Global Chemical Industry Net-Zero Transition Pathways with CO2 Feedstock

Supplementary data and code support a 2023 Green Chemistry publication modeling the feasibility of a net-zero global chemical industry by 2050. The dataset likely contains parameters and results for scenarios assessing the transition to CO2-based feedstocks, process engineering changes, and associated environmental and economic impacts. It is intended for reproducing and extending the analysis of material flows, energy requirements, and emissions reductions in the chemical sector.

Use Cases

• Modeling carbon feedstock substitution scenarios based on described transition pathways.
• Assessing environmental and economic trade-offs for net-zero chemical production.
• Benchmarking process engineering and energy efficiency parameters for chemical manufacturing.
• Reproducing the life-cycle and material flow analysis from the associated publication.

Strengths

• Directly supports a peer-reviewed publication in Green Chemistry (Volume 25, Pages 415-430).
• Associated with a leading research institution (ETH Zurich).
• Released under an Open Access license, facilitating reuse.

Limitations

• Column names, row counts, and specific file formats are not provided in any source description.
• The dataset's size and last update timestamp are unknown, limiting assessment of its scale and currency.
• Relies on a 'read_me.txt' file for details, but its contents are not described.

Provenance

Source

ETH Zurich, authors of the publication 'Net-zero transition of the global chemical industry with CO2-feedstock by 2050: feasible yet challenging'.

Collection Method

Created as supplementary material for academic research, likely involving modeling and synthesis of existing data.

Time Range

Analysis targets the year 2050 for net-zero goals.

Geography

Global