The Fascinating History of Mechanical Engineering: From Ancient Inventions to Modern Marvels
The field of mechanical engineering has a long and fascinating history that dates back to ancient civilizations. From the development of simple machines like the lever and the wheel to the complex machinery of today, mechanical engineering has played a crucial role in shaping the world we live in.
One of the earliest examples of mechanical engineering can be traced back to ancient Egypt, where engineers developed a system of pulleys and levers to lift heavy objects, such as blocks of stone for construction. The Greeks also made significant contributions to the field, with the mathematician Archimedes developing the principles of leverage and the inventor Hero of Alexandria creating a series of automated machines powered by steam.
During the Industrial Revolution of the 18th and 19th centuries, mechanical engineering saw tremendous advancements, with the development of new machinery and technologies that revolutionized manufacturing and transportation. This included the steam engine, which greatly increased the efficiency of factories and spurred the development of the railway system.
As the field continued to evolve, mechanical engineers began to focus on designing and building complex systems, such as automobiles, airplanes, and power plants. In the 20th century, the development of computers and advanced materials led to even more innovations, including space exploration and medical devices.
Today, mechanical engineering remains a vital field, with engineers working on a wide range of projects, from designing energy-efficient buildings to developing renewable energy sources. With the rapid pace of technological advancement, the future of mechanical engineering looks bright, as engineers continue to push the boundaries of what is possible.
From its humble beginnings in ancient civilizations to its modern-day innovations, the history of mechanical engineering is a testament to the ingenuity and creativity of engineers throughout the ages. It's an exciting field that has played a key role in shaping the world we live in and will continue to do so in the future.
Which One is Better? Electrical Engineering vs Mechanical Engineering
Mechanical engineering and electrical engineering are two popular fields of study in the field of engineering. Both fields are focused on designing, building, and testing machines and systems, but they have some key differences.
Mechanical engineering is focused on the design and construction of mechanical systems, such as engines, machines, and other mechanical devices. These systems often involve the use of moving parts and mechanical energy. Mechanical engineers work on a wide range of projects, including the design of aircraft, automotive systems, and manufacturing equipment.
Electrical engineering, on the other hand, is focused on the design and construction of electrical systems, such as power systems, electronic devices, and control systems. These systems often involve the use of electricity and electronic devices, such as computers and circuit boards. Electrical engineers work on projects such as the design of electrical systems for buildings, the development of new electronic devices, and the design of control systems for machines.
Both mechanical and electrical engineering require strong math and science skills, as well as problem-solving abilities. However, the specific skills and knowledge required for each field may differ. For example, mechanical engineering may require more knowledge of materials science and mechanical principles, while electrical engineering may require more knowledge of electronics and electrical principles.
Ultimately, the decision between mechanical engineering and electrical engineering may come down to personal interests and career goals. Both fields offer a wide range of exciting and challenging career opportunities, so it's important to carefully consider your interests and goals before making a decision.
5 Reasons Why you Should Not Choose Mechanical Engineering
Before we begin, it's important to note that mechanical engineering is a challenging and rewarding field, and it can be a great choice for many people. However, it's not for everyone, and it's important to carefully consider your interests and goals before making a decision.
Now, let's discuss some of the reasons you may want to consider other fields.
First, mechanical engineering can be a very demanding field, both in terms of the amount of time and effort required to succeed. It requires a strong foundation in math and science, as well as a willingness to work long hours and put in extra effort to understand complex concepts. If you're not prepared to commit to this level of work, it may not be the right choice for you.
Second, the job market for mechanical engineers can be competitive, especially in certain industries or geographic locations. While the demand for mechanical engineers is generally strong, it can be challenging to find a job or advance in your career if you're not willing to relocate or put in the extra effort to stand out from the crowd.
Finally, mechanical engineering can be a physically demanding field, as it often involves working with heavy machinery and equipment. If you're not comfortable working in these types of environments, or if you have physical limitations that might make it difficult for you to perform these types of tasks, it may not be the best fit for you.
In conclusion, while mechanical engineering can be a rewarding and challenging career, it's not for everyone. It requires a strong foundation in math and science, a willingness to work long hours and put in extra effort, and the ability to work in physically demanding environments. If these things don't align with your interests and goals, it may be worth considering other fields.
Thank you for reading this article. We hope this article has helped you make an informed decision about your career path.
5 Reasons Why You Should Choose Mechanical Engineering
Mechanical engineering is a diverse and exciting field that encompasses the design, analysis, and manufacture of a wide range of products and systems. From automobiles and airplanes to medical devices and power plants, mechanical engineers play a vital role in creating the technologies that drive our world.
But what makes mechanical engineering such a great career choice? Here are a few reasons: Versatility: Mechanical engineers can work in a wide range of industries, including manufacturing, transportation, energy, healthcare, and more. This means that you'll have plenty of opportunities to find a career path that aligns with your interests and passions.
Impact: Mechanical engineers have the ability to make a real difference in the world through their work. Whether you're designing a more efficient energy system or developing a medical device that improves people's lives, you'll be able to contribute to important projects that make a positive impact. Growth: The demand for mechanical engineers is expected to grow significantly in the coming years, with job opportunities expected to increase by 5% between 2019 and 2029. This means that you'll have a good chance of finding a rewarding and stable career in the field.
Diversity: Mechanical engineering is a field that is constantly evolving, and there is a wide range of specialties to choose from. Whether you're interested in robotics, mechatronics, or biomedical engineering, you'll be able to find a niche that aligns with your interests and skills.
Overall, mechanical engineering is a rewarding and exciting field that offers a wide range of career opportunities and the chance to make a positive impact on the world. If you're interested in solving real-world problems and creating new technologies, mechanical engineering may be the perfect career path for you. So, these are the few reasons why you should choose mechanical engineering as your career.
Designing a 3D tyre in Creo Parametric can be a challenging task, but with the right approach and tools, it can be done effectively and efficiently. In this blog post, we will go through the steps involved in designing a 3D tyre using Creo Parametric, and we will also discuss some best practices for SEO optimization.
Step 1: Start a new project in Creo Parametric
To begin designing a 3D tyre in Creo Parametric, the first thing you will need to do is start a new project. To do this, open Creo Parametric and click on the "File" menu, then select "New" and choose "Part" from the list of options. This will create a new, blank part file that you can use to design your tyre.
Step 2: Define the tyre's dimensions and parameters
Before you start building the tyre's geometry, you will need to define its dimensions and parameters. This includes the tyre's width, height, and diameter, as well as its tread pattern and sidewall design. You can do this by using the "Dimension" and "Parameter" tools in Creo Parametric, which allow you to specify the values of these parameters and dimensions.
Step 3: Create the tyre's geometry
Once you have defined the tyre's dimensions and parameters, you can start building the tyre's geometry. To do this, you will need to use a variety of tools and techniques, including extrude, revolve, sweep, and loft. These tools allow you to create the various features of the tyre, such as the tread pattern, sidewall, and bead
Step 4: Add material properties and simulations
After you have created the tyre's geometry, you will need to assign material properties and run simulations to ensure that the tyre performs as intended. You can do this using the "Material" and "Simulation" tools in Creo Parametric, which allow you to specify the tyre's material properties and run simulations to test its performance.
Mechanical Engineering and Computer-Aided Design: An Overview
Mechanical engineering is a field that involves the design, production, and operation of machinery. It is a broad field that encompasses a wide range of subdisciplines, including materials science, thermodynamics, fluid mechanics, and robotics.
One important aspect of mechanical engineering is computer-aided design (CAD). CAD is the use of computer software to create, modify, analyze, and optimize designs. It allows engineers to quickly and accurately create detailed plans and drawings for manufacturing processes and products.
There are many different types of CAD software available, each with its own set of features and capabilities. Some popular examples include AutoCAD, SolidWorks, and Inventor. These software programs allow users to create 3D models and drawings of parts and assemblies, as well as simulate their performance and behaviour.
CAD software has revolutionized the way that mechanical engineers design and manufacture products. It has greatly increased the speed and accuracy of the design process, allowing engineers to quickly and easily make changes and test different design options. It has also allowed for more complex and sophisticated designs, as the software can handle the calculations and simulations needed to analyze these designs.
One major benefit of using CAD software is that it can reduce the need for physical prototypes. Instead of building a physical model and testing it, engineers can use CAD software to simulate the performance and behavior of a design. This can save time and resources, as well as reduce the risk of design errors.
Another important aspect of mechanical engineering is materials science. Materials science is the study of the properties and behavior of different materials, such as metals, plastics, and ceramics. It is an important field for mechanical engineers, as the choice of material can greatly affect the performance and durability of a product.
Mechanical engineers must also be familiar with thermodynamics, which is the study of heat and its relationship to work and energy. This is important for understanding how different systems and machines will behave under different conditions, such as temperature and pressure.
CAD software can be used to simulate the performance and behavior of a design, including how it will respond to different thermodynamic conditions. This can be especially useful when designing systems that involve heat transfer, such as engines or HVAC systems.
For example, an engineer designing an engine might use CAD software to simulate how the engine will perform under different temperatures and load conditions. This can help them optimize the design for maximum efficiency and performance.
Overall, the combination of thermodynamics and CAD is an important tool for mechanical engineers. It allows them to design and analyze systems that involve heat and energy, and to optimize these systems for maximum performance.
Fluid mechanics is another important field for mechanical engineers. It involves the study of liquids and gases, and how they flow and interact with solid surfaces. This is important for understanding how fluids will behave in different situations, such as in pipes or in the air.
Computer-aided design (CAD) is a powerful tool that is widely used in the field of fluid mechanics. Fluid mechanics is the study of liquids and gases, and how they flow and interact with solid surfaces. It is an important field for mechanical engineers, as it helps them understand how fluids will behave in different situations, such as in pipes or in the air.
CAD software can be used to create detailed 3D models and drawings of fluid systems, such as pipes and pumps. These models can be used to visualize the flow of fluid through the system, and to analyze how the system will behave under different conditions.
One common use of CAD in fluid mechanics is the design of piping systems. Engineers can use CAD software to create detailed models of piping layouts and to analyze the flow of fluid through the pipes. This can help them optimize the design for maximum efficiency and performance.
CAD software can also be used to simulate the behavior of fluids in different situations. For example, an engineer might use CAD to simulate the flow of fluid through a pump or through a heat exchanger. This can help them understand how the system will behave under different conditions and optimize the design accordingly.
Robotics is another important area of mechanical engineering. Robotics involves the design and development of robots and robotic systems. These systems can be used in a variety of applications, including manufacturing, transportation, and healthcare.
One major use of CAD in robotics is the design and prototyping of robotic components and systems. Engineers can use CAD software to quickly and easily create models of robotic parts, such as joints, actuators, and sensors. They can then analyze and optimize these designs using simulations, which can save time and resources by reducing the need for physical prototypes.
CAD is also useful for the design of robot end effectors, which are the tools or devices that robots use to interact with their environment. These could include grippers, welders, or even medical instruments. Engineers can use CAD software to design and analyze these end effectors, ensuring that they are able to perform their intended tasks effectively.
In addition to design and prototyping, CAD is also used in the manufacturing process for robots. Detailed 3D models and drawings created using CAD can be used to generate precise manufacturing instructions and guides for the production of robotic components and systems.
CAD is an essential tool for the design and development of robots and robotic systems. It allows engineers to quickly and easily create detailed models and drawings, and to analyze and optimize their designs using simulations.
Overall, mechanical engineering is a multifaceted field that involves the design, production, and operation of machinery. It encompasses a wide range of subdisciplines, including materials science, thermodynamics, fluid mechanics, and robotics. The use of CAD software has greatly increased the speed and accuracy of the design process, and the use of simulations has reduced the need for physical prototypes. Mechanical engineering plays a vital role in many industries and is an important field for the development of new technologies.
Are you a mechanical engineer looking for high-paying job opportunities? In this video, we'll be discussing the top countries that offer the highest salaries for mechanical engineers. From the United States to Switzerland, we'll cover all the details you need to know about the highest paying countries for mechanical engineers. We'll also touch on factors that can impact salaries, such as the cost of living and demand for mechanical engineering skills in each country. So if you're looking to boost your earning potential as a mechanical engineer, be sure to watch this video.
The highest paying countries for mechanical engineers vary depending on a number of factors, including the demand for mechanical engineering skills in the country, the cost of living, and the overall prosperity of the economy. some countries that are known for high salaries for mechanical engineers include:
United states: mechanical engineers in the united states earn an average salary of around $92,800 per year.
Switzerland: mechanical engineers in switzerland earn some of the highest salaries in the world, with an average salary of around chf 121,000 (approximately $129,600) per year.
Denmark: mechanical engineers in denmark earn an average salary of around dkk 579,000 (approximately $90,700) per year.
Sweden: mechanical engineers in sweden earn an average salary of around sek 565,000 (approximately $65,700) per year.
Canada: mechanical engineers in canada earn an average salary of around cad 87,000 (approximately $66,400) per year.
it's important to note that these figures are just estimates and can vary widely depending on a variety of factors, including an individual's level of experience, education, and job location. it's always a good idea to research salary data for specific job positions and locations before making any career decisions.
101 Ideas for Mechanical Engineering Final Year Project FYP
Mechanical engineering is a branch of engineering that focuses on the design and manufacture of mechanical systems. It is a wide-ranging field that encompasses many different disciplines and areas of expertise. From robotics and automation to materials science and energy production, mechanical engineering covers a broad spectrum of topics. This list of 101 project ideas provides a wealth of potential projects for the senior mechanical engineering students to explore from. From designing and creating a new engine prototype to developing a new type of medical device, these project ideas are sure to spark creativity and provide a great foundation for successful engineering projects. Here are 101 ideas for a final year project (FYP) for a mechanical engineering student:
101 Ideas for Mechanical Engineering Final Year Project FYP
Design and fabricate a solar-powered water pumping system for irrigation
Develop a prototype for a hybrid electric car
Design and build a small-scale wind turbine
Create a kinetic energy recovery system (KERS) for a race car
Develop a computer-aided design (CAD) program for customizing and 3D printing prosthetic limbs
Design and fabricate a biofuel production plant
Create a prototype for a hydroelectric power plant
Design and build a small-scale hydrogen fuel cell system
Develop a control system for a robotic arm
Create a prototype for a geothermal heating and cooling system
Design and fabricate a wave energy converter
Develop a prototype for a tidal energy generator
Create a computer-aided manufacturing (CAM) program for CNC machining
Design and build a miniature hydroelectric power plant for a small community
Develop a control system for a drone
Create a prototype for a hybrid solar-wind power system
Design and fabricate a small-scale biogas production plant
Develop a control system for a self-driving car
Create a prototype for a geothermal power plant
Design and build a small-scale hydrogen fuel cell system for a community
Develop a control system for a robotic exoskeleton
Create a prototype for a hybrid electric-hydrogen fuel cell car
Design and fabricate a small-scale geothermal heating and cooling system
Develop a control system for a humanoid robot
Create a prototype for a tidal energy generator
Design and build a small-scale wave energy converter
Develop a control system for a drone swarm
Create a prototype for a hybrid solar-hydrogen fuel cell power system
Design and fabricate a small-scale biofuel production plant
Develop a control system for a self-driving truck
Create a prototype for a geothermal-solar hybrid power plant
Design and build a small-scale hydroelectric power plant for a remote community
Develop a control system for a space rover
Create a prototype for a hybrid wind-hydrogen fuel cell power system
Design and fabricate a small-scale geothermal power plant
Develop a control system for a service robot
Create a prototype for a hybrid solar-tidal energy system
Design and build a small-scale wave energy converter for a remote community
Develop a control system for a self-driving boat
Create a prototype for a hybrid solar-wind-hydrogen fuel cell power system
Design and fabricate a small-scale geothermal heating and cooling system for a remote community
Develop a control system for a space elevator
Create a prototype for a hybrid solar-tidal-hydrogen fuel cell energy system
Design and build a small-scale hydroelectric power plant for a remote island
Develop a control system for a self-driving train
Create a prototype for a hybrid solar-wind-tidal energy system
Design and fabricate a small-scale biofuel production plant for a remote community
Develop a control system for a self-driving bus
Create a prototype for a hybrid solar-wind-hydro power system
Design and build a small-scale hydrogen fuel cell system for a remote community
Can't select one from the list of ideas for your final year project? Well, do you want to get the next 51 ideas in the 101 Ideas for Mechanical Engineering Final Year Project FYP? Then subscribe to our mailing list or follow us on your favourite social media platform.
5 Steps in Product Design with Solidworks | the Mechanica
The "5 steps in product design with SolidWorks" video is a tutorial or educational video that teaches viewers how to use the SolidWorks software to design a product. SolidWorks is a computer-aided design (CAD) program that is commonly used in the engineering and manufacturing industries for creating detailed 3D models of products and components.
In this video, the instructor walk viewers through the process of designing a product using SolidWorks, starting with the initial concept and sketching phase. They demonstrate how to use the software's various tools and features to create accurate 3D models, add dimensions and annotations, and simulate real-world conditions to test the design.
The video also covers topics such as how to import and export designs, collaborate with team members, and create technical drawings and other documents for manufacturing and assembly.
By the end of the video, viewers should have a solid understanding of the product design process using SolidWorks and be able to create their own designs with confidence.
5 Steps in Product Design with Solidworks
1. Initial concept design: The initial concept design phase is the first step in the product design process, where designers and engineers come up with ideas and concepts for a new product or product update. This phase usually involves a lot of brainstorming and sketching to explore different design options and concepts. The goal of this phase is to identify the main features and benefits of the product, and to define the overall look and feel of the product.
2. Sketches and drawings: Once the initial concept has been developed, the next step is to create sketches and drawings of the product. This may involve using manual drawing techniques, such as pencil and paper, or using computer-aided design (CAD) software, such as SolidWorks or AutoCAD. The sketches and drawings should be detailed and accurate, and should include all of the necessary dimensions and specifications for the product.
3. Prototyping: After the sketches and drawings have been completed, the next step is to create a prototype of the product. A prototype is a physical model of the product that is used to test and refine the design. Prototyping can be done using a variety of methods, such as 3D printing, injection molding, or hand-making the prototype using materials such as foam or cardboard. Prototyping allows designers to test the product's functionality and performance, and to make any necessary changes or improvements to the design.
4. Consumer feedback: Once the prototype has been created, it is important to get feedback from consumers to see how the product is perceived and received. This can be done through focus groups, surveys, and other methods of gathering feedback. This step is important because it allows designers to make any necessary changes to the product based on consumer preferences and needs.
5. Final product: After gathering consumer feedback and making any necessary changes to the design, the final product is ready to be produced and sold. This may involve creating manufacturing and assembly documents, sourcing materials and components, and setting up production processes. The final product should be of high quality and meet all of the desired specifications and requirements.
SolidWorks is a computer-aided design (CAD) program that is commonly used in the engineering and manufacturing industries for creating detailed 3D models of products and components.
Salary of a Mechanical Engineer! How much a Mechanical Engineer Makes?
Mechanical engineering is one of oldest and most popular discipline among engineers. Economic prospective vary according to the location of a Mechanical Engineer. For example a mechanical engineer's average salary in Pakistan is just 46,000 Pakistani rupees (US$ 205),
According to Indeed.com! In India its 39,000 Indian rupees(US$ 482). Whereas in the United States a mechanical engineer earns an average of US$5,668 a month.
Salary of a Mechanical Engineer
In this post I have complied the annual average salaries of mechanical engineers around the world in different countries. Want to know which country pays the most to mechanical engineers?
How much a Mechanical Engineer Makes?
Pakistan
Here mechanical engineers make an average of 2976 dollars a year.
India
An Indian mechanical engineers make an average of 6533 dollars a year.
China
A Chinese mechanical engineers make an average of 17032 dollars a year.
Japan
Here mechanical engineers make an average of 33419 dollars a year.
United Kingdom
Here mechanical engineers make an average of 42954 dollars a year.
Canada
In Canada a mechanical engineers makes an average of 71418 dollars a year.
Germany
German mechanical engineers are ranked second highest and make an average of 72446 dollars a year.
United States of America
Yes, the US is where a mechanical engineer paid the most compared to rest of the world, with an average salary of 80172 dollars a year.
Are you a Mechanical Engineer? Or you know a Mechanical Engineer? Share your (or theirs's) Salary in the comments!
Top 10 3D Design Software for Mechanical Engineers
Designing and prototyping is a major part of a mechanical engineer's job. For this purpose mechanical engineers need to know at least one 3D CAD (Computer Aided Design) software. Here are the top ten 3D design software for mechanical engineers.
Top 10 3D Design Software for Mechanical Engineers
Fusion 360
Fusion 360 is a great CAD software tool developed by Autodesk. This a cloud-based program, that will allow you to improve your teamwork thanks to better communication around your mechanical projects. This program has advanced software tools, you will be able to work on solid modeling, mesh modeling and parametric modeling.
KeyCreator
KeyCreator is a geometry centered 3D modeling software tool, perfect to create your 3D design concepts. KeyCreator offers direct CAD modeling, 2 and 3 axis machining and a flexible design strategy.
Inventor
Inventor is one of the best modeling software tools available on the market to design your mechanical projects: Inventor. It has various modeling options and great simulation tools. No doubts, this CAD software solution will help you to improve your performance.
Solid Edge
Solid Edge is developed by Siemens. It is the perfect 3D software for engineers for complex projects but also to give shape quite quickly to your ideas. It has a great 2D orthographic view functionality, really convenient for mechanical designers. It also has powerful engineering simulation capabilities for Computer-Aided Engineering.
NX
NX is another program developed by Siemens PLM Software, it is allowing to work on conception, simulation, and manufacturing. Their goal: improving your production process with an efficient program, offering a complete toolset perfectly matching your expectations.
SolidWorks
SolidWorks is the perfect 3D modeling software for engineers and 3D designers. SolidWorks is a powerful and complete tool that will help designers and engineers to build innovative mechanical models. This 3D software has a user friendly interface and can be used for design, or to create machinery parts, for example. It will perfectly fit engineering students looking for a great tool to make mechanical drawings!
CATIA
Catia is a professional software tool developed by Dassault Systèmes. Mostly used for aerospace projects, this program is particularly useful for complex and detailed designs. With this program, you can actually work on any product. If you are an engineer, it will perfectly meet your expectations to create your 3D CAD models, and it is really perfect for mechanical engineering projects.
Creo Parametric
Formerly Pro E, also known as PTC Creo. Creo Parametric is developed by Parametric Technology Corporation and is an engineering design software tool. It is 3D CAD software providing assembly modeling, finite element analysis, NURBS surface modeling, but also great features dedicated to mechanical designers. This is a good and complete software solution to do some rapid prototyping for your mechanical parts, but also to produce your end-use products.
Mathematica
Mathematica is a technical computing system that could totally allow you to create solid parts for your future 3D printed mechanical parts. It is offering advanced features, such as 2D and 3D data visualization, function and geo-visualization and animation tools. This program is particularly convenient for any scientific, mathematical or engineering project.
Alibre
Alibre is a parametric CAD software tool dedicated to mechanical systems. It is possible to use this 3D program to create quite complex parts. This mechanical software solution also has a good rendering tool.
Top ten 3D Design Software for Mechanical Engineers
Designing and prototyping is a major part of a mechanical engineer's job. For this purpose mechanical engineers need to know at least one CAD (Computer Aided Design) software. Here are the top ten CAD softwares for mechanical engineers.
Top 10 CAD Softwares for Mechanical Engineers
Fusion 360
Fusion 360 is a great CAD software tool developed by Autodesk. This a cloud-based program, that will allow you to improve your teamwork thanks to better communication around your mechanical projects. This program has advanced software tools, you will be able to work on solid modeling, mesh modeling and parametric modeling.
KeyCreator
KeyCreator is a geometry centered 3D modeling software tool, perfect to create your 3D design concepts. KeyCreator offers direct CAD modeling, 2 and 3 axis machining and a flexible design strategy.
Inventor
Inventor is one of the best modeling software tools available on the market to design your mechanical projects: Inventor. It has various modeling options and great simulation tools. No doubts, this CAD software solution will help you to improve your performance.
Solid Edge
Solid Edge is developed by Siemens. It is the perfect 3D software for engineers for complex projects but also to give shape quite quickly to your ideas. It has a great 2D orthographic view functionality, really convenient for mechanical designers. It also has powerful engineering simulation capabilities for Computer-Aided Engineering.
NX
NX is another program developed by Siemens PLM Software, it is allowing to work on conception, simulation, and manufacturing. Their goal: improving your production process with an efficient program, offering a complete toolset perfectly matching your expectations.
SolidWorks
SolidWorks is the perfect 3D modeling software for engineers and 3D designers. SolidWorks is a powerful and complete tool that will help designers and engineers to build innovative mechanical models. This 3D software has a user friendly interface and can be used for design, or to create machinery parts, for example. It will perfectly fit engineering students looking for a great tool to make mechanical drawings!
CATIA
Catia is a professional software tool developed by Dassault Systèmes. Mostly used for aerospace projects, this program is particularly useful for complex and detailed designs. With this program, you can actually work on any product. If you are an engineer, it will perfectly meet your expectations to create your 3D CAD models, and it is really perfect for mechanical engineering projects.
Creo Parametric
Formerly Pro E, also known as PTC Creo. Creo Parametric is developed by Parametric Technology Corporation and is an engineering design software tool. It is 3D CAD software providing assembly modeling, finite element analysis, NURBS surface modeling, but also great features dedicated to mechanical designers. This is a good and complete software solution to do some rapid prototyping for your mechanical parts, but also to produce your end-use products.
Mathematica
Mathematica is a technical computing system that could totally allow you to create solid parts for your future 3D printed mechanical parts. It is offering advanced features, such as 2D and 3D data visualization, function and geo-visualization and animation tools. This program is particularly convenient for any scientific, mathematical or engineering project.
Alibre
Alibre is a parametric CAD software tool dedicated to mechanical systems. It is possible to use this 3D program to create quite complex parts. This mechanical software solution also has a good rendering tool.
