Ingénieur·e Généraliste Majeure Industrie & Services Cursus en 5 Ans

Programme of the preparatory cycle

Basic Engineering Sciences

• Implement mathematical tools for the engineer in analysis, algebra, geometry and statistics-probability
• Apply the fundamentals of direct and alternating current electricity, point mechanics and non-deformable solids, thermals, and thermodynamics.
• Deepen your knowledge of the fields of physics: electricity, electronics, solid and fluid mechanics, energetics, materials chemistry
• Understand and implement the basic principles of algorithmics and programming

Engineering Sciences and Methods

• Apply analysis and problem-solving methods
• Perform a functional analysis
• Establish specifications
• Using CAD to model a product and make it 3D printed
• Practice on-board programming on Arduino

Specialty Sciences and Techniques

• Applying Physical Principles and Phenomena:
• Design an automatic servo system
• Calculate the power required for an electromechanical system
• Understand and implement the principles of electromagnetism
• Perform modeling using a robot
• Implement a robot as part of a project affecting society
• Understand how the industrial company works:
• Identify its different processes: R&D, industrialization, production, logistics
• Identification of physical and information flows
• Establish a map
• Implement production management principles: organization, planning, costs

Humanities, economics, law and social sciences

• Develop your practice of French in order to express yourself clearly and flawlessly in writing and orally
• Acquire the reflexes of communication that promote teamwork
• Practising the English language to communicate in a professional context
• Integrating the principles of sustainable development in the face of climate issues

Internship

• Put into practice the knowledge acquired during an internship in a company, lasting a minimum of 3 months

Engineering Program

Basic Engineering Sciences

• The basic sciences occupy a fundamental place for the engineer, including mathematics and the physics disciplines that he will need in his duties:
• Mathematics
• Mechanical engineering: solid mechanics, fluid mechanics, materials
• Electrical engineering: electricity, electronics, electromagnetism
• Energy engineering: thermodynamics, thermal

Engineering Sciences and Methods

• The general engineer must master engineering tools and methods to manage projects and deal with the problems he or she must solve:
• Functional analysis
• Statistics and probabilities
• Operations research
• Methods of analysis and problem solving (FMEA, VSM, etc.)
• Management of information and communication systems
• Literature search
• Project management
• Lean management, operational excellence
• Innovation Engineering
• Exposure to research

Science and technology of the specialty

• The specialized science and technology program aims to deal with in-depth subjects that are now necessary in the various industrial sectors, integrating the eco-responsible dimension at all stages of a product's life cycle: 3D CAD, modeling, digital modeling / Additive manufacturing / Robotics, robotics / Artificial Intelligence / Augmented Reality, Virtual Reality / Sensors, and connected objects / Lean management / QSE / Eco-design

Humanities, economics, law, and social sciences

• The SHEJS program is essential for complementing the knowledge and skills of engineers, beyond the scientific and technical fields:
• Professional Communication
• Leadership and management of people
• Economics and management
• Labour law and personnel management
• Corporate Social Responsibility and Ethics
• Regulations & Standards
• Team leadership and creativity development

International

• English: written, oral, TOEIC certification preparation
• Interculturality

Professional project

• The Individual Training Project allows each student to develop his or her professional project:
  Identify the skills expected for the position in question,
• Self-assess,
• Building a Progress Plan
• Evaluate your progress
• They benefit from an optimized preparation for taking up their position at the end of their training. The approach is supported throughout the training by CESI teachers as well as by recruitment professionals.

Le Système D’évaluation

En cycle préparatoire comme en cursus ingénieur, le système d'évaluation est basé sur un contrôle continu. Les enseignements sont répartis dans différentes Unités d'Enseignement ; chaque unité correspond à un certain nombre de crédits ECTS. Une année correspond à 60 crédits. Les étudiants doivent avoir validé toutes leurs unités d'enseignement et obtenu leurs crédits ECTS pour passer en année supérieure.

Les conditions pour l'obtention du diplôme sont :

• Valider l'ensemble des Unités d'Enseignement, donc avoir acquis 300 crédits sur les cinq années de la formation
• Obtenir une certification de niveau B2 en anglais
• Effectuer une mobilité à l'étranger d'une durée de 20 semaines

• Design & Development Engineer / Project Manager Engineer / Project Engineer Production
• Engineer / Continuous Improvement Engineer / Methods
• Engineer Maintenance and New
• Works Engineer Lean Manufacturing
• Engineer Quality, Safety & Environment
• Engineer Ecological Transition Engineer

Continuation of Cesi Studies

After the preparatory cycle: Possible continuation of studies towards a general engineering course in 3 years through apprenticeship (after a preparatory cycle, a bac +3 or a bac +2 under conditions) After the engineering course: Enter a Specialized® Master's degree course at CESI to specialize your expertise or move towards research by pursuing your doctoral studies at CESI Take advantage of CESI partnerships with international universities and business schools to obtain a double degree