Thanks to this Postgraduate diploma you will create and interpret plans of physical objects with the most modern digital tools"

With the rise of new technologies, the processes for drawing up plans have been affected. At the same time, most organizations have at their disposal various mechanisms to design graphic elements and achieve accuracy during manufacturing processes. Among its advantages is the contribution of greater efficiency, since possible faults can be detected and corrected before reaching the manufacturing stage. Therefore, it is not surprising that more and more companies are looking to integrate Mechanical Design professionals into their organization to interpret and create drawings using the most advanced digital tools.

In this context, TECH has an innovative program of studies to enable students to develop and interpret all types of plans. To achieve this, the curriculum addresses in detail the different motion transformation systems and CAD applications in engineering. It also emphasizes the finite element method so that graduates can successfully evaluate the feasibility of designs and projects. Thus, the students of this academic itinerary have a unique opportunity to broaden their skills in

Computer Aided Design and will be able to make the leap to the most prestigious companies in the sector.
On the other hand, the university program has a 100% online methodology so that the engineer can complete the program comfortably. You will only need a device with Internet access to deepen your knowledge in a sector that offers many job opportunities. In addition, the syllabus is based on the innovative Relearning method: a teaching system based on repetition, which ensures that the knowledge is acquired in a natural and progressive way, without the effort memorization.

You will master, through this program, motion transformation systems and CAD applications in engineering”

This Postgraduate diploma in Computer Assisted Mechanical Design contains the most complete and up-to-date program on the market. The most important features include: 

• The development of case studies presented by Postgraduate Diploma experts in Computer Aided Mechanical Design
• The graphic, schematic and practical contents with which it is conceived provide cutting- Therapeutics and practical information on those disciplines that are essential for professional practice
• Practical exercises where the self-assessment process can be carried out to improve learning
• Its special emphasis on innovative methodologies
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments
• Content that is accessible from any fixed or portable device with an Internet connection

You will delve into finite elements and their feasibility to develop successful Mechanical Designs"

The program’s teaching staff includes professionals from the sector who contribute their work experience to this training program, as well as renowned specialists from leading societies and prestigious universities.

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide immersive education programmed to learn in real situations.

This program is designed around Problem-Based Learning, whereby the professional must try to solve the different professional practice situations that arise during the academic year For this purpose, the students will be assisted by an innovative interactive video system created by renowned and experienced experts.

Expand your skills and become an expert in Computer Aided Mechanical Design"

You will have the support of a teaching team made up of professionals in the mechanical sector"

This academic itinerary is supported by a teaching team of international prestige. In this sense, the specialists have extensive professional experience in the field of Computer Aided Mechanical Design. For this reason, the training has the most renewed and updated resources in this field to guarantee successful learning. In this way, students will broaden their knowledge and obtain key competencies that will allow them to enter professionally in a sector that offers numerous job opportunities.

Access the cutting-edge content of this program through multimedia resources such as how-to videos and interactive overviews and interactive summaries"

Module 1. Mechatronics Engineering Machines and Systems

1.1. Motion transformation systems

1.1.1. Complete circular transformation: reciprocating circular
1.1.2. Complete circular transformation: continuous rectilinear
1.1.3. Intermittent motion
1.1.4. Straight line mechanisms
1.1.5. Detention mechanisms

1.2. Machines and mechanisms: motion transmission

1.2.1. Linear motion transmission
1.2.2. Circular motion transmission
1.2.3. Transmission of flexible elements: belts and chains

1.3. Machine requirements

1.3.1.  Static stresses
1.3.2.  Judgment criteria
1.3.3.  Fatigue in machines

1.4. Gears

1.4.1. Gear types and manufacturing methods
1.4.2. Geometry and kinematics
1.4.3. Gear trains
1.4.4. Force analysis
1.4.5. Gear resistance

1.5. Axles and shafts

1.5.1.  Tree stresses
1.5.2.  Design of shafts and axles
1.5.3.  Rotodynamics

1.6. Bearings and bearings

1.6.1. Types of bearings and bearings
1.6.2. Bearing calculation
1.6.3. Selection Criteria
1.6.4. Assembly, lubrication and maintenance techniques

1.7. Springs

1.7.1. Types of springs
1.7.2. Coil springs
1.7.3. Energy storage by means of springs

1.8. Mechanical connecting elements

1.8.5. Types of joints
1.8.6. Design of Non-Permanent Joints
1.8.7. Design of Permanent Connections

1.9. Transmissions by means of flexible elements

1.9.1. Straps
1.9.2. Roller chains
1.9.3. Metallic cables
1.9.4. Flexible shafts

1.10. Brakes and clutches

1.10.1. Brake classes/clutches
1.10.2. Friction materials
1.10.3. Calculation and sizing of clutches
1.10.4. Brake calculation and sizing

Module 2. Mechatronic Systems Design

2.1. CAD in engineering

2.1.1. CAD in Engineering
2.1.2. 3D parametric design
2.1.3. Types of software on the market
2.1.4. SolidWorks. Inventor

2.2. Work Environment

2.2.1. The work environment
2.2.2. Menus.
2.2.3. Visualization
2.2.4. Default working environment settings

2.3. Design and work structure

2.3.1. Computer-aided 3D design
2.3.2. Parametric design methodology
2.3.3. Methodology for the design of sets of parts. Assemblies

2.4.  Croquizado

2.4.1. Basics of Sketch Design
2.4.2. Creation of 2D sketches
2.4.3. Sketch editing tools
2.4.4. Sketch dimensioning and relationships
2.4.5. Creation of 3D sketches

2.5. Mechanical design operations

2.5.1. Mechanical design methodology
2.5.2. Mechanical design operations
2.5.3. Other operations

2.6. Surfaces

2.6.1. Creation of surfaces
2.6.2. Tools for surface creation
2.6.3. Tools for surface editing

2.7. Assemblies

2.7.1. Creation of assemblies
2.7.2. The position relationships
2.7.3. Tools for the creation of assemblies

2.8. Standardization and design tables. Variables

2.8.1. Component library. Toolbox
2.8.2. Online repositories/element manufacturers
2.8.3. Design tables

2.9. Folded sheet metal

2.9.1. Bended sheet metal module in CAD software
2.9.2. Sheet metal operations
2.9.3. Developments for sheet metal cutting

2.10. Generation of drawings

2.10.1. Creation of plans
2.10.2. Drawing formats
2.10.3. Creation of views
2.10.4. Dimensioning
2.10.5. Annotations
2.10.6. Lists and tables

Module 3. Structural Calculation of Mechanical Systems and Components

3.1. Finite element method

3.1.1. The finite element method
3.1.2. Mesh discretization and convergence
3.1.3. Form functions. Linear and quadratic elements
3.1.4. Formulation for bars. Stiffness matrix method
3.1.5. Non-linear problems. Sources of nonlinearity. Iterative methods

3.2. Linear static analysis

3.2.1. Preprocessing: geometry, material, mesh, boundary conditions: forces, pressures, remote loading
3.2.2. Solution
3.2.3. Post-processing: stress and strain maps
3.2.4. Application Examples

3.3. Geometry preparation

3.3.1. Types of import files
3.3.2. Geometry preparation and cleaning
3.3.3. Conversion to surfaces and beams
3.3.4. Application Examples

3.4. Mesh

3.4.1. One-dimensional, two-dimensional, three-dimensional elements
3.4.2. Mesh control parameters: local meshing, mesh growth
3.4.3. Meshing methodologies: structured meshing, sweeping
3.4.4. Mesh quality parameters
3.4.5. Application Examples

3.5. Material modeling

3.5.1. Elastic-linear materials
3.5.2. Elasto-plastic materials. Plasticity criteria
3.5.3. Hyperelastic materials. Models in isotropic hyperelasticity: Mooney Rivlin, Yeoh, Ogden, Arruda-Boyce
3.5.4. Application Examples

3.6. Contact

3.6.1. Linear contacts
3.6.2. Non-linear contacts
3.6.3. Formulations for contact resolution: Lagrange, Penalty
3.6.4. Preprocessing and postprocessing of the contact
3.6.5. Application Examples

3.7. Connectors

3.7.1. Bolted Joints
3.7.2. Beams
3.7.3. Kinematic torques: rotation and translation
3.7.4. Example of Application. Loads on connectors

3.8. Solver. Resolution of the problem

3.8.1. Resolution parameters
3.8.2. Convergence and definition of residuals
3.8.3. Application Examples

3.9. Post-Process

3.9.1. Stress and strain mapping. Isosurfaces
3.9.2. Forces on connectors
3.9.3. Safety coefficients
3.9.4. Application Examples

3.10. Vibration analysis

3.10.1. Vibrations: stiffness, damping, resonance
3.10.2. Free vibrations and forced vibrations
3.10.3. Frequency Domain Analysis
3.10.4. Application Examples

A unique training experience, key and decisive to boost your professional development"