Page 1 of 1

Module Code - Title:

PN4036 - DESIGN AND COMMUNICATION GRAPHICS 5

Year Last Offered:

2025/6

Hours Per Week:

Lecture

1

Lab

2

Tutorial

1

Other

1

Private

5

Credits

6

Grading Type:

N

Prerequisite Modules:

Rationale and Purpose of the Module:

Prior to commencing this module, the student teacher should have a well-developed mastery of geometry and its application in plane, descriptive and design focused applications. Building on this, the module will initially attempt to synthesise and challenge students understanding of geometric principles through Applied Graphics. It is envisaged these activities will be student driven as various applications of applied geometry are explored. Students will be required to demonstrate cognitive flexibility in solving a range of graphical problems in which various graphical principles are synthesised. This module presents a critical transition point for students as the focus shifts towards competencies defined by graphical education. Building on previously developed skills of communicating graphical principles through various media, students will now be expected to consider the measure of capability and in particular focus on the assessment of pupil understanding. Discussions and subsequent explorations will concentrate on the design of appropriate tasks to capture graphical capability and understanding. Students will synthesise their own learning experiences and knowledge of graphical principles together with a grounded understanding of cognition in solving applied graphics problems and designing suitable assessment strategies.

Syllabus:

Conic Section 2 (properties, proofs, applications), Dynamic Mechanisms: common geometric loci, construction of loci, linkage mechanisms, cam profiles and displacement diagrams, involute and epicycloidal gear profiles. Structural Forms: singly and doubly ruled surfaces, hyperbolic paraboloid, plane directors, hyperboloid of revolution, geodesic domes. Geologic Geometry: contours, skew-boreholes, dip, strike, thickness and outcrop in mining problems, cutting and embankment sections in road geometry problems. Assemblies: exploded and assembly drawings, drawings layout and conventions, sectional views, advanced geometric dimensioning and tolerancing, dimensioning, symbols. Surface Geometry: Roof geometry dihedral angles, ductwork and transition pieces development. Planning for graphical teaching and learning (diversity, literacy, numeracy, communication, motivation, relevance). Surface modelling (CAD), Dynamic (collision detections, loci, etc.) and static (load) analysis of applied problems, Top-Down assembly modelling, sheet metal and Weldments. Graphic statics, Variance and Invariance, Defined and ill-defined graphical problems, Assessment in graphics: defining specific capabilities, design of assessment instrument, evaluating graphical competencies. Determine and differentiate between qualities and competencies in graphical education.

Learning Outcomes:

Cognitive (Knowledge, Understanding, Application, Analysis, Evaluation, Synthesis)

On successful completion of this module, students will be able to: Select and apply appropriate geometric principles when solving applied geometry problems. Demonstrate an openness to exploring new and emerging technologies and their educational application. Demonstrate an understanding of literacy and numeracy, as they relate to curriculum requirements. Demonstrate an understanding and appreciation of cross-curricular links and themes and how these are related to life experiences. Demonstrate an understanding and appreciation of important issues related to cyber-ethics including issues of privacy, information security, copyright and on-line safety and understand the complex interplay between technology and society. Apply knowledge of the individual potential of pupils, dispositions towards learning, varying backgrounds, identities, experiences and learning styles to planning for teaching, learning and assessment in study of Applied Graphics. 

Affective (Attitudes and Values)

On successful completion of this module, students will be able to: Demonstrate an appreciation for the diverse range of pupil interests and develop suitable strategies to stimulate these interests through the study of graphical concepts. Demonstrate an awareness of the applied nature of graphics concepts and principles. 

Psychomotor (Physical Skills)

On successful completion of this module, students will be able to: Develop, adapt and use a variety of curriculum resources and materials for learning and teaching to support and challenge all pupils. 

How the Module will be Taught and what will be the Learning Experiences of the Students:

Lecture and labs will facilitate the exploration and synthesis of geometric principles in various applied applications. Tutorials will stimulate discussion and debate around the purpose of graphical education and the development of pedagogical strategies in developing graphical capability.

Research Findings Incorporated in to the Syllabus (If Relevant):

Prime Texts:

Bertoline, G., Wiebe, E., Ross, W., Hartman, N. (2019) Fundamentals of Solid Modeling and Graphic Communication 7th Edition , McGraw-Hill, London.
Giesecke, F., Hill, I., Spencer, H., Mitchell, A., Dygdon, J., Novak, J.,Lockhart, S., and Goodman, M., (2011) Technical Drawing with Engineering Graphics (14th Ed.) , Pearson Education, Upper Saddle River, NJ.
Parker, M. A., Pickup, F. (1981) Engineering Drawing with Worked Examples (3rd Edition) , Hutchinson & Co. Ltd. London
Shih, R.H. (2013) SolidWorks 2013 and Engineering Graphics - An Integrated Approach , Schroff Development Corporation, US.

Other Relevant Texts:

Anderson, D. (2007) Graphics in Design & Communication 2: CAD and Applied Graphics , Gill & Macmillan, Dublin.
Dickason, A. (1984) The Geometry of Sheet Metal Work , Pitman Publishing Ltd. London.
Hawk, M. C. (1992) Descriptive Geometry, Schaum's Outline Series , McGraw-Hill, New York.
Johnston-Wilder, S. and Mason, J. Eds. (2005) Developing Thinking in Geometry , The Open University, Paul Chapman Publishing.
Kimbell, R., Perry, D. (2001) Design and technology in a knowledge economy , Engineering Council, London.
O'Broin, E. (1991) Technical Draughtsmanship , Gill & Macmillan Ltd, Dublin.
Polya, G. (2008) How to Solve It - a new aspect of mathematical method , Princeton University Press, USA
Seery, N., Lane, D., Canty, D. (2012) A Comparative Study Exploring the Impact of Assessment Criteria on Eliciting Graphical Capability , Annual Conference of the American Society for Engineering Education. San Antonio, TX.
Anderson, D. (2007) Graphics in Design & Communication 1: Plane and Descriptive Geometry , Gill & Macmillan, Dublin.
Shih, R.H. (2013) SolidWorks 2013 and Engineering Graphics - An Integrated Approach , Schroff Development Corporation, US.
Slaby, S. M. (1985) Engineering Descriptive Geometry , Barnes and Noble, New York.

Programme(s) in which this Module is Offered:

BTEDMAUFA - MATERIALS AND ARCHITECTURAL TECHNOLOGY
BTEDMEUFA - MATERIALS AND ENGINEERING TECHNOLOGY

Semester(s) Module is Offered:

Spring

Module Leader:

Patrick.Harkins@ul.ie