mhurhangee/ep-ind-claims huggingface dataset:
An offset correction method for an automobile oil pressure sensor, comprising: 1.1 determining whether or not an engine start signal is applied; 1.2 detecting an offset value of the oil pressure sensor installed on an oil pressure line connected to an oil pump at a point in time within a first preset period (A-C) after the start signal is applied, 1.3 wherein the first preset period denotes a period (A-C) ranging from the application of the start signal to a time at which the oil pump is actually driven, and 1.4 wherein the offset value denotes an output value from the oil pressure sensor after the start signal is applied and refers to an error output value occurring due to a mechanical or design error of the oil pressure sensor itself; and 1.5 wherein the step of detecting detects the offset value after a second preset period (A-B) has elapsed from the application of the start signal, wherein the second period is the time required for the oil pressure sensor to be stabilized when power is supplied to the oil pressure sensor after the start signal is applied; 1.6 correcting an output value of the oil pressure sensor after the offset value is detected. 1.1 determining whether or not an engine start signal is applied; 1.2 detecting an offset value of the oil pressure sensor installed on an oil pressure line connected to an oil pump at a point in time within a first preset period (A-C) after the start signal is applied, 1.3 wherein the first preset period denotes a period (A-C) ranging from the application of the start signal to a time at which the oil pump is actually driven, and 1.4 wherein the offset value denotes an output value from the oil pressure sensor after the start signal is applied and refers to an error output value occurring due to a mechanical or design error of the oil pressure sensor itself; and 1.5 wherein the step of detecting detects the offset value after a second preset period (A-B) has elapsed from the application of the start signal, wherein the second period is the time required for the oil pressure sensor to be stabilized when power is supplied to the oil pressure sensor after the start signal is applied; 1.6 correcting an output value of the oil pressure sensor after the offset value is detected.
A fiber bundle feed stopping device for a spinning frame, wherein the fiber bundle feed stopping device is suitable for a fiber bundle having a thickness and is capable of stopping feeding a drafting device with the fiber bundle, the fiber bundle feed stopping device comprises: an untwisting mechanism including a fiber bundle guide configured to be located at an upstream side of a back roller of the drafting device in a feed direction of the fiber bundle to guide the fiber bundle to the back roller, and an untwisting member provided with at least one row of teeth that pierce the fiber bundle, the teeth being arranged next to one another in a direction intersecting the feed direction of the fiber bundle to be fed between the fiber bundle guide and the untwisting member, wherein the untwisting member includes a main body having a flat base surface from which the teeth project, the projecting length of the teeth from the base surface is smaller than the thickness of the fiber bundle such that the teeth only pierce the fiber bundle without extending out of the fiber bundle when the untwisting member is arranged at a fiber bundle pierce position thereby leaving a gap between distal ends of the teeth and the fiber bundle guide wherein the untwisting member is configured such that, when the untwisting member is at the fiber bundle pierce position while the drafting device is driven, the teeth pierce the fiber bundle and allow the fiber bundle to move through the teeth, thereby combing and untwisting the fiber bundle. an untwisting mechanism including a fiber bundle guide configured to be located at an upstream side of a back roller of the drafting device in a feed direction of the fiber bundle to guide the fiber bundle to the back roller, and an untwisting member provided with at least one row of teeth that pierce the fiber bundle, the teeth being arranged next to one another in a direction intersecting the feed direction of the fiber bundle to be fed between the fiber bundle guide and the untwisting member, wherein the untwisting member includes a main body having a flat base surface from which the teeth project, the projecting length of the teeth from the base surface is smaller than the thickness of the fiber bundle such that the teeth only pierce the fiber bundle without extending out of the fiber bundle when the untwisting member is arranged at a fiber bundle pierce position thereby leaving a gap between distal ends of the teeth and the fiber bundle guide wherein the untwisting member is configured such that, when the untwisting member is at the fiber bundle pierce position while the drafting device is driven, the teeth pierce the fiber bundle and allow the fiber bundle to move through the teeth, thereby combing and untwisting the fiber bundle.
A method performed by a base station in a communication system, the method comprising: identifying that a downlink limited buffer rate matching, LBRM, is applied; transmitting, to a terminal, a bandwidth part, BWP, configuration for each of a plurality of BWPs of a serving cell in higher layer signaling, each BWP configuration including modulation and coding scheme, MCS, table configuration associated with a physical downlink shared channel, PDSCH, for a corresponding BWP of the serving cell; encoding information bits to be transmitted to the terminal using a low-density parity-check code, LDPC; determining a transport block size, TBS, for the downlink LBRM; identifying a length of a circular buffer N cb based on the TBS for the downlink LBRM; determining a bit sequence based on the N cb and the encoded information bits; and transmitting, to the terminal, the bit sequence, wherein the TBS for the downlink LBRM is determined based on a downlink maximum modulation order, wherein the downlink maximum modulation order for the serving cell corresponds to 8, in case that at least one MCS table configuration for at least one BWP of the serving cell is set to 256QAM, and wherein the downlink maximum modulation order for the serving cell corresponds to 6, in case that all MCS table configuration for the plurality of BWPs of the serving cell are set to 64QAM. identifying that a downlink limited buffer rate matching, LBRM, is applied; transmitting, to a terminal, a bandwidth part, BWP, configuration for each of a plurality of BWPs of a serving cell in higher layer signaling, each BWP configuration including modulation and coding scheme, MCS, table configuration associated with a physical downlink shared channel, PDSCH, for a corresponding BWP of the serving cell; encoding information bits to be transmitted to the terminal using a low-density parity-check code, LDPC; determining a transport block size, TBS, for the downlink LBRM; identifying a length of a circular buffer N cb based on the TBS for the downlink LBRM; determining a bit sequence based on the N cb and the encoded information bits; and transmitting, to the terminal, the bit sequence, wherein the TBS for the downlink LBRM is determined based on a downlink maximum modulation order, wherein the downlink maximum modulation order for the serving cell corresponds to 8, in case that at least one MCS table configuration for at least one BWP of the serving cell is set to 256QAM, and wherein the downlink maximum modulation order for the serving cell corresponds to 6, in case that all MCS table configuration for the plurality of BWPs of the serving cell are set to 64QAM.
A signal detection method in a Long Term Evolution system, comprising: after channel estimation is completed, performing Multiple-Input Multiple-Output (MIMO) detection, then performing Resource Element de-mapping; wherein after the channel estimation is completed, before the MIMO detection is performed, judging whether physical Resource Block de-mapping is to be performed, wherein the judging step comprises: comparing number M of RBs assigned to a user with a predetermined threshold th, and activating the RB de-mapping if the number M of RBs is smaller than the threshold th, and/or determining, according to a dispersion degree of the RBs assigned to the user, whether to activate the RB de-mapping; and, when the RB de-mapping is performed, processing de-mapping of channel coefficients and data by judging and extracting all the RBs one after another. after channel estimation is completed, performing Multiple-Input Multiple-Output (MIMO) detection, then performing Resource Element de-mapping; wherein after the channel estimation is completed, before the MIMO detection is performed, judging whether physical Resource Block de-mapping is to be performed, wherein the judging step comprises: comparing number M of RBs assigned to a user with a predetermined threshold th, and activating the RB de-mapping if the number M of RBs is smaller than the threshold th, and/or determining, according to a dispersion degree of the RBs assigned to the user, whether to activate the RB de-mapping; and, when the RB de-mapping is performed, processing de-mapping of channel coefficients and data by judging and extracting all the RBs one after another.
Bar feeder magazine for machine tools, comprising a guide base extending in a longitudinal direction, a set of bar guiding elements guided on the guide base for displacement in the longitudinal direction, each of said guiding elements having a bearing receptacle for a bar of material rotatable about an axis of alignment in a supply position, said receptacle being arranged coaxially to the axis of alignment parallel to the longitudinal direction, wherein the set of bar guiding elements is able to be brought into at least one bar guiding position, the bearing receptacles of the bar guiding elements, in said bar guiding position, guiding the bars of material arranged in the supply position in the longitudinal direction at a distance from one another and centred relative to the axis of alignment, a bar advancing element guided on the guide base and having a receptacle for a bar of material located in the supply position, the bar of material in the supply position being movable with said advancing element in the direction of the axis of alignment in a controlled manner and, as a result, being suppliable to the machine tool for machining, wherein the set of bar guiding elements and the bar advancing element are movable into a bar loading position, the bar of material able to be brought into an insertion starting position coaxial to the axis of alignment in said loading position, the bar of material being insertable into the bearing receptacles of the set of bar guiding elements proceeding from said starting position, and wherein in the at least one bar loading position the bar of material arranged in the insertion starting position is arranged between the set of bar guiding elements and the bar advancing element, characterized in that the bar feeder magazine has a receiving position for an additional bar of material to be inserted, said position being arranged in the direction of gravity beneath a horizontal longitudinal central plane extending through the axis of alignment, that the bar feeder magazine has a lifting device for lifting the additional bar of material to be inserted into the insertion starting position and aligning it coaxially to the axis of alignment and that the lifting device is designed to move the additional bar of material from the receiving position into the insertion starting position, and that the additional bar of material is movable along a lifting path extending essentially vertically in order to reach the insertion starting position.
An internal combustion engine, especially a reciprocating internal combustion engine, with at least one cylinder having a cylinder barrel, wherein the cylinder barrel forms a guide for a piston which is associated with the cylinder, wherein the cylinder barrel is only partially formed by a cylinder wall of a crankcase or of a cylinder liner which is fastened to the crankcase, wherein the cylinder barrel, in a central region as seen in the cylinder axial direction (x), is formed by the cylinder wall, wherein the cylinder wall, in an upper region of the cylinder barrel adjoining the central region towards the top and/or in a lower region of the cylinder barrel adjoining the central region towards the bottom, has an encompassing recess (17, 23), especially extending in a circumferential direction of the cylinder, into which is inserted in each case a one-piece or multi-piece annular sliding element (19, 25), the radially inner wall (21, 37) of which forms a part of the cylinder barrel, characterized in that the annular sliding element (19, 25) is coated on the inner side with a slide coating.
A method to produce a sheet of a material containing alkaloids, the method comprising: - mixing particles of the material containing alkaloids, a binder, an aerosol former and water to form a slurry; - casting the slurry to form a cast sheet; - drying the cast sheet by means of a heated fluid; - recovering heat from exhausts produced during drying; - recovering volatile substances from exhausts produced during drying; - obtaining a flavor extract from the recovered volatile substances; - transporting the cast sheet along a transport direction during the drying; - collecting exhausts produced in the drying step from different locations along the transport direction; and - obtaining a different substance from the exhaust depending on the location of collection. - mixing particles of the material containing alkaloids, a binder, an aerosol former and water to form a slurry; - casting the slurry to form a cast sheet; - drying the cast sheet by means of a heated fluid; - recovering heat from exhausts produced during drying; - recovering volatile substances from exhausts produced during drying; - obtaining a flavor extract from the recovered volatile substances; - transporting the cast sheet along a transport direction during the drying; - collecting exhausts produced in the drying step from different locations along the transport direction; and - obtaining a different substance from the exhaust depending on the location of collection.
Method for transmitting a provisioning dataset from a cellular network to a user equipment, said cellular network comprising a plurality of base nodes providing access to the user equipment, a remote provisioning server accessible by the cellular network, and a core network, comprising at least two network slices (2.3, 2.4), at least one of the network slices comprising at least one network node (5, 7) exclusively assigned to the network slice, wherein at least one of the network slices is dedicated for operating a predefined class of user equipments, and at least one remote provisioning network slice (2.4) is comprising an assigned network node giving access to the remote provisioning server, and at least one base node being assigned to the remote provisioning network slice, the method comprising the steps of: - receiving at said base node from a user equipment an attach request comprising an initial device identifier as authentication credentials, said initial device identifier being different from the authentication credentials to be used for attaching to a base node assigned to a network slice different from the remote provisioning network slice, - receiving at said base node a remote provisioning request from said user equipment, the remote provisioning request comprising the initial device identifier, - forwarding said remote provisioning request by means of the remote provisioning network slice to the remote provisioning server, - responding to the user equipment with a provisioning dataset received from the remote provisioning server, in case a user equipment identifier matching to the initial device identifier is accessible for the remote provisioning server. - receiving at said base node from a user equipment an attach request comprising an initial device identifier as authentication credentials, said initial device identifier being different from the authentication credentials to be used for attaching to a base node assigned to a network slice different from the remote provisioning network slice, - receiving at said base node a remote provisioning request from said user equipment, the remote provisioning request comprising the initial device identifier, - forwarding said remote provisioning request by means of the remote provisioning network slice to the remote provisioning server, - responding to the user equipment with a provisioning dataset received from the remote provisioning server, in case a user equipment identifier matching to the initial device identifier is accessible for the remote provisioning server.
A programmable driver for driving a solid state lighting device, the driver comprising: a processing circuit configured to determine a voltage reference signal (Vref) based on a nominal current setting and a predetermined power limit; a voltage feedback loop configured to receive the voltage reference signal and to determine a difference between a reference voltage indicated by the voltage reference signal and a drive voltage of the solid state lighting device; and a power stage configured to adjust a maximum output voltage of the driver to enable driving the solid state lighting device based at least in part on the determined difference between the reference voltage and the drive voltage of the solid state lighting device provided by the voltage feedback loop, wherein the predetermined power limit indicates a maximum output power that the power stage is able to deliver. a processing circuit configured to determine a voltage reference signal (Vref) based on a nominal current setting and a predetermined power limit; a voltage feedback loop configured to receive the voltage reference signal and to determine a difference between a reference voltage indicated by the voltage reference signal and a drive voltage of the solid state lighting device; and a power stage configured to adjust a maximum output voltage of the driver to enable driving the solid state lighting device based at least in part on the determined difference between the reference voltage and the drive voltage of the solid state lighting device provided by the voltage feedback loop,
A camera housing (100, 300) for housing a camera, the camera having a camera body, a camera lens extending from a surface of the camera body, electronics internal to the camera body that produce heat during operation of the camera, and an internal heat sink thermally coupling the internal electronics to a thermally conductive lens ring (402, 500) on an external portion of the camera body and encircling the camera lens, the camera housing (100, 300) comprising: an enclosure structured to enclose the camera body, the enclosure comprising a first material and including a lens window substantially aligned with the camera lens when the camera is enclosed within the enclosure; and a thermal conductor (106, 310, 515) fixed to a surface of the enclosure, the thermal conductor comprising a second material different from the first material and having a thermal conductivity higher than a thermal conductivity of the first material, the thermal conductor (106, 310, 515) comprising an interior portion extending into an interior of the camera housing (100, 300) and an exterior portion extending to an exterior surface of the camera housing (100, 300) and at least partially encircling the lens window, the interior portion of the thermal conductor (106, 310, 515) making physical contact with the thermally conductive lens ring (402, 500) of the camera when the camera is enclosed by the housing (100, 300) to transfer heat from thermally conductive lens ring (402, 500) of the camera to the interior portion of the thermal conductor (106, 310, 515), wherein the thermal conductor (106, 310, 515) is configured to transfer heat from the interior portion extending into the interior of the camera housing (100, 300) to the exterior portion extending to the exterior surface of the camera housing (100, 300). an enclosure structured to enclose the camera body, the enclosure comprising a first material and including a lens window substantially aligned with the camera lens when the camera is enclosed within the enclosure; and a thermal conductor (106, 310, 515) fixed to a surface of the enclosure, the thermal conductor comprising a second material different from the first material and having a thermal conductivity higher than a thermal conductivity of the first material, the thermal conductor (106, 310, 515) comprising an interior portion extending into an interior of the camera housing (100, 300) and an exterior portion extending to an exterior surface of the camera housing (100, 300) and at least partially encircling the lens window, the interior portion of the thermal conductor (106, 310, 515) making physical contact with the thermally conductive lens ring (402, 500) of the camera when the camera is enclosed by the housing (100, 300) to transfer heat from thermally conductive lens ring (402, 500) of the camera to the interior portion of the thermal conductor (106, 310, 515), wherein the thermal conductor (106, 310, 515) is configured to transfer heat from the interior portion extending into the interior of the camera housing (100, 300) to the exterior portion extending to the exterior surface of the camera housing (100, 300).
Industrial plant for drying and/or conditioning flexible laminar surfaces comprising: - an operating tunnel mainly developing according to a linear direction and provided with air conditioning devices and/or traction organs suitable to act on said flexible laminar surfaces so as to dry them and/or spread them according to predetermined treatment and/or tensioning cycles; - a plurality of support frames, each of which suitable to receive at least one of said flexible laminar surfaces in such a way as to keep it in a spread and vertical position; - moving means, operatively connected with said support frames in order to convey them along said linear direction according to a predefined speed within said operative tunnel, to allow drying and/or tensioning of said flexible laminar surfaces, and outside said operative tunnel to allow discharging of said flexible laminar surfaces dried and/or tensioned in a working cycle and loading of said flexible laminar surfaces to be dried and/or tensioned in the following processing cycle, characterized in that it comprises a buffer loading station, arranged upstream said operative tunnel with which it communicates, suitable to integrally receive a pre-established group of said support frames before said pre-established group of said support frames is transferred in bulk within said operative tunnel by said moving means, in such a way that said support frames of said pre-established group simultaneously reach the inside of said operating tunnel and said flexible laminar surfaces supported by said support frames of said pre-established group are simultaneously subjected to the processing of said air conditioning devices and/or of said traction organs. - an operating tunnel mainly developing according to a linear direction and provided with air conditioning devices and/or traction organs suitable to act on said flexible laminar surfaces so as to dry them and/or spread them according to predetermined treatment and/or tensioning cycles; - a plurality of support frames, each of which suitable to receive at least one of said flexible laminar surfaces in such a way as to keep it in a spread and vertical position; - moving means, operatively connected with said support frames in order to convey them along said linear direction according to a predefined speed within said operative tunnel, to allow drying and/or tensioning of said flexible laminar surfaces, and outside said operative tunnel to allow discharging of said flexible laminar surfaces dried and/or tensioned in a working cycle and loading of said flexible laminar surfaces to be dried and/or tensioned in the following processing cycle,