Edited by Nathan Thomas
Continuously advancing materials science has allowed for the creation of various alloys that can be used for a given industrial application. By combining different mixtures of materials, numerous alloys have been developed for specific desirable characteristics. They are designed for challenges such as extreme temperatures, corrosion, and physical stress. By enhancing the inherent properties of base metals, alloys serve as critical components in industries such as aerospace and chemical.
Metals are unquestionably foundational for modern manufacturing. From construction to electronics, nearly every industry relies heavily on metals. However, base metals typically aren’t seen in their raw form for industrial usage. Base metals are extracted from mined ores through various chemical and physical processes and are refined to remove impurities. While these base metals carry distinct inherent properties, they are often insufficient for demanding applications.
To enhance their performance—whether by increasing durability, reducing weight, or improving resistance to corrosion—metals are combined with other elements to form alloys. These alloys thereby combine the individual strengths of their components. Steel, for example, a well-known alloy of iron and carbon (and several other elements), is often mistaken for a pure element due to its ubiquity. When alloying it with chromium and nickel and adding their advantages, it becomes stainless steel (SS).
Metal
alloys
can
be
tailored
to
perform
specific
functions.
For
example,
superalloys
used
in
jet
engines
are
designed
to
endure
mechanical
stress
and
extreme
heat
without
degradation.
Of
course,
developing
and
choosing
an
alloy
all
depends
on
the
requirements
of
the
application.
However,
improving
certain
properties
often
introduces
trade-offs,
such
as
increased
costs.
This
is
why
thorough
research
and
development
goes
into
testing
various
combinations
of
different
materials.
Materials
scientists
continue
to
strive
for
a
balance
between
the
challenges
of
performance,
cost,
and
sustainability.
|
Alloy |
Pros |
Cons |
|
Aluminum |
|
|
|
Copper |
|
|
|
Bronze |
|
|
|
Nickel |
|
|
|
Monel 400 |
|
|
|
C276 |
|
|
|
Iron |
|
|
|
304 SS |
|
|
|
316 SS |
|
|
|
321 SS |
|
|
|
Inconel 800 |
|
|
With the vast array of metal alloys available today, choosing the right one for any given application can be a complex task and using the wrong material can lead to catastrophic failures. Metal hose applications have several critical factors to consider when choosing an alloy. This includes, but is not limited to, temperature, media, external environment, and many other factors.
While understanding the basics of metal alloys is essential, specialized applications often require expert insight. Hose Master offers a wide range of metal alloy options and can provide industry-leading expertise and valuable resources based on the application. Hose Master is also proud to offer Hose Master University, an on-site product education and training as well as application webinars by industry. For more information and to inquire about receiving training, click here.