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| Design is the bringing together of
the idea or concept with science, engineering and manufacturing
constraints. This allows us to produce a design that will function
correctly, achieve the required life cycle, and will be able to be
built economically. As an
example, if designing a new boat concept, it is sensible to
perform some mathematical calculation on buoyancy and stability,
determine availability of materials with suitable weight and
strength characteristics, and to consider the most suitable
manufacturing method regarding cost, time, reliability, factory
resources, supply chain, etc. Only after these types of factors have been
considered will the physical design be finalised.
This final design will give us physical form
and function, but also the likely costs and time frames for
manufacturing. Good design will also determine and solve any
potential bottle-necks or technical difficulties that may occur
during manufacture. |
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This base-plate is incorporated into a composite molded component,
with other hardware then attached (bolted).
The material is a heat treated alloy, with
an ultimate tensile strength five times greater than that
of alloy
steel, which allows for less weight and higher
performance.
This part demonstrates our broad-based
engineering experience, in this case covering
design, materials, heat treatments, corrosion performance,
composites, modern manufacturing processes (this is a CNC laser
cut part) and our efficient network of excellent
sub-contractors and materials suppliers.
It is a good example of our engineering
expertise opening doors to better design. |
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