mhurhangee/patent-ind-claim-en huggingface dataset:
A work vehicle , the work vehicle comprising, a body , a controllable, articulable implement coupled to the body , the articulable implement including at least two arms and a tool positioned at a distal end of the articulable implement , wherein the articulable implement is positionable by an operator of the work vehicle in an operating environment , the work vehicle further comprising: an imaging system comprising: a display housed within the operating environment of the work vehicle configured to display images of a work area ; a track including a rail coupled to at least one of the arms of the articulable implement and extending along a length of the at least one arm ; and a camera coupled to the track , the camera communicatively coupled with the display , wherein the camera captures at least one image of the work area and communicates the image to the display , wherein the camera is positionable at a plurality of locations along the rail to capture images of the work area ; the work vehicle being characterized in that the articulable implement is a backhoe, a first arm of the at least two arms is a boom arm, and a second arm of the at least two arms is a dipper arm, and wherein the track is coupled to at least one of a bottom section or a top section of at least one of the boom arm or the dipper arm. an imaging system comprising: a display housed within the operating environment of the work vehicle configured to display images of a work area ; a track including a rail coupled to at least one of the arms of the articulable implement and extending along a length of the at least one arm ; and a camera coupled to the track , the camera communicatively coupled with the display , wherein the camera captures at least one image of the work area and communicates the image to the display , a display housed within the operating environment of the work vehicle configured to display images of a work area ; a track including a rail coupled to at least one of the arms of the articulable implement and extending along a length of the at least one arm ; and a camera coupled to the track , the camera communicatively coupled with the display , wherein the camera captures at least one image of the work area and communicates the image to the display , wherein the camera is positionable at a plurality of locations along the rail to capture images of the work area ; the work vehicle being characterized in that the articulable implement is a backhoe, a first arm of the at least two arms is a boom arm, and a second arm of the at least two arms is a dipper arm, and wherein the track is coupled to at least one of a bottom section or a top section of at least one of the boom arm or the dipper arm.
A screen assembly , comprising: a liquid crystal panel ; a backlight module disposed on one side of the liquid crystal panel and comprising a first through hole , wherein the backlight module comprises a plastic ring disposed in the first through hole , a camera at least partially received in the first through hole , wherein the camera is fixed in the first through hole via the plastic ring ; and a light-shielding adhesive layer disposed between the backlight module and the liquid crystal panel , wherein a vertical projection of the light-shielding adhesive layer on the liquid crystal panel is within a vertical projection of the plastic ring on the liquid crystal panel , and the light-shielding adhesive layer is configured to prevent lights leaked from the backlight module from entering a light-incident surface of the camera ; wherein the plastic ring comprises a first inner wall facing the camera ; and the light-shielding adhesive layer comprises a second inner wall facing the camera , wherein the second inner wall is flush with the first inner wall . a liquid crystal panel ; a backlight module disposed on one side of the liquid crystal panel and comprising a first through hole , wherein the backlight module comprises a plastic ring disposed in the first through hole , a camera at least partially received in the first through hole , wherein the camera is fixed in the first through hole via the plastic ring ; and a light-shielding adhesive layer disposed between the backlight module and the liquid crystal panel , wherein a vertical projection of the light-shielding adhesive layer on the liquid crystal panel is within a vertical projection of the plastic ring on the liquid crystal panel , and the light-shielding adhesive layer is configured to prevent lights leaked from the backlight module from entering a light-incident surface of the camera ; wherein the plastic ring comprises a first inner wall facing the camera ; and the light-shielding adhesive layer comprises a second inner wall facing the camera , wherein the second inner wall is flush with the first inner wall .
A method of analyzing a degree of hydrogenation of a hydrogenated diene polymer using infrared absorption spectroscopy, the method comprising use of a calibration curve, characterized in that the calibration curve is represented by the following equation : 2 H − Vin = aA2915 + b where H is a degree of hydrogenation (%) of a hydrogenated diene polymer, Vin is a vinyl percentage (%) of the hydrogenated diene polymer, A2915 is a peak intensity of a peak attributed to CH 2 antisymmetric stretching vibration, and a and b are each a constant. the calibration curve is represented by the following equation : 2 H − Vin = aA2915 + b where H is a degree of hydrogenation (%) of a hydrogenated diene polymer, Vin is a vinyl percentage (%) of the hydrogenated diene polymer, A2915 is a peak intensity of a peak attributed to CH 2 antisymmetric stretching vibration, and a and b are each a constant.
A method of reducing the relative viscosity (RV) of a polyamide melt, the method comprising: treating a first polyamide having a RV of 45 or greater with an additive mixture comprising an organic dicarboxylic acid and a second polyamide, wherein the particle size distribution of the organic dicarboxylic acid component is characterized by >94% by weight of the particles scaling <710 microns, dry-blended with a second polyamide, where the second polyamide is characterized by >97 wt% of particles scaling >300 microns and ≤3 wt% of particles scaling ≤300 microns, and wherein greater than 50 wt% of the additive mixture is the second polyamide; and melting the first polyamide treated with the additive mixture; wherein the RV is determined according to ASTM D789-06, and is the ratio of viscosity (in centipoises) at 25°C of 8.4% by weight solution of the polyamide in 90% formic acid (90% by weight formic acid and 10% by weight water) to the viscosity (in centipoises) at 25°C of 90% formic acid alone. treating a first polyamide having a RV of 45 or greater with an additive mixture comprising an organic dicarboxylic acid and a second polyamide, wherein the particle size distribution of the organic dicarboxylic acid component is characterized by >94% by weight of the particles scaling <710 microns, dry-blended with a second polyamide, where the second polyamide is characterized by >97 wt% of particles scaling >300 microns and ≤3 wt% of particles scaling ≤300 microns, and wherein greater than 50 wt% of the additive mixture is the second polyamide; and melting the first polyamide treated with the additive mixture; wherein the RV is determined according to ASTM D789-06, and is the ratio of viscosity (in centipoises) at 25°C of 8.4% by weight solution of the polyamide in 90% formic acid (90% by weight formic acid and 10% by weight water) to the viscosity (in centipoises) at 25°C of 90% formic acid alone.
A method for producing a solid separator for a battery cell, comprising: - supplying a substrate , - applying a slurry of a ceramic solid separator, comprising a solid electrolyte, a polymer binder, and a solvent, onto the substrate , - drying the substrate coated with the slurry , wherein a dried coating is formed, and - sintering the dried coating of the substrate , wherein the coating is heated by coupling high-energy radiation from a surface emitter to a process temperature Tp for sintering the coating . - supplying a substrate , - applying a slurry of a ceramic solid separator, comprising a solid electrolyte, a polymer binder, and a solvent, onto the substrate , - drying the substrate coated with the slurry , wherein a dried coating is formed, and - sintering the dried coating of the substrate , wherein the coating is heated by coupling high-energy radiation from a surface emitter to a process temperature Tp for sintering the coating .
Electrically conductive polymeric fabric comprising an electrically conductive elastomer ply made of a polymer material and at least one electrically conductive filler, wherein at least one metallic electrical conduit is electrically connected to the elastomer ply via at least one mediator layer , characterized in that the mediator layer contains at least one matrix polymer and per 100 parts by weight of the matrix polymer a) 1 to 30 parts by weight of conductivity carbon black and b) 0.1 to 15 parts by weight of carbon nanotubes. a) 1 to 30 parts by weight of conductivity carbon black and b) 0.1 to 15 parts by weight of carbon nanotubes.
A method for determining the location of modified cytosines in a nucleic acid fragment, comprising: (a) reacting a nucleic acid fragment containing at least one C and/or at least one modified C with a methylcytosine dioxygenase and a DNA glucosyltransferase, wherein the methylcytosine dioxygenase and DNA glucosyltransferase are combined in the same reaction mix; and then the product of this reaction is reacted with a cytidine deaminase; and (b) comparing the sequences obtained in (a), or amplification products thereof, with an untreated reference sequence to determine which Cs in the initial nucleic acid fragment are modified. (a) reacting a nucleic acid fragment containing at least one C and/or at least one modified C with a methylcytosine dioxygenase and a DNA glucosyltransferase, wherein the methylcytosine dioxygenase and DNA glucosyltransferase are combined in the same reaction mix; and then the product of this reaction is reacted with a cytidine deaminase; and (b) comparing the sequences obtained in (a), or amplification products thereof, with an untreated reference sequence to determine which Cs in the initial nucleic acid fragment are modified.
A work vehicle comprising: a protective frame including a lower frame fixed to a vehicle body frame and an upper frame raisably/collapsibly pivotally connected to an upper end portion of the lower frame ; wherein in association with a raising/collapsing pivotal movement of the upper frame by an operator's manual operation, the protective frame is switched over to either a protecting state wherein the upper frame is set to a raised posture and disposed upwardly of the lower frame or a storing state wherein the upper frame is set to a collapsed posture and disposed on one front/rear side of the lower frame ; and the protective frame includes an assisting mechanism configured to assist the manual operation; characterized in that the assisting mechanism comprises a gas spring disposed under a raised posture to a collapsing side of the upper frame ; and a lower end portion of the gas spring is connected to the vehicle body frame or the lower frame via a position adjustment mechanism for allowing position adjusting of the lower end portion in a vertical direction. a protective frame including a lower frame fixed to a vehicle body frame and an upper frame raisably/collapsibly pivotally connected to an upper end portion of the lower frame ; wherein in association with a raising/collapsing pivotal movement of the upper frame by an operator's manual operation, the protective frame is switched over to either a protecting state wherein the upper frame is set to a raised posture and disposed upwardly of the lower frame or a storing state wherein the upper frame is set to a collapsed posture and disposed on one front/rear side of the lower frame ; and the protective frame includes an assisting mechanism configured to assist the manual operation; characterized in that the assisting mechanism comprises a gas spring disposed under a raised posture to a collapsing side of the upper frame ; and a lower end portion of the gas spring is connected to the vehicle body frame or the lower frame via a position adjustment mechanism for allowing position adjusting of the lower end portion in a vertical direction.
A microwave treatment device comprising: a heating chamber configured to accommodate an object to be heated; a first antenna and a second antenna configured to radiate a microwave to the heating chamber ; a transmission line group including a plurality of transmission lines (7a-7f) configured to supply the first antenna and the second antenna with the microwave; and a plurality of supply parts configured to supply the transmission line group with the microwave, wherein the plurality of transmission lines (7a-7f) includes a first transmission line , a second transmission line , a third transmission line , and a fourth transmission line , all of which are coupled in a ring shape, the transmission line group further includes a first branch part between the first transmission line and the third transmission line , and a second branch part between the second transmission line and the fourth transmission line , the plurality of supply parts includes a first supply part between the first transmission line and the second transmission line , and a second supply part between the third transmission line and the fourth transmission line , the first transmission line has a phase length identical to a phase length of each of the second transmission line and the fourth transmission line , characterised in that the third transmission line has a phase length that is different from each phase length of the first transmission line , the second transmission line , and the fourth transmission line . a heating chamber configured to accommodate an object to be heated; a first antenna and a second antenna configured to radiate a microwave to the heating chamber ; a transmission line group including a plurality of transmission lines (7a-7f) configured to supply the first antenna and the second antenna with the microwave; and a plurality of supply parts configured to supply the transmission line group with the microwave, wherein the plurality of transmission lines (7a-7f) includes a first transmission line , a second transmission line , a third transmission line , and a fourth transmission line , all of which are coupled in a ring shape, the transmission line group further includes a first branch part between the first transmission line and the third transmission line , and a second branch part between the second transmission line and the fourth transmission line , the plurality of supply parts includes a first supply part between the first transmission line and the second transmission line , and a second supply part between the third transmission line and the fourth transmission line , the first transmission line has a phase length identical to a phase length of each of the second transmission line and the fourth transmission line , characterised in that the third transmission line has a phase length that is different from each phase length of the first transmission line , the second transmission line , and the fourth transmission line .
A turbine assembly comprising: a blade assembly having a plurality of curved blades with an inner end of each of the curved blades terminating at a cavity , and wherein each of the curved blades has a dynamic structure that flexes to expand under fluid pressure and at least partially collapses under reverse pressure, and a generator coupled to the blade assembly ; characterised in that the turbine assembly is configured for underwater use, said cavity is closed and has an open bottom side, such that the blade assembly sits over the generator and the generator is located within the cavity . a blade assembly having a plurality of curved blades with an inner end of each of the curved blades terminating at a cavity , and wherein each of the curved blades has a dynamic structure that flexes to expand under fluid pressure and at least partially collapses under reverse pressure, and a generator coupled to the blade assembly ; characterised in that the turbine assembly is configured for underwater use, said cavity is closed and has an open bottom side, such that the blade assembly sits over the generator and the generator is located within the cavity .
A control device for an electric power steering device comprising: a direct current power source configured to output direct current voltage; an inverter configured to convert the direct current voltage output from the direct current power source into alternating current voltage, and apply the alternating current voltage to a synchronous motor ; and a controller configured to convert three-phase current flowing in the synchronous motor into d-axis current and q-axis current, perform proportional integral control for a deviation between d-axis current command and the d-axis current so that the d-axis current follows the d-axis current command, to calculate d-axis voltage command, perform proportional integral control for a deviation between q-axis current command and the q-axis current so that the q-axis current follows the q-axis current command, to calculate q-axis voltage command, convert the d-axis voltage command and the q-axis voltage command into three-phase voltage command, and control the inverter based on the three-phase voltage command, characterized in that a q-axis proportional gain K pq , which is used in the proportional integral control performed for the deviation between the q-axis current command and the q-axis current, is set according to a relation K pq = (K q / τ q ) × L, where τ q is a time constant of a q-axis current control system, L is a q-axis inductance or a d-axis inductance, and K q is a constant greater than zero and less than one. a direct current power source configured to output direct current voltage; an inverter configured to convert the direct current voltage output from the direct current power source into alternating current voltage, and apply the alternating current voltage to a synchronous motor ; and a controller configured to convert three-phase current flowing in the synchronous motor into d-axis current and q-axis current, perform proportional integral control for a deviation between d-axis current command and the d-axis current so that the d-axis current follows the d-axis current command, to calculate d-axis voltage command, perform proportional integral control for a deviation between q-axis current command and the q-axis current so that the q-axis current follows the q-axis current command, to calculate q-axis voltage command, convert the d-axis voltage command and the q-axis voltage command into three-phase voltage command, and control the inverter based on the three-phase voltage command, characterized in that a q-axis proportional gain K pq , which is used in the proportional integral control performed for the deviation between the q-axis current command and the q-axis current, is set according to a relation K pq = (K q / τ q ) × L, where τ q is a time constant of a q-axis current control system, L is a q-axis inductance or a d-axis inductance, and K q is a constant greater than zero and less than one.
A safety evaluation method comprising: preparing a sample for secondary battery electrode evaluation in which a short circuit occurs when components included in the sample contact each other; applying a predetermined pressure which causes the contact between the components to an area of the sample set as a secondary battery internal short circuit simulation contact area; applying a current between I probes in contact with the sample, obtaining resistance by measuring a potential difference between V probes which are separate from the I probes, obtaining a graph of a change in resistance with a change in distance between the V probes, and calculating a short circuit resistance of the area from y-intercept of the graph; and predicting a heat generation amount of the area from the short circuit resistance. preparing a sample for secondary battery electrode evaluation in which a short circuit occurs when components included in the sample contact each other; applying a predetermined pressure which causes the contact between the components to an area of the sample set as a secondary battery internal short circuit simulation contact area; applying a current between I probes in contact with the sample, obtaining resistance by measuring a potential difference between V probes which are separate from the I probes, obtaining a graph of a change in resistance with a change in distance between the V probes, and calculating a short circuit resistance of the area from y-intercept of the graph; and predicting a heat generation amount of the area from the short circuit resistance.
A computer implemented method, comprising: determining a list of current statuses of a plurality of smart appliances controlled by a user ; determining a current user context based on one or more contextual signals generated by one or more computing devices controlled by the user; identifying , from a plurality of past user contexts, one or more comparable past user contexts that are comparable to the current user context; for each of the one or more comparable past user contexts, obtaining a corresponding list of past statuses of the plurality of smart appliances; filtering the list of current statuses to remove one or more of the current statuses and generate a filtered list of current statuses, wherein the filtering is based on a comparison of the list of current statuses with the one or more lists of past statuses and wherein the filtered list of current statuses includes current statuses from the list of current statuses that deviate from the list of past statuses; generating one or more textual snippets based on the filtered list of current statuses; generating a textual summary of the one or more textual snippets; and providing the textual summary to an output device of one or more of the computing devices controlled by the user. determining a list of current statuses of a plurality of smart appliances controlled by a user ; determining a current user context based on one or more contextual signals generated by one or more computing devices controlled by the user; identifying , from a plurality of past user contexts, one or more comparable past user contexts that are comparable to the current user context; for each of the one or more comparable past user contexts, obtaining a corresponding list of past statuses of the plurality of smart appliances; filtering the list of current statuses to remove one or more of the current statuses and generate a filtered list of current statuses, wherein the filtering is based on a comparison of the list of current statuses with the one or more lists of past statuses and wherein the filtered list of current statuses includes current statuses from the list of current statuses that deviate from the list of past statuses; generating one or more textual snippets based on the filtered list of current statuses; generating a textual summary of the one or more textual snippets; and providing the textual summary to an output device of one or more of the computing devices controlled by the user.