High Performance TU-1A90 thermal wax actuator for automobile thermostat Export to Japan
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High Performance TU-1A90 thermal wax actuator for automobile thermostat Export to Japan Detail:
1. Operation Principle
The Thermostatic Wax that has been sealed in shell body induces expansion by a given temperature, and inner rubber seal part drives its handspike to move under expansion pressure to realize a transition from thermal energy into mechanical energy. The Thermostatic Wax brings an upward movement to its handspike, and automatic control of various function are realized by use of upward movement of handspike. The return of handspike is accomplished by negative load in a given returned temperature.
2. Characteristic
(1)Small body size, occupied limited space, and its size and structure may be designed in according to the location where needs to work.
(2)Temperature control is reliable and nicety
(3)No shaking and tranquilization in working condition.
(4)The element doesn’t need special maintenance.
(5)Working life is long.
3.Main Technical Parameters
(1)Handspike’s height may be confirmed by drawing and technical parameters
(2)Handspike movement is relatives to the temperature range of the element, and the effective distance range is from 1.5mm to 20 mm.
(3)Temperature control range of thermal wax actuator is between –20 ~ 230℃.
(4)Lag phenomenon is generally 1 ~ 2℃. Friction of each component part and lag of the component part temperature cause a lag phenomenon. Because there is a difference between up and down curve of traveling distance.
(5)Loading force of thermal wax actuator is difference, it depends on its’ shell size.
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Our advancement depends over the highly developed devices, excellent talents and continually strengthened technology forces for High Performance TU-1A90 thermal wax actuator for automobile thermostat Export to Japan, The product will supply to all over the world, such as: Netherlands , Zimbabwe , Algeria , We mainly sell in wholesale, with the most popular and easy ways of making payment, which are paying via Money Gram, Western Union, Bank Transfer and Paypal. For any further talk, just feel free to contact our salesmen, who are really good and knowledgeable about our prodcuts.
Another heliostat tracking idea. This one uses gearing. This is another do-it-yourself or low cost cost/complex system, however, the system needs to be initialy aimed by the user if only basic electronic sensing is used.. With the light sensing method, the sensors will detect the brightest spot in the sky and “steer” the mirror to positon automatically without any controlled timing.
In the video diagram, R stands for the radius length of the corresponding circle/disk indicated.
If you increase the size of a gears (toothed, pulley, or friction contact) when a force is applied there is more torque available due to the more basic “lever arm” (mechanical advantage “gain”) effect. Lever arm is basically somewhat like a balancing beam concept. The beams or levers physical rotation point or axis is called the fulcrum. We know that when a balanced uniform lever gets unbalanced, such as from moving the fulcrum or rotation point away from one side, it will rotate due to the unbalance (of gravity forces, ie weight, etc., acting on each side of the beam). However, the beam could also rotate in any direction, and that depends on which side has the most force applied. Both sides of the lever (or “lever arms”) will rotate the same amount of degrees (angle) always on each side of the fulcrum no matter where it is located along the levers length, however the end of the longest lever will move a greater distance (and technically it’s not just a straight distance (such as a height distance) but a curved one or arc). Now by adjusting the fulcrum (ie rotation point), you can get an “amplification” of the forces applied to one end of the lever appearing at the other end of the lever, however, the distance that you apply the force to that side of the lever will be longer since that side of the lever is longer as mentioned. Basically if the lever arm doubles in length then the force applied will be doubled (ie. equally amplified or gain as the length is increased/gained) on the other end of the shorter (here, half-sized) lever. In theory, with an ideal system, you can balance a ton of stone with a grain of sand if the lever arm is long enough, and with another grain of sand added to the first grain, the stone will begin to move due to the unbalance. In the cases of lever arm systems (a mechanical energy transformer), the force (F) multiplied by the distance (D) the force is applied is equal on both sides of the lever:
F left X D left = F right X D right
Lets call F left as F output, and F right as F input, and solving for it mathematically, we get:
Foutput = ( F input x D input ) / D output
Which can be written as:
F output = F input ( D input / D output )
So we see the output Force is essentially equal to the input Force times the ratio of the distances. Note that the output Force is inversely related to the output distance. The shorter the output distance, the greater the output force and vice-versa.
So it’s not magic that lets you lift heavy weights with this lever method, it’s actually due to “conservation of energy” or “energy out = energy in”, basically a balance or equivalence. Much of the reasoning of lever action can be applied to gears and “pully” systems.
I believe the visible disk of the Sun is about 0.5 (half) a degree wide as we see it. Errors can happen, especially if the sensors are perhaps aimed at the edge of the sun someplace, hence this system is for less critical systems initially, such as for a single mirror heliostat with the light aimed at a solar collector.
This mechanical angle bisector (half the angle) can have other uses besides with heliostats. For example, there could be uses for cameras and lasers.
Gears are very much like transformers in the electric field of study. There, power from one side to the other is transferred via magnetic field. The power out is the same as the power in, except that either the voltage or current has changed usually, and those changes are inverse of each other. The change basically happens due to the sizes (ie. windings) of the two coils in the transformer. WIth gears, power is mechanically transferred via mechanical forces or frictions of the two gears. Again, power out is the same as power in, the difference now is that torque (a turning or twisting force) and speed (of rotation) can be altered by the size of the gears. You could say that gears are mechanical transformerrs of force energy.
Also, Gear 2 will rotate in the opposite direction than Gear 1. For example, if Gear 1 rotates clockwise, Gear 2 will rotate counter-clockwise. If you needed Gear 2 to rotate the same direction as Gear 1, you could use a “buffer” gear, of equal radius size as Gear 2, placed between Gear 1 and Gear 2 and this will effectively change the direction of rotation of Gear 2. When the gears are the same size, it’s more of a “transfer” of energy rather than a “transformer” of energy.
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