Is it worth learning ANSYS or SolidWorks Simulation as a student?

Yes. Tool skill is expected. Pair every simulation you run with a physical expectation and at least one hand check, so you are learning analysis and not just button sequences.

How do I know if my boundary conditions are right?

Compare them to how the real component is held. If a joint allows movement, friction or load sharing, a fully fixed support may be hiding that. Test the sensitivity by trying a more realistic constraint and seeing how much the result changes.

GROUND TRUTH · MECHANICAL ENGINEERING

What Engineering Analysis Involves Beyond Running ANSYS

Two simulations can both finish successfully. Only one may answer the real question.

A solver that completes is not an answer. FEA analyses a mathematical representation of reality, and the quality of that representation depends on engineering judgment the software never checks.

By Prashanth Jakkula · Published 3 September 2026 · Researched from job postings, engineering references, and public practitioner accounts, then written and checked by the author before publication. AI tools may help with research and editing. See our Editorial Policy for how articles are produced and reviewed, or About HireSetu for who operates it.

You open ANSYS. You create or import the geometry, assign a material, apply a load, add a fixed support, generate the mesh, and click Solve. Moments later the screen shows a colourful result, maximum stress in red, deformation animating as you rotate the model. You have an answer. At least, that is what it feels like.

The misconception: "I know how to set up simulations in ANSYS. Therefore I am an analysis engineer."

Here is the uncomfortable question: did ANSYS solve the engineering problem, or did it only solve the problem you told it to solve? Those are not the same thing. FEA does not begin by asking whether your engineering assumptions are correct. It calculates based on the model you provide. Describe the physical problem incorrectly and the software will still produce a convincing answer.

The simulation can be correct while your engineering is wrong

Suppose the real component sees 10 kN but you apply 1 kN. The solver runs correctly, the mesh is acceptable, the contour plot looks professional, and the engineering conclusion is wrong, because the physical problem was described incorrectly. The software did not fail. The model failed to represent reality.

Now suppose a component is connected to a structure that allows some movement, but in the simulation you apply a fully fixed support. Again the software calculates exactly what you asked. But is that how the real structure behaves? If not, you have a precise answer to the wrong physical question.

FEA does not analyse reality. It analyses a mathematical representation of reality, and the quality of that representation depends on engineering judgment.

Before ANSYS, there should be engineering

Many students learn FEA as a sequence: open the software, import geometry, assign material, apply loads and boundary conditions, mesh, solve, view results. The workflow is useful. The engineering thinking should begin earlier.

What exactly is the physical problem?
What forces act on this component, and where?
Are they static or dynamic? Are there repeated loads?
What material behaviour matters?
What simplifications are reasonable?
What should the result approximately look like?

That last question matters most. If you have no physical expectation for the result, it becomes very hard to notice when the simulation is unreasonable.

A simple beam shows why expectation matters

Take a beam fixed at one end with a load at the other. Before opening ANSYS, fundamentals tell you something: you can draw a free-body diagram, find the reactions, estimate the bending moment, estimate stress, estimate deflection. Now you have an engineering expectation. When ANSYS produces a result you are no longer asking "what number did the software give me?": you are asking "does this make sense?" If your hand estimate and the simulation disagree sharply, you have something valuable: a question. Did you apply the load wrongly? Is the support different? Is the geometry different? Did you misunderstand an assumption? The simulation has become part of an investigation.

A material is not just a name from a library

Students learn: Engineering Data, select material, assign. Real material behaviour is more than a name. Which steel? What condition? Are you analysing elastic behaviour, plastic deformation, temperature effects, fatigue? For a basic linear structural analysis, Young’s modulus strongly influences stiffness and deformation, and yield strength matters when stress approaches material limits. Entering properties is easy. Understanding whether those properties represent the real component is engineering.

Boundary conditions are where reality can disappear

Students get comfortable with icons: Fixed Support, Force, Pressure, Displacement. A real problem does not come with icons attached. Hold a real component and ask: where is it fixed? The answer is rarely "this entire surface has zero displacement in every direction", but that is what a simplified fixed support represents. Sometimes that assumption is reasonable. Sometimes a bolted joint allows behaviour a fully fixed surface does not; there may be contact, friction, movement, load redistribution. Simplifying reality is not wrong: engineering models must simplify. The real question is whether the simplification preserves the behaviour that matters. That is deeper than "which icon do I click?"

The red region is not automatically the failure point

Students see a stress contour and go straight to red. Red means maximum stress, therefore this is where it fails. Not always. The maximum numerical stress can sit where the model contains an idealisation, a sharp corner, an idealised load, a boundary condition, that produces a local artefact. Ask: is this stress physically realistic? Does the geometry have a sharp feature there? Does the load really enter that way? Does the result converge as the mesh changes? A colour cannot answer those questions, and precise-looking numbers on screen are not the same as confidence in the conclusion.

Mesh is not something you make "very fine" and forget

A common belief: smaller mesh means a more accurate answer. Finer meshes can capture certain behaviour better, but making everything extremely fine is not good analysis. It raises computational cost and may not address the actual modelling problem. The analyst asks where refinement is needed and why, whether changing the mesh significantly changes the result, and whether the result is converging. The point is not to memorise "fine mesh is good". It is to understand why a region deserves more numerical attention.

Two engineers, the same model, different conclusions

Give two people the same geometry. Both know ANSYS, meshing and load application. Person A asks "what settings should I use?" Person B asks "what physical behaviour am I trying to represent?" Person A can finish the simulation. Person B is more likely to check whether the simulation represents the engineering problem. Software proficiency decides whether you can operate the tool. Engineering understanding decides whether you know what it should be used for.

The real danger is a believable wrong answer

Software errors are easy to notice: the program crashes, the solver fails, the mesh will not generate. The dangerous case is different: everything runs, the solver completes, the result looks realistic, the report has colourful images, and the assumptions are wrong. A failed simulation forces you to investigate. A believable wrong simulation convinces you there is nothing to investigate. That is why analysis engineers question software output rather than trusting it.

What the engineer brings that the software does not

What should be analysed: the important question, not every detail equally.
What can be simplified, and whether the simplification is acceptable.
Which material behaviour is relevant to this situation.
How the loads enter the system: location, direction, distribution.
How the component is really constrained.
Whether the result is physically believable.

Hand calculations are not obsolete because software exists

"Why learn formulas if ANSYS calculates everything?" Because hand calculations build understanding of the physical system: estimates, checks, intuition, and a way to spot unreasonable output. You will not solve every industrial geometry with a simple equation; that is not the purpose. If you cannot estimate whether more load should mean more stress, or more stiffness should mean less deformation, a software result is much harder to evaluate. Fundamentals help you understand the physics. Simulation helps you analyse complexity. You need both.

If you want to get stronger at FEA, change how you learn

Describe the physical problem in plain language.
Draw the forces.
Identify how the component is supported.
Estimate the behaviour you expect.
Choose the modelling assumptions, then build the simulation.
After solving, ask what would make this result wrong: change one assumption, change the mesh, check the sensitivity, compare against a simplified calculation where you can.

The goal is not to click through ANSYS faster. It is to become harder to fool with a convincing-looking result.

The Ground Reality

The claim vs the requirement

What people think	What it actually is
I know ANSYS, so I am an analysis engineer.	You have learned a powerful analysis tool. Analysis also requires building an appropriate model and judging whether it deserves trust.
A completed solve is the answer.	A completed solve is where engineering judgment begins: interpreting results, checking realism, validating the conclusion.
The tool competes with the fundamentals.	The fundamentals tell you what should happen; the simulation handles the complexity. Professional analysis needs both.

ANSYS can solve the model. The engineer is responsible for deciding whether the model deserves to be trusted. The distinction is not software versus engineering. It is running a calculation versus understanding what the calculation represents.

Is it worth learning ANSYS or SolidWorks Simulation as a student?: Yes. Tool skill is expected. Pair every simulation you run with a physical expectation and at least one hand check, so you are learning analysis and not just button sequences.
How do I know if my boundary conditions are right?: Compare them to how the real component is held. If a joint allows movement, friction or load sharing, a fully fixed support may be hiding that. Test the sensitivity by trying a more realistic constraint and seeing how much the result changes.

References and further reading

Background reading on the topic of this article. HireSetu is not affiliated with these organisations.