Intelligent Transport Greener Future 2025
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Annex 1: Methodology
The range of decarbonization potential reflects
low and high ranges to account for uncertainty
around the exact level of current AI penetration
across the logistics sector and transport modes.
Additional variables that will determine the full
decarbonization impact potential of AI initiatives
include the implementation effectiveness of
organizations (e.g. employee behaviour change)
and how the economics evolve for deploying AI
tools and how advanced those AI tools are (e.g.
basic programmes vs most advanced available).
Calculations and assumptions for the three
categories of emission reductions considered in this
report are below:
Empty capacity impact:
Empty capacity impact = Share of baseline
emissions by transport mode that are attributed
to empty capacity x Discount factor to account
for less fuel consumption per mile when transport
modes are lower weight (i.e. lower capacity) x
Share of emissions that can be reduced through AI/
ML levers (as not all will be abated through AI/ML).
Modal shift impact:
The % of logistics trips, broken down by transport
mode and by cargo volume was the starting
baseline. Assumptions of the shift in cargo volume
across transport modes enabled by AI initiatives was then applied to this baseline (e.g. reducing
air freight and adding to rail) to get a new
optimized modal split of cargo volume by transport
mode. Transport mode specific emissions factors
were applied to the baseline and new cargo
volumes. The delta is the decarbonization impact
potential estimate.
Operational efficiencies impact:
This is the sum of decarbonization impact compared
to baseline emissions that AI can address across four
operational levers (driver behaviour, route planning,
dwell time, predictive maintenance). The figure is
discounted for an overlap in impact to avoid double
counting across levers (e.g. route planning is only
effective if driver behaviour is also enacted). The
total impact across these four levers equals total
operational efficiency levers.
All the above assumptions were validated and
refined with experts as well as triangulating with
public research reports and expert interviews.
A high and low range was used to reflect
discrepancies in expert input and reflect uncertainty
in projections of AI/ML’s full-scale potential.
Where sources reference McKinsey expert
interviews, this analysis is based on interviews
conducted by McKinsey & Company with 10+
AI and transportation experts from September to
November 2024, in addition to leveraging learnings
and data analysis from numerous relevant logistics
client engagements.
Intelligent Transport, Greener Future: AI as a Catalyst to Decarbonize Global Logistics
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