Upon completion of this course, students will be able to improve organizational competitiveness, based on costs, quality, flexibility, and response time.

The aim of this laboratory is for the students to be able to design and develop practical applications at the level of functional prototypes , projects with microprocessor, control and measurement devices using 32-bit microcontrollers with DSP capacity, relying on "C" language, special libraries, and development cards. The foregoing is with the purpose of designing applications for automation.

The aim of this laboratory is for students to be able to apply basic principles of the design of control systems through programmable logic controls for industrial automation.

The aim of this laboratory is for students to apply the basic concepts of automation in modern manufacturing systems in the areas of pneumatics , electropneumatics, and programmable logic controllers. Therefore, they will have the necessary skills to solve and implement automized business solutions. Furthermore, they will be able to use the knowledge they acquired of pneumatics and electropneumatics to solve situations that require automation, simulating cases with laboratory software and equipment.

Students will use the tools acquired about different philosophies, techniques, and methodologies in the areas of quality, logistics, and services in a real situation.

The aim is for students to use the tools acquired on the various philosopies, techniques, and methodologies of process design, productivity improvement, and quality in a real situation, developing projects with students from other undergraduate programs.

Upon completion of this course, students will be able to compute the forces that occur in the reciprocating and rotary internal combustion engines used in aircrafts and identify their elements, systems, types, and configurations.

The aim of this course is for students to: (1) Be acquainted with the alternatives offered by the most renowned manufacturers of electronic controllers in each area. (2) Become aware of what is the best way to apply them in each case, considering operational costs and impact on production. (3) Be knowledgeable about the accessories and modifications necessary to achieve production improvements. (4) Learn basic programming and configuration functions to assess implementation and commissioning. (5) Understand in each case the role played by the human operator.

This course aims to provide future Mechanical Engineers with the different types of vehicles, and objective analysis of their behavior and perfomance as a whole and of each system and subsystem, both from the point of view of design and/or verification. They will perform a technical perfectibility of the design of a vehicle in order to perform work that allows them to integrate the knowledge previously acquired in the degree program (synthesis project). Give knowledge of active and passive safety, and vehicle dynamics.