SolidWorks Course

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A SolidWorks course provides comprehensive training in using SolidWorks, a powerful computer-aided design (CAD) software widely used in engineering and manufacturing industries. Participants learn to create 3D models, simulate designs, and generate detailed drawings for product development. The course covers essential tools and techniques for parametric modeling, assembly design, and sheet metal design, enabling users to efficiently design and visualize complex mechanical components and assemblies. It also emphasizes practical skills in product visualization, rendering, and creating engineering drawings according to industry standards. Get Nationally Recognized – Government-Approved BIT Certification Aligned with NSDC, Skill India & NIELIT

|| Choose SolidWork Course From BIT

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|| What will I learn?

Develop proficiency in using SolidWorks software, including understanding its interface, tools, and functionalities for creating 2D drafts and 3D models.
Master parametric modeling techniques, including creating and editing 3D parts using features such as extrusions, revolves, sweeps, blends, and advanced surfacing.
Gain expertise in assembly design, including creating and managing assemblies of parts, defining assembly constraints, and simulating assembly motion for testing.
Learn how to create detailed 2D drawings with annotations, dimensions, and geometric tolerances, ensuring accurate documentation of designs for manufacturing.

Understand how to perform simulations and analyses within SolidWorks to evaluate the structural integrity, kinematics, and performance of your designs under various conditions.
Acquire skills in sheet metal design, including creating sheet metal parts, bends, flanges, and forming tools, and unfolding sheet metal components for manufacturing.
Explore advanced surface modeling techniques for creating complex surface geometries, such as freeform surfaces and Class-A surfaces, for aesthetic and functional purposes.
Learn direct modeling techniques for making quick design changes and edits to 3D models without being constrained by parametric history, enabling faster iteration and design exploration.

|| What will I learn?

Develop proficiency in using SolidWorks software, including understanding its interface, tools, and functionalities for creating 2D drafts and 3D models.
Master parametric modeling techniques, including creating and editing 3D parts using features such as extrusions, revolves, sweeps, blends, and advanced surfacing.
Gain expertise in assembly design, including creating and managing assemblies of parts, defining assembly constraints, and simulating assembly motion for testing.
Learn how to create detailed 2D drawings with annotations, dimensions, and geometric tolerances, ensuring accurate documentation of designs for manufacturing.
Understand how to perform simulations and analyses within SolidWorks to evaluate the structural integrity, kinematics, and performance of your designs under various conditions.
Acquire skills in sheet metal design, including creating sheet metal parts, bends, flanges, and forming tools, and unfolding sheet metal components for manufacturing.
Explore advanced surface modeling techniques for creating complex surface geometries, such as freeform surfaces and Class-A surfaces, for aesthetic and functional purposes.
Learn direct modeling techniques for making quick design changes and edits to 3D models without being constrained by parametric history, enabling faster iteration and design exploration.

|| Requirements

Basic knowledge of engineering principles

Familiarity with computer operations is recommended

|| Requirements

Basic knowledge of engineering principles
Familiarity with computer operations is recommended

A comprehensive SolidWorks course covers essential topics including the software interface, 2D sketching, and 3D modeling techniques such as extrudes, revolves, lofts, and sweeps. Students learn assembly modeling, combining multiple parts and managing complex projects, as well as creating professional engineering drawings with views, sections, and annotations. Advanced sections cover surface modeling, sheet metal design, and weldments. The course also introduces simulation tools for basic stress analysis, motion studies, and thermal analysis. Emphasis is on best practices and real-world applications, ensuring students can create detailed, accurate 3D models and assemblies, produce high-quality technical drawings, and perform basic simulations.

The benefits of completing the SolidWorks Professional course are manifold. Firstly, it enhances participants' technical capabilities, enabling them to produce highly detailed and accurate 3D models and technical drawings. This proficiency is crucial for roles in product design, mechanical engineering, and manufacturing, where precision and innovation are key. Secondly, the course improves job prospects by providing a widely recognized certification that attests to the individual's expertise in SolidWorks, making them attractive candidates for engineering and design firms. Lastly, by mastering advanced SolidWorks tools, professionals can streamline their design processes, reduce development time, and enhance collaboration within design teams, ultimately contributing to more efficient and innovative product development cycles.

Introduction to SolidWorks
Overview of SolidWorks software and its capabilities
Understanding the parametric 3D modeling approach
Introduction to the SolidWorks user interface and navigation

Sketching Fundamentals
Understanding sketching principles and best practices
Creating and editing 2D sketches using sketch entities (lines, circles, rectangles, etc.)
Applying sketch constraints and dimensions to control geometry

Part Modeling Basics
Introduction to part modeling workflows
Creating basic 3D features by extruding and revolving sketches
Understanding the concept of features, sketches, and design intent

Intermediate Part Modeling
Exploring more advanced modeling techniques such as fillets, chamfers, and shells
Working with multi-body parts and configurations
Utilizing advanced features like sweeps, lofts, and ribs

Advanced Part Modeling
Mastering complex modeling tasks with surface modeling tools
Creating sheet metal parts and utilizing specialized sheet metal features
Exploring the SolidWorks Toolbox for standard parts and components

Assembly Modeling
Introduction to assembly modeling and its components
Inserting and positioning components within assemblies
Applying assembly constraints and relationships to define motion

Advanced Assembly Techniques
Working with advanced assembly features like mate references and smart components
Creating exploded views and animations for assembly instructions
Performing interference detection and collision checking

Drawing and Detailing
Creating and annotating drawing views (orthographic, isometric, auxiliary)
Adding dimensions, annotations, and GD&T symbols to drawings
Generating bill of materials (BOM) and parts lists
Choose Any One Specialisation

Sheet Metal Design
Understanding sheet metal design principles and terminology
Creating sheet metal parts with bends, flanges, and forming tools
Unfolding and flattening sheet metal parts for manufacturing

Weldments
Creating structural frames and weldment structures
Adding weld beads, cuts, and end treatments to weldments
Detailing weldment drawings with weld symbols and annotations

Surface Modeling
Exploring advanced surface modeling techniques for complex shapes
Creating and editing surfaces using loft, sweep, and boundary features
Converting solid models to surfaces and vice versa

Mold Design
Introduction to mold design principles and terminology
Creating parting surfaces, shut-off surfaces, and split lines for molds
Generating mold cavities and cores using core/cavity tools

Motion Study and Simulation
Performing motion studies to simulate mechanical motion and animations
Introduction to finite element analysis (FEA) for structural simulations
Analyzing stress, displacement, and factor of safety in parts and assemblies

Design Automation and Customization
Introduction to macros and automation in SolidWorks using Visual Basic for Applications (VBA)
Customizing the SolidWorks environment with templates, libraries, and design standards
Integrating SolidWorks with other CAD/CAM software and systems

Collaboration and Data Management
Working with Product Data Management (PDM) systems for data organization and collaboration
Collaborating with team members and stakeholders through shared projects and design reviews
Managing design revisions and version control for projects

Project Work and Case Studies
Applying learned skills and techniques to real-world design projects and examples
Hands-on exercises and project-based learning to reinforce concepts
Presentations and discussions on project outcomes and best practices

Introduction to Sheet Metal Design
Overview of sheet metal design principles and terminology
Understanding the advantages and applications of sheet metal parts
Introduction to SolidWorks Sheet Metal tools and features

Basic Sheet Metal Features
Creating base and edge flanges
Adding bends, hems, and miters to sheet metal parts
Understanding the Flatten feature and unfolding sheet metal geometry

Advanced Sheet Metal Features
Exploring lofted bends and swept flanges
Creating closed corners and junctions
Adding rips and cross breaks to strengthen sheet metal parts

Sheet Metal Design Guidelines
Understanding design considerations for manufacturability
Designing for minimum bend radius and material thickness
Avoiding interference and collision issues in sheet metal parts

Sheet Metal Modification Tools
Using the Convert to Sheet Metal tool to convert solid models to sheet metal
Editing and modifying existing sheet metal features
Employing techniques for adding cuts, extrusions, and fillets to sheet metal parts

Designing Sheet Metal Assemblies
Creating assemblies with sheet metal components
Inserting and positioning sheet metal parts within assemblies
Applying assembly constraints and relationships to define motion

Flat Pattern Development
Understanding the flat pattern representation of sheet metal parts
Creating and editing flat patterns
Exporting flat patterns for manufacturing and fabrication

Sheet Metal Documentation
Creating detailed drawings for sheet metal parts
Adding dimensions, annotations, and GD&T symbols to sheet metal drawings
Generating bill of materials (BOM) and parts lists for sheet metal assemblies

Designing Sheet Metal Enclosures
Design considerations for sheet metal enclosures
Creating complex sheet metal shapes and forms
Incorporating ventilation, access panels, and fastening features into enclosures

Sheet Metal Simulation and Analysis
Introduction to sheet metal simulation tools in SolidWorks
Analyzing and validating sheet metal designs for manufacturability and performance
Optimizing designs for material usage, cost, and efficiency

Sheet Metal Design Automation
Utilizing SolidWorks configurations and design tables for automating sheet metal design
Creating custom sheet metal libraries and standard components
Implementing macros and automation scripts for repetitive tasks

Case Studies and Real-World Applications
Analyzing real-world sheet metal design examples and case studies
Hands-on exercises and projects to reinforce concepts
Presentations and discussions on best practices and industry trends

Introduction to Weldments
Overview of weldments in SolidWorks
Understanding the advantages and applications of weldments
Introduction to the SolidWorks Weldments environment

Basic Weldment Profiles
Exploring standard weldment profiles
Creating custom weldment profiles
Adding and managing weldment profiles in SolidWorks

Structural Members
Inserting and positioning structural members
Applying standard profiles to create structural frames
Defining properties and parameters for structural members

Weldment Tools
Utilizing weldment tools for creating welds and weld features
Adding weld beads, fillet welds, and groove welds
Editing and modifying weldment features

Coping and Mitering
Understanding coping and mitering in weldments
Creating coped and mitered connections between structural members
Editing and adjusting coping and mitering settings

Gussets and End Caps
Adding gussets and end caps to strengthen and finish weldments
Exploring different types of gussets and end caps
Customizing gusset and end cap properties

Weldment Cut Lists and BOMs
Generating cut lists and bills of materials (BOMs) for weldments
Customizing cut list templates and formats
Managing and updating cut list data

Weldment Drawings and Detailing
Creating detailed drawings for weldments
Adding dimensions, annotations, and weld symbols to drawings
Generating section views and detail views for weldment drawings

Weldment Simulation and Analysis
Introduction to weldment simulation tools in SolidWorks Simulation
Analyzing and validating weldments for strength, stability, and performance
Optimizing weldment designs for material usage and cost efficiency

Weldment Documentation
Creating fabrication drawings and assembly instructions for weldments
Adding welding symbols, notes, and specifications to drawings
Generating weldment cut lists and shop drawings

Case Studies and Real-World Applications
Analyzing real-world weldment design examples and case studies
Hands-on exercises and projects to reinforce concepts
Presentations and discussions on best practices and industry standards

Introduction to Surface Modeling
Overview of surface modeling in SolidWorks
Understanding the advantages and applications of surface modeling
Introduction to the SolidWorks Surface Modeling environment

Basic Surface Creation
Creating surface geometry using sketch entities
Utilizing surface features like extrude, revolve, and sweep
Editing and manipulating surface geometry

Advanced Surface Features
Exploring lofted and swept surface features
Understanding the use of guide curves in surface modeling
Creating complex surface shapes and forms

Surface Editing and Modification
Editing surface geometry using direct and parametric methods
Employing surface trimming and extending tools
Applying fillets, chamfers, and other surface modifications

Surface Repair and Analysis
Identifying and repairing gaps, overlaps, and other surface errors
Analyzing surface curvature and continuity
Optimizing surface quality and smoothness

Surface Modeling Techniques
Exploring advanced surface modeling techniques
Creating surface blends, offsets, and lofts
Using surface knitting and stitching tools

Surface Sweeping and Lofting
Utilizing advanced surface sweep and loft features
Creating complex surface shapes with multiple guide curves
Understanding lofted surface profiles and paths

Complex Surface Modeling
Creating organic and freeform surface shapes
Using spline-based surface modeling techniques
Applying curvature control and continuity constraints

Surface Modeling for Mold Design
Design considerations for moldable surface geometry
Creating draft angles and split lines for mold design
Generating core and cavity surfaces for molds

Surface Modeling for Aesthetic Design
Creating stylish and ergonomic surface designs
Incorporating surface textures, patterns, and logos
Understanding surface finish requirements and specifications

Surface Modeling Simulation and Analysis
Analyzing surface models for manufacturability and performance
Performing curvature analysis and surface continuity checks
Optimizing surface designs for aesthetics and functionality

Surface Modeling Documentation
Creating technical drawings and documentation for surface models
Adding dimensions, annotations, and GD&T symbols to surface drawings
Generating 3D PDFs and other interactive documentation

Case Studies and Real-World Applications
Analyzing real-world surface modeling examples and case studies
Hands-on exercises and projects to reinforce concepts
Presentations and discussions on best practices and industry standards

Introduction to Mold Design

Overview of mold design principles and terminology
Understanding the advantages and applications of molds
Introduction to the SolidWorks Mold Design environment

Parting Surfaces and Split Lines
Creating parting surfaces to define mold cavities and cores
Generating split lines to separate mold components
Applying draft angles and shutoffs for mold release

Core and Cavity Creation
Generating mold cavities and cores using parting surfaces
Understanding the difference between solid and surface-based molds
Utilizing tools and features to create complex mold geometry
Mold Inserts and Lifters
Designing mold inserts and lifters for complex features
Adding sliders, side cores, and other movable mold components
Incorporating draft analysis and undercut detection tools

Cooling and Ventilation Systems
Designing cooling channels and venting systems for mold efficiency
Placing cooling components and optimizing flow paths
Analyzing mold temperature and thermal management

Mold Components and Standard Parts
Utilizing standard mold components and libraries
Designing custom mold components and features
Incorporating ejector pins, sprues, and runners

Mold Assemblies and Interference Checking
Creating mold assemblies and inserting mold components
Applying assembly constraints and relationships
Performing interference checking and collision detection

Mold Analysis and Simulation
Introduction to mold flow analysis and simulation
Analyzing filling, packing, and cooling phases of the molding process
Optimizing mold designs for part quality and cycle time

Mold Documentation and Drawings
Creating detailed drawings and documentation for molds
Adding dimensions, annotations, and GD&T symbols to mold drawings
Generating bill of materials (BOM) and parts lists for molds

Mold Manufacturing Considerations
Understanding mold manufacturing processes and techniques
Designing molds for injection molding, blow molding, and other processes
Incorporating design for manufacturability (DFM) principles

Mold Maintenance and Repair
Designing molds for easy maintenance and repair
Adding features for mold disassembly and cleaning
Addressing common mold maintenance issues and concerns

Case Studies and Real-World Applications
Analyzing real-world mold design examples and case studies
Hands-on exercises and projects to reinforce concepts
Presentations and discussions on best practices and industry standards

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|| SolidWorks Projects

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|| Scope of SolidWorks in India

The scope of a SolidWorks course in India is vast and promising, given the country's rapidly growing manufacturing and engineering sectors. Here are some key points highlighting the scope:

Manufacturing Industry: SolidWorks is widely used in India's manufacturing industry for product design and development. A SolidWorks course can lead to opportunities in automotive, aerospace, consumer goods, and heavy machinery companies.
Engineering Services: Many engineering service providers in India use SolidWorks for creating detailed design solutions for clients globally. Proficiency in SolidWorks can open doors to jobs in these firms.
Research and Development: R&D centers in India, both private and government, require skilled SolidWorks users to develop innovative products and solutions.
Startups and SMEs: The rise of startups and small to medium enterprises in India has increased the demand for versatile CAD designers who can handle end-to-end product development using SolidWorks.
Educational Institutions: Technical universities and colleges in India are incorporating SolidWorks into their curriculum. Skilled professionals can find opportunities as educators or trainers in these institutions.
Freelancing and Consulting: With a SolidWorks certification, individuals can offer freelance services or consultancy, catering to various design and development projects.
Global Opportunities: Indian professionals skilled in SolidWorks are in demand globally, providing opportunities for international careers.

In summary, a SolidWorks course can significantly enhance career prospects in various engineering and manufacturing domains in India, offering roles in design, product development, simulation, and analysis across multiple industries.

|| SolidWorks Career Option and Job Opportunities

A SolidWorks course can open up numerous career options and job opportunities across various industries. Here are some potential career paths and job roles:

Mechanical Design Engineer: Design and develop mechanical components and systems using SolidWorks, creating detailed 3D models and technical drawings.
Product Designer: Conceptualize and design new products, considering aesthetics, functionality, and manufacturability, often using SolidWorks for modeling and prototyping.
CAD Engineer: Create detailed CAD models and drawings for manufacturing, ensuring precision and adherence to industry standards.
R&D Engineer: Work in research and development teams to innovate and improve products, using SolidWorks for design and simulation to test new ideas.
Manufacturing Engineer: Collaborate with design and production teams to optimize designs for manufacturability and streamline production processes.
Simulation Engineer: Use SolidWorks Simulation tools to perform stress analysis, thermal analysis, and motion studies, ensuring product reliability and performance.
Tool and Die Designer: Design molds, dies, and fixtures for manufacturing processes, utilizing SolidWorks for creating precise and functional tools.
Sheet Metal Designer: Specialize in designing sheet metal parts and assemblies, using SolidWorks to create accurate flat patterns and bend allowances.
Freelance CAD Designer: Offer design services to various clients as an independent contractor, working on diverse projects across different industries.
Trainer/Instructor: Teach SolidWorks at educational institutions or training centers, helping others to gain proficiency in the software.
Technical Support Engineer: Provide support and troubleshooting for SolidWorks users, helping to resolve issues and optimize their use of the software.
Project Engineer/Manager: Oversee design projects, ensuring timely delivery and quality of CAD models and technical drawings, often coordinating between design, production, and quality teams.
Automotive Engineer: Design and develop automotive components and systems, leveraging SolidWorks for precision modeling and simulations.
Aerospace Engineer: Design and analyze aircraft components, utilizing SolidWorks for complex geometries and simulations to ensure safety and performance.
Industrial Designer: Create and develop concepts for industrial products, focusing on usability, aesthetics, and function, with SolidWorks as a key design tool.

These career options highlight the versatility and demand for SolidWorks skills in the job market, spanning multiple industries and roles. Proficiency in SolidWorks can significantly enhance employability and career growth opportunities.

|| SolidWorks Holds a Prominent Position in Indian Job Market

A SolidWorks course can significantly enhance placement opportunities in India, given the high demand for skilled CAD professionals in various industries. Graduates of a SolidWorks course can find employment in top companies across sectors such as automotive, aerospace, manufacturing, consumer goods, and industrial machinery. Leading companies like Tata Motors, Mahindra & Mahindra, Larsen & Toubro, Godrej, Bajaj Auto, Ashok Leyland, and Honeywell India regularly seek professionals proficient in SolidWorks for roles such as design engineer, product designer, CAD drafter, and simulation engineer. Many engineering service providers and R&D centers also value SolidWorks skills for their design and development projects. Additionally, the rise of startups and small to medium enterprises in India has further increased the demand for versatile CAD designers. Institutes offering SolidWorks courses often have strong industry connections and dedicated placement cells, providing students with opportunities for internships and job placements. The comprehensive skill set acquired through a SolidWorks course ensures that graduates are well-prepared to meet the technical demands of these roles, making them attractive candidates for a wide range of employers.

|| Empowering Your Career Transition From Learning To Leading

Roshni Adatiya

Roshni Adatiya, excelling as a Revit Architect at Stemmons Business Services Pvt. Ltd., showcases proficiency in essential tools such as Autodesk Revit, AutoCAD, and Navisworks. Her adept use of these critical software contributes to effective architectural design, highlighting the job-ready skills gained through placement-focused training at BIT. With career guidance and placement support, graduates like Roshni are well-prepared for high-demand roles in top architecture and design companies.

Pratik Shah

Best institute for Mechanical engineering seriously just see today's condition of mechanical engineers they have to work in industry as a labour but here they bring you and offer you a bright future Platform, and here they will not only give you placement but they will make u skill person in software and Technically strong. Thank you BIT!

Sanket Vaidya

Taking admission in BIT Institute was one of the best decisions I have made in my career. After working for 2.5 years in different departments, I am now employed at one of the top companies in the world in the design field — all thanks to BIT. My course instructor explained the topics with many examples and hands-on, placement-oriented training, providing practical experience that made me job-ready. His in-depth knowledge, along with his technique of explaining things thoroughly, was invaluable. Thanks to the support team for quickly resolving our queries. Thanks, BIT! Best SolidWorks training with placement support given by BIT.

Dhiraj Gandhi

According to my view, BIT is the best institute where anyone can learn to develop their own design from beginning. The professors over here are likely our friend and also tough in the same manner . Here one can easily experience the live working environment ( the level of project is very much good ). If you were looking forward for designing please do prefer this institute. Thank you for great support and great knowledge. My Skills are – AutoCAD, SolidWorks, Fusion 360, Autodesk HSM, Vault etc

|| Average salary of SolidWork in India

The average salary of professionals with SolidWorks skills in India varies depending on their level of experience, education, and the industry they work in. Here’s a general overview of the salary ranges at different career stages:

Entry-Level (0-2 years of experience): ₹2.5 - ₹4.5 lakhs per annum. At this level, professionals typically perform basic design tasks, create detailed 2D and 3D models, and assist senior engineers with projects.
Mid-Level (2-5 years of experience): ₹4.5 - ₹8 lakhs per annum. Mid-level professionals take on more complex design responsibilities, manage parts of projects independently, and may begin to specialize in areas such as simulation or sheet metal design.
Senior-Level (5-10 years of experience): ₹8 - ₹15 lakhs per annum. Senior-level professionals lead design projects, oversee junior engineers, and work closely with manufacturing and other departments to ensure the feasibility and quality of designs.
Managerial Level (10+ years of experience): ₹15 - ₹25 lakhs per annum. Managers are responsible for overseeing entire design teams, managing multiple projects, coordinating with other departments, and ensuring that all design work aligns with company goals and standards.
Specialized Roles: ₹10 - ₹20 lakhs per annum. These roles often require advanced expertise in specific areas of SolidWorks, such as simulation, analysis, or advanced surface modeling, and professionals in these positions are highly valued for their specialized skills.

These figures are approximate and can vary based on factors such as the specific industry, company size, location, and individual qualifications. For instance, professionals in metropolitan areas like Bangalore, Mumbai, or Delhi may command higher salaries due to the higher cost of living and demand for skilled engineers in these regions. Additionally, certifications, advanced degrees, and specialized training can also impact salary levels.

|| Job Roles and Salary

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|| Some Prominent Companies in India that used SolidWorks

Several companies across various industries in India use SolidWorks for their design and engineering needs. These companies range from large multinational corporations to medium and small enterprises. Here are some notable examples:

Tata Motors: A major player in the automotive industry, Tata Motors uses SolidWorks for vehicle design and development.
Mahindra & Mahindra: Another automotive giant, Mahindra & Mahindra, utilizes SolidWorks for designing their range of vehicles and components.
Larsen & Toubro (L&T): A prominent engineering and construction company, L&T uses SolidWorks for various engineering and infrastructure projects.
Godrej Group: Known for its diverse product range, Godrej uses SolidWorks in their consumer goods and industrial products divisions.
Bajaj Auto: One of India's leading motorcycle manufacturers, Bajaj Auto employs SolidWorks for designing motorcycles and automotive components.
Ashok Leyland: A major manufacturer of commercial vehicles, Ashok Leyland uses SolidWorks for designing trucks and buses.
Tata Technologies: This engineering and design services provider uses SolidWorks to offer solutions to clients in automotive, aerospace, and other sectors.
Honeywell India: A technology and manufacturing company, Honeywell uses SolidWorks for product development in their aerospace and automation divisions.
Bosch India: A global leader in engineering and electronics, Bosch uses SolidWorks for designing automotive components and industrial products.
Siemens India: Known for its engineering solutions, Siemens uses SolidWorks for various design and manufacturing applications.
GE India: General Electric uses SolidWorks in their healthcare, energy, and aviation divisions for product design and development.
Kirloskar Group: This engineering conglomerate uses SolidWorks for designing pumps, engines, and other industrial products.
TVS Motor Company: One of the leading two-wheeler manufacturers in India, TVS Motor Company uses SolidWorks for motorcycle design.
Wipro Infrastructure Engineering: This division of Wipro uses SolidWorks for hydraulic cylinders and other industrial products.
Blue Star: A leading air conditioning and commercial refrigeration company, Blue Star employs SolidWorks for product design and development.

These companies illustrate the widespread adoption of SolidWorks in India across various sectors, including automotive, aerospace, consumer goods, industrial products, and engineering services. Proficiency in SolidWorks can lead to career opportunities in these and many other organizations.

|| Top Hiring Companies

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|| Get SolidWorks Certification Training

Three easy steps will unlock your SolidWorks Certification:

Finish the online / offline course of SolidWorks Course and the Assignment
Take on and successfully complete a number of industry-based Projects
Pass the SolidWorks certification exam

The certificate for this SolidWorks Course will be sent to you through our learning management system, where you can also download it. Add a link to your certificate to your CV or LinkedIn profile.

|| Frequently asked question

SolidWorks is a computer-aided design (CAD) software used extensively in engineering, product design, and manufacturing. It allows users to create, simulate, and manage complex 3D models and technical drawings.

A SolidWorks course is ideal for mechanical engineers, product designers, manufacturing engineers, CAD technicians, and anyone involved in the design and development of physical products.

Yes, SolidWorks offers several certification exams, such as the Certified SolidWorks Associate (CSWA) and Certified SolidWorks Professional (CSWP), which validate your skills and knowledge in using the software.

Benefits include: Enhanced design and modeling skills Improved job prospects and career advancement Ability to create detailed and accurate 3D models Proficiency in using advanced simulation tools to test and validate designs Streamlined design processes and improved efficiency in project workflows

Yes, many training providers offer online SolidWorks courses, which can be self-paced or instructor-led, providing flexibility for learners to study from anywhere.

Projects typically include creating 3D models of mechanical parts, developing complex assemblies, generating detailed technical drawings, and performing simulations to test design performance.