187results about "Engine temperature" patented technology

A wind turbine is provided having a gearbox containing a lubrication medium, a pump for circulating the lubrication medium. and a gearbox lubrication suction pipe for transporting the lubrication medium from the gearbox to the pump. A heater is in thermal connection to, at least a portion of, the gearbox lubrication suction pipe. This heater is used to heat the lubrication medium contained within the gearbox lubrication suction pipe to a temperature where damage to the pump is avoided.

A volumetric lubricant dispensing apparatus for delivering a precise volume of lubricant, such as oil, to a rotating machine element. The delivery mechanism includes a piston and cylinder assembly. A plurality of sensors are utilized to record operating conditions of the machine, element, environment, and lubricant. The apparatus is controlled either manually or with the aid of a controller unit such as a microprocessor. The output from each sensor is inputted into the microprocessor wherein an algorithm computes an responsive output. The responsive output is sent to the piston and cylinder assembly, which maintains an optimum lubricant condition within the reservoir wherein a rotating machine element located. Alternatively, for the purpose of qualitative control, the present invention may be described as a system intended for controlling lubricants, both mineral (natural) and synthetic based by measuring the condition characteristics of the lubricant. Some condition characteristics may include water or moisture content (the content could be any liquid, e.g., solvents like ketones are known to change condition characteristics like viscosity) and viscosity. Viscosity is related to temperature, therefore, temperature correlation to viscosity is helpful to provide relative indications for condition characteristics like lubricant flow.

This invention encompasses embodiments for multi-modal integrated simultaneous measurement of various aspects of fluids contained in circulating systems such as automotive reciprocating engines and vehicle transmissions. These circulating systems perform constant internal lubrication, and heat and contaminant removal to protect the internal moving parts from the inherent friction and damage in normal operation. Most commonly this is achieved with fluids based on hydrocarbon and/or related synthetics, which, over time, can lose their protective properties, and vary in their performance or breakdown/decay due to internal and external events. Several components within the lubricant fluid can be measured and can provide insight into the efficacy of the system to perform its designed mission. Described herein is a real-time, simultaneous, integrated, multi-modal sensor system for early warning notification.

A starting method is provided for a rotating machine which includes a main shaft, a main bearing rotatably supporting the main shaft and a main bearing lubricant pump circulating lubricant through the main bearing. The starting method includes steps of: rotating the main shaft to raise a temperature of the main bearing in a state in which the main bearing lubricant pump is not operated; and operating the main bearing lubricant pump to start supplying the lubricant to the main bearing after the step of raising the temperature of the main bearing.

A lubrication system for lubricating at least one movable machine component includes a lubricant reservoir containing a lubricant and a fluid line fluidly coupled with the reservoir and having an outlet for dispensing the lubricant on or within the machine component. A valve selectively permits lubricant flow through the fluid line so as to dispense a quantity of lubricant through the fluid line outlet. A sensor senses a property of the machine component or the quantity of lubricant. A control is coupled with the sensor and with the valve, the control being configured to receive information from the sensor, to determine an estimated period of effectiveness of the quantity of lubricant using the sensor information, and to operate the valve based on the estimated lubricant effectiveness period so as to dispense another quantity of lubricant on or within the machine component.

The invention discloses a gearbox lubricating system. The system comprises an annular loop which is sequentially connected with a lubricating oil tank, an oil pump, a radiator and an electric controlreversing valve, wherein a through passage is further arranged between the oil pump and the control valve, and the through passage is arranged in parallel with the radiator; the system further comprises a PLC main controller, a first temperature sensor, a second temperature sensor, a first temperature sensor and a second temperature sensor, wherein the first temperature sensor, the second temperature sensor, the first temperature sensor and the second temperature sensor are connected with the PLC main controller; the electric control reversing valve is connected with the PLC main controller, the control of an open precision of the electric control reversing valve is realized through the PLC main controller according to the monitoring data of the first temperature sensor, the second temperature sensor, the first temperature sensor and the second temperature sensor. The invention further discloses a lubricating oil flow control method of the gearbox lubricating system. According to the system and method, the PLC main controller is additionally arranged, the electric control reversing valve, the temperature sensors and pressure sensors are connected with the PLC main controller, wherein the service life and the precision control of the electric control reversing valve are relatively high, so that the service life and the intelligent control degree of the gear box lubricating system can be greatly improved.

Various embodiments of the invention include a system having: at least one computing device configured to monitor a lubrication oil from a reciprocating engine by performing actions including: determining an initial ideal remaining life for the lubrication oil from the reciprocating engine; determining a temperature-based remaining life for the lubrication oil based upon a temperature measurement of the lubrication oil; calculating a contamination factor of the lubrication oil based upon a contamination sample of the lubrication oil; determining an updated ideal life remaining for the lubrication oil based upon the contamination factor, the initial ideal remaining life, and the temperature-based remaining life; and determining an actual life remaining for the lubrication oil based upon the updated ideal life remaining and a life loss factor.

A method of distributing oil to a component within a gas turbine engine includes directing a first oil flow from an oil source to an engine component and back to the oil source, directing a second oil flow from the oil source to a generator driven by the engine and back to the oil source, monitoring a parameter of the second oil flow downstream of the generator and upstream of the oil source, detecting a contaminant in the second oil flow based on the parameter, and reducing the second oil flow to the generator when the contaminant is detected without reducing the first oil flow to the engine component. A shared oil system for a component of a gas turbine engine and a generator driven by the gas turbine engine is also discussed.

Various embodiments of the invention include a system having: at least one computing device configured to monitor a lubrication oil from a wind turbine by performing actions including: determining an initial ideal remaining life for the lubrication oil from the wind turbine; determining a temperature-based remaining life for the lubrication oil based upon a temperature measurement of the lubrication oil; calculating a contamination factor of the lubrication oil based upon a contamination sample of the lubrication oil; determining an updated ideal life remaining for the lubrication oil based upon the contamination factor, the initial ideal remaining life, and the temperature-based remaining life; and determining an actual life remaining for the lubrication oil based upon the updated ideal life remaining and a life loss factor.

A lubrication system includes a lubricant supply reservoir, a supply line connecting the reservoir with one or more dispenser valves, a return valve and a pump. A control is operatively connected with a pump and with the return valve, the control being configured to operate the pump and the return valve such that a quantity of lubricant within the supply line flows out of the supply line and into the reservoir when a period of storage within the supply line of the quantity of lubricant exceeds an estimated period of effectiveness of the quantity of lubricant or a predetermined portion of the estimated lubricant effectiveness period.

The invention relates to engineering machinery, and specifically discloses a pressure compensation control type hydraulic pump. The hydraulic pump comprises an electric proportional pressure compensator, a hydraulic pump, a hydraulic control reversing valve and a servo piston, the electric proportional pressure compensator can be electrically connected with a controller, a first hydraulic controlport of the hydraulic control reversing valve is connected with an internal oil drainage oil way through the electric proportional pressure compensator, the first hydraulic control port is connected to an internal output oil way through a hydraulic control oil-inlet oil way provided with a first throttling valve, a second hydraulic control port of the hydraulic control reversing valve is connectedwith the internal output oil way, and the pressure difference between the opening pressure of the electric proportional pressure compensator and the pressure of an oil outlet of the hydraulic pump can drive the hydraulic control reversing valve to reverse. In this way, a rodless cavity of the servo piston selectively communicates with the internal output oil way or the internal oil drainage oil way. In addition, the invention further discloses a rotating speed control method, a rotating speed control system and engineering machinery. According to the hydraulic pump, the output flow of the hydraulic pump can be stabilized at a required value.

Various embodiments of the invention include a system having: at least one computing device at least one computing device configured to monitor a machine oil by performing actions including: determining an initial ideal remaining life for the machine oil; determining a temperature-based remaining life for the machine oil based upon a temperature measurement of the machine oil; calculating a contamination factor of the machine oil based upon a contamination sample of the machine oil; determining an updated ideal life remaining for the machine oil based upon the contamination factor, the initial ideal remaining life, and the temperature-based remaining life; and determining an actual life remaining for the machine oil based upon the updated ideal life remaining and a life loss factor.

A lubrication system for a transmission includes a flow-metering device and a controller. The controller is operatively associated with the flow-metering device to cause the flow-metering device to intermittently issue lubricant from the flow-metering device into a transmission based on an operating parameter of the transmission.

Various embodiments of the invention include a system having: at least one computing device configured to monitor a lubrication oil from a lubrication oil storage system by performing actions including: determining an initial ideal remaining life for the lubrication oil from the lubrication oil storage system; determining a temperature-based remaining life for the lubrication oil based upon a temperature measurement of the lubrication oil; calculating a contamination factor of the lubrication oil based upon a contamination sample of the lubrication oil; determining an updated ideal life remaining for the lubrication oil based upon the contamination factor, the initial ideal remaining life, and the temperature-based remaining life; and determining an actual life remaining for the lubrication oil based upon the updated ideal life remaining and a life loss factor.

Various embodiments of the invention include a system having: at least one computing device configured to monitor a lubrication oil from an industrial machine by performing actions including: determining an initial ideal remaining life for the lubrication oil from the industrial machine; determining a temperature-based remaining life for the lubrication oil based upon a temperature measurement of the lubrication oil; calculating a contamination factor of the lubrication oil based upon a contamination sample of the lubrication oil; determining an updated ideal life remaining for the lubrication oil based upon the contamination factor, the initial ideal remaining life, and the temperature-based remaining life; and determining an actual life remaining for the lubrication oil based upon the updated ideal life remaining and a life loss factor.

The invention provides a mining explosion-proof type thin oil lubrication station. The station comprises an oil tank, an oil outlet pipeline, an oil return pipeline, an oil pump, a one-way valve, a safety valve, a double-barrel filter, a cooler and an electric control box, wherein the oil return position of the oil tank is provided with a magnetic filtering device, the oil outlet pipeline comprises a first pipeline, a second pipeline and a third pipeline, wherein one end of the first pipeline and one end of the second pipeline communicate with the oil tank, the other end of the first pipelineand the other end of the second pipeline communicate with the input end of the double-barrel filter, one end of the third pipeline communicates with the output end of the double-barrel filter, the other end of the third pipeline is branched into a fourth pipeline with a first oil outlet and a fifth pipeline with a second oil outlet, one end of the oil return pipeline communicates with the magneticfiltering device, the other end of the oil return pipeline is branched into a sixth pipeline with a first oil return port and a seventh pipeline with a second oil return port, the cooler is an air cooler, and a shell of the electric control box is a metal closed explosion-proof type panel.