Climate-Neutral Industrial Systems Design

This module introduces the fundamental concepts of industrial emissions and their various sources, covering the primary approaches and technologies available for reducing greenhouse gas emissions in industrial settings. The module examines different types of industrial processes and their associated emission profiles.

This module explores the management and treatment of various industrial waste streams, focusing on their contribution to greenhouse gas emissions. Students learn about waste classification, handling procedures, and emission reduction strategies for different types of industrial waste.

This module examines the relationship between industrial energy use, material consumption, and resulting CO2 emissions. It covers energy efficiency principles and methods for tracking and reducing carbon emissions in industrial processes.

This module focuses on heat integration techniques in industrial processes as a method to reduce energy consumption and associated emissions. Students will learn about heat recovery systems, pinch analysis, process integration methodologies, and optimization strategies that allow industries to minimize energy waste by efficiently reusing thermal energy within their operations.

This module explores the integration of renewable energy sources into industrial operations to reduce reliance on fossil fuels. Students will learn about different renewable technologies applicable to industrial settings, such as solar thermal, biomass, wind, and geothermal energy, and understand implementation strategies, challenges, and benefits of transitioning industrial energy systems to renewable sources.

This module examines technologies and strategies for capturing, utilizing, and storing carbon dioxide from industrial processes. Students will learn about different methods of carbon capture, potential applications for captured CO2 in various industries, and approaches to long-term carbon storage. The module explores the technical, economic, and policy aspects of implementing CCUS as part of industrial climate mitigation efforts.

This module introduces industrial ecology principles and systems thinking approaches for understanding industrial processes within broader environmental and economic contexts. Students will learn to analyze industrial systems holistically and identify opportunities for sustainable development.

This module covers life cycle assessment (LCA) methodology for evaluating the environmental impacts of products and processes throughout their entire life cycle. Students will learn to conduct LCA studies and interpret results for decision-making in industrial contexts.

This module examines the governance structures and regulatory frameworks needed for managing integrated energy systems. Students will learn about policy mechanisms, stakeholder coordination, and institutional arrangements for effective energy system governance.

This module explores the trade-offs and synergies involved in implementing climate mitigation measures and examines how Industry 4.0 technologies can support sustainable industrial transformation. Students will learn to evaluate complex interactions between different sustainability strategies.

This module provides a comprehensive understanding of electricity grid operations, including generation, transmission, distribution, and grid management principles. Students will learn about grid infrastructure, power flow, and the technical aspects of electricity system operation.

This module focuses on methods for calculating and analyzing the costs associated with renewable energy technologies. Students will learn about cost structures, economic modeling, and financial assessment techniques for renewable energy projects.

This module examines methods for measuring and analyzing the variability of renewable energy sources, particularly wind and solar. Students will learn about variability metrics, forecasting techniques, and approaches for characterizing renewable energy resource fluctuations.

This module covers methods for assessing and quantifying renewable energy resource potential in different locations and contexts. Students will learn about resource mapping, potential estimation, and site assessment techniques for renewable energy development.

This module explores alternative climate-neutral electricity generation technologies beyond wind and solar, including nuclear, hydroelectric, geothermal, and emerging technologies. Students will learn about the characteristics, applications, and potential of these diverse clean energy options.

This module examines geographical balancing as a strategy for managing renewable energy variability across different locations and regions. Students will learn about spatial distribution benefits, interconnection strategies, and regional grid coordination for optimizing renewable energy integration.

This module focuses on energy storage technologies and strategies for managing renewable energy variability through storage solutions. Students will learn about different storage technologies, their applications, and design considerations for integrating storage with renewable energy systems.

This module explores demand response programs and dispatchable supply options as methods for managing renewable energy variability. Students will learn about demand flexibility, load management, and backup generation strategies for maintaining grid stability.

This module introduces energy system modeling tools and methodologies used to analyze trade-offs between different energy technologies and strategies. Students will learn about modeling approaches, scenario analysis, and how to interpret model results for energy planning and policy decisions.

This module presents a comprehensive case study that applies the concepts and tools learned throughout the course to design practical options for energy transition. Students will work through real-world scenarios and develop integrated solutions for achieving climate-neutral energy systems.