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Academic Year/course: 2017/18

437 - Degree in Rural and Agri-Food Engineering

28908 - Graphic expression


Syllabus Information

Academic Year:
2017/18
Subject:
28908 - Graphic expression
Faculty / School:
201 - Escuela Politécnica Superior
Degree:
437 - Degree in Rural and Agri-Food Engineering
ECTS:
6.0
Year:
1
Semester:
Second semester
Subject Type:
Basic Education
Module:
---

1.1. Introduction

Graphic Expression allows knowing the language, beyond languages, different backgrounds and different professions, will share all professionals related to engineering.

In all subjects to study, there will always be part of the technical and scientific information that is given in a graphic support.

To this we must be able to answer the following questions:

  • How can represent a three-dimensional space on a two-dimensional format?
  • What it’s the grammar followed by the technical drawing language?
  • What is the relationship with current computer technologies?
  • How you can express actual manufacturing concepts and control in a company?
  • What is the relationship with other technical scientific subjects?

1.2. Recommendations to take this course

  • The subject has a basic character. Any student of first cycle of a scientific- technician degree will be able to pursue their contents with profit.

However, it is advisable to have knowledge of plane geometry and descriptive geometry (dihedral system). Also it is advisable to know the basics of Technical Drawing (systems of representation) and running a PC user level.

  • There are notes on the subject in the EPS Reprographics and material available (theoretical issues, problems, solved exercises, tests other courses related topics, CAD manuals, etc.) in the Moodle UZ (https://moodle.unizar.es/).

1.3. Context and importance of this course in the degree

The subject is taught in the second semester of the first year of the degree.

Knowledge of Graphic Expression is needed to study the contents of other scientific and technical subjects.

In purely scientific subjects is required to develop a spatial vision that allows understanding of certain concepts such as Euclidean space, vector analysis, molecular structure, etc.

In technical subjects, using the learned scientific concepts, the result of work should include an analysis and transfer of information that will necessarily include graphic contents.

1.4. Activities and key dates

  • classes: see website EPS: times

http://www.unizar.es/centros/eps/

  • Controls (midterms): at the end of each unit

Final exams: see website EPS: http://www.unizar.es/centros/eps/

June

September

2.1. Learning goals

  • To draw existing geometric relationships among basic elements (point, line, plane and polyhedron) in three dimensional space.
  • To represent on a two-dimensional format a three-dimensional polyhedron.
  • To perform and understand a technical level in which is embodied a real mechanical design.
  • To represent in a two dimensional format topographical works.

2.2. Importance of learning goals

A professional engineering develops his work in a three-dimensional physical space, for which he needs a spatial vision that allows him to analyze the spatial framework which will develop their work.

Also, in a multidisciplinary and global environment, it is necessary to have a technical language that allows communication between different professionals.

Graphic Expression combines these skills, so it can be said to be the "language engineering".

3.1. Aims of the course

The course aims that the student:

  • Understands the versatility of technical drawing as global interdisciplinary language to convey information.
  • Understand the usefulness and necessity of standardization as a means to structure and simplify the transmission of graphic information.
  • Acquire the basic skills necessary to translate in a plane, on paper or computer format, a job or engineering project.
  • Properly use the tools of technical drawing and acquiring the capacity to Sketching with the agility and precision necessary for the transmission of graphic information.
  • Be able to point to different references to the technical contents studied.
  • Develop the ability to work individually and in teams.

3.2. Competences

  • To study scientific- technical subjects which demanding a spatial vision and analysis of spaces and / or three-dimensional structures.
  • To develop a technical drawing of a mechanical design
  • To understand and to operate on a topographical map.
  • Acquiring knowledge of spatial vision and graphic representation technique.
  • To apply basic knowledge of technical drawing.

4.1. Assessment tasks (description of tasks, marking system and assessment criteria)

The subject can be overcome in two non-exclusive ways:

  • A system of continuous evaluation, conducted over the course of a series of controls specified content areas that cover the whole subject.
  • By conducting a global test (two official calls) covering the whole subject.

The test shall consist of the following thematic contents:

  • Metric and projective geometry: homologies
  • Descriptive Geometry: dihedral system.
  • Descriptive Geometry: topography applications.
  • 3D Design. Perspectives.
  • Standardization of industrial design.
  • CAD tools.
  • Search information (bibliography)

 

4.2 Evaluation criteria

 

In these tests will be considered:

  • The student may use any appropriate information.
  • The contents of the questions are known in advance, within a limited range.

To pass the subject is necessary to overcome all the exposed contents. The thematic contents are saved overcome in the same course, but not from one course to another.

Who on continuous evaluation has approved a specific content, will not have to examine it in the global test.

 

Points

Score

weigh

Metric and projective geometry: homologies

10

1

10%

Descriptive Geometry: dihedral system

10

2

20%

Descriptive Geometry: topography applications

10

2

20%

3D Design. Perspectives

10

1

10%

Standardization of industrial design

10

2

20%

CAD tools.

10

1

10%

Search information (bibliography)

10

1

10%

Total

 

10

1

 

All content must be overcome; there will be no trade-off among them. A thematic content is approved when obtained a score equal to or greater than 5. If one of the topics is suspended, the exam will be suspended in full.

 

5.1. Methodological overview

In each of the topics to work it is intended that students acquire not only basic knowledge but be able to search, analyse and structure the information needed to develop the theme.

For this, the teacher responsible for the course will present basic contents and guidelines by which will analyze and solve a number of problems and exercises, individually or in groups (not very numerous).

During the course a series of tests in which students individually solve the exercises will be conducted.

As part of the learning process, these exercises will be discussed individually with the teacher of the subject so that the student must assess the work of correction, prosecuting the results.

At all times the student's attitude toward learning is valued.

5.2. Learning tasks

Throughout the course contents theoretical and practical exercises on the following topics will be developed:

  • CAD Systems
  • Metric and projective geometry: homologies.
  • Descriptive Geometry: dihedral system
  • Descriptive Geometry: topography applications
  • 3D Design. Perspectives
  • Standardization of Industrial Drawing: representation of parts (views, sections, sketches).
  • Search information (bibliography)
  • Dimensional and geometric tolerances. Settings. Measurement uncertainty.

5.3. Syllabus

Theory program

 

    • CAD Systems (AutoCAD)
    • Metric and projective geometry: homologies.
    • Descriptive Geometry: dihedral system (classical and direct methods)
    • Descriptive Geometry: topography applications (roads).
    • 3D Design. Perspectives
    • Standardization of Industrial Drawing: representation of parts (views, sections, sketches).
    • Search information (bibliography)
    • Dimensional and geometric tolerances. Settings. Measurement uncertainty.

 

Practice program

 

    • CAD Systems (AutoCAD)
    • Metric and projective geometry: homologies.
    • Descriptive Geometry: dihedral system (classical and direct methods)
    • Descriptive Geometry: topography applications (roads).
    • 3D Design. Perspectives
    • Standardization of Industrial Drawing: representation of parts (views, sections, sketches).
    • Search information (bibliography)
    • Dimensional and geometric tolerances. Settings. Measurement uncertainty.
    • Search information (bibliography)

5.4. Course planning and calendar

Detailed schedule: https://moodle.unizar.es/

The subject is taught in the 2nd semester with a total of 18 weeks (including non-school periods). The student workload is 150 hours (6 ECTS credits). Each credit represents a work of 10 contact hours and 15 non-contact hours. In the course is organized as follows:

Activity name

ECTS credits

contact hours

non-contact hours

Total

Interactive classes. Individual study and work / group

2

20

30

50

Exercises. Individual study and work / group

2

20

30

50

CAD systems. Individual study and work / group

1,5

15

22,5

37,5

Search information

0,5

5

7,5

12,5

 

Total

60

90

150

 

5.5. Bibliography and recommended resources

BB Félez, Jesús. Dibujo industrial / Jesús Félez, Mª Luisa Martínez . 2a. ed. rev. Madrid : Síntesis, 1996
BB Fernández Sora, Alberto. Expresión gráfica / Alberto Fernández Sora . 1ª ed. Zaragoza : Mira Editores, 2003
BB Fernández Sora, Alberto. Geometría descriptiva : sistema diédrico / Alberto Fernández Sora . 2ª ed. Zaragoza : Prensas Universitarias de Zaragoza, 1995
BB Giménez Peris, Vicente. Diédrico directo. Tomo I, Teoría y 190 ejercicios de aplicación / Vicente Giménez Peris . Los Barrios (Cádiz) : [s. n.], D. L. 2007
BB Giménez Peris, Vicente. Diédrico directo. Tomo II, Superficies, intersecciones entre superficies, conductos de transición, diseño asistido por ordenador, sombras / Vicente Giménez Peris . Algeciras : Regina Cabello, D.L.2014
 
BC Aldabas García, Luis. Geometría descriptiva. Diédrico : problemas de exámenes resueltos y comentados, propuestos en centros politécnicos de ingeniería y arquitectura / Luis Aldabas García . Zaragoza : Mira, D.L. 1996
BC Alvaro González, José Ignacio. Ejercicios del sistema de planos acotados y su aplicación al dibujo topográfico / José Ignacio Alvaro González . [Madrid] : Dossat 2000, D.L.1994
BC Bas Vivancos, Cesáreo. Topografía agrícola / Cesáreo Bas Vivancos . Valencia : E.U.I.T Agrícola de Orihuela, Universidad Politécnica, D.L. 1991
BC Bertran Guasp, J. (2005). Sistema diédrico directo. Editorial Donostiarra
BC Calvo Lalanza, Manuel. Dibujo industrial : normalización / M. Calvo Lalanza . [s.l.] : [s.n.], D.L. 2003
BC Collado Sánchez-Capuchino, Vicente. Sistema de planos acotados : sus aplicaciones en ingeniería / Vicente Collado Sánchez Capuchino . [1a. ed.] Madrid : Tebar Flores, D.L. 1988
BC Domínguez García-Tejero, Francisco. Topografía general y aplicada / Francisco Domínguez García-Tejero . 13ª ed. corr. y act. Madrid [etc] : Mundi-Prensa, 1998
BC Esteban Royo, Andrés. Interpretación de planos / Andrés Esteban Royo . 2ª ed. Madrid : Fundación Confemetal, D.L. 2006
BC García Ricart, José Manuel. Apuntes de normalización / José Manuel García Ricart . Valencia : Universidad Politécnica, Servicio de Publicaciones, D.L. 2006
BC García Ricart, José Manuel. Ejercicios de dibujo técnico : piezas aisladas y conjuntos / José Manuel García Ricart . Valencia : Universidad Politécnica, Servicio de Publicaciones, D.L. 2006
BC Gómez Jiménez, Francisco. Geometría descriptiva : sistema diédrico y acotado. Problemas/ Francisco Gómez Jiménez, Mario Fernández González . 1ª ed. Barcelona : Edicions UPC, 2005
BC Gonzalez Monsalve, Mario. Dibujo técnico. Tomo II, Geometría descriptiva : sistema diédrico, sistema acotado, sistema axonomético, perspectiva caballera, sistema cónico / Mario Gonzalez Monsalve, Julián Palencia Cortés . Sevilla : Los autores, 1992
BC Izquierdo Asensi, Fernando. Geometría descriptiva / Fernando Izquierdo Asensi . 23ª ed. Madrid : [s.l.](Fernández Ciudad S.L.), D.L.1997
BC López-Cuervo y Estevez, Serafín. Topografía / Serafín López-Cuervo y Estévez . 2a. ed. rev. y act. Madrid : Mundi-Prensa, 1996
BC Manual de normas UNE sobre dibujo . 2a. ed. Madrid : IRANOR, D.L. 1983
BC Mira Llosá, José Ramón. Ejercicios de dibujo técnico : “sistemas de representación“. José Ramón Mira Llosá, José María Gomis Martí . Valencia : Universidad Politécnica, Servicio de Publicaciones, D.L.1993
BC Nieto Oñate, M.. Representación de superficies, aplicación al dibujo técnico / M. Nieto Oñate, J. Arribas González, E. Reboto Rodríguez . Valladolid : Secretariado de Publicaciones e Intercambio Editorial, Universidad de Valladolid, 1999
BC Rodríguez de Abajo, F. Javier. Geometría descriptiva. T. 1, Sistema diédrico / F. Javier Rodríguez de Abajo . - 25ª. ed. San Sebastián : Editorial Donostiarra, D.L. 2006
BC Rodríguez de Abajo, F.Javier. Dibujo técnico / F.Javier Rodríguez de Abajo, Víctor Alvarez Bengoa . San Sebastián : Editorial Donostiarra, D.L.1990
BC Zorita Carrero, I (2014). 100 ejercicios resueltos de diédrico directo. Universidad de Extremadura
 

In the Moodle UZ there are a collection of books available to students. https://moodle.unizar.es/

 

The updated recommended bibliography can be consulted in: http://psfunizar7.unizar.es/br13/egAsignaturas.php?id=2221