mhurhangee/patent-ind-claim-en huggingface dataset:
A method of measuring axial clearance of a ball screw device comprising: supporting one member of a nut and a screw shaft threadedly engaged with each other; characterized by applying a load to the other member of the nut and the screw shaft in directions opposite to each other along an axial direction (A) while holding the one member and the other member to be relatively displaceable; and measuring a displacement amount of the other member at the time the load is applied, wherein a posture correction unit is provided between the other member and the load applying unit or between the one member and the support unit to hold the one member and the other member to be relatively displaceable, wherein when a load is applied to the other member, the other posture is corrected by the posture correction unit with degrees of freedom of translation in two different directions in a plane perpendicular to the axial direction (A) and at least two degrees of freedom of rotation with the two different directions in the plane perpendicular to the axial direction (A) as rotational axes. supporting one member of a nut and a screw shaft threadedly engaged with each other; characterized by applying a load to the other member of the nut and the screw shaft in directions opposite to each other along an axial direction (A) while holding the one member and the other member to be relatively displaceable; and measuring a displacement amount of the other member at the time the load is applied, wherein a posture correction unit is provided between the other member and the load applying unit or between the one member and the support unit to hold the one member and the other member to be relatively displaceable, wherein when a load is applied to the other member, the other posture is corrected by the posture correction unit with degrees of freedom of translation in two different directions in a plane perpendicular to the axial direction (A) and at least two degrees of freedom of rotation with the two different directions in the plane perpendicular to the axial direction (A) as rotational axes.
A method comprising: receiving , at a device in a network, traffic data regarding a plurality of observed traffic flows; mapping , by the device, one or more characteristics of the observed traffic flows from the traffic data to traffic characteristics associated with a targeted deployment environment; generating , by the device, synthetic traffic data based on the mapped traffic characteristics associated with the targeted deployment environment; and training , by the device, a machine learning-based traffic classifier using the synthetic traffic data. receiving , at a device in a network, traffic data regarding a plurality of observed traffic flows; mapping , by the device, one or more characteristics of the observed traffic flows from the traffic data to traffic characteristics associated with a targeted deployment environment; generating , by the device, synthetic traffic data based on the mapped traffic characteristics associated with the targeted deployment environment; and training , by the device, a machine learning-based traffic classifier using the synthetic traffic data.
A method of operating a first network node in a first communication network that operates according to a first radio access technology, RAT, the method comprising: receiving a request message (501; 601; 703; 801; 901) from a second network node in a second communication network that operates according to a second RAT to initiate and/or modify aggregation of user traffic for a terminal device via the first network node and the second network node; wherein the request message (501; 601; 703; 801; 901) includes security parameters for use by the terminal device and/or first network node and/or network nodes in the first communication network in authentication and/or encrypting communications between the terminal device and the first network node or between the terminal device and another network node in the first communication network; wherein the first RAT is different to the second RAT. receiving a request message (501; 601; 703; 801; 901) from a second network node in a second communication network that operates according to a second RAT to initiate and/or modify aggregation of user traffic for a terminal device via the first network node and the second network node; wherein the request message (501; 601; 703; 801; 901) includes security parameters for use by the terminal device and/or first network node and/or network nodes in the first communication network in authentication and/or encrypting communications between the terminal device and the first network node or between the terminal device and another network node in the first communication network; wherein the first RAT is different to the second RAT.
A method for determining a rogue Optical Network Unit, ONU, in an Optical Line Terminal, OLT, of a passive optical network, the OLT receiving uplink signals of multiple ONUs, the method comprising the steps of: (A). detecting, by at least one first processor of the OLT, a rogue ONU condition using an uplink error rate and an optical power value, if the rogue ONU condition is detected then (S211, S212), (D). determining, by the at least one first processor, an original infected zone based on a first time slot allocation in which each time slot corresponds to an uplink signal of one ONU (S210); (B). determining, by the at least one first processor, a new infected zone based on a second time slot allocation in which each time slot corresponds to an uplink signal of one ONU (S230); (F). determining, by the at least one first processor, a same ONU in the original infected zone and in the new infected zone as a rogue ONU candidate (S240); and (G). determining, by the at least one first processor, a rogue ONU based on the rogue ONU candidate (S250); characterized in that determining, by the at least one first processor, a rogue ONU based on the rogue ONU candidate (S250) comprises: closing in turn the rogue ONU candidate and checking error rates of other ONUs except the closed ONU; if all error rates of the other ONU are not larger than the error rate threshold, determining the closed rogue ONU candidate as the rogue ONU. (A). detecting, by at least one first processor of the OLT, a rogue ONU condition using an uplink error rate and an optical power value, if the rogue ONU condition is detected then (S211, S212), (D). determining, by the at least one first processor, an original infected zone based on a first time slot allocation in which each time slot corresponds to an uplink signal of one ONU (S210); (B). determining, by the at least one first processor, a new infected zone based on a second time slot allocation in which each time slot corresponds to an uplink signal of one ONU (S230); (F). determining, by the at least one first processor, a same ONU in the original infected zone and in the new infected zone as a rogue ONU candidate (S240); and (G). determining, by the at least one first processor, a rogue ONU based on the rogue ONU candidate (S250);
A process for manufacturing a spiral bevel gear , comprising: providing a forging having a first side and a second side, the first side comprising a plurality of spiral bevel gear teeth ; machining the second side of the forging to a predetermined distance from a portion of the spiral bevel gear teeth; coining the machined forging to form a coined gear ; heat treating the coined gear ; and machining a portion of the heat-treated gear other than the spiral bevel gear teeth. providing a forging having a first side and a second side, the first side comprising a plurality of spiral bevel gear teeth ; machining the second side of the forging to a predetermined distance from a portion of the spiral bevel gear teeth; coining the machined forging to form a coined gear ; heat treating the coined gear ; and machining a portion of the heat-treated gear other than the spiral bevel gear teeth.
A twine knotter arrangement for knotting twine to tie a bale, the twine knotter arrangement comprising: a twine knotter and a baler needle for feeding twine strands into a knotter region of the twine knotter , characterized in that the twine knotter arrangement also has a deflection roller which can be adjusted relative to the twine knotter and via which twine coming from the bale is deflected in the direction of the twine knotter , and an adjusting device for adjusting the position of the deflection roller as a function of the force (F R ) exerted by the twine on the deflection roller . a twine knotter and a baler needle for feeding twine strands into a knotter region of the twine knotter , characterized in that the twine knotter arrangement also has a deflection roller which can be adjusted relative to the twine knotter and via which twine coming from the bale is deflected in the direction of the twine knotter , and an adjusting device for adjusting the position of the deflection roller as a function of the force (F R ) exerted by the twine on the deflection roller .
A cell comprising a composition comprising: a) an expression construct that encodes a HER2-specific chimeric antigen receptor (CAR); b) an expression construct that encodes an IL13Rα2 CAR; and c) an expression construct that encodes an EphA2 CAR, wherein the cell expresses an HER2-specific CAR, an IL13Rα2-specific CAR and an EphA2-specific CAR, wherein there is one of the following: 1) the expression construct of a) and b) and c) are located on separate molecules; 2) the expression construct of a) and b) are located on the same molecule; 3) the expression construct of a) and c) are located on the same molecule; 4) the expression construct of b) and c) are located on the same molecule; or 5) the expression construct of a), b), and c) are located on the same molecule, optionally wherein the expression constructs of a), b), and c) are separate entities. a) an expression construct that encodes a HER2-specific chimeric antigen receptor (CAR); b) an expression construct that encodes an IL13Rα2 CAR; and c) an expression construct that encodes an EphA2 CAR, wherein the cell expresses an HER2-specific CAR, an IL13Rα2-specific CAR and an EphA2-specific CAR, wherein there is one of the following: 1) the expression construct of a) and b) and c) are located on separate molecules; 2) the expression construct of a) and b) are located on the same molecule; 3) the expression construct of a) and c) are located on the same molecule; 4) the expression construct of b) and c) are located on the same molecule; or 5) the expression construct of a), b), and c) are located on the same molecule, optionally wherein the expression constructs of a), b), and c) are separate entities. 1) the expression construct of a) and b) and c) are located on separate molecules; 2) the expression construct of a) and b) are located on the same molecule; 3) the expression construct of a) and c) are located on the same molecule; 4) the expression construct of b) and c) are located on the same molecule; or 5) the expression construct of a), b), and c) are located on the same molecule,
A communication device for processing audio signals, the device comprising: a transceiver configured to send and receive audio data; a microphone configured to convert sound waves to a first audio signal; a speaker configured to convert received electrical signals to an acoustic output and configured to convert sound waves to a second audio signal; and an electronic processor connected to the microphone and the speaker , the electronic processor configured to: receive the first audio signal from the microphone ; receive the second audio signal from the speaker ; determine a correlation value between the first audio signal and the second audio signal; compare the correlation value to a correlation threshold; in response to the correlation value being below the correlation threshold, generate an output signal based on the second audio signal, wherein the electronic processor is further configured to mix the first audio signal and the second audio signal based on a weighted function according to the correlation value to generate the output signal; and transmit, via the transceiver , the output signal. a transceiver configured to send and receive audio data; a microphone configured to convert sound waves to a first audio signal; a speaker configured to convert received electrical signals to an acoustic output and configured to convert sound waves to a second audio signal; and an electronic processor connected to the microphone and the speaker , the electronic processor configured to: receive the first audio signal from the microphone ; receive the second audio signal from the speaker ; determine a correlation value between the first audio signal and the second audio signal; compare the correlation value to a correlation threshold; in response to the correlation value being below the correlation threshold, generate an output signal based on the second audio signal, wherein the electronic processor is further configured to mix the first audio signal and the second audio signal based on a weighted function according to the correlation value to generate the output signal; and transmit, via the transceiver , the output signal. receive the first audio signal from the microphone ; receive the second audio signal from the speaker ; determine a correlation value between the first audio signal and the second audio signal; compare the correlation value to a correlation threshold; in response to the correlation value being below the correlation threshold, generate an output signal based on the second audio signal, wherein the electronic processor is further configured to mix the first audio signal and the second audio signal based on a weighted function according to the correlation value to generate the output signal; and transmit, via the transceiver , the output signal.
A photochromic glass comprising: a base glass, said base glass including 19 wt% - 39 wt% B 2 O 3 , 0.5 wt% - 15 wt% Al 2 O 3 , 46 wt% - 65 wt% SiO 2 , 3.5 wt% - 12.5 wt% alkali metal oxide, and 0.005 wt% - 0.40 wt% SnO 2 ; and 0.56 wt% - 1.28 wt% copper; and 0.1 wt% -0.7 wt%. halide; and a photochromic agent, said photochromic agent including a nanocrystalline cuprous halide phase within said base glass, said nanocrystalline cuprous halide phase including a copper component and a halide component, said copper component including at least a portion of said copper, said at least portion of said copper including Cu + and Cu 2 , said halide component including at least a portion of said halide; wherein said photochromic glass has a cutoff wavelength less than 410 nm. a base glass, said base glass including 19 wt% - 39 wt% B 2 O 3 , 0.5 wt% - 15 wt% Al 2 O 3 , 46 wt% - 65 wt% SiO 2 , 3.5 wt% - 12.5 wt% alkali metal oxide, and 0.005 wt% - 0.40 wt% SnO 2 ; and 0.56 wt% - 1.28 wt% copper; and 0.1 wt% -0.7 wt%. halide; and 0.56 wt% - 1.28 wt% copper; and 0.1 wt% -0.7 wt%. halide; and a photochromic agent, said photochromic agent including a nanocrystalline cuprous halide phase within said base glass, said nanocrystalline cuprous halide phase including a copper component and a halide component, said copper component including at least a portion of said copper, said at least portion of said copper including Cu + and Cu 2 , said halide component including at least a portion of said halide; wherein said photochromic glass has a cutoff wavelength less than 410 nm.
An eye patch for at least partially covering a human or animal eye and for shielding it from mechanical and/or climatic influences and/or from electromagnetic radiation, in particular from light radiation, wherein the eye patch has at least one shell of bending-resistant material, which shell at least partially covers the eye and its surrounding, as well as a sensor unit , which comprises at least: - one data interface designed for wireless bidirectional communication or data transfer, respectively, as well as - one electrical energy storage for the electrical energy supply of at least the microcontroller and the data interface , characterized in that the at least one sensor unit further comprises at least - one sensor for the continuous acquisition of movement data of the eye patch by measuring spatial acceleration movements and rotation movements, - one microcontroller for processing the output signals of the at least one sensor . - one data interface designed for wireless bidirectional communication or data transfer, respectively, as well as - one electrical energy storage for the electrical energy supply of at least the microcontroller and the data interface , characterized in that the at least one sensor unit further comprises at least - one sensor for the continuous acquisition of movement data of the eye patch by measuring spatial acceleration movements and rotation movements, - one microcontroller for processing the output signals of the at least one sensor .
A catalyst composition comprising: (a) at least one metallocene compound comprising a transition metal selected from Ti, Zr or Hf; and (b) at least one activator-support; wherein the at least one activator-support comprises at least one silica-coated alumina treated with at least one electron-withdrawing anion, wherein: the at least one silica-coated alumina has a weight ratio of alumina to silica in a range from 1.2:1 to 25:1, and the at least one electron-withdrawing anion comprises fluoride, chloride, bromide, phosphate, triflate, bisulfate, sulfate, or any combination thereof. (a) at least one metallocene compound comprising a transition metal selected from Ti, Zr or Hf; and (b) at least one activator-support; wherein the at least one activator-support comprises at least one silica-coated alumina treated with at least one electron-withdrawing anion, wherein: the at least one silica-coated alumina has a weight ratio of alumina to silica in a range from 1.2:1 to 25:1, and the at least one electron-withdrawing anion comprises fluoride, chloride, bromide, phosphate, triflate, bisulfate, sulfate, or any combination thereof. the at least one silica-coated alumina has a weight ratio of alumina to silica in a range from 1.2:1 to 25:1, and the at least one electron-withdrawing anion comprises fluoride, chloride, bromide, phosphate, triflate, bisulfate, sulfate, or any combination thereof.
A power and/or telecommunications cable comprising at least one elongate conductive element and at least one composite electrically insulating layer surrounding said elongate conductive element, characterized in that the composite electrically insulating layer comprises at least one starch, at least one starch plasticizer and at least one cement material, and in that : - the cement material is a geopolymer cement or is derived from a mixture composed of a conventional anhydrous cement and water, or from a mixture composed of a magnesium silicate, alkaline silicate, alkaline base and water; and - the cement material represents from 10 to 50 weight % relative to the total weight of said composite electrically insulating layer. - the cement material is a geopolymer cement or is derived from a mixture composed of a conventional anhydrous cement and water, or from a mixture composed of a magnesium silicate, alkaline silicate, alkaline base and water; and - the cement material represents from 10 to 50 weight % relative to the total weight of said composite electrically insulating layer.
A thermistor sintered body comprising: a Y 2 O 3 phase as a main phase; and a Y(Cr,Mn)O 3 phase or a YCrO 3 phase as a subphase, characterized in that Ca and Pr are dissolved in the Y(Cr,Mn)O 3 phase or in the YCrO 3 phase, and the thermistor sintered body comprises 20 mol% or less of Cr, 20 mol% or less of Mn, 1 to 15 mol% of Ca, 0.5 to 30 mol% of Pr, and a balance of Y, wherein calculation of the molar percentages of Cr, Mn, Ca, Pr and Y does not take into account the amount of oxygen comprised by the thermistor sintered body. a Y 2 O 3 phase as a main phase; and a Y(Cr,Mn)O 3 phase or a YCrO 3 phase as a subphase, characterized in that Ca and Pr are dissolved in the Y(Cr,Mn)O 3 phase or in the YCrO 3 phase, and the thermistor sintered body comprises 20 mol% or less of Cr, 20 mol% or less of Mn, 1 to 15 mol% of Ca, 0.5 to 30 mol% of Pr, and a balance of Y, wherein calculation of the molar percentages of Cr, Mn, Ca, Pr and Y does not take into account the amount of oxygen comprised by the thermistor sintered body.
A compound for a tyre sealant layer comprising at least one polymer base consisting of an essentially saturated polymer and a filler, wherein said polymer base consisting of an essentially saturated polymer is a halobutyl and/or butyl rubber; said compound being characterized in that said filler comprises kraft lignin; said essentially saturated polymer being a polymer produced with less than 15% in moles of diene monomers.
A system comprising: a microfluidic channel (200; 312; 400; 702; 806) configured to receive a flow of a first fluid and a second fluid dispersed in the first fluid, wherein the second fluid has a different composition than the first fluid; a light source (202; 730; 802; 856) configured to direct a light beam in a frequency band along a path through the microfluidic channel (200; 312; 400; 702; 806), wherein the frequency band is selected to have a higher absorbance by the second fluid than by the first fluid; an aperture element defining a light aperture (204; 412; 908) positioned in the path of the light beam from the light source (202; 730; 802; 856); a light detector (206; 404; 732; 804; 858; 910) positioned to receive the light beam in a sensing area after passing through the microfluidic channel (200; 312; 400; 702; 806) and the light aperture (204; 412; 908), the light detector (206; 404; 732; 804; 858; 910) configured to provide a signal representing an amount of light in the frequency band that remains after passing through the microfluidic channel (200; 312; 400; 702; 806); and a controller operably coupled to the light detector (206; 404; 732; 804; 858; 910), wherein the controller is configured to determine whether the second fluid is in droplet form based on the signal, characterized by the fact that the system comprises an engine fuel line , wherein the microfluidic channel (200; 312; 400; 702; 806) is in parallel fluid communication with a main flow of said engine fuel line . a microfluidic channel (200; 312; 400; 702; 806) configured to receive a flow of a first fluid and a second fluid dispersed in the first fluid, wherein the second fluid has a different composition than the first fluid; a light source (202; 730; 802; 856) configured to direct a light beam in a frequency band along a path through the microfluidic channel (200; 312; 400; 702; 806), wherein the frequency band is selected to have a higher absorbance by the second fluid than by the first fluid; an aperture element defining a light aperture (204; 412; 908) positioned in the path of the light beam from the light source (202; 730; 802; 856); a light detector (206; 404; 732; 804; 858; 910) positioned to receive the light beam in a sensing area after passing through the microfluidic channel (200; 312; 400; 702; 806) and the light aperture (204; 412; 908), the light detector (206; 404; 732; 804; 858; 910) configured to provide a signal representing an amount of light in the frequency band that remains after passing through the microfluidic channel (200; 312; 400; 702; 806); and a controller operably coupled to the light detector (206; 404; 732; 804; 858; 910), wherein the controller is configured to determine whether the second fluid is in droplet form based on the signal,