CAE or Computer Aided Engineering
is a term used to describe the procedure of the entire product engineering
process, from design and virtual testing with sophisticated analytical
algorithms to manufacturing planning. Computer-aided engineering is standard in
almost any industry that uses some type of design software to develop products.
CAE is the next step not only in the design of a product, but also in
supporting the engineering process, as it allows testing and simulation of the
physical properties of the product without the need for a physical prototype.
In the context of CAE, the most commonly used types of simulation analysis
include finite element analysis, computational fluid dynamics, thermal analysis,
multi-body dynamics and optimizations.
By taking advantage of
engineering simulation, especially when combined with the power and speed of
high-performance cloud computing, the cost and time of each design iteration
cycle, as well as the overall development process , can be reduced considerably.
The standard CAE workflow is to first generate an initial design and then
simulate CAD geometry. The simulation results are evaluated and used to improve
the design.
This process is repeated until all product requirements are met and
virtually confirmed. In case of weak points or areas where the performance of
the digital prototype does not match expectations, engineers and designers can
improve the CAD model and verify the effects of its change by testing the
updated design in a new simulation.
This process supports faster
product development since there is no need to build physical prototypes in the
early stages of development. Simulating with CAE methods will only take a few
hours maximum, compared to the days or probably weeks that would require building
a physical prototype. Everyone who is familiar with the product development
process knows that it is inevitable to build a physical prototype before
starting the serial production of a product, but simulation can help reduce the
amount of these prototypes.
When planning to integrate simulation techniques in
the product development process, it is important to know about the environment
(forces, temperatures, etc.) to which the product will be exposed. Knowing
these conditions is crucial to correctly set up a simulation. The predictive
value of any simulation can only be the accuracy of the contour conditions
performed.
Until now, in addition to predicting environmental factors and
conditions, engineering simulation was a complex and difficult effort in itself,
reserved primarily for experienced engineers and simulation experts. The
beginners had to fight with a steep learning curve. Modern CAE simulation
tools, such as SimScale, attempt to break through these barriers, allowing even
inexperienced users without in-depth knowledge of the physical processes and
the special characteristics of the solver to produce insightful simulation
results.
Simulating complex geometries is
very difficult, even for modern computers. That is why it takes a lot of
computing power to perform realistic simulation results. Large companies with
sophisticated IT infrastructure can use their own servers to host and run
simulations.
The rise of HPC cloud computing now also provides smaller
companies, which generally cannot afford to buy and maintain the necessary
hardware, access to the same tools and simulation capabilities that were
previously reserved for only a select few. This interruption in the simulation
products market makes it possible for everyone to simulate the products they
design.
Fields of application:
CAE can be used in almost any
industry and company that designs a product exposed to different environments.
Industries that use computer-aided engineering in their product development
process include, among others: automotive, aerospace, plant engineering,
electronics, energy, consumer goods and HVAC. Products that can be simulated
range from extremely small parts of products to very large and complex
structures, such as race cars, bridges or even power plants.
It is possible to test the
structural integrity of a crane that carries a specific load to a roof, as well
as to evaluate the acoustic design of a concert hall or the convective flow
within a bulb; These are all examples of applications in which simulation can
make a big difference, which can sometimes save lives.
Technosoft Engineering is a global technology services company that offers broad-based engineering services that use a variety of collaboration models with the customer for delivery.
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