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Climate Action 2017-2018

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TRANSPORT<br />

Colin McKerracher, Head of<br />

Advanced Transport at Bloomberg<br />

New Energy Finance<br />

The global automotive industry<br />

is entering a period of profound<br />

transformation. The combination<br />

of supportive policy and improvements<br />

in lithium-ion battery technology have<br />

enabled electric vehicles to gain a toehold<br />

in a market that has been dominated by<br />

the internal combustion engine for over a<br />

hundred years. Meanwhile, tightening fuel<br />

eff iciency regulations and urban air quality<br />

concerns are putting increased pressure on<br />

automakers to improve the rest of their fleet.<br />

Global passenger electric vehicle sales<br />

will hit about 1 million in <strong>2017</strong>, up from one<br />

hundred thousand just a few years earlier.<br />

There are now almost three million electric<br />

vehicles on the world’s roads. But before<br />

we get too excited about this progress, it is<br />

worth bearing in mind that the global fleet<br />

of all cars is around 1 billion. Reductions<br />

in emissions from road transport will be<br />

a key part of meeting climate targets, but<br />

an average vehicle is on the road for 12-15<br />

years, creating significant lock-in to our<br />

current transport system. So, just how far<br />

can EV adoption go and what would this<br />

mean for energy and automotive markets?<br />

Lithium-ion battery prices per kilowatthour<br />

dropped 74 per cent between 2010<br />

and 2016 and their energy density is<br />

improving by around 5 per cent per year.<br />

This puts electric vehicles on a path<br />

towards being fully cost-competitive with<br />

their internal combustion counterparts,<br />

a point that will be reached in diff erent<br />

countries from 2025 onwards. In response,<br />

automakers around the world are ramping<br />

up the number of electric models they<br />

off er – there are 150 diff erent plug-in<br />

hybrids and pure electrics available today,<br />

and this is set to rise to over 240 by 2021.<br />

Groups like VW, Daimler, Volvo and Nissan<br />

have made aggressive plans to electrify<br />

their vehicles over the next 10 years.<br />

China is pushing the hardest here.<br />

China’s 2025 auto plan calls for internal<br />

combustion sales to flatline and EVs to<br />

make up all vehicle sales growth over the<br />

next seven years. Its recently introduced<br />

‘new energy vehicle’ quota requires<br />

automakers to sell a set percentage of<br />

electric or fuel cell vehicles, which it will<br />

ratchet up over time. China is doing this<br />

not just to reduce oil imports and improve<br />

urban air quality, but also for industrial<br />

policy reasons. As the vehicle mix shifts,<br />

China wants to position its domestic<br />

automakers to leapfrog established<br />

international brands. A thriving, globally<br />

competitive auto sector is a major source<br />

of employment, investment and innovation.<br />

Nobody wants to see their national<br />

champions left behind.<br />

A view to 2040<br />

Each year at Bloomberg New Energy<br />

Finance, we publish a comprehensive<br />

global Electric Vehicle Outlook, in which<br />

we look at all the technology, policy and<br />

economics factors that could influence<br />

EV adoption over the next two decades.<br />

In this year’s report, we concluded that 54<br />

per cent of the world’s vehicle sales would<br />

be electric by 2040, with Europe, China<br />

and the U.S. the largest EV markets. Some<br />

countries will get there much sooner. In<br />

Norway – the leader on EV adoption –<br />

sales are already above 40 per cent and<br />

the government is aiming fully to phase<br />

out traditional vehicle sales by 2025.<br />

Our forecast would mean 530 million<br />

electric vehicles on the road in 2040, or<br />

around a third of the total fleet. This is a<br />

dramatic change from today and would<br />

require significant scale-up in the battery<br />

manufacturing supply chain, in materials,<br />

and in charging infrastructure. This many<br />

EVs would displace around eight million<br />

barrels per day of oil demand, and would<br />

increase global electricity demand by<br />

around 5 per cent. The power system can<br />

Credit: Bloomberg<br />

accommodate the additional demand, but<br />

smart-charging systems will be needed<br />

to ensure vehicles are not contributing to<br />

demand during peak periods. CO 2<br />

emissions<br />

would also fall. Even with power generation<br />

emissions in diff erent countries factored<br />

in, EVs still have a lower CO 2<br />

footprint per<br />

kilometre driven and this gap is set to widen<br />

further over time as the amount of renewable<br />

power generation grows.<br />

So what holds back further adoption?<br />

Charging infrastructure is still a major<br />

barrier, particularly in urban areas with<br />

limited off -street parking. Low average<br />

vehicle purchase prices and power grid<br />

issues in emerging economies also play a<br />

role. Supply constraints for key materials<br />

like cobalt, lithium and graphite could still<br />

slow down the declines in battery cost<br />

seen in recent years. Governments will<br />

need to recoup some of the lost revenues<br />

102

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