Carbon Capture and Storage Funding: Exploring Public and Private Sector Initiatives
Introduction
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
Carbon capture and storage (CCS) holds promise as an important bridging technology that can
help mitigate emissions across carbon-intensive sectors like power generation and industrial
processes. However, its commercial deployment faces significant financial challenges due to
high initial capital costs and long investment timeframes. This paper explores public and private
funding initiatives seeking to demonstrate CCS at commercial scales and bring down costs to
facilitate widespread adoption.
The paper begins by discussing the strategic role of CCS in decarbonizing hard-to-abate
sectors. It then maps out the CCS value chain and cost components. Key public support
mechanisms like research subsidies, tax incentives and carbon pricing are analyzed next.
Emerging financing models engaging the private sector are examined as well. Case studies of
CCS projects showcase innovative funding partnerships. The conclusion reflects on optimizing
synergies between stakeholders to advance CCS deployment despite economic uncertainties.
Role of CCS in Low-Carbon Transition
CCS offers the prospect of continued fossil fuel usage with significantly reduced emissions via
permanent geological storage or utilization of captured carbon dioxide (CO2). It provides a
valuable tool to decarbonize sectors reliant on liquid fuels like long-haul transport and industries
where electrification poses technical challenges.
International climate goals necessitate rapid cuts from power generation and heavy industry
estimated to account for over a third of global emissions by 2050. CCS could contribute
significantly if deployed widely before mid-century while enabling businesses to transition
gradually at affordable costs.
Unique challenges arise from CCS's high upfront capital needs and long asset life often
exceeding 30 years. Long commercialization periods, performance risks and uncertainty over
costs deter private capital due to complications in financial underwriting. Timely public funding is
critical to prove CCS and accelerate learning curve cost reductions.
CCS Value Chain and Cost Components
The full CCS process involves CO2 capture at large emission point sources, transportation
typically via pipelines, and storage in secure geological formations like depleted oilfields.
Capture plant capex accounts for 60-80% of total costs, including amine scrubbers or other
technologies to purify CO2 streams. Transportation via dense-phase pipelines adds another 10-
20%, with storage site development and monitoring the remainder.
Operating expenses contribute 20-30% over lifecycles. Post-demonstration, CCS is projected to
increase wholesale power costs by 50-100% if retrofitted, or 10-30% for new build power plants
integrated with capture. Costs shrink steadily with deployment experience and economies of
scale.
Public Funding Support Mechanisms
Government funding has de-risked initial CCS demonstration globally through several
mechanisms:
- R&D subsidies: Funding technology prototypes to advance novel capture materials, storage
site characterization, subsurface monitoring tools, risk assessment.
- Capital grants: Providing direct capital contributions to first-of-a-kind commercial projects
covering additional costs above conventional assets.
- Tax credits: Incentivizing private investments via investment or production tax credits awarded
over equipment lifetimes proportional to captured emissions.
- Regulations: Mandating emissions performance standards that can be met more affordably
with CCS, creating compliance-driven demand pools.
- Carbon pricing: Placing an explicit or implicit price on CO2 that internalizes storage
externalities, as seen under Emissions Trading Schemes.
Together, such tools lift risks sufficiently to draw in private sector finance for scaling up
deployments globally through strategic partnerships.
Private Financing Models
Emerging co-funded CCS projects showcase productive synergy between public derisking and
private capital mobilization tailored to each jurisdiction:
Infrastructure funds: Large-scale projects access project financing from pension/sovereign
wealth funds via special purpose vehicles. Public grants leverage private capital for growth.
Utility regulation: Regulators allow cost pass-through to rate-base for prudently incurred CCS
expenses to maintain utility credit quality and raise capital markets access.
Captured CO2 utilization: Partnerships involving CO2-EOR or industrial consumers committed
to purchase storage services via take-or-pay contracts de-risk cashflows, facilitating project
financing.
Start-up investments: Angel/VC investors provide seed/demonstration stage funding to
technology companies commercializing carbon abatement solutions.
Green bonds: Issuing use-of-proceeds bonds for pre-identified projects affords institutional
investors dedicated CCS exposure within ESG mandates.
Intelligently blended, such arrangements optimize respective stakeholder capabilities and
interests in co-developing commercial infrastructure at scale.
Case Studies of Funded Projects
Real-world initiatives exemplify innovative funding collaborations overcoming financial hurdles to
prove CCS:
- Boundary Dam, Canada (2014): $1B retrofit received $240M capital grant plus 15-year
$10/tonne tax credit, now supplying CO2 for EOR.
- Petra Nova, US (2017): $1B post-combustion retrofit leveraged 45Q $35/ton tax credits and
DOE loans to serve EOR client.
- Longship, Norway (planned 2024): $1.8B natural gas processing plant will capture 1.5Mtpa
CO2 via equity contributions from oil majors and $529M government co-funding.
- Gorgon, Australia (2019): World's largest injection project at Chevron LNG plant was
completed despite $2B cost blowouts via compensation mechanisms.
Together with supportive regulation, such exemplars continue driving down costs through
replication, learning and enabling follow-on private investments into a developing CCS industry
across specialized clusters.
Conclusion
CCS promises scalable near-term emission cuts from vital economic sectors, making it a
strategic technology meriting upfront public-private cooperation to facilitate initial commercial
maturity despite financial headwinds. Strategically blended funding leverages respective
capabilities - grants de-risk first movers for investors, regulation provides long-term visibility, tax
tools incentivize deployment, utilization partnerships stabilize cashflows.
Risk-adjusted returns must reflect CCS’s unique strategic importance and necessity for
decarbonizing hard-to-abate verticals. Judicious sequencing of tailored support leveraging
market failures theory and private sector expertise optimizes CCS deployments through
continual cost reductions and learning. Synergies between public ambition and investment
rationales thus hold the key.
