Catenary is the curve formed by the Turbine Rotors when they are placed on their respective Bearings.The level of each bearing and its housings are ear marked or indicated by the manufacturer of turbines.At the time of erection this is to be followed by laser alignment or by piano wire,water level etc
HP Turbine is High Performance Turbine LP Turbine is Low Performance Turbine
Resistance offered by turbine to the steam
pelton turbines are suited to high head,low flow application but kaplan turbine are used for low head and a large amount of discharge needed. kaplan turbines are expensive to design,manufacture and install as compared to pelton turbine but operate for decades.
It is what attaches the shroud to the turbine blades
Controlled unloading of a turbine operating under load.
A catenary is the shape formed by a hanging chain or cable under its own weight. In wind turbine alignment, the catenary is important because it helps to position the turbine blades in a way that maximizes their efficiency in capturing wind energy. By aligning the turbine blades along the catenary curve, the blades can better adapt to changing wind conditions and generate more power.
generally more than three shafts contact by coupling together in steam turbine. the shaft is heavry and will be sag. in order to reduce the bend force on coupling and bend force on bearing, the engienering calclated the shaft and simulated when its in operation condition. so, the catenary curve and bearing elevation data have been provided for steam turbine installation.
Catenary
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The general formula of a catenary is y = a*cosh(x/a) = a/2*(ex/a + e-x/a) cosh is the hyperbolic cosine function
A equation is santa clause
sphere
The Catenary and Parabola are different curves that look similar; they are both "U" shaped and symmetrical, increasing infinitely on both sides to a minimum.
A catenary is the curve formed by slack wire - telephone cables are a good example. So a catenary tow is one where, simply put, the towline is attached to shackles of anchor cable in order to ensure that a belly of towline (providing spring) hangs between the two ships.
If: A=Horizontal distance betwen ends (at same height) B=Depth of catenary C=radius of curvature at lowest point L=length along catenary M=Mass per unit length Tm=Tension at ends of catenary To=Tension at lowest point. (Also horizontal component of tension at any point) Then: C=To/M, and B=C(cosh(A/2C)-1)
To perform catenary wire calculations, you need to determine the weight of the wire, the distance between supports, and the tension required. Then, you can use mathematical formulas to calculate the sag and shape of the wire. This involves solving equations involving hyperbolic functions and integrating to find the final shape of the catenary curve.
apparently, it is called catenoid.