mhurhangee/ep-ind-claims huggingface dataset:
An agricultural system comprising: a header comprising a gauge wheel and a frame, wherein the gauge wheel and the frame are coupled to a hydraulic cylinder that is configured to adjust the gauge wheel relative to the frame; and a first hydraulic circuit fluidly coupled to the hydraulic cylinder, wherein the first hydraulic circuit is configured to control a fluid flow into and out of the hydraulic cylinder to adjust the gauge wheel relative to the frame, and the first hydraulic circuit comprises an accumulator configured to enable an amount of fluid in the hydraulic cylinder to change during a harvesting operation of the agricultural system such that the gauge wheel may oscillate from a set position during the harvesting operation, the agricultural system being characterised in that it further comprises a second hydraulic circuit, a fluid reservoir, and a valve, wherein the second hydraulic circuit is configured to control a reel lift of the header, and wherein the valve is configured to selectively enable the fluid to flow between the fluid reservoir and the first hydraulic circuit while the valve is in a first position and between the fluid reservoir and the second hydraulic circuit while the valve is in a second position. a header comprising a gauge wheel and a frame, wherein the gauge wheel and the frame are coupled to a hydraulic cylinder that is configured to adjust the gauge wheel relative to the frame; and a first hydraulic circuit fluidly coupled to the hydraulic cylinder, wherein the first hydraulic circuit is configured to control a fluid flow into and out of the hydraulic cylinder to adjust the gauge wheel relative to the frame, and the first hydraulic circuit comprises an accumulator configured to enable an amount of fluid in the hydraulic cylinder to change during a harvesting operation of the agricultural system such that the gauge wheel may oscillate from a set position during the harvesting operation, the agricultural system being characterised in that it further comprises a second hydraulic circuit, a fluid reservoir, and a valve, wherein the second hydraulic circuit is configured to control a reel lift of the header, and wherein the valve is configured to selectively enable the fluid to flow between the fluid reservoir and the first hydraulic circuit while the valve is in a first position and between the fluid reservoir and the second hydraulic circuit while the valve is in a second position.
A soft robotic device comprising: an elastomeric body having one chamber or a plurality of interconnected chambers disposed within the body and a pressurizing inlet that is configured to receive fluid for the chamber or the plurality of interconnected chambers; and a plurality of sensors (300A, 300B, 300C) configured to generate a readout correlating with the state of the soft robotic device; a processor operably linked to the plurality of sensors (300A, 300B, 300C) to receive the readout from the plurality of sensors and interpret the readout; wherein the soft robotic device further comprises a strain limited layer disposed along one side of the elastomeric body; wherein the plurality of sensors comprise a network of magnetic sensors embedded in the strain limited layer; and wherein the processor comprises a magnetic motion capture system and the network of magnetic sensors acts as active markers for the magnetic motion capture system for use as a data input for the processor to conduct a finite element analysis or to fit a reduced system model of the soft robotic device. an elastomeric body having one chamber or a plurality of interconnected chambers disposed within the body and a pressurizing inlet that is configured to receive fluid for the chamber or the plurality of interconnected chambers; and a plurality of sensors (300A, 300B, 300C) configured to generate a readout correlating with the state of the soft robotic device; a processor operably linked to the plurality of sensors (300A, 300B, 300C) to receive the readout from the plurality of sensors and interpret the readout; wherein the soft robotic device further comprises a strain limited layer disposed along one side of the elastomeric body; wherein the plurality of sensors comprise a network of magnetic sensors embedded in the strain limited layer; and wherein the processor comprises a magnetic motion capture system and the network of magnetic sensors acts as active markers for the magnetic motion capture system for use as a data input for the processor to conduct a finite element analysis or to fit a reduced system model of the soft robotic device.
A data management device for managing timings at which a plurality of communication terminals, which transmit a plurality of pieces of device data output by a plurality of communication devices to a base station via a wireless communication circuit, transmit the plurality of pieces of device data, the data management device comprising: a timing determination unit configured to determine a timing at which each of the plurality of communication terminals transmits, to the data management device, the plurality of pieces of device data corresponding to a plurality of types of applications executed on the plurality of communication devices and output by the plurality of communication devices that include a sensor respectively; and a communication control unit configured to transmit timing information indicating the timing acquired by the timing determination unit to the each of the plurality of communication terminals and receive, from the plurality of communication terminals, the plurality of pieces of device data that is transmitted based on the timing information, characterized in that the communication control unit is configured to acquire a priority of device data scheduled to be transmitted by each of the plurality of communication terminals and transmit the timing information during a time period when a proportion of device data, which have the priority higher than a prescribed priority and are scheduled to be transmitted during the time period, to the device data which are scheduled to be transmitted during the time period, is greater than a prescribed value. a timing determination unit configured to determine a timing at which each of the plurality of communication terminals transmits, to the data management device, the plurality of pieces of device data corresponding to a plurality of types of applications executed on the plurality of communication devices and output by the plurality of communication devices that include a sensor respectively; and a communication control unit configured to transmit timing information indicating the timing acquired by the timing determination unit to the each of the plurality of communication terminals and receive, from the plurality of communication terminals, the plurality of pieces of device data that is transmitted based on the timing information, characterized in that the communication control unit is configured to acquire a priority of device data scheduled to be transmitted by each of the plurality of communication terminals and transmit the timing information during a time period when a proportion of device data, which have the priority higher than a prescribed priority and are scheduled to be transmitted during the time period, to the device data which are scheduled to be transmitted during the time period, is greater than a prescribed value.
A passenger assistant system comprising: an artificial intelligence processing unit; a sensor interface coupling the artificial intelligence processing unit with at least one sensor configured to provide environmental information regarding a cabin of an aircraft; a flight crew interface coupling the artificial intelligence processing unit with at least one flight crew input; a passenger interface coupling the artificial intelligence processing unit with at least one passenger input; and at least one end effector coupled to the artificial intelligence processing unit; wherein the artificial intelligence processing unit is configured to direct the at least one end effector to perform at least one task responsive to information acquired from one or more of the sensor interface, flight crew interface, or passenger interface; and wherein the at least one task is a predictive task determined by the artificial intelligence processing unit based on the information acquired and historical information. an artificial intelligence processing unit; a sensor interface coupling the artificial intelligence processing unit with at least one sensor configured to provide environmental information regarding a cabin of an aircraft; a flight crew interface coupling the artificial intelligence processing unit with at least one flight crew input; a passenger interface coupling the artificial intelligence processing unit with at least one passenger input; and at least one end effector coupled to the artificial intelligence processing unit; wherein the artificial intelligence processing unit is configured to direct the at least one end effector to perform at least one task responsive to information acquired from one or more of the sensor interface, flight crew interface, or passenger interface; and wherein the at least one task is a predictive task determined by the artificial intelligence processing unit based on the information acquired and historical information.
A nonaqueous electrolyte energy storage device comprising: a positive electrode containing manganese-containing positive active material particles in which aluminum is present at least on a surface; and a nonaqueous electrolyte containing a salt represented by the following formula: wherein R 1 is a hydrogen atom, a halogen atom, or an organic group, M m+ is an alkali metal cation, an alkaline earth metal cation, or an onium cation, m is an integer equivalent to the number of valence of a cation represented by M m+. when m is 2 or more, a plurality of R 1 s are each independently as defined above, wherein the positive active material is a lithium transition metal composite oxide having a layered crystal structure and at least Ni, Co, and Mn, wherein in the positive active material particles, an abundance of aluminum on a surface is larger than the abundance of aluminum inside. a positive electrode containing manganese-containing positive active material particles in which aluminum is present at least on a surface; and a nonaqueous electrolyte containing a salt represented by the following formula: wherein R 1 is a hydrogen atom, a halogen atom, or an organic group, M m+ is an alkali metal cation, an alkaline earth metal cation, or an onium cation, m is an integer equivalent to the number of valence of a cation represented by M m+. when m is 2 or more, a plurality of R 1 s are each independently as defined above, wherein the positive active material is a lithium transition metal composite oxide having a layered crystal structure and at least Ni, Co, and Mn, wherein in the positive active material particles, an abundance of aluminum on a surface is larger than the abundance of aluminum inside.
A garbage supply device suitable to supply waste to a gasification furnace gasifying waste, the garbage supply device comprising: a casing; two feed screws provided in the casing; and a middle shaft that is located between the two feed screws, has a plurality of protrusions (24a,24b), and being arranged so as to be repetitively rotated forward or backward, characterized in that the garbage supply device further comprises shaft sealing parts, a hood and suction fans, wherein, the hood is provided above shaft sealing parts located between rotation axes of the feed screws and the casing, and between the middle shaft and the casing, said hood covering the shaft sealing parts, wherein the suction fans are configured such that a gas in the hood is drawn by suction fans so as to flow into a downstream appliance. a casing; two feed screws provided in the casing; and a middle shaft that is located between the two feed screws, has a plurality of protrusions (24a,24b), and being arranged so as to be repetitively rotated forward or backward, characterized in that the garbage supply device further comprises shaft sealing parts, a hood and suction fans, wherein, the hood is provided above shaft sealing parts located between rotation axes of the feed screws and the casing, and between the middle shaft and the casing, said hood covering the shaft sealing parts, wherein the suction fans are configured such that a gas in the hood is drawn by suction fans so as to flow into a downstream appliance.
A vacuum cleaner comprising: a cleaner main body; a suction device communicated with the cleaner main body; a wheel which may move the cleaner main body; a motor for driving the wheel; a sensor to detect a rotation angle of the cleaner main body about a rotation center of the wheel; characterized in that the vacuum cleaner comprises: a memory in which a plurality of reference values about the sensor are stored; and a controller which determines one reference value of the plurality of reference values and controls the motor depending on a size of an angle value detected from the sensor based on the determined reference value. a cleaner main body; a suction device communicated with the cleaner main body; a wheel which may move the cleaner main body; a motor for driving the wheel; a sensor to detect a rotation angle of the cleaner main body about a rotation center of the wheel; characterized in that the vacuum cleaner comprises: a memory in which a plurality of reference values about the sensor are stored; and a controller which determines one reference value of the plurality of reference values and controls the motor depending on a size of an angle value detected from the sensor based on the determined reference value. a memory in which a plurality of reference values about the sensor are stored; and a controller which determines one reference value of the plurality of reference values and controls the motor depending on a size of an angle value detected from the sensor based on the determined reference value.
Liquid-crystalline medium based on a mixture of polar compounds having positive dielectric anisotropy, characterised in that it comprises one or more compounds of the formula I in a total concentration of ≥ 40%, in which R 1 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where one or more H atoms in these radicals may be replaced by F and, in addition, one or more CH 2 groups may in each case be replaced, independently of one another, by -C≡C-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, on each occurrence, identically or differently, denote L 11 and L 12, independently of one another, denote H or F, X 1 denotes F, Cl, CN, a halogenated alkyl radical, a halo-genated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, further characterised by a clearing point of greater than 120°C. R 1 denotes an alkyl or alkoxy radical having 1 to 15 C atoms, where one or more H atoms in these radicals may be replaced by F and, in addition, one or more CH 2 groups may in each case be replaced, independently of one another, by -C≡C-, -CH=CH-, -O-, -CO-O- or -O-CO- in such a way that O atoms are not linked directly to one another, on each occurrence, identically or differently, denote L 11 and L 12, independently of one another, denote H or F, X 1 denotes F, Cl, CN, a halogenated alkyl radical, a halo-genated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms,
Medical product, comprising at least one expandable base body, the base body being a balloon catheter, characterized in that on at least part of the exterior surface of the balloon are provided at least one, preferably at least two, implantable moulded parts, wherein said moulded part (3; 13; 23; 49) is composed of a mixture comprising, as a first component, probucol and, as a second component, at least one substance selected from the group consisting of sirolimus (rapamycin), sirolimus analogues, namely everolimus, biolimus A9, zotarolimus (ABT-578), temsirolimus and ridaforolimus (AP 23573), and paclitaxel.
A stud pin mounted into a pin hole formed on a pneumatic tire, the stud pin comprising: a cylindrical body; a shaft which protrudes from one end in a center axis direction of the body; and a base arranged on another end in the center axis direction of the body, which, is an opposite end from the one end in the center axis direction, wherien the base is, in a plan view, formed asymmetrically, with respect to a transverse axis perpendicular to the center axis, in a longitudinal axis direction perpendicular to the center axis and the transverse axis, is formed symmetrically with respect to the longitudinal axis, and comprises an arc-shaped part, which is centered on the center axis, on one end side in the longitudinal axis direction, wherein the base is arranged such that the longitudinal axis is aligned with a tire circumferential direction and the base has a greater length (a) in the longitudinal axis direction than in the transverse axis direction in the plan view, and the base is formed with the arc-shaped part at a rotational range which is larger than 180 degrees around the center axis. a cylindrical body; a shaft which protrudes from one end in a center axis direction of the body; and a base arranged on another end in the center axis direction of the body, which, is an opposite end from the one end in the center axis direction, wherien the base is, in a plan view, formed asymmetrically, with respect to a transverse axis perpendicular to the center axis, in a longitudinal axis direction perpendicular to the center axis and the transverse axis, is formed symmetrically with respect to the longitudinal axis, and comprises an arc-shaped part, which is centered on the center axis, on one end side in the longitudinal axis direction, wherein the base is arranged such that the longitudinal axis is aligned with a tire circumferential direction and the base has a greater length (a) in the longitudinal axis direction than in the transverse axis direction in the plan view, and the base is formed with the arc-shaped part at a rotational range which is larger than 180 degrees around the center axis.
An exhaust gas purification apparatus for an internal combustion engine having a movable component that is operated during operation of the internal combustion engine, the operation of the movable component causing the temperature of exhaust gas of the internal combustion engine to change, the exhaust gas purification apparatus being adapted to execute an exhaust gas temperature increasing control for increasing the temperature of exhaust gas of the internal combustion engine during a process for recovering the purification capacity of an exhaust gas purification device, the exhaust gas purification apparatus comprising: switching means for switching the exhaust gas temperature increasing control in accordance with an engine operation region between a first control in which the temperature of exhaust gas is increased without operating the movable component and a second control in which the temperature of exhaust gas is increased by operating the movable component; detecting means for detecting a temporarily sticking state of the movable component; and controlling means for extending, when a temporarily sticking state of the movable component is detected, an execution region for the first control toward an execution region for the second control in the entire operation region of the internal combustion engine, whereby the execution region for the second control is reduced. switching means for switching the exhaust gas temperature increasing control in accordance with an engine operation region between a first control in which the temperature of exhaust gas is increased without operating the movable component and a second control in which the temperature of exhaust gas is increased by operating the movable component; detecting means for detecting a temporarily sticking state of the movable component; and controlling means for extending, when a temporarily sticking state of the movable component is detected, an execution region for the first control toward an execution region for the second control in the entire operation region of the internal combustion engine, whereby the execution region for the second control is reduced.
A method for forming a cushioning element for an article of footwear, comprising: molding a plurality of separate pieces of closed-cell foam (616; 618; 735; 748; 802) into a single-piece molded foam article (752; 902; 904) by exposing the plurality of separate pieces to a temperature cycle within a sealed mold (600; 702; 741) sufficient to soften the plurality of separate pieces without fully melting the closed-cell foam (616; 618; 735; 748; 802) and allow the plurality of separate pieces to physically bond to each other, wherein, during the temperature cycle, the sealed mold (600; 702; 741) is unsealed at least once, releasing gases and/or pressure from the mold (600; 702; 741); forming a single-piece molded foam article (752; 902; 904) by physically bonding the softened plurality of separate pieces bonded together without an adhesive, and, following the releasing, removing the single-piece molded foam article (752; 902; 904) from the mold (600; 702; 741); wherein the single-piece molded foam article (752; 902; 904) is a cushioning element for an article of footwear (100; 202); and wherein the mold (600; 702; 741) is unsealed by opening the mold (600; 702; 741), and then re-sealed upon closing the mold (600; 702; 741) prior to removing the single-piece molded foam article (752; 902; 904) from the mold (600; 702; 741). molding a plurality of separate pieces of closed-cell foam (616; 618; 735; 748; 802) into a single-piece molded foam article (752; 902; 904) by exposing the plurality of separate pieces to a temperature cycle within a sealed mold (600; 702; 741) sufficient to soften the plurality of separate pieces without fully melting the closed-cell foam (616; 618; 735; 748; 802) and allow the plurality of separate pieces to physically bond to each other, wherein, during the temperature cycle, the sealed mold (600; 702; 741) is unsealed at least once, releasing gases and/or pressure from the mold (600; 702; 741); forming a single-piece molded foam article (752; 902; 904) by physically bonding the softened plurality of separate pieces bonded together without an adhesive, and, following the releasing, removing the single-piece molded foam article (752; 902; 904) from the mold (600; 702; 741); wherein the single-piece molded foam article (752; 902; 904) is a cushioning element for an article of footwear (100; 202); and wherein the mold (600; 702; 741) is unsealed by opening the mold (600; 702; 741), and then re-sealed upon closing the mold (600; 702; 741) prior to removing the single-piece molded foam article (752; 902; 904) from the mold (600; 702; 741).