25 Engineering Bachelors Degree Programs in Mexico

In our Degree in Automotive Engineering and Manufacturing, you will be able to intervene in the solution of problems related to the management of automotive parts manufacturing systems, as well as increase the productivity of the automotive and auto parts industry. You will manage quality management systems, design models for automotive manufacturing processes, and you will also learn to promote sustainable ecological development.

The Biomedical Engineer educational program is organized in 10 compulsory semesters, this being semi-flexible. The number of SATCA credits to take the degree is 308, with a total of 66 subjects to take. The axes of knowledge that structure this program are the following: basic sciences, engineering sciences, applied engineering and design in engineering, social sciences and humanities, administrative, other courses, as well as social service, professional practices, and independent activities that They include sports, cultural and research training. Attached to the new educational model of the UAdeC, the orientation of this career is directed towards the autonomous construction of learning, centered on the student, with teaching actions aimed at stimulating knowledge;

Business Industrial Engineering I will be able to: Manage processes in areas such as production, quality, finance, administration, and projects, as well as implement strategies and methodologies that allow me to solve problems in a methodical and comprehensive way; optimizing resources that satisfy the requirements of the company.

By studying a Bachelor of Industrial Engineering online you will increase the productivity and efficiency of each of the industrial processes of a company. Become a true Bachelor of Industrial Engineering mastering all the areas of the company that are within your reach. Manage computer technology - hardware and software - necessary for their professional life in solving scientific and technological problems of Industrial Engineering. Prepare and interpret plans for different branches of engineering with specifications for industrial parts and specialized equipment in manufacturers' manuals and catalogs. Use the appropriate software for computer-aided drawing. Apply the techniques of the study of times and movements to a production system, in order to optimize it. Develop safety and hygiene programs focused on the prevention of occupational injuries and illnesses, as well as the conservation of the environment. Develop the process of generation and distribution of electrical energy. Supervise industrial electrical installations and the main electrical and electronic control devices used in automated production processes. Determine time standards, simplify work, structure salary and incentive systems, and design workstations. Apply the fundamental principles of administration in organizations through the practice of the administrative process. Use forecasting and capacity planning techniques. Make decisions in the administration of systems for the production of goods and services. Apply inventory and warehouse management techniques to optimize storage systems. Apply the main tools of statistical quality control in products, processes and systems, for continuous improvement and decision making. Manage projects on time and cost. Apply the techniques to develop production plans and programs and control their execution according to schedule. Prepare the supply programs for the materials required for production, in the quantities and at the required time, that allow the reduction of costs related to inventories. Prepare machine load schedules and staff work schedules. Apply the evaluation criteria for the analysis to investment projects for decision making. Apply the techniques for the design, efficient administration and improvement of the supply chain of any organization.

General objective To train professionals in the engineering area, capable of developing products and providing information technology services aimed at meeting the needs and expectations of a global market, through the use of data network infrastructure, project management, software development in various technological platforms, based on the best practices, norms and national and international standards, applicable in the context. They will be able to successfully integrate into interdisciplinary and intercultural workgroups, committed to quality and care for the environment, making decisions based on information systems, assuming an ethical and professional commitment in the performance of their work.

The Aeronautical Mechanical Design Engineer has the professional competencies necessary for his performance in the labor field, at the local, regional and national levels. PROFESSIONAL SKILLS Professional competencies are the skills and attitudes that allow the Engineer to develop activities in his professional area, adapt to new situations, as well as transfer, if necessary, his knowledge, skills, and attitudes to nearby professional areas. Generic Competences: Raise and solve engineering problems based on the principles and theories of physics, chemistry, and mathematics, through the scientific method to support decision-making in the scientific and technological fields. Develop and strengthen instrumental, interpersonal, systemic, and managerial skills to communicate in a second language.

To train professionals capable of designing, analyzing, preparing, and directing technically viable and economically feasible projects related to hydrocarbon production and processing systems, oil treatment, and refining, assuming the management of conversion processes to obtain petroleum products for the manufacture of chemical and petrochemical products promoting proper storage and marketing procedures, all within a current legislative framework and with respect for humans and the environment.

Train professionals capable of producing and transforming biological organisms using molecular and cellular technological tools for the generation of various goods and services, as well as the development, operation, and scaling of industrial processes with biological components that allow them to evaluate, prepare, and incorporate alternative solutions to the country's problems in the health, environment, and industrial sectors; in the animal and plant field.

General objective To train professional engineers with a scientific, technological, and humanistic base who are capable of selecting, developing, sustaining, and innovating systems, processes, and industrial and service products with a mechanical, electronic, robotic, and automation approach, with a sense of responsibility with their environment socio-cultural and environmental. This career has four optional modules of training areas: Biomedical, Automotive, Robotics, and Productivity, which allow the student to choose the type of training according to their professional aspirations.

Nanotechnology is a set of multidisciplinary techniques that are used to manipulate matter at the level of atoms and molecules. It encompasses those fields of science and technology in which materials, substances and devices of small dimensions are studied, handled and obtained in a controlled manner.

The Telematics Engineer has generic and specific skills to design, manage and evaluate network and telecommunications services in national and international organizations. Likewise, it has skills to design and develop communications software and distributed systems, operate and maintain technological infrastructure, innovate and adapt Information and Communication Technologies (ICT) to the productive processes of companies, implements standards and protocols. safety in accordance with the established norms and guidelines and carries out technological development projects to solve problems in a flexible and creative way.

The graduate must possess the following competencies as a graduate profile. Develop, implement, and update information systems, of a particular application to companies and institutions, Carry out audit and consulting activities in Computer Science, Establish and implement quality standards in information systems.

Develop automation and control projects, through the design, administration, and application of new technologies to satisfy the needs of the productive sector. Design electrical, mechanical, and electronic systems through integrative projects, to automate and control production processes. Manage human, material, and energy resources considering the design and conservation requirements of an automation and control system, through the project management methodology for the effective implementation of the project. Directly integrated projects of electrical, mechanical, and electronic systems through the development and conservation plan for their effective implementation in the automation and control of systems.

The Industrial Maintenance Engineer has the professional skills necessary for his performance in the labor field, at the local, regional and national levels. Professional competencies are the skills and attitudes that allow the Engineer to develop activities in his professional area, adapt to new situations, as well as transfer, if necessary, his knowledge, skills, and attitudes to nearby professional areas. Raise and solve problems based on the principles and theories of physics, chemistry, and mathematics, through the scientific method to support decision-making in the scientific and technological fields. Develop and strengthen instrumental, interpersonal, systemic, and managerial skills to communicate in a second language.

The industrialization of timber and non-timber forest raw material, to transform it into final consumer products, is the pinnacle of the forest production process. Its importance in the national economy is increasing due to the generation of jobs and foreign exchange, thanks to the growing demand for the wide variety of products it offers: from sleepers, poles, structures for houses, floors, furniture, doors, sporting goods, etc., to the production of boards, paper, and cardboard for various uses. The development of a solid and prosperous forest industry is essential for forest resources to fulfill their function, for the benefit of man and society. Therefore, it is very important to promote its modernization and technological updating for higher productivity and competitiveness rates.