Spring components are a crucial
function for the performance of your application. Specific simulations and
calculations are required to verify the prototype's capability to perform.
Especially for a metal spring, it is important to know and understand the
functions and how the performance is effected based on the spring's material
and buildup.
Springs only operate in certain
room temperatures. Even a slight change in temperature can affect the spring's
capability and performance. There can also be risk of corrosion ― often a
common problem for springs. Different materials are needed in different
environments. Knowing the accurate temperature and environment in which your spring
is at optimum efficiency is crucial.
A specific design is required for
custom springs and each spring material has different properties, such as
fatigue, shear modulus, yield and creep strengths, among others. Strength and
mechanical calculations are evaluated to create a spring design that will
produce the optimal performance that your application needs. The parameters are
tested and measured in order to create the spring's specific design.
Permanent plastic deformation can
occur to a spring when the dynamic and static stress below the yield point.
This occurs when the dynamic and static stress. The rate of stress depends on
the stress level, temperature, metal properties and time. The relaxation and
creep leads to reduced stress on some spring applications and types when the
stress rate is zero. At other times, the rate is in a normal relaxation and
creep process.
The components of a metal spring
are diverse and complex, but understanding the performance and function of the
spring is important in order to understand how it can affect your application.
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