80
Architecture Technology
REGGIO DI CALABRIA
Overview
Date/time interval
Syllabus
Course Objectives
Qualifying educational objectives
To provide theoretical, methodological and design tools to critically and systemically address the design of intelligent, sustainable and adaptive urban furniture. In an urban context marked by climatic and environmental challenges, design assumes a strategic role in experimenting solutions that integrate technology, inclusiveness and adaptability.
Specific objectives
- Analyse and critically interpret the needs of public space in relation to climate change and new urban lifestyles. (SDG 11, SDG 13)
- Develop smart urban furniture projects that integrate passive and active strategies to improve environmental comfort. (SDG 13, SDG 9)
- Apply circular economy and sustainability principles in material selection and product life cycle definition. (SDG 12)
- Promote social inclusiveness and accessibility in designed devices, addressing heterogeneous community needs. (SDG 11)
- Strengthen co-design skills and dialogue with institutional actors, citizens and companies in participatory processes. (SDG 17 – Partnerships for the Goals)
Agenda 2030
- 9 Industry, innovation and infrastructure
- 11 Sustainable cities and communities
- 12 Responsible consumption and production
- 13 Climate Action
Course Prerequisites
At the start of the course, the lecturer will check that students have met the prerequisites. Should any gaps in knowledge be identified, the lecturer will notify the Programme Coordinator so that appropriate remedial measures can be arranged.
- Proven knowledge of digital drawing tools
- Attendance of lectures and exercises, with reference to intermediate reviews
- Having passed the 2nd-year “Drawing and Modelling” exam or completed its exercises
Teaching Methods
1_ COURSE STRUCTURE AND TEACHING
- Lectures (hours/year in class): 50
- Exercises (hours/year in class): 16
- Practical activities (hours/year in class): 14
Schedule of educational activities
- Theoretical part: first 5 weeks of the Academic Calendar (Sept/Oct 2025)
- Experimental part: 6 weeks of the Academic Calendar (Oct/Dec 2025)
2_ AUTONOMOUS LEARNING OF THE STUDENT
Each ECTS will be complemented by specific student activities (15 hours per credit), referring to individual study based on the provided bibliography and academic guidelines. The in-depth study will include the preparation of graphic outputs required as course submissions, deepened and reviewed during laboratory sessions. This approach aims to build students’ knowledge repertoire and logical/deductive path, as outlined by the Degree Programme and its objectives.
Assessment Methods
Access restrictions
Active attendance, consistent submissions and individual study are integral to the path and contribute to the final assessment. Without these, it will not be possible to take the exam in the first session. Attendance is mandatory; only 20% of absences are allowed.
Intermediate and final assessment
There will be 4 scheduled intermediate submissions, specified in an exercise guide, leading students to the completion of the final work. These are aimed at preparing a set of outputs, from concept to prototype, with an initial part common to the integrated course focused on cultural heritage. The final assessment before the exam will be conducted through a joint workshop.
Type of exam
The exam will include a theoretical part on the specific themes of each course and discussion of the final outputs, whose first part is common to both courses. Work may be carried out in groups, depending on the number of students.
Evaluation criteria
The grade, expressed in thirtieths, will be assigned based on the level of achievement of the expected results according to the Dublin descriptors.
Scale
· Excellent 30 - 30L: Outstanding ability to conceive and develop an original and reproducible product; excellent knowledge of topics; strong ability to formulate original judgements; excellent communication skills (drawing, presentation, etc.).
· Very good 26 - 29: Good command of topics, full language proficiency, ability to apply knowledge to solve problems.
· Good 24 - 25: Basic knowledge of main topics, fair language proficiency, limited ability to autonomously apply knowledge.
· Sufficient 21 – 23: Not full command but possesses knowledge of main topics, sufficient language proficiency.
· Barely sufficient 18 – 20: Minimal basic knowledge of main topics and technical language, minimal ability to autonomously apply knowledge, formulate judgements and structure a specialised discourse, as well as limited expository and communication skills.
Exam mode: Theory and Practice
Texts
Required texts:
- Vezzoli C. Manzini E. (2017) Design di prodotto per la sostenibilità ambientale, Zanichelli
- Pellizzari A. Genovesi E. (2021) Neomateriali 2.0 nell'economia circolare, Edizioni Ambiente
- Munari B. ( 2017) Da cosa nasce cosa, Laterza
Recommended texts:
- E. Trivellin (a cura di) (2022) Design driven strategies. Visioni a confronto, FUP (Open access)
- Martinuz M ( 2021) 100 anni di Design italiano, Lettera ventidue
Learning materials
- Guerrieri I.(2024) Designing educational toys & spaces, francoangeli
- MD Journal (2019) Il Design come bene culturale (open access)
Contents
1_DESCRIPTION
The interdisciplinary course proposes a methodological path, both theoretical and practical, in which product and industrial design respectively coordinate experimental, applicative and prototyping processes, leveraging the ability to visualise complex processes and generate product solutions. The course contributes to the general objectives of the Design degree programme regarding methodological and design training. In particular, students will deepen their knowledge of methodologies and design processes from ideation to prototype for industrial and craft products, in line with the 3rd-year objectives of the Product Design curriculum.
Sustainability-oriented design is currently a disciplinary field enriched by numerous project contributions and investigations that can be summarised in four macro-categories: product innovation, product-service system innovation, social context innovation, socio-technical system innovation (Ceschin & Gaziulusoy, 2016). Sustainability, Technology, Innovation represent three shared keys to the design approach that will be required in the near future.
The course aims to provide a systematic working method, grounded in a solid theoretical framework and applied to the selected experimentation. Each module will carry out its own product and process innovation experimentation on design objects for outdoor spaces, within an integrated and shared vision that underlines the need to redesign component life cycles, proposing a common experimentation, explored through specific focuses on how smart urban furniture can contribute to mitigation and adaptation strategies to extreme climate events in outdoor spaces.
The experimentation will be developed through intermediate review steps on project progress, producing executive projects at appropriate scales, in collaboration with a sector company that will follow and transfer know-how throughout the process.
2_COURSE PROGRAMME
The course focuses on the design of sustainable urban furniture systems that can also act as active climate mitigation devices, with particular attention to the conscious choice of materials and resources, compatible with local availability. The systems will be able to address the challenges of digital and green transition, promoting new fruitful relationships between human settlements and the environment (Magnaghi, 2010) .
As regards the SAD course, low-carbon materials and technologies will be promoted and reversible design processes will be adopted, favoring modular components that are easy to assemble and disassemble.The objective is to train designers capable of intervening in the contemporary urban context with adaptive, sustainable and responsible solutions, able to concretely respond to environmental and climatic challenges. The smart urban furniture system project will be developed in collaboration with a sector company, to let students learn its know-how and receive continuous feedback throughout all operational phases up to prototyping.
The teaching structure foresees an initial theoretical part (lectures and seminars) and a second applied, laboratory-based part, where projects will be advanced from concept to prototyping. Technical seminars by companies may be integrated into the lecture corpus.
For the theoretical part, the main aspects covered will concern:
- Introduction to the course
- Prolusion: the role of design in the digital and green transition
- Innovative approaches of sustainable product design: intervention strategies (Design for Disassembly, Design for durability, Design for recycling)
- Innovative approaches of sustainable product design: local/circular materials, from other supply chains, low energy
- The role of design for heritage
- Sustainable urban furniture and active devices for outdoor spaces
- Additive manufacturing and prototyping
The lectures may be complemented by any technical workshops by companies interested in making a contribution on the topic
The practical/laboratory part will mainly take place in the classroom under the supervision of the teaching staff and will conclude with a final workshop. Through a series of four scheduled assignments, which will be specified in an exercise guide, students will be led to the completion of their final project. The assignments/intermediate assessments are aimed at preparing a series of projects, from concept to prototype, the initial part of which will be common to the integrated course and will concern the field of cultural heritage.
The design experience will be common to both courses, with specific thematic insights in relation to the simulation of the development and proposal of a product to a company.
We propose an applied experiment with a strong methodological rigor, which accompanies students from concept to prototyping of objects and systems for public space. The experimental dimension will be accompanied by the social and cultural dimension, through the adoption of participatory and inclusion-oriented practices.
3_EXPECTED RESULTS
Knowledge and understanding
By the end of the course, students will have acquired knowledge and understanding of:
- theoretical aspects related to the disciplines and topics addressed, concerning theories and models on Industrial and Industrial and Artisanal Product Design and Advanced Sustainable Design;
- specialist aspects related to the development of the design concept of objects, systems, services, and to the development of the technical/executive project;
- the application of design methodological aspects: from basic design to ergonomics, from systemic design for social sustainability (design for all) to environmental sustainability (ecodesign).
Applying knowledge and understanding
Students will acquire a scientific and recognised working method enabling them to relate the principles and methodologies of industrial and artisanal product design and Advanced Sustainable Design, defining the objectives of a design problem and developing an executive proposal that innovatively transfers such strategies, in line with the programme’s objectives. They will also understand the fundamentals of Industrial Product Design methodology, analysing product feasibility, sustainable use of materials, appropriate production processes, and correct communication methodologies.
Making judgements
Students will develop critical judgement skills, grounded in the theoretical framework provided and in project experimentation and prototyping. They will therefore gain and re-elaborate knowledge on:
- theoretical aspects related to the relationship Sustainability_Technology_Innovation;
- technical/executive aspects linked to the choice of sustainable, assemblable/disassemblable solutions with low environmental impact materials;
- critical aspects concerning the ability to define the design problem considering cultural aspects, resources, constraints, and user characteristics;
- the ability to work in teams and coordinate with specialists inside and outside production contexts to achieve effective results.
Communication skills
The acquired working method will allow students to organise the presentation of their solution through new representation/communication systems, integrating feedback systems, based on previous analytical and design evaluations, with a clear understanding of the final user. The course structure and final assessment are also aimed at developing communication skills towards both private and institutional stakeholders.
Learning skills
Students will be able to autonomously apply the skills acquired during lectures, developing self-training and self-updating abilities. They will also acquire terminologies, languages and descriptive methods that characterise Industrial and Industrial and Artisanal Product Design and Advanced Sustainable Design.
More information
The design experience, shared by both integrated courses, will be methodologically rigorous and oriented towards the creation of objects and systems for public spaces, integrating social, cultural, and participatory aspects, with application in the context of cultural heritage, on both a macro and micro scale.