M04IA1.- Knowledge, understanding and capacity to apply existing legislation in the development of projects in the field of environmental engineering.

M04IA3.- Knowledge and ability to participate in the design, project and execution of engineering solutions to environmental problems, including the evaluation of alternative strategies and control and safety criteria.

M04IA7.- Basic knowledge and application of environmental technologies and sustainability and assessment and correction of the environmental impact of human activities.

M04IA9.- Knowledge and skills to organize and manage projects. To know the organizational structure and functions of a project office



Learning Results:

•Management of safety, quality, costs and environmental aspects in the development of industrial works.

•Environmental, safety, quality and cost management in the development of industrial and urban infrastructures.

•Acquisition of adequate knowledge regarding the legal protection of the environment.

•Acquisition of the capacity to analyse and interpret, individually and as a team, legal-environmental issues and their translation into professional activity.

•Understanding of the definition and methodology of a project development.

1.- THE PROJECT DEFINITION

2.-.PHASES AND DOCUMENTS OF THE PROJECT

3.- PROJECT ASSESSMENT

4. BASIC AND DETAILED ENGINEERING

5. PROJECT ORGANIZATION AND MANAGEMENT

6. PROJECT TIMING

7. TECHNICAL REPORTS

8. TECHNICAL PROCEDURES AND INDUSTRIAL LEGISLATION

9. METHODOLOGY OF PRODUCT DESIGN

10. ERGONOMICS

11. ECODESIGN

12. EVALUATION OF ENVIRONMENTAL IMPACT

13. ENVIRONMENTAL MANAGEMENT OF THE COMPANIES

14. QUALITY MANAGEMENT. THE QUALITY IN THE PROJECT

15. QUALIT COSTS. TOOLS FOR PROBLEM SOLVING

16. STANDARDISATION, ACCREDITATION AND CERTIFICATION

17.LABOR RISKS PREVENTION

18. SAFETY in THE PROJECT

The theoretical part will be given in the first quarter and it consists of master classes and the resolution of individual exercises to help the comprehension of the given matters. The practical part will be during the whole course: the students will work with different tools in the area of the Projects of Engineering, and after will develop individual and in group works, where the adquired knowledge will be put into practice.

THE STUDENT ASSESSMENT WILL BE DONE WITH NEXT WEIGHTING PROCEDURE: FINAL THEORY EXAM 40 %,

PRACTICES 60 %. IT IS NECESSARY TO OBTAIN POSITIVE ASSESSMENT IN BOTH ASPECTS SEPARATELY.

THE WITHDRAWAL TO CALL IS REALIZED NOT APPEARING TO THE EXAM, AND IT WILL CONSIST of "NOT

PRESENTED".

THE Final THEORY EXAM OF THE ORDINARY CALL WILL BE REALIZED IN JANUARY.

The practices will be evaluated by the ongoing evaluation method. The student is able to renounce to this method, by asking for a final exam, according to the current normative rules.

"In the event that health conditions prevent the realization of a face-to-face teaching activity and/or evaluation, a non-face-to-face modality will be activated of which the students will be promptly informed."

The management of the subject will be necessarily across the platform egela.ehu

Basic bibliography

- Otegi JR.,Toledo N.,Etxaniz O.,Zuazo I., Aretzaga J.: "De la idea al plan de proyectos en 10 pasos" Open Course Ware 2014 Disponible en: http://ocw.ehu.es/course/view.php?id=336

- J. Caamaño, “Elementos básicos de Ingeniería de Proyectos”, Publicaciones de la ETSIB UPV/EHU, 2004

- H. Kerzner, “Project Management. A Systems Approach to Planning Scheduling and Controlling”, Wiley, 2009

- PMI, “A guide to the Project Management Body of Knowledge (PMBoK) 6th edition”, 2017

- A. González Marcos et. Al, “Ingeniería de Proyectos”, Dextra Editorial, 2014 - Capítulo 7

- UNE 157001:2014 Criterios generales para la elaboración formal de los documentos que constituyen un proyecto técnico, 2014