WEBVTT

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Is carbon capture a
help or a hindrance?

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From my point of view, it's
a little bit of column A

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and a little bit of column B.

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I don't think at
this stage we really

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have a plan of
getting to net zero

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without some role for
carbon capture and storage.

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There is this sense that,
for some industries,

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like steel and
cement, it's going

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to be very difficult for
them to get to absolute zero.

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But what should
the role of CCS be

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for the oil and gas
sector, for example,

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is much harder to agree on.

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Long-term, you really need
to change so many things

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about our system,
rather than using

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the same old existing fossil
fuel sources of energy

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and then finding a really
expensive solution to how

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to deal with their emissions.

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We're starting from a
place where there's already

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too much CO2 in the
atmosphere, so you

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need negative
emission technologies

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to remove that last piece.

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And until we have
scale of renewable,

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this is an important
element in decarbonizing

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the use of oil and gas.

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In many ways, it can be a part
of how we address the problem

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but it can't be a magic
cure to climate change.

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Carbon capture.

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Carbon capture.

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Carbon capture.

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The relatively new miracle of
carbon capture and storage.

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There's a lot of talk
about carbon capture

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right now from companies,
from governments.

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There's been a lot more
investment in the sector.

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We saw the US allocate
billions of dollars

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to CCS and give a tax credit
to carbon capture and storage

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projects.

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Because the world
hasn't reduced emissions

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40 billion tonnes
a year, it means

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that the timeline for a
tipping point in warming,

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which is regarded as
1.5 degrees, is nearing,

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and governments, policy
makers, businesses

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are all really scrambling now.

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That means they're turning
to most obvious solutions.

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There is some pushback to
that, though, where people say,

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look, this is not
a silver bullet,

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and the number of CCS facilities
that are actually operational

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is pretty small.

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They don't capture,
in the grand scheme

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of things, that much carbon.

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In 2021, there was around
40 million tonnes of CO2

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captured by existing
CCS projects.

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If the world is to be on
the right path for net zero,

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that number would need to rise
to around 1.7 billion tonnes

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of CO2 by around 2030.

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That's a 40x increase
just the next eight years.

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To effectively
capture carbon, you

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have to get it from the
source, and so therefore, you

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need to have the facility where
the emission is coming from.

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Some of the biggest proponents
and investors in CCS projects

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have been oil and gas companies.

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It is the oil and gas industry
which has the capability

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to actually find the
stores for the CO2

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and to physically store it.

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And most of the oil and gas
companies, including Equinor,

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have been operating offshore
for very many years.

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Those capabilities together
is a big element of the CCS.

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Norway started with this
already in the 1990s.

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They've got a North
Sea oil and gas

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platform where they've
been pumping CO2

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into the seabed since 1996.

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For the Sleipner field
and Snøhvit together,

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we have avoided CO2 emissions
for 25 years of 1 to 2 million

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tonnes per year.

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So quite a bit of experience.

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But then in 2007, 2008,
they tried something

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that the prime minister,
then Jens Stoltenberg,

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called Norway's moon landing.

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The full scale
carbon capture plant

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on the new combined heat and
power plant on our West Coast.

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This has never been done before,
and we are poised to do it.

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Well, unfortunately,
it didn't quite

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go as well as Neil
Armstrong, and they

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had to abandon it
after spending billions

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and billions of kroner.

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And so they've got
a lot of experience,

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but it's essentially
uneconomical

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to do at any scale.

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Whether it's the
carbon capture scale

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or it's the transport scale and
the storage scale, all of those

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are driven to lower economic
costs by increasing the size.

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The key question is how
we make that economic

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and how you
incentivise companies

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when it's an expensive
process and there's

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no actual economic driver
for them to do that.

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Once you capture the carbon,
what do you do with the carbon?

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In theory, in lots
of projects, you just

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bury it underground, you
put it under the sea,

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and that's great.

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But that's not a revenue source.

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But if a use can be found for
this CO2, a commercial use,

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that would also
make the economics

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a lot more attractive.

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Carbon capture and storage
is what it says on the tin.

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It's a capture of the carbon
and storing it underground.

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Then there is its sister,
which is carbon capture, usage,

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and storage.

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CCUS is where some of that
captured carbon dioxide

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is actually reused in industries
where carbon dioxide is

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absolutely crucial and where
there isn't currently an answer

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for actually
replacing its usage.

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Your soda is fizzy
because of CO2

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that was stripped out of
these industrial plants.

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It can be used in products like
fertiliser, plastics and things

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that are really
important to industry.

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And that's a viable
business model.

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That's one that
can support itself.

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You can sell the CO2
to any industrial user.

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We saw last year, when
a fertiliser plant

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in the northeast of
England was closed down,

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which actually was a big
producer of carbon dioxide

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as well, there was then sudden
panic about a whole range

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of vital, vital industries,
such as the food processing

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industry, how they were going to
get the CO2 that's desperately

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needed in those industries.

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But it still is
tinkering at the edges,

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it seems to me, of a
much bigger problem.

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And it is not going to be the
answer to the masses of carbon

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dioxide that are
emitted from fossil fuel

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extraction in the first
place or from the burning

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of other carbon-producing fuels.

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Enhanced oil recovery has been
one of the single biggest uses

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of captured CO2, where
you take pressurised CO2,

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and you pump it back into
old oil wells to increase

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the pressure inside the
reserve and therefore dislodge

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the remaining hydrocarbon.

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So ironically, in many
ways, a technology

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that is used at the moment to
try and kind of limit the worst

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effects of global warming, to
try and combat climate change,

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was developed in the first place
to produce more fossil fuels.

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And that seems quite
antithetical to how

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it's being talked about by
governments or by the IEA.

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That's not really, I
think, what most people

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think it should be used
for or is being used for.

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The environmental
community is arguing

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that it's counterintuitive.

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You're capturing carbon
and then injecting it

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into a reservoir in order to
produce more hydrocarbons then

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burn it and create more carbon.

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So what's the point?

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How about don't dig that
hydrocarbon up whatsoever?

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Don't burn it.

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The oil industry argues
that enhanced oil recovery

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has been a benefit because
they are storing carbon.

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Oxy, for over 50 years, has
been really the world's largest

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handler of CO2, 20
million tonnes a year,

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in terms of volume.

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And they argue that they have
a unique skill set around CCS,

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where they can really play
a leading role in pushing

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these things forward.

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A particularly
interesting example

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is Occidental Petroleum,
which is seeking

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to use its expertise in that
field to capture and store

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those emissions that are
produced by the company's

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operations and its
suppliers, but also,

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in theory, enough carbon
emissions to offset whatever

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oil was burned by its
customers and the emissions

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that that created.

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90 per cent of the carbon
footprint of the big oil

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companies comes from when
their products are burnt.

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So that's really changed
the calculus for them

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and they've had to rethink
CCS as a technology.

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And they're now
exploring ways in which

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to really expand that at scale.

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Today, we have chosen to
partner with Carbon Engineering,

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a great, large-scale technology
for direct air capture

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to create a true cost solution.

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That's the ability to take
a million tonnes per plant

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directly out of the air.

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We have a plan between
70 and 135 plants

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by 2035, which we believe
is very important to address

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this problem.

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I think the question is always,
how much trust do those oil

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companies have, having
been at the centre of some

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of the biggest emissions over
the last three decades and been

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at the centre of a really
contentious effort to push

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back, in some cases, against
environmental strategies over

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the past 30 years?

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And I think the worry is that
if you overly focus on CCS,

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and if you're seen to
have this quick fix,

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do you just go first
for that, rather

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than changing your
processes to make

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them less energy-intensive
or carbon-intensive?

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The key problem
with carbon capture,

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as many
environmentalists see it,

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is that fossil fuel
producers can continue

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to operate as they are operating
now, without having to overhaul

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the way they do things.

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Because any emissions
that are produced

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can just be sucked back up.

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Environmentalists and climate
change experts and scientists,

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actually, not to
make them all sound

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like they're tree huggers,
believe that the first priority

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should be the
reduction of carbon

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emissions in the atmosphere.

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And I think that's what we
need to really get across

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and what the big oil companies
need to probably understand

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is that if we don't
reduce oil and gas

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production and
consumption, then we're not

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going to hit net zero 2050.

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The industry - and the
IEA, quite frankly -

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and others will say
that no matter what,

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fossil fuels are going to be
around for decades to come.

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And CCS can be a
really critical way

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of decarbonizing the sectors.

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Other people say we don't
actually need that coal

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and gas, full stop.

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We can get to net
zero without worrying

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about the fossil
fuels, and that's

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why I would argue
that, actually, CCS

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is a bit of a distraction.

00:11:26.430 --> 00:11:27.870 align:middle line:90%
They're worried about costs.

00:11:27.870 --> 00:11:30.570 align:middle line:84%
Should the money that's
going towards carbon capture

00:11:30.570 --> 00:11:34.290 align:middle line:84%
and storage actually be
used to try and really

00:11:34.290 --> 00:11:38.430 align:middle line:84%
accelerate even further offshore
wind deployment or onshore wind

00:11:38.430 --> 00:11:42.532 align:middle line:84%
deployment or solar or other
clean energy technologies?

00:11:42.532 --> 00:11:45.600 align:middle line:84%
Renewable is developed
today at scale,

00:11:45.600 --> 00:11:48.780 align:middle line:84%
and we really believe
in wind, but we need

00:11:48.780 --> 00:11:52.620 align:middle line:90%
much larger scale of renewable.

00:11:52.620 --> 00:11:55.410 align:middle line:84%
Until we have that
scale of renewable,

00:11:55.410 --> 00:11:58.335 align:middle line:84%
we would need CCS
to bridge that.

00:12:03.670 --> 00:12:06.460 align:middle line:84%
You're not going to bring
down emissions with CCS alone.

00:12:06.460 --> 00:12:09.040 align:middle line:84%
But I think, ultimately, what
we should now recognise is that

00:12:09.040 --> 00:12:13.870 align:middle line:84%
even if we manage to cut
emissions to net zero by 2040,

00:12:13.870 --> 00:12:16.570 align:middle line:84%
10 years early, at that point,
we'd still have a huge amount

00:12:16.570 --> 00:12:19.780 align:middle line:84%
of carbon in the atmosphere that
we'd want to try and pull out.

00:12:19.780 --> 00:12:23.230 align:middle line:84%
Negative emissions technology
is any type of system

00:12:23.230 --> 00:12:26.890 align:middle line:84%
that is reducing the overall
CO2 in the atmosphere,

00:12:26.890 --> 00:12:29.410 align:middle line:84%
so whether that's direct air
capture, for example, to take

00:12:29.410 --> 00:12:31.720 align:middle line:84%
the CO2 out, pump
it underground,

00:12:31.720 --> 00:12:36.560 align:middle line:84%
or other approaches, such as
bioenergy capture and storage.

00:12:36.560 --> 00:12:41.575 align:middle line:84%
One of the biggest proposals
for this is in the UK at Drax.

00:12:41.575 --> 00:12:43.270 align:middle line:84%
We have a publicly
stated ambition

00:12:43.270 --> 00:12:47.270 align:middle line:84%
to have 12 million tonnes of
negative emissions before 2030.

00:12:47.270 --> 00:12:50.230 align:middle line:84%
8 million of that would be
here at Drax power station,

00:12:50.230 --> 00:12:51.805 align:middle line:84%
and BECCS underpins
that ambition.

00:12:55.000 --> 00:12:58.450 align:middle line:84%
Drax, having been once
Europe's biggest emitter - it

00:12:58.450 --> 00:13:00.415 align:middle line:84%
was a huge coal
fired power station

00:13:00.415 --> 00:13:03.430 align:middle line:84%
- has converted
biomass, and it's

00:13:03.430 --> 00:13:06.370 align:middle line:84%
now developing BECCS,
a horrible word,

00:13:06.370 --> 00:13:09.010 align:middle line:84%
but basically means
bioenergy with carbon capture

00:13:09.010 --> 00:13:10.187 align:middle line:90%
and storage.

00:13:10.187 --> 00:13:14.230 align:middle line:84%
So combining those means, in
theory, it's carbon-negative,

00:13:14.230 --> 00:13:16.030 align:middle line:84%
as you've got a
neutral baseline,

00:13:16.030 --> 00:13:18.250 align:middle line:84%
and then you've got this
thing removing more carbon,

00:13:18.250 --> 00:13:21.370 align:middle line:84%
so it becomes
negative, in theory.

00:13:21.370 --> 00:13:23.950 align:middle line:84%
If you start with a tree, the
tree is growing in the forest.

00:13:23.950 --> 00:13:25.900 align:middle line:90%
It absorbs CO2 as it grows.

00:13:25.900 --> 00:13:28.000 align:middle line:90%
That CO2 is stored in its wood.

00:13:28.000 --> 00:13:30.490 align:middle line:84%
That's turned into a wood
pellet which is then burned.

00:13:30.490 --> 00:13:33.940 align:middle line:84%
The CO2 is then captured and
injected into the ground.

00:13:33.940 --> 00:13:36.970 align:middle line:84%
That whole process has
resulted, in principle,

00:13:36.970 --> 00:13:40.170 align:middle line:90%
in a net negative CO2 impact.

00:13:40.170 --> 00:13:42.640 align:middle line:84%
We need negative
emissions in the UK.

00:13:42.640 --> 00:13:46.720 align:middle line:84%
The net zero 2050 strategy
sets out a very clear 5 million

00:13:46.720 --> 00:13:50.230 align:middle line:84%
tonne negative emission
number required by 2030.

00:13:50.230 --> 00:13:53.920 align:middle line:84%
Our project is perfectly
shaped to fill that ambition.

00:13:53.920 --> 00:13:55.570 align:middle line:84%
It's probably the
cheapest way you

00:13:55.570 --> 00:13:57.850 align:middle line:84%
can get to at-scale
negative emissions

00:13:57.850 --> 00:13:59.710 align:middle line:90%
with the least amount of work.

00:13:59.710 --> 00:14:00.790 align:middle line:90%
Why wouldn't you?

00:14:00.790 --> 00:14:04.390 align:middle line:84%
BECCS, and just
biomass in general,

00:14:04.390 --> 00:14:08.360 align:middle line:84%
even before we get to BECCS,
has been hugely controversial.

00:14:08.360 --> 00:14:11.410 align:middle line:84%
Some just think it's
colourful carbon accounting.

00:14:11.410 --> 00:14:13.480 align:middle line:84%
At the crux, what
you have to know

00:14:13.480 --> 00:14:16.060 align:middle line:84%
is whether the biomass
energy that is produced

00:14:16.060 --> 00:14:18.280 align:middle line:90%
is carbon-neutral.

00:14:18.280 --> 00:14:20.410 align:middle line:84%
If you can prove that
it is, then BECCS

00:14:20.410 --> 00:14:22.600 align:middle line:84%
can be a negative
emissions technology.

00:14:22.600 --> 00:14:26.980 align:middle line:84%
But if you can't,
and until you can,

00:14:26.980 --> 00:14:30.490 align:middle line:84%
then we shouldn't put all of
this money and time and effort

00:14:30.490 --> 00:14:32.770 align:middle line:90%
into growing a BECCS pipeline.

00:14:32.770 --> 00:14:34.900 align:middle line:84%
You do that on the
expectation that it's

00:14:34.900 --> 00:14:38.050 align:middle line:84%
going to be operational
for decades,

00:14:38.050 --> 00:14:40.825 align:middle line:84%
and so doing that locks it
into the system for decades.

00:14:44.535 --> 00:14:46.060 align:middle line:84%
One of the really
big changes we've

00:14:46.060 --> 00:14:50.170 align:middle line:84%
seen in the carbon capture
space is the emergence

00:14:50.170 --> 00:14:53.260 align:middle line:84%
of this idea of having
hubs, as they're usually

00:14:53.260 --> 00:14:55.060 align:middle line:84%
called, here in the
US, or clusters,

00:14:55.060 --> 00:14:57.700 align:middle line:84%
as they're often called
in the UK and in Europe.

00:14:57.700 --> 00:15:00.590 align:middle line:84%
The idea of a cluster
probably does make sense.

00:15:00.590 --> 00:15:03.100 align:middle line:84%
You've got different operators
that do different things

00:15:03.100 --> 00:15:05.590 align:middle line:90%
sort of sharing infrastructure.

00:15:05.590 --> 00:15:08.470 align:middle line:84%
It's just making the whole
system more efficient.

00:15:08.470 --> 00:15:10.240 align:middle line:84%
You could see why
that makes sense.

00:15:10.240 --> 00:15:11.740 align:middle line:84%
They're going to
make a lot of sense

00:15:11.740 --> 00:15:14.170 align:middle line:84%
in areas where you have a
high-industrialised area

00:15:14.170 --> 00:15:16.120 align:middle line:84%
with multiple
industries that can

00:15:16.120 --> 00:15:18.040 align:middle line:84%
manage the storage
together, share

00:15:18.040 --> 00:15:19.982 align:middle line:90%
the cost of the transport.

00:15:19.982 --> 00:15:23.950 align:middle line:84%
Norway is trying to develop
a big project currently

00:15:23.950 --> 00:15:28.900 align:middle line:84%
in the North Sea, as a store
or a less charitable way

00:15:28.900 --> 00:15:35.530 align:middle line:84%
of describing it as a graveyard
for CO2, for a lot of Europe.

00:15:35.530 --> 00:15:39.550 align:middle line:84%
At the moment it's a
relatively modest project,

00:15:39.550 --> 00:15:42.730 align:middle line:84%
but they say it has the
potential to store, I think,

00:15:42.730 --> 00:15:47.110 align:middle line:84%
it's a sort of 1,000
annual emissions of Norway

00:15:47.110 --> 00:15:48.400 align:middle line:90%
under the seabed.

00:15:48.400 --> 00:15:50.770 align:middle line:84%
And then you've got
the creatively titled

00:15:50.770 --> 00:15:54.745 align:middle line:90%
Zero Carbon Humber in the UK.

00:15:54.745 --> 00:15:56.627 align:middle line:84%
In the Humber area, we
are working together

00:15:56.627 --> 00:16:00.790 align:middle line:84%
with 12 companies to put in
place infrastructure that

00:16:00.790 --> 00:16:03.910 align:middle line:84%
is required for
them to decarbonize

00:16:03.910 --> 00:16:07.920 align:middle line:84%
and have the opportunity to
transport the CO2 to the store.

00:16:07.920 --> 00:16:09.760 align:middle line:84%
We have to reduce
carbon emissions

00:16:09.760 --> 00:16:13.540 align:middle line:84%
from industrial sources, from
electricity production sources.

00:16:13.540 --> 00:16:15.230 align:middle line:90%
We absolutely have to do that.

00:16:15.230 --> 00:16:19.420 align:middle line:84%
But we're still going to be
left with hard-to-abate sectors

00:16:19.420 --> 00:16:22.555 align:middle line:84%
where we've got residual
emissions that we can't do.

00:16:22.555 --> 00:16:25.570 align:middle line:84%
There's lots of them -
steel, ceramics, chemicals.

00:16:25.570 --> 00:16:28.330 align:middle line:84%
Where it's just not easy
to envisage at the moment

00:16:28.330 --> 00:16:32.140 align:middle line:84%
how actually they're
going to be able to exist

00:16:32.140 --> 00:16:33.333 align:middle line:90%
in a net-zero world.

00:16:33.333 --> 00:16:34.750 align:middle line:84%
So there's definitely
a case to be

00:16:34.750 --> 00:16:38.200 align:middle line:84%
made that these
technologies will

00:16:38.200 --> 00:16:40.060 align:middle line:90%
save some of those industries.

00:16:40.060 --> 00:16:43.240 align:middle line:84%
And without it,
it's very difficult

00:16:43.240 --> 00:16:44.785 align:middle line:90%
to see what will happen.

00:16:44.785 --> 00:16:47.530 align:middle line:84%
What people don't realise
is that 85 per cent

00:16:47.530 --> 00:16:51.790 align:middle line:84%
of our emissions are the
result of the heat to drive

00:16:51.790 --> 00:16:52.540 align:middle line:90%
our processes.

00:16:52.540 --> 00:16:53.665 align:middle line:90%
It's heat that makes steam.

00:16:53.665 --> 00:16:54.940 align:middle line:90%
It's heat to drive furnaces.

00:16:54.940 --> 00:16:57.430 align:middle line:84%
It's heat to drive
rotating equipment.

00:16:57.430 --> 00:16:59.260 align:middle line:84%
And that's why you
have to think about,

00:16:59.260 --> 00:17:01.150 align:middle line:84%
how can I use different
fuel sources that

00:17:01.150 --> 00:17:03.340 align:middle line:84%
can generate that heat
with a carbon-free way?

00:17:03.340 --> 00:17:06.310 align:middle line:84%
We will also help
providing hydrogen,

00:17:06.310 --> 00:17:10.327 align:middle line:84%
if that is helping them
to reduce their emissions.

00:17:10.327 --> 00:17:12.869 align:middle line:84%
We're not going to be able to
use electricity for everything.

00:17:12.869 --> 00:17:15.248 align:middle line:84%
So for the things that you
can't use electricity for,

00:17:15.248 --> 00:17:16.790 align:middle line:84%
then you're going
to need a molecule,

00:17:16.790 --> 00:17:18.895 align:middle line:84%
and I think that molecule
is going to be hydrogen.

00:17:23.184 --> 00:17:27.970 align:middle line:84%
In many ways, the
development of and optimism

00:17:27.970 --> 00:17:30.670 align:middle line:84%
around carbon capture
goes hand-in-hand

00:17:30.670 --> 00:17:34.030 align:middle line:84%
with the development of and
optimism around hydrogen

00:17:34.030 --> 00:17:36.355 align:middle line:90%
as a future energy solution.

00:17:36.355 --> 00:17:39.220 align:middle line:84%
There's a big increase in
hydrogen investment right now,

00:17:39.220 --> 00:17:41.620 align:middle line:84%
and forecasts show that
hydrogen consumption

00:17:41.620 --> 00:17:47.590 align:middle line:84%
will need to increase as we
move towards net zero emissions.

00:17:47.590 --> 00:17:51.040 align:middle line:84%
Hydrogen is a perfectly
clean fuel to burn.

00:17:51.040 --> 00:17:53.715 align:middle line:84%
When you burn it,
no CO2 is emitted.

00:17:53.715 --> 00:17:56.560 align:middle line:84%
So you can feed hydrogen
into a power station

00:17:56.560 --> 00:17:59.350 align:middle line:84%
instead of natural
gas, so making

00:17:59.350 --> 00:18:01.360 align:middle line:90%
the power generation clean.

00:18:01.360 --> 00:18:06.250 align:middle line:84%
And then we can use hydrogen
as a reduction agent,

00:18:06.250 --> 00:18:08.740 align:middle line:84%
very technical, into
the steel industry

00:18:08.740 --> 00:18:13.150 align:middle line:84%
so they can use hydrogen instead
of coal in their processes.

00:18:13.150 --> 00:18:14.860 align:middle line:84%
There's two main
ways to produce it.

00:18:14.860 --> 00:18:17.050 align:middle line:84%
One is using clean
energy, and that

00:18:17.050 --> 00:18:19.510 align:middle line:84%
leads to what we
call green hydrogen.

00:18:19.510 --> 00:18:22.180 align:middle line:84%
You can also make
hydrogen from natural gas,

00:18:22.180 --> 00:18:25.870 align:middle line:84%
along with CCS that removes
the emissions from the chemical

00:18:25.870 --> 00:18:28.195 align:middle line:84%
process, and that's
called blue hydrogen.

00:18:28.195 --> 00:18:32.770 align:middle line:84%
We cannot produce clean or
green hydrogen in large enough

00:18:32.770 --> 00:18:35.440 align:middle line:84%
quantities and that's
low enough cost for all

00:18:35.440 --> 00:18:39.510 align:middle line:84%
of the applications for which
hydrogen might be needed.

00:18:39.510 --> 00:18:41.080 align:middle line:84%
And so until that
comes down, I do

00:18:41.080 --> 00:18:44.500 align:middle line:84%
think blue hydrogen can
be a useful bridging fuel

00:18:44.500 --> 00:18:48.640 align:middle line:84%
to increase adoption of
hydrogen as an option.

00:18:48.640 --> 00:18:51.550 align:middle line:84%
Blue hydrogen is a nice
label, but it still

00:18:51.550 --> 00:18:54.340 align:middle line:84%
doesn't get away from the fact
that you're emitting carbon

00:18:54.340 --> 00:18:55.690 align:middle line:90%
to produce a gas.

00:18:55.690 --> 00:19:03.130 align:middle line:84%
So it doesn't, to me,
seem to be a huge advance.

00:19:03.130 --> 00:19:07.840 align:middle line:84%
Again, hydrogen, is
it being overhyped?

00:19:07.840 --> 00:19:10.420 align:middle line:84%
Because if we start replacing
absolutely everything

00:19:10.420 --> 00:19:13.270 align:middle line:84%
with hydrogen, then
we will continue

00:19:13.270 --> 00:19:17.590 align:middle line:84%
to rely on fossil fuel
companies extracting gas

00:19:17.590 --> 00:19:21.280 align:middle line:84%
because we will have created
so many industries of hydrogen

00:19:21.280 --> 00:19:24.505 align:middle line:84%
at the core that we won't
be able to wean ourselves

00:19:24.505 --> 00:19:25.255 align:middle line:90%
off blue hydrogen.

00:19:30.390 --> 00:19:34.050 align:middle line:84%
To make sure we reach the
climate goals and the Paris

00:19:34.050 --> 00:19:38.460 align:middle line:84%
Agreement, we need to use
all the tools in the toolbox.

00:19:38.460 --> 00:19:42.840 align:middle line:84%
Those being CCS, it's blue
hydrogen, it's green hydrogen,

00:19:42.840 --> 00:19:46.140 align:middle line:84%
it's electrification,
and it is wind and solar.

00:19:46.140 --> 00:19:50.835 align:middle line:84%
This is the way to
decarbonise our society.

00:19:50.835 --> 00:19:55.290 align:middle line:84%
There is room for some of these
technologies in areas where

00:19:55.290 --> 00:19:58.770 align:middle line:84%
the industry, for
all its best efforts,

00:19:58.770 --> 00:20:01.710 align:middle line:84%
cannot transform
itself quickly enough.

00:20:01.710 --> 00:20:05.160 align:middle line:84%
But even for those
industries, over time, it

00:20:05.160 --> 00:20:07.320 align:middle line:84%
must become more
expensive for them

00:20:07.320 --> 00:20:12.030 align:middle line:84%
to deal in carbon so that
other technologies become

00:20:12.030 --> 00:20:14.820 align:middle line:84%
more viable, renewable
energy becomes more viable.

00:20:14.820 --> 00:20:16.950 align:middle line:84%
It's absolutely right
that we shouldn't use one

00:20:16.950 --> 00:20:18.360 align:middle line:90%
to avoid doing the other.

00:20:18.360 --> 00:20:21.240 align:middle line:84%
What we need to do is
deploy both in parallel.

00:20:21.240 --> 00:20:24.630 align:middle line:84%
And I think that's what the
industry and most industries

00:20:24.630 --> 00:20:27.240 align:middle line:90%
are trying to achieve.

00:20:27.240 --> 00:20:29.370 align:middle line:90%
The climate crisis is so acute.

00:20:29.370 --> 00:20:32.610 align:middle line:84%
The need for massive
investment is so great

00:20:32.610 --> 00:20:35.640 align:middle line:84%
that I don't think we can be too
picky about who advances what

00:20:35.640 --> 00:20:37.860 align:middle line:90%
technology and who's in charge.

00:20:37.860 --> 00:20:41.115 align:middle line:84%
It's too early to take
options off the table.

00:20:41.115 --> 00:20:42.960 align:middle line:84%
I personally see
carbon capture as

00:20:42.960 --> 00:20:46.080 align:middle line:84%
critical to delivering on carbon
neutrality for our industry,

00:20:46.080 --> 00:20:47.880 align:middle line:90%
and actually, society.

00:20:47.880 --> 00:20:50.640 align:middle line:84%
But at the end of
the day, I do see it

00:20:50.640 --> 00:20:53.850 align:middle line:84%
as a critical part of the
transition, and the role of it,

00:20:53.850 --> 00:20:55.620 align:middle line:84%
I think, will
diminish over time.

00:20:55.620 --> 00:20:59.400 align:middle line:84%
Supporters of carbon capture
and storage, the next few years

00:20:59.400 --> 00:21:01.350 align:middle line:84%
are going to be
absolutely crucial

00:21:01.350 --> 00:21:05.460 align:middle line:84%
for them to show that these are
technologies that are viable,

00:21:05.460 --> 00:21:07.800 align:middle line:84%
that they can deliver the
capture rates that they

00:21:07.800 --> 00:21:11.220 align:middle line:84%
promise, that costs
can come down.

00:21:11.220 --> 00:21:14.175 align:middle line:84%
They've got to prove that
actually will happen.

00:21:14.175 --> 00:21:16.350 align:middle line:84%
And I think that will
decide whether this

00:21:16.350 --> 00:21:21.060 align:middle line:84%
is the right moment, and,
CCS is in the sweet spot,

00:21:21.060 --> 00:21:28.070 align:middle line:84%
or whether CCS again looks a bit
of an expensive white elephant.