mhurhangee/patent-ind-claim-en huggingface dataset:
A high-carbon steel wire rod with excellent wire drawability, comprising chemical components of, in mass%, C: 0.70% to 1.20%, Si: 0.10% to 1.2%, Mn: 0.10% to 1.0%, P: 0.001% to 0.012%, S: 0.001% to 0.010%, N: 0.0010% to 0.0050%, and optionally Al: 0.0001% to 0.010%, Ti: 0.001% to 0.010%, B: 0.0001% to 0.0015%, Cr: 0.05% to 0.50%, Ni: 0.05% to 0.50%, V: 0.01% to 0.20%, Cu: 0.05% to 0.20%, Mo: 0.05% to 0.20%, Nb: 0.01% to 0.10%, Ca: 0.0005% to 0.0050%, Mg: 0.0005% to 0.0050%, and Zr: 0.0005% to 0.010%, and the balance: Fe and impurities, wherein in a cross-section perpendicular to a longitudinal direction, an area fraction of pearlite is equal to or more than 95% and equal to or less than 100%, an average block size of the pearlite is 10 μm to 30 μm and standard deviation of block size is 20 μm or less, and when Ceq. is obtained using formula below, a tensile strength is equal to or more than 760 × Ceq. + 255 MPa and equal to or less than 760 × Ceq. + 325 MPa, reduction of area in a tensile test is -65 × Ceq. + 96 (%) or more, and standard deviation of the reduction of area is 6% or less, Ceq . = C % + Si % / 24 + Mn % / 6 where C (%), Si (%), and Mn (%) represent contents in mass% of C, S, and Mn, respectively; wherein the average block size of the pearlite is obtained by analyzing the region of the center portion of the C cross-section with EBSD; wherein the steel wire rod is obtained by a method comprising after winding at 800°C to 900°C a primary cooling to 600°C to 630°C for 3s or more and 7s or less at a cooling rate of 40°C/s to 60°C/s. C: 0.70% to 1.20%, Si: 0.10% to 1.2%, Mn: 0.10% to 1.0%, P: 0.001% to 0.012%, S: 0.001% to 0.010%, N: 0.0010% to 0.0050%, and optionally Al: 0.0001% to 0.010%, Ti: 0.001% to 0.010%, B: 0.0001% to 0.0015%, Cr: 0.05% to 0.50%, Ni: 0.05% to 0.50%, V: 0.01% to 0.20%, Cu: 0.05% to 0.20%, Mo: 0.05% to 0.20%, Nb: 0.01% to 0.10%, Ca: 0.0005% to 0.0050%, Mg: 0.0005% to 0.0050%, and Zr: 0.0005% to 0.010%, and the balance: Fe and impurities, wherein in a cross-section perpendicular to a longitudinal direction, an area fraction of pearlite is equal to or more than 95% and equal to or less than 100%, an average block size of the pearlite is 10 μm to 30 μm and standard deviation of block size is 20 μm or less, and when Ceq. is obtained using formula below, a tensile strength is equal to or more than 760 × Ceq. + 255 MPa and equal to or less than 760 × Ceq. + 325 MPa, reduction of area in a tensile test is -65 × Ceq. + 96 (%) or more, and standard deviation of the reduction of area is 6% or less, Ceq . = C % + Si % / 24 + Mn % / 6 where C (%), Si (%), and Mn (%) represent contents in mass% of C, S, and Mn, respectively; wherein the average block size of the pearlite is obtained by analyzing the region of the center portion of the C cross-section with EBSD; wherein the steel wire rod is obtained by a method comprising after winding at 800°C to 900°C a primary cooling to 600°C to 630°C for 3s or more and 7s or less at a cooling rate of 40°C/s to 60°C/s.
Desktop device for cleaning, disinfecting and lubricating dental handpieces comprising connectors for the insertion of said handpieces placed inside an openable chamber , wherein said connectors are provided with a Midwest connection; said device comprising an adapter for contrangles to be interposed between said contrangles and said connectors ; said adapter being provided with a cylindrical shape; at a first end of said adapter there being provided a connector for a contrangle, while at a second end of said adaptor there being provided a Midwest connector ; characterized in that said adapter comprises the following components - a shaft coaxially inserted in - an axially mobile cylindrical portion in its turn surrounded by - a spring , said components being surrounded by the outside housing of said adapter and wherein - said shaft rotates with respect to the cylindrical portion ; - said cylindrical portion and said shaft are engaged through a threaded rod-lead screw connection; - said shaft can be rotatably coupled with gears of a contrangle when said adapter is coupled to said contrangle . said adapter comprises the following components - a shaft coaxially inserted in - an axially mobile cylindrical portion in its turn surrounded by - a spring , - a shaft coaxially inserted in - an axially mobile cylindrical portion in its turn surrounded by - a spring , said components being surrounded by the outside housing of said adapter and wherein - said shaft rotates with respect to the cylindrical portion ; - said cylindrical portion and said shaft are engaged through a threaded rod-lead screw connection; - said shaft can be rotatably coupled with gears of a contrangle when said adapter is coupled to said contrangle . - said shaft rotates with respect to the cylindrical portion ; - said cylindrical portion and said shaft are engaged through a threaded rod-lead screw connection; - said shaft can be rotatably coupled with gears of a contrangle when said adapter is coupled to said contrangle .
A device for motorically and manually adjusting a second vehicle part relative to a first vehicle part in an adjustment range, comprising at least - a driving device by means of which the second vehicle part is motorically adjustable both in opening direction (O) and in opposite direction in a closing direction (S) and can be held in an adjustment position within the adjustment range between a maximally open and a completely closed position relative to the first vehicle part , wherein the driving device is switchable between a holding position and a release position and in the holding position the second vehicle part is held in an adjustment position via the driving device and in the release position is manually adjustable within the adjustment range, and - an electronic control device by means of which the driving device is switchable from the holding position into the release position in response to an operating event triggered by a user, in order to permit a manual adjustment of the second vehicle part by the user relative to the first vehicle part , characterized in that the electronic control device is configured to, in response to an operating event triggered by a user, initially actuate the driving device for a power-operated adjustment out of the adjustment position in that adjustment direction (S, O) in which the manual adjustment is to be made before switching into the release position, and the electronic control device is coupled with at least one sensor unit by means of which an operating event triggered by a user is electronically detectable, via which it is signaled by the user in what of the two possible adjustment directions (S, O) the user wants to manually adjust the second vehicle part . - a driving device by means of which the second vehicle part is motorically adjustable both in opening direction (O) and in opposite direction in a closing direction (S) and can be held in an adjustment position within the adjustment range between a maximally open and a completely closed position relative to the first vehicle part , wherein the driving device is switchable between a holding position and a release position and in the holding position the second vehicle part is held in an adjustment position via the driving device and in the release position is manually adjustable within the adjustment range, and - an electronic control device by means of which the driving device is switchable from the holding position into the release position in response to an operating event triggered by a user, in order to permit a manual adjustment of the second vehicle part by the user relative to the first vehicle part ,
A mobile station comprising: means configured to perform Discontinuous Reception, DRX, in a first cell of a first base station using a first DRX cycle; means configured to receive, from the first base station, a handover command message including a second DRX cycle, which is different from the first DRX cycle, used by the mobile station for performing the DRX with a second base station after performing a handover from the first cell of the first base station to a second cell of the second base station; and means configured to perform the handover based on the handover command message; and means configured to perform the DRX in the second cell of the second base station using the second DRX cycle. means configured to perform Discontinuous Reception, DRX, in a first cell of a first base station using a first DRX cycle; means configured to receive, from the first base station, a handover command message including a second DRX cycle, which is different from the first DRX cycle, used by the mobile station for performing the DRX with a second base station after performing a handover from the first cell of the first base station to a second cell of the second base station; and means configured to perform the handover based on the handover command message; and means configured to perform the DRX in the second cell of the second base station using the second DRX cycle.
A steering device comprising: a steering shaft; and a torque index sensor coupled to the steering shaft, wherein the torque index sensor includes a rotor , rotating with an input shaft of the steering shaft, having a first magnet on an outer circumferential surface thereof; a stator disposed on an outer side of the first magnet and rotating with an output shaft of the steering shaft; a magnet seating member disposed on a lower side of the stator and rotating with the second shaft; and a second magnet combined with a lower side of the magnet seating member and rotating with the second shaft, characterized in that the torque index sensor includes a circuit board ; a first cover configured to accommodate the circuit board ; a first Hall sensor and a second Hall sensor mounted on the circuit board ; a magnet seating member coupled to the stator ; a second magnet coupled to the magnet seating member ; and a second cover made of a metal material and coupled to the first cover , wherein the magnet seating member and the second magnet are disposed between the first cover and the second cover , the second cover includes an upper plate in which a through hole is formed and a side plate configured to extend in a rotational axis direction from the upper plate , and the side plate includes a groove formed at a location corresponding to the second Hall sensor . a steering shaft; and a torque index sensor coupled to the steering shaft, wherein the torque index sensor includes a rotor , rotating with an input shaft of the steering shaft, having a first magnet on an outer circumferential surface thereof; a stator disposed on an outer side of the first magnet and rotating with an output shaft of the steering shaft; a magnet seating member disposed on a lower side of the stator and rotating with the second shaft; and a second magnet combined with a lower side of the magnet seating member and rotating with the second shaft, characterized in that the torque index sensor includes a circuit board ; a first cover configured to accommodate the circuit board ; a first Hall sensor and a second Hall sensor mounted on the circuit board ; a magnet seating member coupled to the stator ; a second magnet coupled to the magnet seating member ; and a second cover made of a metal material and coupled to the first cover , wherein the magnet seating member and the second magnet are disposed between the first cover and the second cover , the second cover includes an upper plate in which a through hole is formed and a side plate configured to extend in a rotational axis direction from the upper plate , and the side plate includes a groove formed at a location corresponding to the second Hall sensor .
A method of calibrating a machine for operating with an implement that is selectively coupleable to the machine, the method comprising: detecting a coupling between the machine and the implement selectively coupled to the machine ; electronically receiving, from the implement in response to detecting the coupling, an identification of the implement ; accessing machine calibration data from a memory of the machine , wherein the machine calibration data includes an identification of one or more specific implements and a calibration value for each of the one or more specific implements ; identifying, from the machine calibration data, the calibration value corresponding to the received identification of the implement ; and operating the machine and the implement based on the identified calibration value; wherein the machine includes a non-transitory computer readable memory storing calibration data for prior machine-implement combinations and the memory of the machine is configured to store calibration data for a plurality of different implements to which the machine was previously coupled; characterized in that the implement includes a non-transitory computer readable memory storing calibration data for prior machine-implement combinations, wherein the implement memory is configured to store calibration data for a plurality of different machines to which the implement was previously coupled and the machine calibration data stored on the memory of the machine are synchronized with implement calibration data stored on the memory of the implement . detecting a coupling between the machine and the implement selectively coupled to the machine ; electronically receiving, from the implement in response to detecting the coupling, an identification of the implement ; accessing machine calibration data from a memory of the machine , wherein the machine calibration data includes an identification of one or more specific implements and a calibration value for each of the one or more specific implements ; identifying, from the machine calibration data, the calibration value corresponding to the received identification of the implement ; and operating the machine and the implement based on the identified calibration value; wherein the machine includes a non-transitory computer readable memory storing calibration data for prior machine-implement combinations and the memory of the machine is configured to store calibration data for a plurality of different implements to which the machine was previously coupled; characterized in that the implement includes a non-transitory computer readable memory storing calibration data for prior machine-implement combinations, wherein the implement memory is configured to store calibration data for a plurality of different machines to which the implement was previously coupled and the machine calibration data stored on the memory of the machine are synchronized with implement calibration data stored on the memory of the implement .
A forming shoulder for forming a film tube from a flat film web, the forming shoulder comprising a shoulder piece and a prism piece which are connected to each other along a forming edge , the shoulder piece having an outer shoulder surface via which the film web can be guided to an entry opening of the prism piece limited by the forming edge , the forming edge being made of at least one metal piece , a plastic shoulder piece and/or a plastic prism piece being molded onto the metal piece characterized in thatthe shoulder piece and/or the prism piece is/are produced using a 3D plastic printing method .
A driver for driving at least one main load and one auxiliary load comprising: - a power converter adapted to convert a DC input voltage (Vin) into at least one main output voltage provided through a main output for driving said main load, and at least one auxiliary output DC voltage through an auxiliary output for supplying said auxiliary load, - a controller adapted to control the main output based on at least one input set point, wherein the power converter comprises a switched capacitor converter comprising a plurality of switches (S1, S2,...) and a plurality of capacitors (C1, C2,...), the main output being connected to at least one internal node of the power converter , the auxiliary output being connected to a DC node (N10) of the power converter , characterized in that the power converter is configured for providing a plurality of output signals (PWM1, ..., PWMn) having a level that is a fraction of the input voltage (Vin) level, each output signal being floating with a bias component split in a plurality of steps ranging from a determined lowest fraction level to a determined highest fraction level, the driver further comprising a selection module coupled between the at least one internal node of the power converter and the main output and adapted to select one output signal among said plurality of output signals (PWM1, ..., PWMn) and to output such selected output signal. - a power converter adapted to convert a DC input voltage (Vin) into at least one main output voltage provided through a main output for driving said main load, and at least one auxiliary output DC voltage through an auxiliary output for supplying said auxiliary load, - a controller adapted to control the main output based on at least one input set point, - a controller adapted to control the main output based on at least one input set point,
A seamless steel pipe having a first pipe end and a second pipe end, the seamless steel pipe having a chemical composition consisting of in mass%, C: 0.21 to 0.35%, Si: 0.10 to 0.50%, Mn: 0.05 to 1.00%, P: 0.025% or less, S: 0.010% or less, sol. Al: 0.005 to 0.100%, N: 0.010% or less, Cr: 0.05 to 1.50%, Mo: 0.10 to 1.50%, Nb: 0.010 to 0.050%, B: 0.0003 to 0.0050%, Ti: 0.002 to 0.050%, V: 0 to 0.30%, Ca: 0 to 0.0050%, and rare earth metal: 0 to 0.0050%, the balance being Fe and impurities, of the impurities an oxygen content is 0.005% or less, in the seamless steel pipe, a grain size number of prior-austenite grain conforming to ASTM E112 is 7.0 or more in a main body region excluding a first pipe end region and a second pipe end region, the first pipe end region ranging to a position 500 mm away from the first pipe end in an axial direction of the seamless steel pipe toward the second pipe end, the second pipe end region ranging to a position 500 mm away from the second pipe end in an axial direction of the seamless steel pipe toward the first pipe end, wherein, out of grain size numbers of the prior-austenite grain obtained in 40 measurement positions, the minimum grain size number is defined as the grain size number conforming to ASTM E112, in the main body region, a difference between a maximum value of the grain size numbers at the 40 measurement positions and a minimum value of the grain size numbers at the 40 measurement positions is 1.0 or less, in the main body region, yield strength is 655 to less than 862 MPa, and in the main body region, a difference between a maximum value and a minimum value of tensile strength is 27.6 MPa or less.
A combustor for a gas turbine engine comprising: a support shell having a bend; and a combustor liner including a forward liner panel mounted to the support shell via a first multiple of studs , the forward liner panel comprising a forward section and an aft section that defines a profile internal to the combustor with an arcuate surface section between the forward section and the aft section , the aft section being adjacent to the bend; and the combustor liner further comprising an aft liner panel mounted to the support shell via a second multiple of studs downstream of the forward liner panel ; characterised in that : the arcuate surface section extends over an angle between 150 to 175 degrees with respect to a cold side of the forward liner panel ; the support shell is formed with an arcuate surface section that is complementary to the arcuate surface section of the forward liner panel , wherein the arcuate surface section of the forward liner panel is in the region of the arcuate surface section of the support shell ; the combustor liner extends across two segments of the support shell . a support shell having a bend; and a combustor liner including a forward liner panel mounted to the support shell via a first multiple of studs , the forward liner panel comprising a forward section and an aft section that defines a profile internal to the combustor with an arcuate surface section between the forward section and the aft section , the aft section being adjacent to the bend; and the combustor liner further comprising an aft liner panel mounted to the support shell via a second multiple of studs downstream of the forward liner panel ; the arcuate surface section extends over an angle between 150 to 175 degrees with respect to a cold side of the forward liner panel ; the support shell is formed with an arcuate surface section that is complementary to the arcuate surface section of the forward liner panel , wherein the arcuate surface section of the forward liner panel is in the region of the arcuate surface section of the support shell ; the combustor liner extends across two segments of the support shell .
A system, comprising: (A) a memory; (B) a plurality of acoustic sources each configured to generate an audio signal; (C) a mixer in communication with the plurality of acoustic sources and the memory, the mixer configured to mix the audio signal from each of the plurality of acoustic sources to produce a mixed audio signal; and (D) an acoustic echo canceller in communication with the mixer, the memory, and a remote audio signal, the acoustic echo canceller configured to generate an echo-cancelled mixed audio signal based on the mixed audio signal, information gathered from the audio signal from each of the plurality of acoustic sources, and the remote audio signal. (A) a memory; (B) a plurality of acoustic sources each configured to generate an audio signal; (C) a mixer in communication with the plurality of acoustic sources and the memory, the mixer configured to mix the audio signal from each of the plurality of acoustic sources to produce a mixed audio signal; and (D) an acoustic echo canceller in communication with the mixer, the memory, and a remote audio signal, the acoustic echo canceller configured to generate an echo-cancelled mixed audio signal based on the mixed audio signal, information gathered from the audio signal from each of the plurality of acoustic sources, and the remote audio signal.