mhurhangee/ep-ind-claims huggingface dataset:
A method for performing a drilling operation in a wellbore (26, 408, 506a, 506b) using a drill string (20, 204), the method comprising: measuring at least one first formation characteristic with at least one sensor; generating a model to represent a formation around the wellbore (26, 408, 506a, 506b) based on the measured at least one first formation characteristic; measuring at least one second formation characteristic by means of a hydraulic test, wherein the hydraulic test comprises at least one of producing fluid from or injecting fluid into the wellbore, the at least one second formation characteristic being different from the at least one first formation characteristic; automatically updating the model based on the measured at least one second formation characteristic; and performing a drilling operation based on the updated model; wherein the hydraulic test is conducted with a hydraulic testing tool, wherein a configuration of the hydraulic testing tool is selected based on information related to at least one of the at least one first formation characteristic or the model; wherein the drill string has a bottomhole assembly, and the hydraulic testing tool is configured on the bottomhole assembly (202, 504b). measuring at least one first formation characteristic with at least one sensor; generating a model to represent a formation around the wellbore (26, 408, 506a, 506b) based on the measured at least one first formation characteristic; measuring at least one second formation characteristic by means of a hydraulic test, wherein the hydraulic test comprises at least one of producing fluid from or injecting fluid into the wellbore, the at least one second formation characteristic being different from the at least one first formation characteristic; automatically updating the model based on the measured at least one second formation characteristic; and performing a drilling operation based on the updated model; wherein the hydraulic test is conducted with a hydraulic testing tool, wherein a configuration of the hydraulic testing tool is selected based on information related to at least one of the at least one first formation characteristic or the model; wherein the drill string has a bottomhole assembly, and the hydraulic testing tool is configured on the bottomhole assembly (202, 504b).
A packaging strap for strapping elongated items, made of a segment of a ribbon of a material, in particular paper, whose inner surface is suitable for being coated with an adhesive layer and the outer surface of the segment of the ribbon is covered with an informative-decorative print, wherein both ends of the segment of the ribbon are connected to each other in particular by gluing, welding or stitching, and a tearstrip is mounted to the inner surface of the segment of the ribbon of material, and one of the endings of the tearstrip constitutes a flat handle, characterised in that the breaking strength of the tearstrip is similar to or lower than the breaking strength of the ribbon of material and, along the tearstrip, on at least one side thereof, there are at least two weak areas in the form of cuts, perforations or embossments, placed at a distance of 1 to 5 mm from each other, preferably 2 to 4 mm from each other, wherein one of these weak areas has a length of no more than 2 mm, preferably about 1 mm, and the combined length of the weak areas on one side of the tearstrip is at least 31 mm..
Axle unit for a commercial vehicle, - with an axle body, - with at least one trailing arm connected with the axle body and oriented transversely to the axle body, and - with a U-shaped clamping element which, encompassing the axle body, is braced against the trailing arm and holds the axle body on the trailing arm, - wherein a shell element is arranged between the clamping element and the axle body, via which the clamping element acts on the axle body, and which comprises a bearing surface associated with the axle body, with which it rests tightly against the associated circumferential surface of the axle body when the axle unit is completely mounted, characterised in that - the shell element is supported on the trailing arm by at least one of the narrow sides (26,27) facing the trailing arm. - with an axle body, - with at least one trailing arm connected with the axle body and oriented transversely to the axle body, and - with a U-shaped clamping element which, encompassing the axle body, is braced against the trailing arm and holds the axle body on the trailing arm, - wherein a shell element is arranged between the clamping element and the axle body, via which the clamping element acts on the axle body, and which comprises a bearing surface associated with the axle body, with which it rests tightly against the associated circumferential surface of the axle body when the axle unit is completely mounted, characterised in that - the shell element is supported on the trailing arm by at least one of the narrow sides (26,27) facing the trailing arm.
A method for device association, interference mitigation and channel selection, for use in a visible light communication, VLC, network the method comprising: transmitting, by a first device, on every one of a plurality of supported color channels of the first device to estimate an ambient interference on each supported color channel; receiving, by the first device, a transmission from a second device in the VLC network on at least some of the supported color channels, where the number of receiving color channels is less than or equal to the number of supported color channels; calculating, by the first device, a channel quality index, CQI, for each of the receiving color channels; selecting, by the first device, at least one of the receiving color channels of the first device to be used as a communication channel; and reporting, by the first device, the at least one communication channel to the second device. transmitting, by a first device, on every one of a plurality of supported color channels of the first device to estimate an ambient interference on each supported color channel; receiving, by the first device, a transmission from a second device in the VLC network on at least some of the supported color channels, where the number of receiving color channels is less than or equal to the number of supported color channels; calculating, by the first device, a channel quality index, CQI, for each of the receiving color channels; selecting, by the first device, at least one of the receiving color channels of the first device to be used as a communication channel; and reporting, by the first device, the at least one communication channel to the second device.
A medical system comprising a catheter configured to be inserted into a body part of a living subject, and including: a deflectable element extending along a longitudinal axis from a proximal portion to a distal end; an expandable distal end assembly disposed proximate the distal end of the deflectable element, and comprising a plurality of electrodes disposed about the longitudinal axis, and configured to expand from a collapsed form to an expanded deployed form; a proximal electrode disposed proximate the distal end of the deflectable element adjacent to the expandable distal end assembly, and extending circumferentially around the deflectable element, and including irrigation holes through which irrigation fluid is provided thereto; an annular hollow defined between the proximal electrode and the deflectable element; and an irrigation tube disposed in the deflectable element, coupled to the annular hollow to transfer irrigation fluid into the annular hollow, and configured to be in fluid communication with the irrigation holes of the proximal electrode via the annular hollow. a deflectable element extending along a longitudinal axis from a proximal portion to a distal end; an expandable distal end assembly disposed proximate the distal end of the deflectable element, and comprising a plurality of electrodes disposed about the longitudinal axis, and configured to expand from a collapsed form to an expanded deployed form; a proximal electrode disposed proximate the distal end of the deflectable element adjacent to the expandable distal end assembly, and extending circumferentially around the deflectable element, and including irrigation holes through which irrigation fluid is provided thereto; an annular hollow defined between the proximal electrode and the deflectable element; and an irrigation tube disposed in the deflectable element, coupled to the annular hollow to transfer irrigation fluid into the annular hollow, and configured to be in fluid communication with the irrigation holes of the proximal electrode via the annular hollow.
Pallet comprising a cardboard sheet having perforation lines and crosspieces forming supports, characterised in that said sheet comprises a first perforation line and a second perforation line, which are in parallel, each of said first and second lines comprises notches which are distributed along said line (16, 18), the notches in the second line being offset relative to those in the first line, and the projections thereof over the first line overlapping the notches in the first line, each of the crosspieces comprising a cardboard casing having perforations (26, 28) which are positioned so as to follow on from the perforation lines (16, 18) in the sheet in order to allow the pallet to be divided into two half-pallets (12, 14).
An overvoltage protection device comprising a bracket with terminal connectors, connectable to a circuit to be protected; and at least one slide-in protective member, mounted in the bracket in replaceable manner, with contacts (5, 6), electrically connected with the respective terminal connectors of the bracket, in the slide-in protective member at least one nonlinear resistance element with electrodes (9, 11) a disconnecting device of the nonlinear resistance element, and at least a part of a signalling device for local and/or remote signalling of the status of the overvoltage protection device, the signalling device comprising a visual signalling lever and/or a positioning element of a remote signalling device mounted in the bracket, whereby the disconnecting device comprises a sliding member which is spring-loaded against a low-melting bond of an electrode of the nonlinear resistance element with a cable, the cable is further connected with one of the contacts (5, 6), and is fitted with at least one surface for acting on an visual signalling lever and with at least one surface for acting on the positioning element a bracket with terminal connectors, connectable to a circuit to be protected; and with terminal connectors, connectable to a circuit to be protected; and at least one slide-in protective member, mounted in the bracket in replaceable manner, with contacts (5, 6), electrically connected with the respective terminal connectors of the bracket, with contacts (5, 6), electrically connected with the respective terminal connectors of the bracket, in the slide-in protective member at least one nonlinear resistance element with electrodes (9, 11) a disconnecting device of the nonlinear resistance element, and at least a part of a signalling device for local and/or remote signalling of the status of the overvoltage protection device, the signalling device comprising a visual signalling lever and/or a positioning element of a remote signalling device mounted in the bracket, at least one nonlinear resistance element with electrodes (9, 11) a disconnecting device of the nonlinear resistance element, and at least a part of a signalling device for local and/or remote signalling of the status of the overvoltage protection device, the signalling device comprising a visual signalling lever and/or a positioning element of a remote signalling device mounted in the bracket, the disconnecting device comprises a sliding member which is spring-loaded against a low-melting bond of an electrode of the nonlinear resistance element with a cable, the cable is further connected with one of the contacts (5, 6), and is fitted with at least one surface for acting on an visual signalling lever and with at least one surface for acting on the positioning element is spring-loaded against a low-melting bond of an electrode of the nonlinear resistance element with a cable, the cable is further connected with one of the contacts (5, 6), and is fitted with at least one surface for acting on an visual signalling lever and with at least one surface for acting on the positioning element
Steam generator comprising a first flue with a combustion chamber and a vaporiser and at least one second flue with at least one heat exchanger, in particular a vaporiser, superheater, air pre-heater and/or an economiser, wherein the combustion chamber has a grate stoker furnace and a separation device, in particular a cyclone is arranged between the first and the at least one second flue (1, 2) to separate particles and aerosols, characterised in that the outflow region of the second flue is connected to the combustion chamber via a recirculating gas line such that at least one part of the flue gas cooled in the second flue of the steam generate can be fed back into the combustion chamber of the first flue as recirculation gas.
A sample analyzer comprising: a pipette for dispensing a reagent or a sample; a pipette moving mechanism for moving the pipette; a position confirming section disposed at a position where the pipette can be reached; and a controller for performing a position confirming process comprising: moving the pipette by the pipette moving mechanism so as to be disposed at a predetermined position included in the position confirming section; judging whether the pipette has collided with the position confirming section; moving the pipette to an upper limit position and then stopping the pipette if it is determined that the pipette collided with the position confirming section; and displaying a position confirmation error and a confirmation button on a display section, wherein the confirmation button is configured to return the sample analyzer to a standby state. a pipette for dispensing a reagent or a sample; a pipette moving mechanism for moving the pipette; a position confirming section disposed at a position where the pipette can be reached; and a controller for performing a position confirming process comprising: moving the pipette by the pipette moving mechanism so as to be disposed at a predetermined position included in the position confirming section; judging whether the pipette has collided with the position confirming section; moving the pipette to an upper limit position and then stopping the pipette if it is determined that the pipette collided with the position confirming section; and displaying a position confirmation error and a confirmation button on a display section, wherein the confirmation button is configured to return the sample analyzer to a standby state. moving the pipette by the pipette moving mechanism so as to be disposed at a predetermined position included in the position confirming section; judging whether the pipette has collided with the position confirming section; moving the pipette to an upper limit position and then stopping the pipette if it is determined that the pipette collided with the position confirming section; and displaying a position confirmation error and a confirmation button on a display section, wherein the confirmation button is configured to return the sample analyzer to a standby state.
A lifting and transporting device for lifting a load and for transporting the same transversely to the lifting direction, for use in manufacturing a screwed flange connection, in order to lift a bolt tensioning cylinder from a screw bolt connection and transport it to the next screw bolt connection, wherein the flange extends horizontally, comprising a frame which for taking up and lifting a load extends around a load space of specified size, a holding device for holding the load, wherein the holding device is movable in lifting direction relative to the frame, and comprising a lifting device which is attached to the frame transversely to the lifting direction beside the load space, includes a portion extending on its load space side, to which the holding device is attached, and which is equipped for lifting and lowering the holding device with attached load, wherein the frame is mounted on a first and a second support (5, 6) whose support directions (5a, 6a) each extend vertically to the transport direction and at a specified angle to each other, and which both in lifting direction and vertically to the transport direction and to the lifting direction have a distance to each other, and wherein the supports (5, 6) include sliding elements or rollers (32, 38) which are shiftable or rollable in transport direction, characterized in that the first support is designed for abutment against the upper side of the flange between screw bolt connection and flange edge and the second support is designed for abutment above the screw bolt connection against a component wall proceeding from the flange.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: detecting a synchronization signal and physical broadcast channel block, SS/PBCH block; in case that the SS/PBCH block is not located on a frequency location of a synchronization raster entry, identifying an offset from a smallest resource block, RB, index of control resource set, CORESET, for TypeO-PDCCH to a smallest RB index of a common RB overlapping with a first RB of the SS/PBCH block based on a sum of a first offset and a second offset; and monitoring the TypeO-PDCCH based on the identified offset, wherein the first offset is configured based on a master information block, MIB, in the detected SS/PBCH block, and wherein the second offset is identified based on an offset from the smallest RB index of the common RB overlapping with the first RB of the SS/PBCH block to a smallest RB index of a common RB overlapping with a first RB of another SS/PBCH block hypothetically located on the frequency location of the synchronization raster entry. detecting a synchronization signal and physical broadcast channel block, SS/PBCH block; in case that the SS/PBCH block is not located on a frequency location of a synchronization raster entry, identifying an offset from a smallest resource block, RB, index of control resource set, CORESET, for TypeO-PDCCH to a smallest RB index of a common RB overlapping with a first RB of the SS/PBCH block based on a sum of a first offset and a second offset; and monitoring the TypeO-PDCCH based on the identified offset, wherein the first offset is configured based on a master information block, MIB, in the detected SS/PBCH block, and wherein the second offset is identified based on an offset from the smallest RB index of the common RB overlapping with the first RB of the SS/PBCH block to a smallest RB index of a common RB overlapping with a first RB of another SS/PBCH block hypothetically located on the frequency location of the synchronization raster entry.
A method of generating high resolution images using a plenoptic camera, having a main lens in front of an array of microlenses and an image sensor, characterized in that it comprises: capturing a first set of images in a first unexcited state of operation by using a birefringent medium disposed between said main lens and said array of microlenses, said first unexcited state of said birefringent medium providing an ordinary ray on said image sensor; causing said first unexcited state to become a second excited state by applying a voltage across said birefringent medium; capturing a second set of images in said second excited state, said second excited state of said birefringent medium splitting the light from said main lens into another ordinary ray and an extraordinary ray, said extraordinary ray being shifted by a distance of one half-pixel from the other ordinary ray on said image sensor; subtracting pixel value associated with said first set of images from at least two times the pixel value associated with said second set of images; and generating a final set of images with high resolution from said subtraction and said first set of images. capturing a first set of images in a first unexcited state of operation by using a birefringent medium disposed between said main lens and said array of microlenses, said first unexcited state of said birefringent medium providing an ordinary ray on said image sensor; causing said first unexcited state to become a second excited state by applying a voltage across said birefringent medium; capturing a second set of images in said second excited state, said second excited state of said birefringent medium splitting the light from said main lens into another ordinary ray and an extraordinary ray, said extraordinary ray being shifted by a distance of one half-pixel from the other ordinary ray on said image sensor; subtracting pixel value associated with said first set of images from at least two times the pixel value associated with said second set of images; and generating a final set of images with high resolution from said subtraction and said first set of images.