Industrial Decarbonization Lags Due to Socio-Technical Barriers, Not Just Technology

Why It Matters

This insight highlights that successful industrial decarbonization requires a holistic approach that addresses the human and systemic factors alongside technological advancements. Designers and engineers must consider the broader context of implementation, including user adoption, organizational structures, and economic incentives, to ensure that sustainable solutions are effectively integrated and scaled.

Key Finding

The research found that while technologies for industrial decarbonization exist, their implementation is slowed down by issues related to cost, how companies are organized, and people's behavior, indicating that solutions need to address these human and systemic factors.

Key Findings

• Adoption of energy and resource efficiency practices in industry lags significantly behind its potential.
• Barriers to decarbonization are multi-faceted, including economic (e.g., cost, investment), organizational (e.g., inertia, lack of integration), and behavioral (e.g., resistance to change, lack of awareness) challenges.
• Technological innovation alone is insufficient; socio-technical system analysis and targeted policy measures are crucial for driving adoption and achieving commercial liftoff.

Research Evidence

Aim: What are the primary socio-technical barriers preventing the widespread adoption of energy and resource efficiency measures for industrial decarbonization, and what policy interventions can effectively address them?

Method: Systematic Literature Review

Procedure: A comprehensive systematic review was conducted on over 2.8 million references, focusing on 380 selected studies related to industrial decarbonization. The review adopted a socio-technical lens, examining raw materials, pre-processing, manufacturing, and waste/recycling stages across the industrial supply chain. It identified and analyzed economic, organizational, and behavioral barriers, as well as policy options.

Context: Industrial Decarbonization

Design Principle

Integrate socio-technical feasibility into the design process for sustainable industrial solutions.

How to Apply

When developing new industrial processes or products aimed at reducing environmental impact, conduct an analysis of potential economic, organizational, and behavioral barriers to adoption and design strategies to mitigate them.

Limitations

The review's findings are based on existing literature, and the effectiveness of specific policy interventions may vary across different industrial sectors and geographical contexts.

Student Guide (IB Design Technology)

Simple Explanation: Even if a new technology can help factories reduce pollution and save energy, it might not get used much because it's too expensive, hard to fit into how the factory already works, or people don't want to change how they do things.

Why This Matters: Understanding these barriers helps you design solutions that are more likely to be adopted and make a real difference in sustainability, rather than just being technically sound but practically unworkable.

Critical Thinking: If technology is not the primary barrier, what are the most effective strategies for overcoming deeply ingrained organizational inertia and behavioral resistance in industrial settings?

IA-Ready Paragraph: This research highlights that the successful implementation of industrial decarbonization strategies, such as energy and resource efficiency, is significantly impeded by socio-technical barriers. Beyond technological feasibility, economic viability, organizational integration, and behavioral acceptance are critical determinants of adoption. Therefore, any design project aiming for industrial sustainability must proactively address these factors to ensure practical impact and widespread use.

Project Tips

• When researching a design problem, look beyond just the technical aspects and consider who will use the solution, how it will be implemented in a real-world setting, and what might stop people from adopting it.
• Think about the 'human factors' and 'organizational factors' that could affect the success of your design, not just the 'product factors'.

How to Use in IA

• Use this research to justify why your design needs to consider user needs, organizational constraints, and economic viability, not just technical performance.
• Cite this paper when discussing the challenges of implementing sustainable technologies in your design project.

Examiner Tips

• Demonstrate an understanding that design solutions must be practical and implementable, not just theoretically optimal.
• Show how you have considered the broader context of your design's adoption and use.

Independent Variable: Socio-technical factors (economic, organizational, behavioral barriers)

Dependent Variable: Adoption rate of energy and resource efficiency measures for industrial decarbonization

Controlled Variables: Technological advancements, policy interventions

Strengths

• Comprehensive scope covering a vast number of references.
• Application of a socio-technical lens provides a holistic understanding of the problem.

Critical Questions

• How can designers actively influence policy to better support sustainable industrial innovation?
• What are the ethical considerations when designing for behavioral change in an industrial context?

Extended Essay Application

• An Extended Essay could investigate the specific socio-technical barriers to adopting a particular sustainable technology within a chosen industry and propose design interventions to overcome them.
• It could also explore the role of policy design in facilitating the diffusion of eco-innovations.

Source

Energy, material, and resource efficiency for industrial decarbonization: A systematic review of sociotechnical systems, technological innovations, and policy options · Energy Research & Social Science · 2024 · 10.1016/j.erss.2024.103521