SOLIDWORKS skills are not tied to a single job title. They are used across engineering, design, and manufacturing roles where products must be designed, documented, revised, and produced accurately.

This article explains what jobs SOLIDWORKS skills can realistically lead to, which industries rely on SOLIDWORKS in day-to-day operations, and what employers actually expect when SOLIDWORKS appears on a CV. The aim is to help readers make informed decisions about learning, training, and career direction, based on how SOLIDWORKS is used in practice.

1. Can I get a job if I know SOLIDWORKS?

Yes, SOLIDWORKS skills can help you get a job when those skills translate into practical, usable output. From what we see in hiring discussions and customer feedback, employers are not looking for people who ‘know the software; they are looking for people who can support real design and production workflows.

In entry-level roles, SOLIDWORKS is often used to create parts, assemblies, and drawings under the guidance of senior engineers. Candidates who understand sketch discipline, feature order, and design intent are significantly more employable than those who can only complete a model once without considering change.

SOLIDWORKS becomes a hiring advantage when it is paired with structured learning, realistic projects, and an understanding of how designs evolve over time.

2. Which engineers use SOLIDWORKS?

Mechanical engineers use SOLIDWORKS extensively because it aligns directly with mechanical design workflows. Parametric modelling, assemblies, tolerancing, and manufacturing documentation are all core mechanical engineering activities supported by SOLIDWORKS.

Design engineers use SOLIDWORKS to develop and iterate products where form, fit, and function change throughout development. 

Manufacturing and production engineers rely on SOLIDWORKS to review assemblies, validate buildability, support tooling design, and ensure designs can be produced consistently.

In all cases, SOLIDWORKS is part of a broader workflow that includes drawings, bills of materials, revisions, and downstream manufacturing processes.

3. What industries use SOLIDWORKS?

SOLIDWORKS is used across a wide range of industries where mechanical design, validation, and manufacturing are critical. 

While the core modelling principles remain the same, how SOLIDWORKS is applied differs significantly by sector, driven by regulatory requirements, operating conditions, and production scale.

Based on MECAD’s experience working with customers across multiple sectors, the industries below represent some of the most common and practical uses of SOLIDWORKS in day-to-day engineering work.

3.1. Aerospace and Defence

In aerospace and defence, SOLIDWORKS is used to design components, sub-assemblies, tooling, and support systems that must operate under extreme conditions and strict regulatory oversight. Engineers rely on parametric modelling to maintain tight control over geometry while managing frequent design changes driven by testing, certification, or mission requirements.

Simulation plays a significant role in this sector. SOLIDWORKS Simulation is often used to evaluate structural integrity, thermal behaviour, and performance under load before physical prototyping. 

Collaboration is equally important, as multidisciplinary teams must coordinate mechanical design with electronics, manufacturing, and compliance teams throughout the product lifecycle.

From an employability perspective, this industry values SOLIDWORKS users who understand design intent, traceability, and revision control rather than just modelling speed.

3.2. Architecture, Engineering, and Construction (AEC)

Within the AEC sector, SOLIDWORKS is typically used for detailed component design, engineered systems, and specialised structures rather than full-building architectural modelling. 

Engineers use SOLIDWORKS to design steel components, custom assemblies, brackets, supports, and mechanical systems that integrate into larger construction projects.

Accurate 3D models improve coordination between disciplines and reduce errors during fabrication and installation. 

SOLIDWORKS also supports material estimation and clash avoidance by enabling precise component definition before anything reaches site.

Professionals in this space benefit from strong drawing skills and the ability to produce fabrication-ready documentation that aligns with construction timelines and tolerances.

3.3. Agricultural Equipment

Agricultural equipment manufacturers use SOLIDWORKS to design robust machinery that must operate reliably in harsh, variable environments. 

Components are often exposed to dirt, moisture, vibration, and heavy mechanical loads, which places a strong emphasis on durability and serviceability.

SOLIDWORKS is used to model frames, mechanisms, housings, and moving assemblies, while simulation helps assess fatigue, load paths, and wear.

Designs must balance strength with manufacturability, as agricultural machinery is often produced in medium volumes with cost sensitivity.

Employers in this sector value engineers who can model for longevity, ease of maintenance, and real-world operating conditions rather than idealised lab environments.

3.4. Consumer Packaged Goods and Retail

In consumer packaged goods and retail, SOLIDWORKS supports the design of products and packaging that must be functional, manufacturable, and visually appealing. 

Engineers and designers use SOLIDWORKS to develop containers, closures, mechanisms, and internal structures that support high-volume production.

Packaging design is a major focus. SOLIDWORKS enables teams to optimise wall thickness, material usage, and assembly logic while ensuring compatibility with filling, sealing, and distribution processes. Simulation is often used to test durability and handling performance.

In this industry, SOLIDWORKS users who understand design for manufacturing and cost optimisation tend to stand out.

3.5. High-Tech Electronics

In high-tech electronics, SOLIDWORKS is used alongside ECAD tools to design enclosures, mechanical supports, thermal management systems, and integrated assemblies. 

Engineers use SOLIDWORKS to ensure that electronic components fit correctly, dissipate heat effectively, and meet structural requirements.

Thermal simulation and interference checking are critical, as compact designs leave little margin for error. Rapid iteration is common, so models must be robust and adaptable as electronics layouts change.

This sector values SOLIDWORKS users who can work collaboratively with electrical teams and design enclosures that support both performance and manufacturability.

3.6. Home and Lifestyle

The home and lifestyle industry uses SOLIDWORKS to design furniture, appliances, fixtures, and consumer products that must balance aesthetics with everyday usability. 

Designers rely on SOLIDWORKS to refine form, ergonomics, and internal structure while ensuring products can be produced at scale.

Material selection, fit, and finish are important considerations, and SOLIDWORKS allows designers to test variations without rebuilding models from scratch. 

Visualisation tools are often used alongside modelling to support product approval and marketing.

In this sector, employers value SOLIDWORKS users who understand how design decisions affect user experience as well as production feasibility.

3.7. Industrial Equipment

Industrial equipment manufacturers use SOLIDWORKS to design machinery that must perform reliably in demanding environments. 

This includes production machinery, processing equipment, and heavy-duty systems with long service lives.

SOLIDWORKS supports large assemblies, complex mechanisms, and integration with standard components such as motors, bearings, and actuators. 

Simulation is commonly used to validate performance and identify potential failure points early.

Professionals working in this sector must be comfortable managing structured assemblies and producing documentation that supports installation, operation, and maintenance.

3.8. Infrastructure, Energy, and Materials

In infrastructure and energy projects, SOLIDWORKS is used to design mechanical systems, support structures, and components that form part of larger installations. 

Engineers use SOLIDWORKS to model complex assemblies and assess material usage, load paths, and constructability.

Simulation helps predict performance under environmental loads such as wind, temperature variation, and mechanical stress. 

Accurate modelling reduces risk during construction and improves coordination between engineering and site teams.

This industry values SOLIDWORKS users who can model conservatively, document clearly, and support long-term asset reliability.

3.9. Life Sciences, Healthcare, and Medical Technology

SOLIDWORKS plays a critical role in the design of medical devices, equipment, and healthcare technology that must comply with strict regulatory standards. 

Precision, repeatability, and traceability are essential in this sector.

Engineers use SOLIDWORKS to design housings, mechanisms, and devices that interact directly with patients or clinical environments. 

Simulation supports validation of mechanical performance and safety before physical testing.

Employers in this space value SOLIDWORKS users who understand controlled design processes, documentation discipline, and compliance-driven workflows.

3.10. Marine and Offshore

Marine and offshore industries use SOLIDWORKS to design vessels, structural components, and offshore systems that must withstand corrosive environments and extreme loading conditions. 

Designs often involve large assemblies and integrated systems.

Simulation is used to assess structural behaviour and material performance under operational conditions. 

Clear documentation is essential, as maintenance and inspection play a major role in lifecycle management.

This sector values SOLIDWORKS users who can model for durability, access, and long-term serviceability.

3.11. Mould, Tool, and Die

In mould, tool, and die design, SOLIDWORKS is used to create highly precise tooling that directly affects production quality. Accuracy and manufacturability are critical, as errors can be costly.

Engineers use SOLIDWORKS to design mould bases, cavities, cores, and associated components, often supported by simulation to predict material flow and cooling behaviour. Designs must integrate seamlessly with machining processes.

Employers in this industry value SOLIDWORKS users who understand precision modelling and downstream manufacturing implications.

3.12. Precision Engineering

Precision engineering relies on SOLIDWORKS to create components with extremely tight tolerances. Models must be dimensionally accurate and stable, as even small errors can affect system performance.

SOLIDWORKS supports detailed modelling, interference checking, and simulation to ensure designs meet exact specifications. These components are often part of larger, high-performance systems.

This industry rewards SOLIDWORKS users who prioritise accuracy, consistency, and methodical modelling practices.

3.13. Sheet Metal

SOLIDWORKS is widely used for sheet metal design, offering specialised tools for bends, flat patterns, and fabrication-ready output. Engineers use these tools to ensure parts can be manufactured efficiently with minimal waste.

Simulation helps validate bend behaviour and assembly fit before fabrication. Accurate flat patterns and drawings reduce errors on the shop floor.

Employers value SOLIDWORKS users who understand how digital models translate directly into fabricated parts.

3.14. Transportation and Mobility

In transportation and mobility, SOLIDWORKS supports the design of vehicles, components, and systems that prioritise safety, efficiency, and sustainability. This includes traditional vehicles as well as emerging electric and autonomous platforms.

Engineers use SOLIDWORKS to integrate mechanical systems, validate structural integrity, and support rapid design iteration. The software helps teams respond quickly to regulatory changes and performance requirements.

This sector values SOLIDWORKS users who understand system integration and long-term design evolution.

4. How is SOLIDWORKS used in manufacturing environments?

In manufacturing environments, SOLIDWORKS acts as the source of design intent rather than just a modelling tool. 

Models drive drawings, support production planning, and inform downstream processes.

4.1. Change management and revisions

Manufacturing always involves change. SOLIDWORKS models must be built so that revisions do not cause widespread failures. Employers value users who understand feature order and sketch stability because those skills reduce downtime.

Poorly structured models often only reveal their weaknesses once production is underway, which is why employers place so much emphasis on feature order and sketch stability.

4.2. Drawings and production communication

Production teams rely on drawings, not assumptions. SOLIDWORKS is used to produce clear views, dimensions, tolerances, and notes that reduce shop-floor questions and rework.

4.3. Assemblies, BOMs, and build planning

Assemblies support fit checks, build sequencing, and bill of materials generation. Poor assembly structure quickly becomes a production risk.

4.4. Tooling and production support

SOLIDWORKS is commonly used for jigs, fixtures, gauges, and production aids. This work prioritises practicality and clarity over cosmetic modelling.

5. What level of SOLIDWORKS skill do employers expect?

Speed only becomes valuable once reliability is established, fast but fragile models are a liability in production environments

Employers expect functional competence at entry level. This includes fully defined sketches, stable part models, correctly mated assemblies, and clear drawings that follow basic standards.

At intermediate level, users are expected to handle revisions confidently, work with more complex assemblies, and support manufacturing documentation with less supervision. 

At advanced levels, SOLIDWORKS users are expected to understand how modelling decisions affect CAM, simulation, data management, and production efficiency.

Across all levels, employers consistently value model reliability, clarity, and editability over speed or flashy features.

6. How can training improve job readiness?

Training improves job readiness by aligning SOLIDWORKS skills with how the software is actually used in industry. 

Structured courses replace trial-and-error with proven workflows and help users develop correct modelling habits early.

From an advisory perspective, training is most valuable when it gives learners confidence that their models will hold up under change, because that is what employers care about.

6.1. MECAD Academy SOLIDWORKS training overview

The table below outlines common MECAD Academy SOLIDWORKS courses, with practical expectations for each.

In practice, most employers assume Essentials-level competence even when it is not explicitly listed in job descriptions.

From experience, Essentials is the baseline employers assume, even if they do not state it explicitly. Advanced courses become valuable when roles involve complex geometry, frequent revisions, or validation responsibilities.

7. The Bottom Line

SOLIDWORKS skills support a wide range of engineering, design, and manufacturing careers when those skills translate into reliable, revision-safe work. 

Employers value people who can produce stable models, clear drawings, and designs that survive real-world change.

Most SOLIDWORKS-related job issues are not caused by the software, but by models that were never built with change and collaboration in mind

Understanding which industries use SOLIDWORKS and what skill level employers expect allows learners to invest time and training wisely. 

With strong fundamentals and structured development, SOLIDWORKS becomes a long-term career asset rather than a single software skill.