mhurhangee/ep-ind-claims huggingface dataset:
A travel control device for a vehicle provided with a steering angle control device that alters the relationship between an amount (θs) of steering operation of a driver and a steering angle (θp) of steerable wheels (10FL, 10FR) by steering said steerable wheels (10FL, 10FR) without actuating a steering input unit which is operated by the driver; a trajectory control device (58-1 to 58-N) that calculates a target control level (θpt2) for controlling a travel trajectory of the vehicle and controls the travel trajectory of the vehicle by controlling the steering angle (θp) of said steerable wheels (10FL, 10FR) by means of said steering angle control device on the basis of said target control level (θpt2); and a turning behavior control device that determines a target turning behavior control level for causing the turning behavior of the vehicle to be a target turning behavior, and controls the turning behavior of the vehicle on the basis of said target turning behavior control level, wherein said travel control device calculates a target steering angle (θpt) of said steerable wheels (10FL, 10FR) on the basis of a target control level (θpt1) based on the amount (θs) of steering operation given to said steering input unit by the driver and said target control level (θpt2) of said trajectory control device (58-1 to 58-N), characterized in that said turning behavior control device calculates said target turning behavior control level on the basis of the target steering angle (θpt) of said steerable wheels (10FL, 10FR); said turning behavior control device controls the turning behavior of the vehicle by controlling at least the steering angle (θp) of said steerable wheels (10FL, 10FR) by means of said steering angle control device (58, 98); said turning behavior control device calculates a target control level (Δθptv) of the steering angle (θp) of said steerable wheels (10FL, 10FR) for controlling the turning behavior of the vehicle on the basis of the target control level (θpt1) based on the amount (θs) of steering operation and the target control level (θpt2) of said trajectory control device (58-1 to 58-N); and said travel control device calculates a target steering angle (θpt) of said steerable wheels (10FL, 10FR) on the basis of the target control level (θpt1) based on the amount (θs) of steering operation, the target control level (θpt2) of said trajectory control device (58-1 to 58-N)and the target control level (Δθptv) for controlling the turning behavior of the vehicle.
A material (1, 2, 3, 4, 5) for increasing the mechanical stimuli on the dermis and subcutis as well as the tendons, ligaments, joint capsules and muscles with thermal insulation clothing and medical, athletic and veterinary medical bandages, to which nubs of soft plastic on a thermal insulation layer of blown polymer have been applied, wherein a structured internal lamination comprising textile layers of synthetic fibers, natural fibers or a mixture of these fibers is provided above the nubs, so that the material (1, 2, 3, 4, 5) ensures a regulated perspireation and heat control.
A pharmaceutical formulation comprising: (i) a fusion protein dimer comprising an IL-2 protein and a CD80 protein at a concentration of 3.0 mg/mL to 5.0 mg/mL; (ii) a histidine buffer at a concentration of 10 mM to 30 mM; and (iii) surfactants at a concentration of 0.155 w/w% to 0.185 w/w%; wherein, the pH of the formulation is from 6.5 to 7.5, wherein the surfactants are polysorbate 80 and poloxamer 188. (i) a fusion protein dimer comprising an IL-2 protein and a CD80 protein at a concentration of 3.0 mg/mL to 5.0 mg/mL; (ii) a histidine buffer at a concentration of 10 mM to 30 mM; and (iii) surfactants at a concentration of 0.155 w/w% to 0.185 w/w%; wherein, the pH of the formulation is from 6.5 to 7.5, wherein the surfactants are polysorbate 80 and poloxamer 188.
An assay device comprising a liquid sample zone; a reagent zone downstream and in fluid communication with said liquid sample zone, a detection zone in fluid communication with the reagent zone; and a wicking zone in fluid communication with the detection zone having a capacity to receive liquid sample flowing from the detection zone, wherein the liquid sample zone, the detection zone and the wicking zone define a fluid flow path, characterized in that said reagent zone comprises: - a reagent cell having a line of symmetry in the direction of fluid flow; - reagent material within said reagent cell, wherein said reagent material includes a first reagent material located at the line of symmetry and which is left-right symmetric, and a second and third reagent material (B, C) having a substantially identical shape and volume and located in mirror locations from the axis of symmetry. - a reagent cell having a line of symmetry in the direction of fluid flow; - reagent material within said reagent cell, wherein said reagent material includes a first reagent material located at the line of symmetry and which is left-right symmetric, and a second and third reagent material (B, C) having a substantially identical shape and volume and located in mirror locations from the axis of symmetry.
A method of activating voice control on a wireless device, comprising: sampling signals from a plurality of touch sensors on the device; determining if the device is in a hands-on state by a user on the basis of the signal sampling; and enabling a voice detection on the device on the basis of the determination. sampling signals from a plurality of touch sensors on the device; determining if the device is in a hands-on state by a user on the basis of the signal sampling; and enabling a voice detection on the device on the basis of the determination.
An air supply system for supplying the combustion chambers of a supercharged internal combustion engine with fresh air, - with a housing, through which a fresh air path runs and which has a lateral introduction opening, - with a charge-air cooler which is introduced into the housing through the introduction opening in an introduction direction such that the fresh air path runs through the charge-air cooler, - wherein an outer end region of the charge-air cooler closes the introduction opening, - wherein the outer end region of the charge-air cooler is locked with the housing - wherein the outer end region has at least one circumferential contact region, which lies opposite an abutment region, running around the introduction opening, parallel to the introduction direction, - wherein between the housing and the outer end region at least one seal is arranged, running around the introduction opening, characterized in that a gap is formed in the introduction direction between at least one such contact region and the associated abutment region, which gap allows relative movements between charge-air cooler and housing and is bridged by the respective seal, such that said relative movements can be received elastically by the respective seal. - with a housing, through which a fresh air path runs and which has a lateral introduction opening, - with a charge-air cooler which is introduced into the housing through the introduction opening in an introduction direction such that the fresh air path runs through the charge-air cooler, - wherein an outer end region of the charge-air cooler closes the introduction opening, - wherein the outer end region of the charge-air cooler is locked with the housing - wherein the outer end region has at least one circumferential contact region, which lies opposite an abutment region, running around the introduction opening, parallel to the introduction direction, - wherein between the housing and the outer end region at least one seal is arranged, running around the introduction opening,
A work vehicle comprising: an engine; a radiator that cools a refrigerant of the engine; a hydraulic pump that is driven by the engine; a refrigerant temperature sensor that detects a temperature of the refrigerant; an outside air temperature sensor that detects a temperature of an outside air; a thermostat that opens and closes a flowpath between a fully closed state and a fully opened state in accordance with the temperature of the refrigerant on the flowpath for supplying the refrigerant to the radiator; a hydraulic motor which is driven by a pressure oil delivered from the hydraulic pump, and rotates a cooling fan for blowing a cooling air to the radiator; a directional control valve that switches the flow direction of the pressure oil from the hydraulic pump to rotate the hydraulic motor in forward and reverse directions; and a control device that controls the directional control valve to cause the repetitive operation of the forward and reverse rotation of the cooling fan to be performed at predetermined time intervals, wherein the control device changes setting of the time intervals when a relationship between the outside air temperature detected by the outside air temperature sensor and the refrigerant temperature detected by the refrigerant temperature sensor satisfies a predetermined condition defined in advance, characterized in that the predetermined condition includes a high temperature condition in which the outside air temperature detected by the outside air temperature sensor is higher than a reference value, and a low temperature condition in which the outside air temperature is lower than the reference value, and the control device reduces the time interval more than a normal time initially set when the refrigerant temperature detected from the refrigerant temperature sensor reaches a first set temperature under the low temperature condition or when the refrigerant temperature detected from the refrigerant temperature sensor reaches a second set temperature higher than the first set temperature under the high temperature condition. wherein the control device changes setting of the time intervals when a relationship between the outside air temperature detected by the outside air temperature sensor and the refrigerant temperature detected by the refrigerant temperature sensor satisfies a predetermined condition defined in advance, characterized in that the predetermined condition includes a high temperature condition in which the outside air temperature detected by the outside air temperature sensor is higher than a reference value, and a low temperature condition in which the outside air temperature is lower than the reference value, and the control device reduces the time interval more than a normal time initially set when the refrigerant temperature detected from the refrigerant temperature sensor reaches a first set temperature under the low temperature condition or when the refrigerant temperature detected from the refrigerant temperature sensor reaches a second set temperature higher than the first set temperature under the high temperature condition.
A network device, wherein the network device is used as a first network device (500A, 500B, 500C), wherein the first network device is configured to perform internet protocol security IPsec communication with a second network device, there is no IPsec security association SA on the first network device (500A, 500B, 500C), and there is an IPsec SA on the second network device, and the first network device (500A, 500B, 500C) comprises: a transceiver (502B, 506B), configured to receive an encrypted packet from the second network device; a processor configured, when the processor cannot decrypt the encrypted packet, to obtain, based on characteristic information, an internet key exchange IKE SA corresponding to the characteristic information, and to generate an informational exchange packet, wherein the informational exchange packet instructs the second network device to delete the IPsec SA on the second network device; and the transceiver (502B, 506B) is further configured to send the informational exchange packet to the second network device. a transceiver (502B, 506B), configured to receive an encrypted packet from the second network device; a processor configured, when the processor cannot decrypt the encrypted packet, to obtain, based on characteristic information, an internet key exchange IKE SA corresponding to the characteristic information, and to generate an informational exchange packet, wherein the informational exchange packet instructs the second network device to delete the IPsec SA on the second network device; and the transceiver (502B, 506B) is further configured to send the informational exchange packet to the second network device.
A method of detecting neural activity in a nerve, the method comprising: receiving a first electrical signal from a first pair of electrodes, the first pair of electrodes comprising two first electrodes (211, 212) located proximate each other along the nerve; and receiving a second electrical signal from a second pair of electrodes, the second pair of electrodes comprising two second electrodes (221, 222) located proximate each other along the nerve, wherein the second pair of electrodes is spaced from the first pair of electrodes along the nerve; characterised in that the method further comprises: applying a correlation analysis between the first and second electrical signals (110, 120), including for at least one non-zero lag time, to obtain correlation data; and detecting, from the correlation data, at least one neural signal indicative of neural activity in the nerve, the neural signal corresponding to increased correlation between the first and second signals at the at least one non-zero lag time. receiving a first electrical signal from a first pair of electrodes, the first pair of electrodes comprising two first electrodes (211, 212) located proximate each other along the nerve; and receiving a second electrical signal from a second pair of electrodes, the second pair of electrodes comprising two second electrodes (221, 222) located proximate each other along the nerve, wherein the second pair of electrodes is spaced from the first pair of electrodes along the nerve; characterised in that the method further comprises: applying a correlation analysis between the first and second electrical signals (110, 120), including for at least one non-zero lag time, to obtain correlation data; and detecting, from the correlation data, at least one neural signal indicative of neural activity in the nerve, the neural signal corresponding to increased correlation between the first and second signals at the at least one non-zero lag time. applying a correlation analysis between the first and second electrical signals (110, 120), including for at least one non-zero lag time, to obtain correlation data; and detecting, from the correlation data, at least one neural signal indicative of neural activity in the nerve, the neural signal corresponding to increased correlation between the first and second signals at the at least one non-zero lag time.
Tool carrier for an agricultural machine for dispensing seed and/or fertilizer or for soil cultivation, on which tools and/or coulter elements (2, 12) are arranged and the tool carrier is assembled at least from a flange element and a longitudinal member, wherein the at least one flange element is attached to the front end side of the at least one longitudinal member, wherein, in order to be connected to the longitudinal member, the flange element has an at least approximately V-shaped contour, wherein the longitudinal member has, on the end side facing the flange element, a V-shaped cutout contour that matches the V-shaped contour of the flange element, wherein the flange element and the longitudinal member are positioned facing one another via these V-shaped contours (7, 8) and are welded together, wherein the longitudinal member is in the form of a square tube having horizontal and vertical walls extending parallel to one another, characterized in that the opposite walls, not provided with the V-shaped cutout contours, of the longitudinal member are formed in an outwardly curved manner in order to enlarge the V-shaped cutout contour.
An electrical junction box, comprising: a frame including a peripheral wall, an upper side component mounting section located above in the peripheral wall, and having an electronic component (10, 11, 12) mounted thereto, and a lower side component mounting section located below the upper side component mounting section in the peripheral wall, and having an electronic component mounted thereto, characterised in that a portion of the upper side component mounting section and a portion of the peripheral wall are integrally provided forming a divided section for removal from a remaining portion of the frame, and wherein the lower side component mounting section is located below the portion of the upper side component mounting section. a frame including a peripheral wall, an upper side component mounting section located above in the peripheral wall, and having an electronic component (10, 11, 12) mounted thereto, and a lower side component mounting section located below the upper side component mounting section in the peripheral wall, and having an electronic component mounted thereto, characterised in that a portion of the upper side component mounting section and a portion of the peripheral wall are integrally provided forming a divided section for removal from a remaining portion of the frame, and wherein the lower side component mounting section is located below the portion of the upper side component mounting section. a peripheral wall, an upper side component mounting section located above in the peripheral wall, and having an electronic component (10, 11, 12) mounted thereto, and a lower side component mounting section located below the upper side component mounting section in the peripheral wall, and having an electronic component mounted thereto, characterised in that a portion of the upper side component mounting section and a portion of the peripheral wall are integrally provided forming a divided section for removal from a remaining portion of the frame, and wherein the lower side component mounting section is located below the portion of the upper side component mounting section.
An indoor unit of an air-conditioning apparatus comprising: a fan; a heat exchanger provided so as to surround an upper side and a front side of the fan; and a nozzle located below the heat exchanger located at the front side of the fan, the nozzle being provided to face the fan, wherein the nozzle includes a drain pan configured to receive dew condensation water generated at the heat exchanger; and a drain groove into which the dew condensation water flows, characterized in that at least one of a heat insulating material and a water absorbing material is attached on a back surface of the drain groove. a fan; a heat exchanger provided so as to surround an upper side and a front side of the fan; and a nozzle located below the heat exchanger located at the front side of the fan, the nozzle being provided to face the fan, wherein the nozzle includes a drain pan configured to receive dew condensation water generated at the heat exchanger; and a drain groove into which the dew condensation water flows, a drain pan configured to receive dew condensation water generated at the heat exchanger; and a drain groove into which the dew condensation water flows,
A fluids tank for a work machine, said fluids tank comprising: a unitary body of moldable material defining first and second compartments (28, 30) for different fluids; a coextensive integral wall separating said first and second compartments (28, 30), said coextensive wall providing an insulating heat transfer barrier between the compartments (28, 30) for containing fluids at different operating temperatures; said fluid tank being characterized in that:said moldable material is a polyethylene and the coextensive integral wall is polyethylene foam; and the heat transfer coefficient of said coextensive integral wall is about 0.040 watts/square meter/Kelvin. a unitary body of moldable material defining first and second compartments (28, 30) for different fluids; a coextensive integral wall separating said first and second compartments (28, 30), said coextensive wall providing an insulating heat transfer barrier between the compartments (28, 30) for containing fluids at different operating temperatures; said fluid tank being characterized in that:said moldable material is a polyethylene and the coextensive integral wall is polyethylene foam; and the heat transfer coefficient of said coextensive integral wall is about 0.040 watts/square meter/Kelvin.
A power distribution system, comprising: a chassis defining an inner surface and an interior, and wherein at least a portion of the inner surface includes a conductive detection layer; at least one power distribution component received within the interior and configured to supply power from a power source to an electrical load; an electrically resistive or high-impedance component electrically coupled between a powered portion of the at least one power distribution component and the chassis; and a fault detection circuit comprising: a resistor electrically coupled between the conductive detection layer and ground; a voltage sensor configured to sense a voltage at the conductive detection layer by sensing or measuring the voltage across the resistor; a controller module communicatively connected with the voltage sensor and configured to receive the sensed voltage at the conductive detection layer, to compare the sensed voltage to a threshold value, and upon satisfaction of the comparison, to indicate an arcing event between the at least one power distribution component and the conductive detection layer of the chassis has occurred. a chassis defining an inner surface and an interior, and wherein at least a portion of the inner surface includes a conductive detection layer; at least one power distribution component received within the interior and configured to supply power from a power source to an electrical load; an electrically resistive or high-impedance component electrically coupled between a powered portion of the at least one power distribution component and the chassis; and a fault detection circuit comprising: a resistor electrically coupled between the conductive detection layer and ground; a voltage sensor configured to sense a voltage at the conductive detection layer by sensing or measuring the voltage across the resistor; a controller module communicatively connected with the voltage sensor and configured to receive the sensed voltage at the conductive detection layer, to compare the sensed voltage to a threshold value, and upon satisfaction of the comparison, to indicate an arcing event between the at least one power distribution component and the conductive detection layer of the chassis has occurred. a resistor electrically coupled between the conductive detection layer and ground; a voltage sensor configured to sense a voltage at the conductive detection layer by sensing or measuring the voltage across the resistor; a controller module communicatively connected with the voltage sensor and configured to receive the sensed voltage at the conductive detection layer, to compare the sensed voltage to a threshold value, and upon satisfaction of the comparison, to indicate an arcing event between the at least one power distribution component and the conductive detection layer of the chassis has occurred.