Prof. Chalayan : Projekt A – Extreme Environments: Clothing & Components
Module Overview
Class Title: P2.2 Project Angewandte Forschung - Master Class
Module Name: Extreme Environments: Clothing & Components(title tbc)
HTW Main Lecturer: Prof. Hussein Chalayan
Prototyping at HTW: Digidok Staff
MIT – Self-Assembly Lab: Prof. Skylar Tibbits
This studio brings together the fields of fashion, design, and technology, focusing on the development of clothing and components for extreme environments. It is a collaboration between HTW-Berlin and MIT, combining the expertise of both faculties to conceptualize and materialize innovative solutions for extreme conditions on Earth and beyond.
MIT Prof. Skylar Tibbits and HTW Prof. Hussein Chalayan will attend all designated classes, providing guidance to HTW students. The studio will prompt students to imagine, design, and create projects that address challenges posed by extreme conditions—environmental, physical, and psychological.
Context & Industry Inspiration
Hussein Chalayan has been a pioneer in interactive, kinetic, and transformable fashion. His research extends into self-assembling and reactive materials inspired by aerospace, military, and performance wear advancements. Meanwhile, MIT’s Self-Assembly Lab has led innovations in smart materials and programmable textiles. This studio aims to explore the potential of functional, adaptive, and self-assembling clothing and components.
Drawing inspiration from recent collaborations such as Prada’s work with NASA for astronaut suits, Reebok’s space-ready footwear, and the developments by SpaceX and Blue Origin in spacewear, this studio seeks to push the boundaries of wearable technology for survival, adaptability, and performance.
Key Research Questions
- How can materials dynamically adjust to extreme temperatures, pressures, or radiation?
- Can we develop self-healing fabrics?
- How can AI, sensors, and biometrics be integrated into clothing to support wearers in hazardous conditions?
- Can modularity and adaptability enhance garment usability across multiple environments?
Potential Applications
- Aerospace: Intelligent spacesuits with responsive temperature control and radiation shielding.
- Arctic/Desert Environments: Adaptive clothing regulating body temperature and moisture.
- Underwater Exploration: Second-skin materials enhancing mobility and hydration management.
- Military & Rescue Operations: Garments enhancing endurance and providing real-time data feedback.
- High-Altitude Mountaineering: Lightweight yet durable clothing regulating oxygen levels and resisting extreme winds.
Brand & Design Considerations
Parallel to technical development, students must consider commercial and practical aspects of their designs, including:
- Defining the target user and their needs.
- Ensuring practical integration of the garment/component into real-world applications.
- Addressing aesthetics, modularity, sustainability, and aftercare.
- Exploring extended uses beyond the primary function.
Studio Structure
This studio will develop extreme environment wearables through three phases:
- Research & Concept Development
- Material Prototyping & Accessories
- Final Wearable/Component Prototype
Exercise 1: Research & Concept Development
Students will explore existing and emerging technologies, material properties, and fabrication techniques to develop an initial concept. The research will inform a design proposal detailing material composition, activation methods, and environmental interactions. Deliverables:
- Research Booklet
- Concept Drawings/Diagrams
- Final Concept Presentation
Exercise 2: Material Prototyping & Accessories
Students will translate research into material swatches and small-scale prototypes, demonstrating the necessary properties and behaviors for extreme environments. Deliverables:
- Material/Accessory Prototype
- Process Prototypes & Iterations
- Final Documentation
Exercise 3: Final Wearable/Component Prototype
Students will develop a human-scale prototype incorporating researched technologies. The final output can be a garment, accessory, or environmental component. Deliverables:
- Functional Prototype
- Process Iterations & Testing Data
- Final Presentation & Documentation
Completion Requirements
Students must complete all exercises, demonstrate rigorous process development, and actively participate in critiques and collaborative work. Attendance and engagement are crucial to the success of this studio.
Iterative Feedback & Refinement
To ensure a robust development process, students will iterate upon their work through peer reviews, faculty guidance, and MIT collaborations. Regular check-ins and testing phases will help refine ideas, integrate technical feedback, and enhance design functionality.
Learning Objectives
- Develop an understanding of interactive and intelligent material systems.
- Conduct applied research integrating adaptive neurotechnology, sensors, and programmable materials.
- Translate conceptual research into physical prototypes through iteration.
- Design garments, accessories, or environmental solutions that respond dynamically to extreme conditions.
- Work collaboratively across disciplines, integrating design, technology, and material science.
- Develop work that contributes to society at large.
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