mhurhangee/ep-ind-claims huggingface dataset:
A chain saw comprising an adjustment mechanism that adjusts tension of a saw chain attached along a guide bar projecting from a main body, wherein the adjustment mechanism includes: a moving element that moves the guide bar forward/backward with respect to the main body; and a transmission mechanism including a first gear that is provided on an inner circumference of a first rotation member rotatably provided on the main body and a second gear that is disposed on an inner side of the first rotation member and that is enclosed by the first gear and is engaged with the first gear, and when the first gear is rotated along with rotation of the first rotation member, the moving element is moved via the second gear. a moving element that moves the guide bar forward/backward with respect to the main body; and a transmission mechanism including a first gear that is provided on an inner circumference of a first rotation member rotatably provided on the main body and a second gear that is disposed on an inner side of the first rotation member and that is enclosed by the first gear and is engaged with the first gear, and when the first gear is rotated along with rotation of the first rotation member, the moving element is moved via the second gear.
Machining device for machining in situ a rotor disposed in a turbine housing which, while forming a joint, is divided into two parts, said machining taking place while the upper housing half is removed, comprising: - a main body which has fastening means for releasably fastening the main body to the lower housing half in the region of the joint, - at least one tool holder for receiving at least one machining tool, said at least one tool holder being fastened directly or indirectly to the main body and being able to be aligned, preferably along at least two axes, relative to the main body, characterized in that said machining device - comprises a plurality of stabilizing elements which, configured in the manner of a telescope, are able to be locked, preferably in a stepless manner, in different longitudinal settings, the one free end of said stabilizing elements in each case being fastened in an articulated manner to the main body, and on the other free ends thereof being provided with further fastening means which are configured in such a manner that the free ends are able to be fastened in a releasable and articulated manner to the lower housing half of the turbine housing. - a main body which has fastening means for releasably fastening the main body to the lower housing half in the region of the joint, - at least one tool holder for receiving at least one machining tool, said at least one tool holder being fastened directly or indirectly to the main body and being able to be aligned, preferably along at least two axes, relative to the main body, - comprises a plurality of stabilizing elements which, configured in the manner of a telescope, are able to be locked, preferably in a stepless manner, in different longitudinal settings, the one free end of said stabilizing elements in each case being fastened in an articulated manner to the main body, and on the other free ends thereof being provided with further fastening means which are configured in such a manner that the free ends are able to be fastened in a releasable and articulated manner to the lower housing half of the turbine housing.
A method of operation of a communication system comprising: receiving an input digital data stream by a block size unit; encoding a progressive-Golomb codeword characterised by a parameter m from the input digital data stream including establishing a group size parameter for matching a distribution of the input digital data stream, the group size parameter being selected from a plurality of sizes of groups of progressive-Golomb codewords including a first group size of three associated with a value m=1, a second group size of four associated with a value m=2, a third group size of twelve associated with a value m=3 and a fourth group size of infinite associated with a value m=4; and transferring, to an output device, the progressive-Golomb codeword, wherein the progressive-Golomb codeword, for a smallest value of the input digital data stream to a largest value of the input digital data stream, is formed of a concatenation of an incremental number of bits of the value "1", a bit of the value "0", and an incremental m-bit value. receiving an input digital data stream by a block size unit; encoding a progressive-Golomb codeword characterised by a parameter m from the input digital data stream including establishing a group size parameter for matching a distribution of the input digital data stream, the group size parameter being selected from a plurality of sizes of groups of progressive-Golomb codewords including a first group size of three associated with a value m=1, a second group size of four associated with a value m=2, a third group size of twelve associated with a value m=3 and a fourth group size of infinite associated with a value m=4; and transferring, to an output device, the progressive-Golomb codeword, wherein the progressive-Golomb codeword, for a smallest value of the input digital data stream to a largest value of the input digital data stream, is formed of a concatenation of an incremental number of bits of the value "1", a bit of the value "0", and an incremental m-bit value.
A battery module comprising: a battery cell assembly comprising a plurality of battery cells stacked with one another; end plates configured to cover front and rear portions of the battery cell assembly at one side of each of the end plates via screws; and a fixing holder configured to be mounted at the other side of each of the end plates in order to at least partially cover the battery cell assembly, and to protrude from front and rear portions of the end plates, said fixing holder comprises: a supporter configured to support the battery cell assembly; end plate mounting portions extending from the supporter and configured to be mounted in the end plates; and protrusions extending from the end plate mounting portions and configured to protrude from the front and rear portions of the end plates wherein each of the end plate mounting portions is bent at least once and comprises a first mounting portion extending upward from the supporter and a second mounting portion extending downward from the first mounting portion and connected to the protrusions. a battery cell assembly comprising a plurality of battery cells stacked with one another; end plates configured to cover front and rear portions of the battery cell assembly at one side of each of the end plates via screws; and a fixing holder configured to be mounted at the other side of each of the end plates in order to at least partially cover the battery cell assembly, and to protrude from front and rear portions of the end plates, said fixing holder comprises: a supporter configured to support the battery cell assembly; end plate mounting portions extending from the supporter and configured to be mounted in the end plates; and protrusions extending from the end plate mounting portions and configured to protrude from the front and rear portions of the end plates a supporter configured to support the battery cell assembly; end plate mounting portions extending from the supporter and configured to be mounted in the end plates; and protrusions extending from the end plate mounting portions and configured to protrude from the front and rear portions of the end plates
An embolic device, comprising: an elongate flat member having a longitudinal axis, a first side comprising a first side surface, and a second side comprising a second side surface, the first and second sides being reverse to each other with the first side surface and second side surface facing in opposite directions, the elongate flat member having an elongated constrained configuration for being deployed through a delivery catheter to targeted vascular site, and a three-dimensional unconstrained configuration, the elongate flat member composed of a metal selected from the group consisting of: a Platinum Group metal, rhenium, tungsten, gold, silver and tantalum, and an alloy of any of the foregoing metals, wherein in the three-dimensional unconstrained configuration, the elongate flat member assumes a plurality of successive loops in which the elongate flat member is at least partially twisted about its longitudinal axis between each loop of the plurality, characterized in that the first side surface faces externally of each loop, and the second side surface faces an interior of each loop, respectively, regardless of a change in direction and/or orientation of the elongate flat member, and wherein the plurality of successive loops includes a first loop defining a first plane, a second loop defining a second plane that is not coplanar with the first plane, and a third loop defining a third plane that is not coplanar with either of the first and second planes. an elongate flat member having a longitudinal axis, a first side comprising a first side surface, and a second side comprising a second side surface, the first and second sides being reverse to each other with the first side surface and second side surface facing in opposite directions, the elongate flat member having an elongated constrained configuration for being deployed through a delivery catheter to targeted vascular site, and a three-dimensional unconstrained configuration, the elongate flat member composed of a metal selected from the group consisting of: a Platinum Group metal, rhenium, tungsten, gold, silver and tantalum, and an alloy of any of the foregoing metals, wherein in the three-dimensional unconstrained configuration, the elongate flat member assumes a plurality of successive loops in which the elongate flat member is at least partially twisted about its longitudinal axis between each loop of the plurality, characterized in that the first side surface faces externally of each loop, and the second side surface faces an interior of each loop, respectively, regardless of a change in direction and/or orientation of the elongate flat member, and wherein the plurality of successive loops includes a first loop defining a first plane, a second loop defining a second plane that is not coplanar with the first plane, and a third loop defining a third plane that is not coplanar with either of the first and second planes.
A method for production of antibiotic marker-free covalently closed, super-coiled DNA replicon, such as a plasmid, a cosmid, or a bacterial artificial chromosome, in E. coli, comprising the steps of: a. cloning a sequence comprising a RNA based non-antibiotic selectable marker into said DNA replicon, said RNA based non-antibiotic selectable marker consisting of insertion sequence 10 comprising a RNA-OUT promoter sequence and an antisense RNA-OUT sequence that hybridizes to RNA-IN RNA, and b. transforming said a RNA based non-antibiotic selectable marker containing DNA replicon into bacterial cells that express a lethal counterselectable marker gene integrated into the chromosome under the control of a RNA-IN sense promoter and leader, and wherein said antisense RNA-OUT sequence hybridises to RNA-IN RNA and represses expression of said lethal conterselectable marker gene c. isolating transformed bacterial cells under selection, and d. propagating said transformed bacterial cells under conditions that accumulate said DNA replicon, whereby said method replaces selection by an antibiotic marker in said DNA replicon, for said DNA replicon isolation or propagation. a. cloning a sequence comprising a RNA based non-antibiotic selectable marker into said DNA replicon, said RNA based non-antibiotic selectable marker consisting of insertion sequence 10 comprising a RNA-OUT promoter sequence and an antisense RNA-OUT sequence that hybridizes to RNA-IN RNA, and b. transforming said a RNA based non-antibiotic selectable marker containing DNA replicon into bacterial cells that express a lethal counterselectable marker gene integrated into the chromosome under the control of a RNA-IN sense promoter and leader, and wherein said antisense RNA-OUT sequence hybridises to RNA-IN RNA and represses expression of said lethal conterselectable marker gene c. isolating transformed bacterial cells under selection, and d. propagating said transformed bacterial cells under conditions that accumulate said DNA replicon, whereby said method replaces selection by an antibiotic marker in said DNA replicon, for said DNA replicon isolation or propagation.
A dental or medical CT imaging apparatus, comprising: - a first elongated frame part extending in a first direction and comprising a first end and a second end; - a support construction extending from the first elongated frame part in a second direction substantially orthogonal to the first direction; - an X-ray source and an image detector mounted to the support construction which together form an X-ray imaging means (14, 15); - a first driving mechanism arranged to move the imaging means (14, 15) about an axis; - a second driving mechanism arranged to move the support construction in a direction substantially parallel with the first direction in which the first elongated frame part extends; - a patient support; - a control system; characterized in that the apparatus comprises a second elongated frame part comprising a first end and a second end, wherein at the proximity of the first end of the first elongated frame part is arranged an articulated connection construction to mechanically connect the first and second elongated frame parts (11, 21), to allow for tilting of the first elongated frame part about at least one tilt axis in relation to the second elongated frame part, the at least one tilt axis being orthogonal to both said first and second directions, and wherein at the proximity of the second end of the first and second elongated frame parts (11, 21) is arranged a locking mechanism configured to enable connecting together and disconnecting the first and second elongated frame parts (11, 21) at the proximity of the second ends of the first and second elongated frame parts (11, 21). - a first elongated frame part extending in a first direction and comprising a first end and a second end; - a support construction extending from the first elongated frame part in a second direction substantially orthogonal to the first direction; - an X-ray source and an image detector mounted to the support construction which together form an X-ray imaging means (14, 15); - a first driving mechanism arranged to move the imaging means (14, 15) about an axis; - a second driving mechanism arranged to move the support construction in a direction substantially parallel with the first direction in which the first elongated frame part extends; - a patient support; - a control system;
A magnetic field sensor comprising: - at least one magnetic core (10; 56; 62) exhibiting a magnetic cycle of the magnetic induction as a function of the magnetic field devoid of hysteresis in an operating span [H min; H max], the magnetic cycle of the magnetic core being such that the absolute value of the third derivative of the magnetic induction with respect to the magnetic field is a maximum for a zero magnetic field, characterized in that magnetic core is able to modulate the amplitude of a magnetic excitation field as a function of the amplitude of the magnetic field to be measured, and in that the the sensor further comprises - an electronic circuit tied to the magnetic core and able to measure the magnetic field induced in the magnetic core, this induced magnetic field resulting from the combination of the magnetic field to be measured and the magnetic excitation field, the electronic circuit comprising at least one excitation winding able to create the excitation field. - at least one magnetic core (10; 56; 62) exhibiting a magnetic cycle of the magnetic induction as a function of the magnetic field devoid of hysteresis in an operating span [H min; H max], the magnetic cycle of the magnetic core being such that the absolute value of the third derivative of the magnetic induction with respect to the magnetic field is a maximum for a zero magnetic field, characterized in that magnetic core is able to modulate the amplitude of a magnetic excitation field as a function of the amplitude of the magnetic field to be measured, and in that the the sensor further comprises - an electronic circuit tied to the magnetic core and able to measure the magnetic field induced in the magnetic core, this induced magnetic field resulting from the combination of the magnetic field to be measured and the magnetic excitation field, the electronic circuit comprising at least one excitation winding able to create the excitation field.
An outdoor unit of an air conditioning device comprising a bottom frame, a heat exchanger disposed on the bottom frame, and a base leg provided on a lower surface of the bottom frame below the heat exchanger, wherein a drainage port (42, 44) is formed in the bottom frame below the heat exchanger, the base leg is formed to have a U shape section by upper plates (51b, 52b) abutted with the lower surface of the bottom frame, lower plates (51a, 52a) mountable on an installment surface, and standing plates (51c, 52c) connecting the upper plates (51b, 52b) and the lower plates (51a, 52a), the base leg further includes a first part serving as a part in the longitudinal direction, and the first part is formed to have a U shape section opening outward in the horizontal direction with the lower plate thereof being fixable to the installment surface, characterized in that the base leg further includes a second part serving as another part in the longitudinal direction, whereby the second part is provided at least at a position corresponding to the drainage port (42, 44) with respect to the longitudinal direction of the base leg, and formed to have a U shape section opening inward in the horizontal direction, the second part having a structure where the upper plate thereof avoids a lower region of the drainage port (42, 44).
A method of operation of a node (24, 32) in a cellular communications network, comprising: receiving a failure report associated with a connection failure for a user equipment (26-28, 38-44), wherein the failure report comprises a first timer value that defines an amount of time that has expired between a time at which the connection failure occurred and a time at which the user equipment (26-28, 38-44) transmitted the failure report; determining when the connection failure occurred with respect to a most recent mobility adjustment made by the node (24, 32) based on the first timer value from the failure report and a second timer value that defines an amount of time that has expired since the most recent mobility adjustment was made by the node (24, 32), wherein said mobility adjustment comprises an adjustment of one or more mobility parameters for a specific neighboring cell, said mobility parameters controlling handover within the cellular communications network; and if the connection failure occurred before the most recent mobility adjustment made by the node (24, 32), classifying the failure report as a stale failure report and; and if the connection failure occurred after the most recent mobility adjustment made by the node (24, 32), classifying the failure report as a current failure report; and considering the failure report in a next iteration of the mobility adjustment if the failure report is classified as a current failure report and considering the failure report in a next iteration of the mobility adjustment with a reduced relevance if the failure report is classified as a stale failure report. receiving a failure report associated with a connection failure for a user equipment (26-28, 38-44), wherein the failure report comprises a first timer value that defines an amount of time that has expired between a time at which the connection failure occurred and a time at which the user equipment (26-28, 38-44) transmitted the failure report; determining when the connection failure occurred with respect to a most recent mobility adjustment made by the node (24, 32) based on the first timer value from the failure report and a second timer value that defines an amount of time that has expired since the most recent mobility adjustment was made by the node (24, 32), wherein said mobility adjustment comprises an adjustment of one or more mobility parameters for a specific neighboring cell, said mobility parameters controlling handover within the cellular communications network; and if the connection failure occurred before the most recent mobility adjustment made by the node (24, 32), classifying the failure report as a stale failure report and; and if the connection failure occurred after the most recent mobility adjustment made by the node (24, 32), classifying the failure report as a current failure report; and considering the failure report in a next iteration of the mobility adjustment if the failure report is classified as a current failure report and considering the failure report in a next iteration of the mobility adjustment with a reduced relevance if the failure report is classified as a stale failure report.
A method for implementing movement of a cursor by a mobile terminal, comprising: acquiring accelerations a x, a y, and a z of a mobile terminal in a set three-dimensional coordinate system; calculating a current left/right tilt rate K1 and a current forward/backward tilt rate K2 of the mobile terminal based on the accelerations a x, a y, and a z; and moving a cursor left/right or forward/backward based on the tilt rate K1 and the tilt rate K2, the method is characterized in that the step of moving a cursor left/right or forward/backward based on the tilt rate K1 and the tilt rate K2 specifically comprises: A: starting a preset left/right movement timeout timer T1 and a preset forward/backward movement timeout timer T2; B: when the timer T1 or the timer T2 expires, determining whether the tilt rate |K1| or the tilt rate |K2| exceeds a set threshold; and C: when the tilt rate |K1| or the tilt rate |K2| exceeds the set threshold, moving the cursor one grid left/right or forward/backward, continuing to determining movement of the cursor based on the current |K1| or |K2|, and returning to the step A; wherein timing time of the timer T1 is T1=A1/|K1| and timing time of the timer T2 is T2=A2/|K2|, wherein A1 and A2 are constants. acquiring accelerations a x, a y, and a z of a mobile terminal in a set three-dimensional coordinate system; calculating a current left/right tilt rate K1 and a current forward/backward tilt rate K2 of the mobile terminal based on the accelerations a x, a y, and a z; and moving a cursor left/right or forward/backward based on the tilt rate K1 and the tilt rate K2, the method is characterized in that the step of moving a cursor left/right or forward/backward based on the tilt rate K1 and the tilt rate K2 specifically comprises: A: starting a preset left/right movement timeout timer T1 and a preset forward/backward movement timeout timer T2; B: when the timer T1 or the timer T2 expires, determining whether the tilt rate |K1| or the tilt rate |K2| exceeds a set threshold; and C: when the tilt rate |K1| or the tilt rate |K2| exceeds the set threshold, moving the cursor one grid left/right or forward/backward, continuing to determining movement of the cursor based on the current |K1| or |K2|, and returning to the step A; A: starting a preset left/right movement timeout timer T1 and a preset forward/backward movement timeout timer T2; B: when the timer T1 or the timer T2 expires, determining whether the tilt rate |K1| or the tilt rate |K2| exceeds a set threshold; and C: when the tilt rate |K1| or the tilt rate |K2| exceeds the set threshold, moving the cursor one grid left/right or forward/backward, continuing to determining movement of the cursor based on the current |K1| or |K2|, and returning to the step A; wherein timing time of the timer T1 is T1=A1/|K1| and timing time of the timer T2 is T2=A2/|K2|, wherein A1 and A2 are constants.