Mechanical product design is an ever-evolving field, and staying updated with the latest trends is essential for professionals in this industry. In this article, we’ll explore several key trends that are shaping the landscape of mechanical product design in 2023. From advanced manufacturing techniques to cutting-edge technologies, these trends are influencing how products are conceptualised, designed, and brought to market.

What is Mechanical Product Design?

Mechanical product design is the process of creating physical objects that are both functional and user-friendly. Think of your smartphone – the way its buttons are placed and how it fits comfortably in your hand, that’s all part of design. It’s also about the aesthetics; for instance, the sleek look of a sports car or the ergonomic design of a chair. 

Mechanical product design is what makes these products not just work but work well and look good. So, if you’ve ever admired a beautifully designed gadget or found a product super easy to use, you’ve appreciated the work of mechanical product designers. 

Let’s discuss the latest trends in this field.

1. Additive Manufacturing: Shaping the Future of Production

One of the most significant trends in mechanical product design is additive manufacturing, often referred to as 3D printing. This technology has played a crucial role in overcoming supply chain disruptions, as seen in 2020. 

According to projections, the global market for additive manufacturing is expected to reach a staggering $51 billion by 2030. This growth is a testament to its increasing importance in various industries.

• Additive manufacturing builds objects layer by layer, facilitating complex and customised designs.
• It offers advantages like reduced material waste and faster prototyping.
• The technology enables on-demand and decentralised production.

2. Factory Automation: The Rise of Smart Systems

Automation is no longer confined to manufacturing plants; it is beginning to heavily influence most engineering and manufacturing sectors. From robotics to smart sensors, automation is transforming the way products are designed and produced.

Engineers and designers with programming knowledge are finding themselves in high demand as companies adopt automation and smart systems to enhance productivity and efficiency.

3. Generative Design: Where Art Meets Algorithms

Generative design is a trend that combines topology optimization and simulation algorithms to automatically generate product designs based on critical goals, materials, physics, and manufacturing processes. 

This approach takes design to new heights by allowing software to explore a vast design space, often resulting in innovative and efficient solutions that may not have been discovered through traditional methods.

4. Artificial Intelligence: Empowering Creative Design

Artificial intelligence is changing the face of traditional product design. AI-powered tools and algorithms assist designers in optimising designs, reducing development time, and enhancing product performance. 

AI’s ability to analyse vast datasets and simulate real-world scenarios empowers designers to unlock their creative potential and push the boundaries of what’s possible.

5. Product Development Consulting: Crafting the Perfect Form

Industrial designers play a critical role in the creation of product styles and form factors that resonate with the target market. Their expertise in understanding user preferences, ergonomics, and aesthetics ensures that the final product not only functions optimally but also appeals to consumers.

6. The Third Material Design: Google’s Material Design UI Framework

Google’s Material Design UI framework has retained its status as the de facto standard for many types of product design. Its principles of clean, intuitive, and consistent design continue to influence user interface design in a wide range of products, from mobile apps to websites and beyond.

7. Simulation Algorithms: Ensuring Reliability and Safety

Simulation is a fundamental aspect of mechanical product design. Simulation software like ANSYS is required to validate designs for reliability, optimal performance, and safety. 

 Engineers wield simulation algorithms as their magic wands, sculpting and analysing the very essence of how products behave across a diverse tapestry of conditions. The outcome? Products that don’t just meet quality and safety standards; they redefine them.

8. Other Dazzling Product Design Trends

In the midst of these power trends, several other captivating trends are emerging, each painting a unique stroke on the canvas of mechanical product design:

• Transparent Design: It’s all about the beauty of bare essentials.
• Minimalism vs. Brutalism: A clash of philosophies, offering designers a captivating dilemma.
• Retro-Inspired Tones: Nostalgia weaves its magic into modern designs.
• Sustainability-Focused Design: A quest for greener, eco-conscious creations.
• Streamlined Package Design: The art of making the outside as alluring as the inside.

These trends open new doorways, breathing a fresh breath of innovation into mechanical product design, influencing the field’s course and carving the path for 2024 and beyond.

Conclusion

In conclusion, staying updated with the latest trends and mastering mechanical product design is crucial for professionals in this field. From additive manufacturing to AI-powered design tools, these trends are shaping the future of product design. By embracing these trends, designers and engineers can create innovative, efficient, and user-friendly products that meet the evolving demands of the market.

FAQs

1. How can I stay updated with the latest trends in mechanical product design?

Staying updated involves continuous learning and exploration. Follow industry publications, attend conferences, and upskill yourself with top mechanical engineering design courses.

2. What role does sustainability play in modern product design?

Sustainability is a significant consideration in product design, with an increasing focus on eco-friendly materials, energy efficiency, and reducing environmental impact.

3. Are AI-powered design tools accessible to small businesses and independent designers?

Yes, many AI-powered design tools are available at various price points, making them accessible to small businesses and individual designers.

4. How can generative design benefit product development?

Generative design can optimise designs for factors like weight, material usage, and structural integrity, leading to cost savings and improved product performance.

5. What are the key challenges in adopting automation in product design?

Challenges include initial implementation costs, the need for specialised skills, and ensuring compatibility with existing processes. However, the benefits often outweigh these challenges in the long run.

The post Latest Trends in Mechanical Product Design first appeared on CADD Centre Resource.

In the realm of architecture, effective communication through visuals is paramount. Architects and building designers not only win projects by showcasing their designs but also conclude them by presenting compelling visual representations to clients and engineers. In this article, we will delve into the invaluable tool known as SketchUp, exploring its role in crafting engaging initial design presentations for clients. 

The Traditional Approaches

When it comes to client meetings, industry professionals often resort to two primary methods: traditional sketches on paper and PowerPoint presentations with designs featuring photorealistic finishes. Each approach has its merits.

Traditional Sketches

Speed and Spontaneity: Freehand sketches and hand drawings offer the advantage of speed and spontaneity, allowing designers and architects to quickly express their ideas.

Flexibility: They provide a canvas for creative exploration.

Traditional Method of Architectural Presentations

PowerPoint Presentations

Professional Templates: PowerPoint presentations come with pre-made, professionally-designed templates.

Multimedia Integration: The latest PowerPoint versions enable the inclusion of animations, videos, and even 3D models, enhancing the presentation’s richness.

However, both of these methods also have notable drawbacks. Freehand sketches may lack the level of detail that discerning clients seek. Conversely, creating PowerPoint presentations with too-finely visuals and precise details can be time-consuming, and require expertise in AutoCAD software for architects. At this stage, the goal is to ensure alignment between the client and the designer, not to delve into overly detailed design aspects.

Enter SketchUp

In this context, introducing the SketchUp tool into the equation for initial client meetings makes perfect sense. Two key reasons make SketchUp a compelling choice:

Visual Appeal

Visually Stunning Designs: SketchUp allows designers to effortlessly craft visually stunning designs that captivate clients.

Detailed Models

Attention to Detail: Designers can add sufficient detail to their drawings or models, showcasing their careful consideration.

Flexibility for Changes: Clients are more receptive to suggestions because they haven’t invested substantially in intricate designs, making revisions a breeze.

Three Key Features of SketchUp for Presentations

1. 3D Shapes

SketchUp 3D Modelling software supports boundless visual creativity. Utilising its Push/Pull tool, designers can effortlessly create and manipulate 3D shapes. They can enhance realism by adding colour, materials, textures, photos, and more. Components like windows, doors, and kitchen cabinets are readily available.

2. Walk-throughs

SketchUp for architecture simplifies the creation of animated walk-throughs, providing clients with a profound sense of spatial understanding. Through a feature known as Scenes, designers can set camera views inside or outside their models, saving and exporting these views as images or rendering them with plugins like VRay.

3. Geolocation

SketchUp’s Geolocation feature enables designers and architects to position their models precisely within their intended geographical context. Clients can appreciate various aspects such as the surrounding environment, sunlight direction, community influence, and more. This can be achieved by pinpointing the location on a map or entering the address into the geo-location tool.

In essence, SketchUp software is not limited to the creation of intricate 3D models; its utility can commence much earlier in the design process. It serves as a powerful visual presentation tool, enabling architects and designers to leave a unique first impression on their clients.

Conclusion

In the world of architecture, effective client communication is a cornerstone of success. SketchUp empowers designers to bridge the gap between initial concepts and client understanding through its intuitive features. By embracing SketchUp software training, architects and building designers can elevate their presentation game and embark on projects with confidence.

FAQs

1. Is SketchUp suitable for professional architects and designers?

Absolutely. SketchUp is a versatile tool that caters to both professionals and beginners in the field of architecture and design.

2. Can SketchUp handle complex 3D modelling tasks?

Yes, SketchUp is well-equipped for complex 3D modelling tasks, offering a wide range of features and plugins for advanced users.

3. Is SketchUp compatible with other design software?

Yes, the SketchUp tool allows for easy import and export of design files, making it compatible with various design software.

4. What are the system requirements for running the SketchUp 3D Modelling tool?

SketchUp has relatively low system requirements, making it accessible to a broad range of users. It can run on both Windows and macOS platforms.

5. Can SketchUp be used for architectural presentations beyond initial client meetings?

Certainly. SketchUp is a versatile tool that can be employed throughout the entire design and presentation process, from concept development to final client presentations.

The post SketchUp: The Ultimate Tool for Client-Focused Architectural Presentations first appeared on CADD Centre Resource.

Transforming Industries, One Layer at a Time

The influence of 3D printing transcends industry boundaries, leaving its indelible mark on manufacturing, healthcare, education, and, intriguingly, space exploration. Each sector harnesses the technology in unique ways, pushing the boundaries of what’s possible.

Manufacturing Marvels: Rapid Prototyping

In the realm of manufacturing, 3D printing has revolutionized rapid prototyping. Engineers and designers can now transform concepts into tangible prototypes with unprecedented speed and precision, accelerating product development cycles and spurring innovation.

Healthcare’s Personal Touch: Patient-Specific Implants

Healthcare embraces 3D printing to create patient-specific implants, enhancing the quality of life for many. Tailored prosthetics and implants, precisely customized for individual patients, exemplify the potential of this technology to improve medical outcomes.

Educating Tomorrow’s Innovators

In education, 3D printing is a transformative tool for hands-on learning. Students gain invaluable insights into design, engineering, and creativity by bringing their ideas to life in a tangible form.

Conquering Cosmic Challenges: 3D Printing in Space Exploration

Space exploration confronts a unique challenge: the constraints of the cosmos. Minimizing payload size and weight is a paramount concern, impacting mission cost, efficiency, reliability, and success. Here, 3D printing emerges as the key to unlocking the full potential of space missions.

NASA’s Pioneering Mission: 3D Printed Electronics

NASA, the United States’ space agency, recently embarked on a groundbreaking mission in April 2023. This mission sought to explore the use of 3D-printed electronic circuits in spacecraft, marking a paradigm shift in space technology.

Crafting Innovation at the Edge of Space

The mission’s highlight was a specially designed rocket, unlike any before it. This rocket carried two sensors, but not as traditional payloads. Instead, NASA employed a 3D printer to craft intricate circuits directly onto the rocket’s surface. The rocket ascended to the edge of space, reaching a staggering altitude of 174 kilometers above sea level. Throughout the journey, the sensors meticulously monitored the rocket’s performance, relaying critical data back to mission control.

Turning Surfaces into Circuitry: 3D Printing’s Potential

The results of this mission were nothing short of spectacular. 3D printing demonstrated its remarkable ability to transform virtually any surface into functional electronics. By replacing traditional circuitry, this innovation significantly reduces the space required for onboard electronics, opening doors to packing more technology into smaller spaces.

Unveiling the Future: Space-Worthy 3D Printed Materials

NASA and other space agencies are presently committed to testing the space-worthiness of 3D-printed materials for future applications. Rigorous assessments aim to determine whether these materials can withstand the harsh conditions of space, including solar radiation, extreme temperatures, and the vacuum of outer space.

The future of 3D printing in spacecraft holds immense promise, poised to revolutionize spacecraft design and construction.

The Era of Autonomous Manufacturing in Orbit

A futuristic vision is fast becoming reality. Made in Space, a US-based company, achieved a remarkable milestone by successfully launching the first 3D printed circuit into space approximately a few years ago. (Source: Made in space)

This pioneering initiative simplifies manufacturing by digitally transmitting designs to space for in-situ 3D printing. As technology advances further, innovative applications await future space missions, including crewed journeys to Mars and beyond.

Building Beyond Earth: Localised 3D Printing

In the quest for deep-space exploration and lunar habitation, 3D printing emerges as a game-changer. By utilizing local materials, 3D printing could construct habitats, reducing the need to transport massive structures from Earth. This innovation promises to reshape the future of space architecture.

Information about the European Space Agency (ESA) study on lunar 3D printing: ESA – European Space Agency

The Sky Is Not the Limit: The Boundless Potential of 3D Printing in Space

In summary, 3D printing manufacturing technology has transcended earthly boundaries, finding its place among the stars. From revolutionising manufacturing and healthcare to fostering innovation in education, this technology has left an indelible mark.

In the cosmos, 3D printing addresses the unique challenge of space constraints, redefining the way we approach space exploration.

The post NASA’s 3D Printing Revolution in Space: Innovating Beyond Gravity first appeared on CADD Centre Resource.

Congrats, You are in the right place!

Are you a mechanical engineer looking to enhance your skills and boost your career opportunities? Are you tired of searching online or asking advice from someone else to find the best design course? then you are in the right place and Look no further.

With 35+ Years of experience in engineering design field, CADD Centre strongly suggest you top industry-demand design courses that perfectly suits for mechanical engineers. Each course provides unique benefits and career opportunities for aspiring professionals. Let’s dive in!

Course 1: AutoCAD for Mechanical Engineers

Why AutoCAD Rocks for Mech Engineers

AutoCAD is the backbone of mechanical design. Its precision, versatility, and industry-wide recognition make it indispensable for mechanical engineers. With AutoCAD skills, you can create detailed 2D and 3D designs, collaborate seamlessly, and improve your productivity.

Here are some well-known companies using AutoCAD:

Aerospace: Boeing uses AutoCAD to design and manufacture aircraft parts, such as wings, fuselages, and engines. Lockheed Martin uses AutoCAD to design and manufacture spacecraft components, such as satellites and launch vehicles.

Automotive: General Motors, Ford, and Toyota use AutoCAD to design and manufacture vehicles, such as cars, trucks, and SUVs.

Industrial Machinery: Caterpillar and Siemens use AutoCAD to design and manufacture heavy machinery, such as construction equipment and power generation equipment.

Consumer Goods: Procter & Gamble and Nestlé use AutoCAD to design and manufacture packaging and products, such as diapers and food products.

Oil & Gas: ExxonMobil and Shell use AutoCAD for designing pipelines, refineries, and drilling equipment.

Shipbuilding: Hyundai Heavy Industries and Daewoo Shipbuilding use AutoCAD to design and construct ships, such as tankers, container ships, and cruise ships.

Job Prospects with AutoCAD Skills

Employers across industries value AutoCAD proficiency. Mechanical engineers with AutoCAD expertise are in high demand, with opportunities in automotive, aerospace, manufacturing, and more. Secure your future with AutoCAD certification.

Students trained in AutoCAD Mechanical find jobs in various roles, such as:

1. CAD Designer
2. CAD Technician
3. AutoCAD Draftsman
4. HVAC Designer
5. Product Development Engineer
6. 3D Modeler
7. Manufacturing Engineer

Best AutoCAD Courses to Consider

Explore CADD Centre’s AutoCAD Mechanical Software Certification Course to develop a strong foundation in AutoCAD. Gain hands-on experience in creating mechanical drawings and 3D models and become an outstanding Design Engineer.

Course 2: SolidWorks Essentials

Why Learn SolidWorks?

SolidWorks is a powerhouse for 3D modeling and product design. Its intuitive interface and parametric modeling capabilities make it a go-to choice for mechanical engineers. Dive into SolidWorks to bring your innovative ideas to life.

Here are some well-known companies using SOLIDWORKS:

Industrial Machinery: General Electric (GE) and Siemens use SolidWorks to design and manufacture industrial machinery and equipment, such as power turbines and medical scanners.

Heavy Equipment: Caterpillar and Komatsu use SolidWorks to design and manufacture heavy equipment, such as construction machinery and mining equipment.

Consumer Electronics: Apple and Samsung use SolidWorks to develop cutting-edge consumer electronics, from smartphones to laptops.

Aerospace: Lockheed Martin uses SolidWorks to design and manufacture spacecraft components, such as satellites and launch vehicles.

Consumer Goods: Procter & Gamble and Nestlé use SolidWorks for packaging and product design in the consumer goods sector.

Career Opportunities with Solidworks Skills

SolidWorks proficiency opens doors to exciting career opportunities in product design, prototyping, and simulation. Stand out in the job market with SolidWorks certification.

Students well versed in SolidWorks are placed as:

1. SolidWorks Design Engineer
2. SolidWorks Application Engineer
3. PDM Application Engineer
4. Project Engineer – SolidWorks
5. Design Engineer(Mechanical)

Top SolidWorks Essentials Courses 

CADD Centre offers comprehensive SolidWorks Software Certification and Training Course. This program equips you with the skills to create complex 3D models and simulate real-world scenarios for better product development.

Course 3: Expert Certification in Product Design

Why Learn Product Design?

Product design in mechanical engineering is the process of conceiving, creating, and refining physical products or devices, taking into account functionality, aesthetics, manufacturability, and user experience. It involves the entire lifecycle of a product, from the initial concept and design to prototyping, testing, and ultimately, manufacturing.

Learning product design in mechanical engineering equips engineers with the skills and knowledge needed to create innovative, user-centric, and market-competitive products, which is essential in today’s rapidly evolving industrial landscape.

Career Benefits of Product Design Certification

With an expert product design certification, you’ll stand out as a versatile mechanical engineer capable of bringing innovative products to market. Your skills will be sought after in industries ranging from consumer goods to medical devices.

Armed with proficient Product Design training, you can excel in the following roles with efficacy

1. Design Engineer
2. Draftsman
3. CAD Designer
4. Design Engineer – New Product Development
5. Process Design Engineer
6. Sr. Mechanical Design Engineer

Top Product Design Training 

CADD Centre offers industry-recognized Certification Programs that cover the entire Product Design lifecycle. By enrolling, you’ll gain hands-on experience with cutting-edge tools and techniques.

Course 4: MEP Design Mastery

Why Master MEP Design?

Mastering Mechanical, Electrical, and Plumbing (MEP) design is crucial for engineers involved in building services. It’s a specialized field with high demand for skilled professionals. MEP design that typically involves the use of specialized software tools such as AutoCAD and Revit MEP.

Career Opportunities with MEP Design Skills

Professionals with MEP design mastery are indispensable in the construction and building services industry. Your expertise will be in demand for designing efficient and sustainable building systems.

Students well versed in MEP Design are placed as:

1. MEP Design Engineer
2. HVAC Engineer
3. Fire Protection Engineer
4. Sustainability Engineer
5. Quality Control Engineer
6. Facilities Manager
7. Energy Analyst

Top MEP Design Mastery Courses

CADD Centre’s Master Certificate in MEP Design equips you with the knowledge and skills to excel in MEP design. You’ll learn to create energy-efficient and sustainable building systems.

Course 5: ANSYS Software (For Analysis)

Why Learn ANSYS Software?

ANSYS is a widely used simulation software suite that enables engineers and designers to perform complex simulations and analyses in various engineering fields. It stands for “Analysis System” and offers a wide range of simulation tools for tasks such as structural analysis, fluid dynamics, electromagnetics, and more.

ANSYS software plays a pivotal role in modern engineering and design by offering powerful simulation and analysis capabilities. Its importance lies in its ability to reduce development time and costs, enhance product performance and reliability, and drive innovation across various industries.

Career Benefits of ANSYS Software Training

Mechanical engineers proficient in ANSYS are highly valued in industries such as aerospace, automotive, oil & gas and manufacturing. ANSYS skills enable you to optimize designs, reduce costs, and ensure product reliability.

1. Application Engineer
2. Lead R&D Engineer
3. Engineer – FEA (Ansys)
4. FEA Engineer
5. CAE Engineer
6. Thermal Simulation Engineer

Top ANSYS Courses

Explore CADD Centre’s ANSYS Software Certification and Training Course to master finite element analysis (FEA) and computational fluid dynamics (CFD) simulations. Gain the ability to validate and optimize your mechanical designs.

Course 6: CREO Parametric (Earlier Pro-E)

Why Learn CREO Parametric?

CREO Parametric is a leading parametric 3D CAD software. It empowers mechanical engineers to create innovative product designs and streamline the product development process.

Learning CREO Parametric is a valuable investment for engineers and designers, as it equips them with the skills needed to create innovative and functional products, collaborate effectively, and excel in their careers.

Career Benefits of CREO Parametric

Proficiency in CREO Parametric enhances your employability in industries like automotive, aerospace, and consumer products. Your ability to design, simulate, and analyze complex products will be in high demand.

Here’s a list of job roles for CREO Parametric-trained professionals:

1. Design Engineer – Creo
2. Mechanical CAD Designer
3. Product Design Engineer- Creo
4. Industrial Designer

Top CREO Parametric Courses 

Enroll in CADD Centre’s CREO Parametric Certification and Training Course to become proficient in this powerful CAD software. Gain hands-on experience in creating parametric models and product assemblies.

Course 7: NX CAD Training

Why Invest in NX CAD Training?

NX CAD is a comprehensive CAD/CAM/CAE software solution. It’s known for its advanced capabilities in product design, engineering analysis, and manufacturing.

Career Benefits of NX CAD Training

NX CAD expertise is highly sought after in industries like automotive, aerospace, and machinery manufacturing. With this training, you’ll be able to design, simulate, and manufacture complex products efficiently.

1. NX Design Engineer – Mechanical
2. NX CAD Designer
3. Lead – Mechanical Design
4. CAD Designer
5. Simulation Engineer

Top NX CAD Courses 

CADD Centre’s NX CAD Software Certification and Training Course provide you with the skills needed to excel in product design and engineering analysis using NX CAD.

Bonus Add-on Course: Python for Mechanical Engineers

Python’s Role in Mechanical Engineering

Python plays a vital role in mechanical engineering as it helps engineers with numerical analysis, data handling, automation, simulations, and control systems. With its user-friendly libraries, Python simplifies tasks like data analysis, modeling, and 3D visualization, while also contributing to predictive maintenance and machine learning applications.

Its versatility and accessibility make it a valuable tool for improving productivity and facilitating innovation in mechanical system design and analysis.

Tips for Mastering Python

CADD Centre offers specialized Python Course tailored for Mechanical Engineers. These courses focus on practical applications, helping you become proficient in Python quickly.

Python Opens Doors in Mech Engineering

By mastering Python, you’ll add a valuable skill set to your toolbox. It enables you to automate repetitive tasks, analyze data, and create simulations, making you a more advanced mechanical engineer.

Conclusion:

Investing in your education is an investment in your future as a mechanical engineer. CADD Centre’s top-rated design courses provide the knowledge and skills you need to excel in your career. Whether you choose AutoCAD, SolidWorks, product design, MEP design, ANSYS, CREO Parametric, or NX CAD,  you’ll be on the path to success. Enroll today and take your mechanical engineering career to new heights with CADD Centre!

The post 7 Top-Rated Design Courses for Mechanical Engineers in 2024 first appeared on CADD Centre Resource.

Directly or indirectly, a lot of efforts in business go towards “planning and organizing tasks to achieve project goals effectively”, the stated objective of the Project Management discipline. Add IT to it, and you get a soaring software domain referred to as Enterprise Project Management or Enterprise Project Portfolio Management. 

The market is awash with many Project Management software tools. But Primavera, developed by Oracle, is clearly among the market leaders. It is widely recognised and used in industries such as construction, engineering, oil and gas, utilities, and infrastructure development that require robust project management capabilities. 

Primavera differentiators

The key features that set Primavera apart from other project management software tools include robust scheduling and comprehensive project control. The software offers powerful scheduling capabilities, allowing users to create detailed project schedules, set dependencies, allocate resources, and manage critical paths.

It enables precise project planning and tracking. Primavera makes comprehensive project control possible through features such as cost management, risk analysis, progress tracking, and performance reporting. 

Another big differentiator of Primavera is its portfolio management capabilities. The software supports enterprise-level project portfolio management (PPM), allowing organizations to prioritise and manage multiple projects and portfolios effectively. It assists in strategic decision-making and resource allocation.

Primavera Certified Professionals

As the adoption of Primavera steadily grows, professionals with specialised knowledge and skills in this software, including proficiency in Primavera P6 Enterprise Project Portfolio Management (Primavera P6 EPPM) are in great demand. Primavera professionals are typically sought after for positions such as project managers, project coordinators, project schedulers, and project control analysts. Organisations hire Primavera professionals with their eyes closed when they are certified for their in-depth knowledge of Primavera’s features, and best practices.

Mastering Primavera 

The starting point in getting Primavera training for a certification is to determine whether the specific certification aligns with your career goals and interests. Then, you can review the objectives of the certification exams and prepare for the exams. You can start the preparation by studying Primavera’s features, functionalities, and best practices using official documentation, user guides, and online resources. This will help you gain a solid understanding of Primavera’s capabilities. 

However, enrolling in formal training courses provide structured learning paths, hands-on exercises, and expert guidance to enhance your Primavera skills. Typically, any Primavera training course would cover the following topics:

Introduction to Primavera:

An overview of Primavera key features, and its role in project management:

1.  Project Setup

2. WBS (Work Breakdown Structure)

3. Activities and Tasks

4. Scheduling

5. Resource Management

6. Project Baselines

7. Project Tracking and Control

8. Reporting and Analysis

9. Risk Management

10. Portfolio Management

11. Collaboration and Integration

1.  Project Setup

In the world of project management, it all begins with setting up your project effectively. Primavera allows you to create a new project with ease. This involves

• Creating new projects: Start your project journey with Primavera by creating a new project with essential details.
• Defining project parameters: Set project parameters such as start and end dates to align with your objectives.
• Establishing project calendars: Customize working hours, holidays, and non-working hours to match your project’s schedule.

2. WBS (Work Breakdown Structure)

A Work Breakdown Structure (WBS) is the backbone of project planning. Primavera empowers you to create a WBS that offers a clear and organized view of your project’s scope through

• Hierarchical structure: Break down your project into manageable tasks using a hierarchical structure.
• Task relationships: Understand the relationships between tasks for a logical project flow.

3. Activities and Tasks

Within each work package defined in the WBS, there are specific activities and tasks that need to be carried out. Primavera allows you to define these activities in detail. You can

• Define activities and tasks: Specify activity details, durations, dependencies, and relationships.
• Logical sequencing: Ensure tasks are executed in the correct order by defining dependencies.

4. Scheduling

Creating project schedules is where Primavera shines. It enables you to

• Create schedules: Utilize Primavera’s robust scheduling capabilities to create detailed project schedules.
• Identify critical paths: Pinpoint critical paths for efficient project management.
• Schedule analysis and optimization: Analyze and optimize your project schedule for maximum efficiency.

5. Resource Management

Effective resource management is essential for project success. Primavera allows you to

• Allocate resources: Allocate labor, equipment, and materials to tasks as needed.
• Resource leveling: Optimize resource allocation to prevent bottlenecks.

6. Project Baselines

Baselines are like project snapshots that capture the initial project plan. Primavera allows you to

• Establish project baselines: Create reference points to track progress and compare against the original plan.

7. Project Tracking and Control

Project tracking and control are ongoing processes in project management. It enables you to

• Monitor progress: Keep a real-time check on project progress.
• Update schedules: Ensure schedules reflect actual progress.
• Cost tracking: Track project costs effectively.
• Change management: Manage changes seamlessly to stay on track.

8. Reporting and Analysis

Communication is key in project management. Primavera simplifies the reporting process by offering a wide range of reporting and analysis tools. You can

• Generate reports: Create various reports and visualizations for clear communication.
• Convey project status: Effectively communicate project status and performance.

9. Risk Management

Every project comes with inherent risks. Primavera includes robust risk management features to help you

• Identify and assess risks: Proactively identify and assess project risks.
• Implement mitigation: Implement risk mitigation strategies to minimize potential issues.
• Risk analysis in planning: Incorporate risk analysis into project planning for proactive risk management.

10. Portfolio Management

Portfolio management in Primavera encompasses several critical aspects that help organizations optimize their project portfolios effectively:

• Understanding EPPM concepts: Delve into the world of Enterprise Project Portfolio Management (EPPM) to streamline portfolio management.
• Managing multiple projects: Learn the art of efficiently handling and prioritizing multiple projects within Primavera.
• Optimizing resource allocation: Utilize Primavera’s resource allocation capabilities to ensure optimal resource usage across various portfolios.

11. Collaboration and Integration

Collaboration and integration are vital components of effective project management. Primavera offers extensive features in these areas:

• Exploring collaboration features: Discover the collaborative tools built into Primavera for effective teamwork.
• Integration capabilities: Understand how Primavera seamlessly integrates with a variety of systems and tools, enhancing its functionality and utility.

Primavera software evolves over time with new features, enhancements, and updates, you must stay updated with the latest capabilities. This way you can leverage new functionalities and optimise your project management processes.

Primavera Training at CADD Centre

CADD Centre offers both classroom and online courses. Conducted by experienced instructors, they involve a lot of projects for you to practise different features of Primavera software, such as scheduling, resource management, cost control, and reporting. With projects, you will gain familiarity with the software’s interface, features, and workflows, building confidence in utilizing the software effectively. Hands-on training is also important for you to actively engage with the software, practice tasks, and navigate through real-world scenarios.

To sum up, Primavera training is need to leading project management software suite, which offers specialised features and functionalities tailored to meet the specific needs of industries that rely heavily on effective project management. Hence the demand for trained and certified Primavera professionals will continue to command a premium in the job market. However, formal training and certifications are important for you as they provide credibility, marketability, and a competitive advantage in the field of project management, helping you advance your career and achieve professional success.

The post Essential Components of Primavera: Powering Project Excellence first appeared on CADD Centre Resource.

Some of the industries where Creo finds significant application include: manufacturing and industrial machinery sectors such as automotive, aerospace, consumer products, and heavy equipment. The software is also widely used in defence, for designing aircraft, spacecraft, missiles, and defence systems. 

One of the key reasons for the popularity of Creo is its ability to automate various tasks and processes involved in product design. Users can automate the creation and modification of 3D models through parameter-driven automation. They can also automate repetitive tasks, streamline design processes, and extend the functionality of Creo with programming and integrating APIs. 

Creos is Futuristic 

Creo incorporates several advanced, unique, and futuristic features and capabilities that enhance its functionality and address the evolving needs of the design and engineering industries. Some of these features include:

Generative Design:

Creo offers generative design capabilities, where users can define design parameters and constraints, and the software generates multiple design iterations based on AI algorithms. This feature helps optimise designs, reduce material usage, and improve structural efficiency.

Augmented Reality (AR) and Mixed Reality (MR):

Creo supports AR and MR technologies, allowing users to visualise and interact with 3D models in real-world environments. It enables immersive design reviews, assembly instructions, and enhances collaboration between designers, engineers, and stakeholders.

Additive Manufacturing (3D Printing):

Creo offers tools specifically tailored for additive manufacturing processes. Users can design parts with lattice structures, optimise build orientations, and generate support structures. 

Internet of Things (IoT) Integration:

Creo allows integration with IoT platforms and devices, enabling designers to create smart, connected products. Users can design and simulate IoT-enabled features, such as sensors, connectivity, and data analysis, to develop innovative products that leverage IoT capabilities.

These advanced features and capabilities make Creo a futuristic CAD software suite, empowering engineers and designers to create innovative designs, optimise product performance, and embrace emerging technologies in their product development processes.

Mastering Creo 

Learning Creo involves mastering the following key areas:

User Interface and Navigation:

Understanding the layout of the Creo interface, including the ribbon, menus, and various toolbars is the first and most essential step in learning Creo. This stage also involves learning how to navigate the workspace and access different features and commands efficiently.

Sketching and Constraints:

The next logical step is about mastering Creo’s sketching tools and techniques to create 2D profiles and defining geometric constraints to control the shape and behavior of sketches.

Part Modelling:

Leveraging the strengths of Creo requires skills related to creating and modifying 3D part models using its features such as extrusions, revolves, sweeps, and blends. This requires a firm understanding of the use of parameters and equations to drive the design.

Assembly Design:

Users need to understand the techniques to create assemblies by combining multiple part models, including component placement, constraints, and joints – besides, assembly structure, component relationships, and managing assembly hierarchy.

Parametric Design:

The most important topic in mastering Creo is knowing how to harness the power of parametric modelling by defining and managing parameters, relationships, and design intent to create flexible and easily modifiable designs.

Surface Modelling:

Creo expertise is best exemplified with an user gaining proficiency in creating and manipulating complex freeform surfaces using tools like sweeps, blends, lofts, and boundary surfaces – and also developing a strong understanding of surface continuity and quality control.

Drawing and Documentation:

Learning how to create detailed engineering drawings, including dimensioning, tolerancing, annotations, and bill of materials, and understanding drawing views, sheet formats, and plotting options, are quite essential.

Analysis and Simulation:

These are among the core capabilities of Creo. Hence, exploring the software’s analysis capabilities, such as finite element analysis (FEA), to evaluate the structural integrity, performance, and behaviour of designs under various conditions is important.

Advanced Features:

Finally, the process of mastering Creo can culminate with delving into advanced capabilities of Creo, such as advanced surfacing, sheet metal design, mechanism simulation, mold design, and additive manufacturing.

With such robust features and capabilities, Creo course can enable efficient 3D modeling, simulation, and collaboration, empowering designers to bring their creative visions to life in the rapidly evolving landscape of future design. However, mastering Creo requires practice and hands-on experience. Taking advantage of online tutorials, official documentation, and dedicated learning resources can greatly assist in building proficiency in using Creo for design purposes. But being a part of a classroom – virtual or real, and learning Creo in a structured way, especially with the help of an experienced instructor can make learning productive and effortless.  

The post Creo’s Vision for the Future of Design first appeared on CADD Centre Resource.

Developed by Parametric Technology Corporation (PTC), CREO is a popular CAD tool to create, analyze, and optimize product designs. It is a sought-after software, especially for large-scale design projects in industries such as aerospace, automotive, consumer products, and industrial equipment. As a result, CREO courses and Creo Training too have become highly popular. 

CREO was introduced in the late 80s, but its original name was “Pro/ENGINEER”. It was rechristened combining the first letters of “Creativity”, “Engineering”, and “Optimisation”. CREO has many standard features and capabilities. Most CREO training also focuses on the:

Drafting and Detailing:

It is used to create 2D engineering drawings, including dimensioning, annotations, and geometric tolerancing.

Parametric Modeling:

CREO uses a parametric approach. This means it allows users to define and control design parameters, and thus ensure that changes made to one part of the design are automatically reflected throughout the entire design. 

Assembly Design:

The software supports the creation and management of complex assemblies, allowing users to define relationships and constraints between components.

Simulation and Analysis:

CREO includes simulation tools for structural analysis, motion analysis, and finite element analysis (FEA) to validate and optimize designs.

PTC regularly releases updates and new versions of the software to enhance its functionality and address user needs. CREO has been through multiple versions –  a recent version is CREO 7.0. It was released in 2020. In the history of CREO, 7.0 marks a milestone because it introduced several pathbreaking features and enhancements. Some of them include:

Generative Design: 

Traditionally, designers used a CAD tool to create models based on their own expertise. However, CAD tools are now capable of generating designs – or suggesting design alternatives, on their own. All the engineers have to do is set parameters and define desired outcomes. 

CREO 7.0 comes with a new generative design extension called “Generative Topology Optimization.” With this option, engineers can define design constraints and goals, and let the software automatically generate optimized designs based on those criteria.

Simulation-Driven Design: 

CREO 7.0 introduced a novel idea of integrating simulation tools into the design purposes itself. What this means is that engineers can perform simulations – to validate and optimize designs, early – in the design process itself.

Multibody Design: 

CREO 7.0 also introduced the ability to work with multiple independent bodies within a single part file. This feature enables the creation of complex designs with separate components that can be assembled and manipulated individually.

Real-Time Rendering: 

The software introduced a new rendering tool called “Real-Time Ray Tracing,” allowing users to visualize their designs with realistic materials, lighting, and shadows in real time.

Additive Manufacturing Capabilities: 

CREO 7.0 improved its support for additive manufacturing (3D printing). It included features such as enhanced lattice structure design and the ability to generate supports for printing complex geometries.

What’s more, CREO 7.0 also features augmented reality (AR) capabilities for design reviews. Besides, version 7.0 sports an improved user interface, which is more intuitive, making access to various tools and navigation easier. 

Though the features are advanced, the way the software integrates them makes learning CREO 7.0 easy. Currently, CREO 7.0 courses are among the top-selling CREO courses and training programs, as there are several benefits. To begin with, it is a widely used and industry-standard parametric 3D CAD software. Hence, it increases your employability in the engineering and design fields. CREO 7.0’s robust feature set, including advanced modeling, simulation, and analysis tools, allows you to create complex designs with precision. CREO 7.0 learning also enhances your ability to work with other PTC products like Windchill for product lifecycle management. Additionally, staying up-to-date with the latest version ensures you can leverage new features, improvements, and compatibility with modern design practices. Hence, the CREO 7.0 course and training can give you a competitive edge in your career.

The post Newest Features That Make CREO 7.0 Cool and a Sought-After CAD Tool first appeared on CADD Centre Resource.

ANSYS is a leading engineering simulation software used for designing and testing products in a virtual environment. The software suite comes with sets of tools for creating digital prototypes of products and systems and for simulating their behaviour under various real-world conditions – with analysis of structural mechanics, fluid dynamics, electromagnetics, and more. Thus, the software helps in optimizing product designs, reducing development time and costs, and improving overall product performance and reliability.

ANSYS is used by many industries, but it has become increasingly popular in the global automotive industry, which is undergoing significant changes in recent years. The software is used for a wide range of applications in this sector, including design optimization, performance analysis, and safety testing. 

In response, the developers of ANSYS Software keep bringing out tools, especially for the automotive industry. Examples include ANSYS Fluent for combustion analysis and ANSYS LS-DYNA for crash simulation. The company also works with many of the leading automotive manufacturers and suppliers worldwide for special projects. In 2018, ANSYS announced a partnership with BMW to develop a simulation tool for testing autonomous vehicles, and in 2019, ANSYS announced a collaboration with Porsche to develop simulation tools for electric vehicles.

Some of the widely used applications of Ansys in the automotive industry include structural analysis, crash testing, acoustics, and fluid dynamics. The areas of applications broadly come under:

Design optimisation:

ANSYS helps automotive engineers optimise the design of various components, such as engine parts, suspension systems, and body structures. Engineers simulate the behaviour of these components in a virtual environment and identify areas for improvement for better performance, efficiency, and safety.

Performance analysis:

Automotive engineers use ANSYS to simulate – and thus evaluate, the performance of vehicles under various operating conditions, such as acceleration, braking, and turning under various digitally-created real-world environments. 

Safety testing:

ANSYS is used to simulate crash tests and evaluate the safety of vehicles. Engineers identify potential safety issues by simulating the behavior of the vehicle during a crash and make changes to improve the safety of the passengers.

Engineers use ANSYS also to evaluate the thermal behaviour of various automotive components, such as engines, transmissions, and brakes. This helps them to determine safe temperature limits for the components.

Core ANSYS Tools 

Gaining mastery of ANSYS largely depends on developing skills in a wide range of design and simulation tools of the software that are meant for various engineering applications. Here are some of the key ANSYS design and simulation tools:

ANSYS Mechanical:

It is a powerful tool for structural analysis. It is used to simulate the behaviour of structures under various loading conditions. ANSYS Mechanical thus enables engineers to optimise the design of mechanical components, such as engine parts, suspension systems, and body structures.

ANSYS Fluent:

A fluid dynamics analysis tool, it is used to simulate the behaviour of fluids, such as air and water. ANSYS Fluent helps engineers optimise the design of fluid systems, such as cooling systems, pumps, and fans.

ANSYS Electronics:

It is a suite having a collection of tools for electromagnetic analysis. It simulates the behaviour of electromagnetic systems, such as antennas, and motors. It comes in handy for optimising the design of electronic systems and for ensuring compliance with electromagnetic compatibility regulations.

ANSYS CFD:

This tool is meant for computational fluid dynamics analysis that simulates the behaviour of fluids. It aids in the optimisation of the design of fluid systems, such as combustion chambers, heat exchangers, and turbines.

ANSYS LS-DYNA:

A tool for explicit dynamics analysis, LS-DYNA is used primarily to simulate the behaviour of materials under extreme loading conditions, such as crash tests and explosions. It greatly helps engineers ensure the design of automotive components and ensure to comply with safety regulations.

These comprehensive sets of tools – used for various applications, from mechanical and structural analysis to fluid dynamics and electromagnetic analysis, make ANSYS a versatile and powerful software suite to perform advanced simulations and optimise the performance of automotive designs. 

ANSYS training by CADD Centre

CADD Centre provides Ansys training program through its centres spread over 25 countries as well as via its online learning portal. Our centres offer hands-on training sessions and workshops that cover different application areas in the automotive industry, using the latest ANSYS software and high-end hardware. Explore all popular ANSYS courses here.

 We also provide corporate training in ANSYS that is tailored to the specific needs of automotive companies. The training modules are customised to cover specific application areas or ANSYS tools and can be delivered on-site at the facilities of the companies. 

If you have aspirations to enter the automotive sector, learning the advanced design optimisation and simulation tools of ANSYS will be useful. ANSYS software training can bestow engineering professionals with the ability to accurately predict how their automotive designs will behave in real-world conditions, and thus allow them to develop vehicle models quickly and successfully.

The post From Concept to Reality: How ANSYS is Redefining Automotive Design first appeared on CADD Centre Resource.

Predicting the future of technology is always a risky business. But what could be riskier is not to have a conception of where the technology is heading. In the context of web design and development, the consensus is that the next big wave will have something to do with the integration of websites with AI and Data Science to make websites not only more responsive but also self-aware. As this scenario emerges, it would be important for students and professionals to master programming languages that are used in the development of both websites as well as AI & Data Science applications. 

Timeline and the next milestone

Web development had its beginning with the launch of the world’s first website, created about thirty years ago – on August 6, 1991, to be precise. Since then, there have been several waves of website technologies. The first websites were static, “read-only” websites. The next major development coincided with the birth of the 21st century – the New Millennium. It was the rolling out of websites with interactive features. Called, Read/Write web, these websites allowed readers to edit what was published. Today, most websites we use belong to the “Social Web”. They come with all social media features, be it the expressions of likes, comments, shares, and importantly customization features. 

AI-driven, Data Science-powered 

The ongoing quest is to create more responsive websites – not just in terms of fitting themselves with devices of various forms, but also in terms of understanding the visitors better and then delivering them more personalized content and experience. A future website can instantly know your demographic (age, gender, pain points) and psychographic (interests, aspirations, and ideologies) details. Then, it will present you with the most appropriate content that suits your needs. For a website to accomplish such magnificent tasks, it requires to be built on an AI platform and with Data Science. 

Enabling Languages 

Programming languages and databases are the tools with which websites are built. A static site can be created with simple client-side technologies such as HTML, CSS, and JavaScript. There is no need for server-side (back-end) processing. However, the popular combinations of PHP and ASP.NET, and PHP and MySQL, among others, come into the picture when the need is to build dynamic websites that need to interact with information stored in databases. These programming languages are used to create Content Management Systems like WordPress, Drupal, and Joomla.

However, whether it is website development or AI/Data Science app development, or even Enterprise Applications development, Python emerges as one of the most popular languages for coding. According to surveys, over 50% of students and professionals who learn python to code and develop products prefer Python. 

Hugely popular social and e-commerce platforms such as Instagram and Spotify are built on Python. These sites allow users to edit, store, and share content like photographs. Significantly, they come incorporated with data analytics to offer more personalized content and experience.

Python Capabilities 

Python appeared as a new kid in the block in the 90s. Soon after its launch, it became an open-source project. It continues to enjoy the patronage of a large and growing number of developers who as a community are committed to constantly improving the language’s capabilities.

In web development, Python is extensively used as a server-side scripting language. The key reason is the language’s simple syntax which makes it relatively faster to develop programs. Python code responds to user actions by executing the most appropriate program algorithms. It also supports the graphical user interfaces required in web development.

Python is a top language for developing Machine Learning, AI, and Data Science applications. The key factor is Python’s growing library of pre-written codes that eliminate the need to reinvent the wheel. The libraries also greatly enable continuous data processing in ML projects and data analysis.

Python Training and Courses 

Learning Python is a pleasure. For, it is similar to the English language. The learning curve is short. Even people with limited technical backgrounds can also learn it quickly. Since Python is used in a variety of software domains, from web development to AI to software testing, there are many different Python training programs and courses that cover specific Python capabilities.

Many Python certification programs also cover programming styles – be it procedural, object-oriented, or functional. There are Python training programs also on Python web development frameworks such as Django and Pyramid that simplify the development process. 

Going by the trends of integration of AI and Data Science with web development, embracing Python will undoubtedly be the best bet for students and professionals to thrive in the web development jobs of today, while also equipping oneself for future career demands in this domain. Python proficiency also provides the option for professionals to get exposure in multiple programming spheres that straddle between web development and AI/ML and Data Science integration.

The post Why Python Can Future-Proof Web Development Careers first appeared on CADD Centre Resource.

Discover the Latest Advancements and Opportunities in SolidWorks Designing

Do you want to improve your SolidWorks skills as a student or a working person? Would you like to learn more about the most recent developments in SolidWorks design? This blog post is for you if the answer is yes. In this post, we’ll talk about SolidWorks’ cutting-edge design options and how you may use them to your advantage.

Why Solidworks?

Engineers and designers frequently utilize SolidWorks, a popular computer-aided design (CAD) program, to build 3D models and simulations. It is extensively employed in sectors like consumer goods, medical gadgets, aircraft, and transportation. A variety of tools and capabilities provided by SolidWorks enable designers to quickly produce intricate models. SolidWorks has something to offer everyone, whether you are a novice or an expert user. It’s time to refresh your design knowledge on Solidworks 2022 since the Solidworks 2023 update is only a few months away.

New Features in SolidWorks

In order to stay on top of the most recent market trends, SolidWorks continually upgrades its software with new features and capabilities. SolidWorks 2022, the most recent edition, contains a number of new features, including:

Improved Simulation Capabilities:

Better simulation capabilities enable designers to correctly predict the behavior of their systems by simulating complicated scenarios.

Assembly Structure System:

SolidWorks 2020 marked the official release of the Assembly Structure System. Designers may arrange intricate assemblies in a more effective and logical manner thanks to this functionality. You may use this functionality to organize similar parts and subassemblies into folders and subfolders. An structured assembly system reduces mistakes and saves time by making it simpler to traverse and handle complicated assemblies.

Simplified User Interface:

SolidWorks is now accessible with a simplified user interface, making it simpler for users to explore the program and quickly discover the capabilities you want.

Mesh Modeling:

This feature makes it simpler to design intricate organic structures. Using this tool, you may manipulate the mesh geometry to produce intricate forms. This is especially helpful in sectors like automotive and consumer goods, where you need distinctive geometric designs.

Topology Study:

Another interesting feature that’s fairly new is Topology Study. With this, designs for weight and strength may be made. You may model the stresses and strains placed on their designs to find potential areas for weight-reduction optimization. This is especially helpful in sectors like aerospace and automotive, where reducing weight is essential for increasing productivity and efficiency.

Let’s examine the innovative designs we can produce with these newest SolidWorks capabilities in more detail, as well as how a properly-designed curriculum may aid in your development of these abilities to the fullest. 

Innovative Design Possibilities with SolidWorks

When it comes to innovative design concepts, SolidWorks provides countless alternatives. SolidWorks’ variety of tools and capabilities make it simple to produce intricate and detailed models fast and effectively. Innovative design options using SolidWorks include the following:

Design optimization:

SolidWorks provides simulation tools that enable designers to enhance the performance and effectiveness of their designs. Design optimization aids in the production of goods that are both economical and up to consumer standards.

Advanced Surfacing:

It provides powerful surfacing capabilities that enable designers to produce intricate, organic structures. In sectors like automotive and consumer goods, where items must have appealing looks, this trait is helpful.

Additive Manufacturing:

SolidWorks provides tools that enable designers to produce models for additive manufacturing. By adding layers of material rather than removing them, objects are made using the additive manufacturing technique. It is frequently utilized in fields like aerospace and medical equipment, which need complicated geometry.

Collaboration:

While utilizing SolidWorks, you may easily collaborate with your design team. The project may be easily collaborated on in real-time thanks to cloud-based design sharing. This feature enables increased designer cooperation, which improves design outputs. They may pool their knowledge and experience in real time by working together on the cloud-based system, leading to better designs and more creative solutions.

If you want to improve your SolidWorks designing skills, you can enroll in our SolidWorks certification course. This course is designed for both beginners and experienced users and covers topics such as 3D modeling, simulation, rendering, and assembly design. The course is available online and in person, and offers hands-on experience with the software.

Wrapping Up!

In today’s fast and competitive world, innovative design is crucial. Designers may push their limits and consider novel options with SolidWorks. SolidWorks provides a variety of tools and capabilities that may assist designers in achieving their creative design goals, from design optimization to advanced surfacing and additive manufacturing. 

SolidWorks is a powerful CAD program that provides countless options for creative design. SolidWorks gives designers the tools and functionality they need to quickly produce intricate models. Your professional abilities can be enhanced by obtaining a SolidWorks certification and registering for Advanced SolidWorks Training. Additionally, it makes you more marketable as a designer with in-depth knowledge of the program. 

The post SolidWorks: Exploring New Possibilities first appeared on CADD Centre Resource.