Technology Transformations

Beyond Human: Regenerative Futures for Non-Isolated Ecologies

Duration: 13 Weeks
Field Work: Marseille
Credits: 5 ECTS

Module Brief

Course Description

This module explores the dynamic relationship between architectural design and technology through the lens of regenerative development and more-than-human design thinking. Starting from the sun as the source of all energy on Earth, we investigate how technology can align with natural processes to create buildings that actively heal and enhance both human and ecological wellbeing.

Core Philosophy

Moving beyond sustainability's "less bad" approach, we embrace regenerative design that creates net positive impacts. Students will learn to think in systems, design for multiple species, and consider deep time implications of their architectural decisions.

Marseille Field Study

A two-week intensive field trip to Marseille (October 5-17) provides hands-on experience with Mediterranean climate challenges, urban regeneration opportunities, and community engagement methods. Students will apply thermodynamic principles, test speculative scenarios, and develop place-based solutions.

Module Coordinator

Maroun C. Tabbal
maroun.tabbal@ucc.ie
Office Hours: By appointment via Teams

Schedule

Wednesdays
10:30 - 12:30
Location: LR1

Prerequisites

Basic architectural design knowledge
Openness to systems thinking
Willingness to challenge assumptions

Learning Outcomes

Evaluate Technologies

Critically assess relevant technologies for sustainable architecture, especially biomimetic and regenerative approaches.

Bioinspired Design

Critically assess the role of bioinspired and circular design in advancing true sustainability.

Technical Research

Enhance architectural projects through technical research grounded in nature's principles and systems thinking.

Systems Analysis

Analyse construction, climate, and structural systems for resilience, circularity, and adaptability.

Innovation Integration

Integrate robust technology innovations to foster creativity in regenerative design.

Complex Modeling

Model complex architectural systems and communicate viable proposals through advanced visualizations.

Course Schedule

1 Sep 24: Introductions & Foundations

Module overview, research methods, epistemological frameworks

Deliverable: Research methodology selection
2 Oct 1: Research Toolkits & Marseille Prep

Advanced methods, site documentation protocols, field prep

Deliverable: Project proposal with framework
3 Oct 8: Marseille Field Work Week 1

Site documentation, energy mapping, community engagement

Daily photo documentation and field notes
4 Oct 15: Marseille Field Work Week 2

Scenario workshops, multispecies observation, VR/AR capture

Deliverable: Site analysis portfolio
5 Oct 22: Thermodynamics: Energy as Flow

Cosmic energy flows, entropy as productive, gradient management

Exercise: Energy flow mapping
6 Oct 29: Speculative Technologies

Living buildings, bio-integration, regenerative paradigms

Exercise: Three scenario narratives
7 Nov 5: Anthropocene: Deep Time Design

Architecture as geological force, planetary boundaries

Exercise: 100-1000 year projections
8 Nov 12: Building Performance

Regenerative metrics, multispecies comfort, adaptive management

Exercise: Performance criteria matrix
9 Nov 19: Building Information Modelling

BIM as worldview, collaborative protocols, living models

Workshop: Paper BIM exercise
10 Nov 26: VR/AR & Geospatial

Immersive engagement, urban gaming, spatial justice

Gaming: Multispecies Parliament
11 Dec 3: Studio Integration

Technical synthesis, project consultations, peer review

Deliverable: Technical dossier draft
12 Dec 10: Student Seminars

20-minute presentations, peer Q&A, knowledge synthesis

Assessment: Seminar presentation
13 Dec 17: Feedback & Celebration

Final reviews, reflection, exhibition preparation

Final submission: Technical dossier

Core Topics & Concepts

Key Concepts:
  • Energy as cosmic flow, not commodity
  • Entropy as productive force
  • Gradient management strategies
  • EMERGY analysis and solar economy
  • Dissipative structures and organization
Case Studies:

California Academy of Sciences, Gando School Extension, Eastgate Centre Zimbabwe

Key Concepts:
  • Mycelium as structural material
  • Algae bioreactors for air purification
  • Bacterial self-healing concrete
  • Plant-building symbiosis
  • Multispecies design protocols
Case Studies:

BIQ House Hamburg, Growing Pavilion, Silk Pavilion MIT, Bio-Integrated Design Lab

Key Concepts:
  • Beyond sustainability to regeneration
  • Net positive development
  • Ecosystem services enhancement
  • Community vitality indicators
  • Evolutionary resilience
Case Studies:

Eden Project, Bullitt Center, R-Urban Network Paris, Park Royal Singapore

Key Concepts:
  • Feedback loops and leverage points
  • Emergent properties
  • Non-linear dynamics
  • Adaptive management
  • Nested hierarchies
Frameworks:

Three Horizons, Panarchy, Actor-Network Theory, Assemblage Thinking

Assessment & Rubrics

Component Due Date Weight Format
Research Framework October 1 10% Written proposal (1000 words)
Site Analysis Portfolio October 17 15% Mixed media documentation
Energy & Scenarios October 29 15% Diagrams & narratives
Technical Development November 26 20% Progressive portfolio
Seminar Presentation December 10 20% 20-minute presentation
Final Technical Dossier December 17 20% Comprehensive document (3500 words)

Detailed Assessment Criteria

Criteria Exceptional (70%+) Advanced (60-69%) Proficient (50-59%) Developing (40-49%)
Research Question Original, complex, multi-layered question Clear, focused, researchable Basic but adequate Vague or too broad
Methodology Multiple methods, justified, innovative Appropriate methods, well justified Standard methods, some justification Limited methods, weak justification
Ethics Comprehensive consideration, multispecies Good ethical framework Basic ethics addressed Limited ethical consideration
Literature 15+ sources, critical synthesis 10+ sources, good integration 7+ sources, adequate use 5+ sources, surface level
Criteria Exceptional (70%+) Advanced (60-69%) Proficient (50-59%) Developing (40-49%)
Documentation Multi-sensory, rich, systematic Comprehensive, well-organized Adequate coverage Basic documentation
Energy Analysis Sophisticated gradient mapping Clear energy flow identification Basic energy observations Limited energy awareness
Community Engagement Deep engagement, co-creation Good interaction, documentation Some community contact Minimal engagement
Synthesis Brilliant insights, patterns identified Good connections made Basic synthesis attempted Limited integration
Criteria Exceptional (70%+) Advanced (60-69%) Proficient (50-59%) Developing (40-49%)
Integration Seamless synthesis of all concepts Good integration evident Adequate connections Limited integration
Technical Depth Expert level understanding Strong technical grasp Competent application Surface understanding
Innovation Original contribution to field Creative applications Some novel elements Conventional approach
Communication Publication quality Very clear and compelling Clear and organized Basic clarity
Criteria Exceptional (70%+) Advanced (60-69%) Proficient (50-59%) Developing (40-49%)
Content Deep insights, original thinking Strong understanding shown Good grasp of concepts Basic understanding
Delivery Engaging, confident, inspiring Clear, well-paced Adequate presentation Needs improvement
Visuals Stunning, enhances message Professional, clear Adequate support Basic or distracting
Q&A Expert handling, extends thinking Good responses Adequate answers Struggles with questions

Resources & Materials

Tools

Digital Tools

  • QGIS (Spatial Analysis)
  • Ladybug Tools (Environmental)
  • BlenderBIM (Open Source)
  • A-Frame (Web VR)
  • Zotero (References)
Field Kit

Marseille Equipment

  • Infrared Thermometer
  • Sound Level Meter
  • Field Notebooks
  • Sample Collection Bags
  • Measuring Tape

Course Materials

Essential Bibliography

Foundational Texts

  • Haraway, D. (2016). Staying with the Trouble: Making Kin in the Chthulucene. Duke University Press.
    Core text for multispecies design thinking.
  • Moe, K. (2021). Unless: The Seagram Building Construction Ecology. Actar.
    Radical rethinking of building performance through thermodynamics.
  • Tsing, A. (2015). The Mushroom at the End of the World. Princeton University Press.
    Methodology for following materials through systems.

Technical References

  • Reed, B. (2007). "Shifting from 'Sustainability' to Regeneration." Building Research & Information, 35(6), 674-680.
    Foundational paper on regenerative design.
  • Benyus, J. M. (2002). Biomimicry: Innovation Inspired by Nature. Harper Perennial.
    Classic introduction with design methodology.
  • Brand, S. (1994). How Buildings Learn. Viking.
    Shearing layers and temporal thinking.