Details Master's Thesis

Background
The building sector is one of the key drivers of global greenhouse gas emissions. While operational emissions are being increasingly reduced, attention is shifting toward embodied emissions along complex material and value chains. Although current approaches enable consistent quantification by linking material flow analyses and life cycle assessments, they remain predominantly static and non-automated.

Scope of the Work
The goal of this work is to develop an automated carbon footprint calculator that translates an existing scientific framework into a practical tool. The focus is on translating a hybrid model into a scalable software solution that integrates material, energy, and emissions data and systematically processes it through standardized life cycle modules.

•     Development of a data-driven software architecture
•     Implementation of automated calculation logic for emissions
•     Integration of heterogeneous data sources (material, energy, emission factors)
•     Mapping of complete life cycles, including end-of-life and recycling

Requirements
Excellent analytical skills and an interest in data-driven modeling and carbon footprint analysis.
Programming skills, preferably in Python, are required.
The ability to work independently and in a structured manner is essential.

The thesis may be written in German or English.