710, 711) configured to perform an alignment operation to align the sheet stacked on the stacking tray in a width direction which is orthogonal to a direction in which the sheet is discharged, the alignment means including first and second alignment members operable to move in the width direction and to contact side ends in the width direction of the sheet stacked on the stacking tray to align the sheet; control means configured to, on a first sheet stacked on the stacking tray, when a second sheet of a different dimension in the width direction from the first sheet is stacked, prohibit an alignment operation by the alignment means on the second sheet; and characterized in that the control means is further configured to prohibit the alignment operation in the case that a plurality of other sheets having a dimension in the width direction that is the same as the dimension in the width direction of the second sheet are stacked on the second sheet, and the detection unit (730, 731) detects the presence of sheets on the stacking tray (700, 701).