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Table 2 State of research of LCA studies with parameters of renewable energy systems

From: An agile life cycle assessment for the deployment of photovoltaic energy systems in the built environment

References

Topic

Region

Product system

Main findings

[16]

Parameterized life cycle inventories

Denmark

Wind turbines

Usage of parameterized inventories instead of generic data

[38]

IC-LCE, integrated computational LCE approach

N.A

Electric vehicle

LCA standardization (methodologies LCA + LCIA) hinders it from becoming a mainstream engineering tool IC-LCE helps with time-intensive tasks and enhances flexibility

[29]

Parameterized life cycle inventories

Denmark

Wind turbines

Usage of parameterized inventories instead of generic data

[18]

ENVI-PV, multicriteria LCA

Worldwide

PV systems

Key parameters:

• Latest LCI

• Solar irradiation

[27]

EROI on PV systems

Moderate solar irradiation

PV systems

Material and energy-intensive energy sink

[28]

EROI on PV systems

Moderate solar irradiation

PV system

Disagree with Ferroni’s methodological failures

[32, 33]

LCA of the recycling process of silicon PV systems

N.A

Silicon PV systems

Key parameter:

• Recycling of Si-wafers

[34]

LCA of China’s multi-Si modules considering international trade

N.A

PV systems

Key parameter

• Electricity mix during production

[36]

A review of LCA of PV systems

Several locations

PV systems

The main result in EPBT, EPBT CO2, GWP Most times FU: 1 kWh Boundaries: production and use with and/or without:

• Installation, BOS, EoL

[39]

Social life-cycle assessment (S-LCA) of residential rooftop solar panels

United States

PV systems

Main potential social impacts of residential rooftop solar panels with a life cycle perspective