29/09/2020
Dr Jannik Giesekam @jannikgiesekam
Research Fellow in Industrial Climate Policy
University of Leeds
Capital carbon inventory
seedcorn project
these slides are available at www.jannikgiesekam.co.uk
Emissions from an infrastructure asset
Figure 7 from PAS 2080:2016 Carbon Management in Infrastructure
helping to ensure a balanced perspective by showing the gross size/scale of emissions and when they occur. In this
way informed decisions can be made supporting optimum low carbon outcomes.
Figure 7 – Modular approach showing the life cycle stages and individual modules for
infrastructure GHG emissions quantification
18 © The British
NOTE 1 Figure 7 provides a framework for the quantification of GHG emissions for an infrastruc
programme of works and corresponds to the modular structure for information reporting used
Product Declarations (EPD) for construction products, processes and services following a structu
the principles set out in BS EN 15978:2011 and BS EN 15804:2012.
NOTE 2 Figure 7 is taken from BS EN 15978:2011 and has been adapted for PAS 2080 and infras
NOTE 3 Figure 7 is to be read in conjunction with Annex A and the Guidance Document to PAS
provides descriptions and worked examples of the modular life cycle boundaries.
18
NOTE 1 Figure 7 provides a framework for the quantification of GHG emiss
programme of works and corresponds to the modular structure for informa
Product Declarations (EPD) for construction products, processes and service
the principles set out in BS EN 15978:2011 and BS EN 15804:2012.
NOTE 2 Figure 7 is taken from BS EN 15978:2011 and has been adapted for
NOTE 3 Figure 7 is to be read in conjunction with Annex A and the Guidan
provides descriptions and worked examples of the modular life cycle bound
18
NOTE 1 Figure 7 provides a framework for the quan
programme of works and corresponds to the modul
Product Declarations (EPD) for construction product
the principles set out in BS EN 15978:2011 and BS EN
NOTE 2 Figure 7 is taken from BS EN 15978:2011 and
NOTE 3 Figure 7 is to be read in conjunction with An
provides descriptions and worked examples of the m
UK greenhouse gas emissions & targets
Territorial emissions & carbon footprint from 2020 official statistics to 2018 and 2017 respectively. Others from CCC
(2019) Net Zero. The UK’s contribution to stopping global warming & 2020 Annual Progress Report to Parliament;
DBEIS Energy & emissions projections 16/05/19 & 2017 Green Construction Board Low Carbon Routemap update
0
100
200
300
400
500
600
700
800
900
1000
1990 1995 2000 2005 2010 2015 2020 2025 2030 2035 2040 2045 2050
MtCO2
e
Least cost pathway from
CCC 5th
Carbon Budget advice
Legislated Carbon Budgets (5 year periods)
Carbon footprint of UK consumption
UK territorial emissions
DBEIS Reference Scenario
Capital carbon (GCB)
Surface transport
451
794
113 113
43 49
772
918
Residual emissions in CCC net zero scenario 88
Remaining UK budget til
net zero of ~7000 MtCO2e
“outside of the scope of this plan are the GHG emissions
associated with power generation and distribution for
transport, and construction of transport infrastructure,
noting their consideration in other policy areas”.
Transport challenge
DfT (2020) Decarbonising transport. Setting the challenge. Emphasis added.
Decarbonising Transport
Setting the Challenge
March 2020
“Reaching net-zero GHG emissions requires extensive changes
across the economy, with complete switchovers of several
parts of the UK capital stock...
Achieving net-zero emissions will require new infrastructure...
Major infrastructure decisions need to be made in the near
future and quickly implemented...
Just how much infrastructure will need to be developed in each
sector will depend on decisions on the pathway to achieving
net-zero emissions.”
Infrastructure transformation is essential for net zero
CCC (2019) Net Zero. The UK’s contribution to stopping global warming. Emphasis added.
Net Zero
The UK's contribution to
stopping global warming
Committee on Climate Change
May 2019
Required across all scales, e.g.
National
National Infrastructure Assessment, associated models & recommendations
National Infrastructure & Construction Pipeline from Infrastructure & Projects Authority
Green Construction Board Low Carbon Routemap for the Built Environment
Regional
Strategic Transport Plan & Long Term Investment Pipeline from Transport for the North
London Infrastructure Plan & Mayor’s Transport Strategy for London
Sectoral
Road Investment Strategies 1 & 2
Corporate
Highways England Strategic Business Plan & Delivery Plans
Long term scenarios, routemaps & investment pipelines
What are the associated emissions?
Already routinely evaluated Increasingly commonplace Rarely evaluated
Materials, products
& components
Assets & projects Asset portfolios Investment
plans, pipelines &
scenarios
CapCarb
OpCarb
UseCarb
Recent trends Rapidly expanding range
of Environmental Product
Declarations (>8000); new
and recently updated
databases (e.g. ICE v3);
suppliers increasingly able
to provide information on
request
Carbon assessment
increasingly embedded
into regulations (e.g.
2014/52/EU); organisational
requirements and
standards (e.g. Network Rail
Environmental and Social
Minimum Requirements)
Carbon management
commonplace; many
organisations with carbon
KPIs (e.g. Highways England
supply chain emissions);
some benchmarking
(though often only for
OpCarb & UseCarb)
Increasingly detailed and
integrated system models
evaluating futures but
CapCarb largely absent
from models and rarely
assessed for investment
pipelines
Where our project fits
Proposed solution
Photo by Oscar Nord on Unsplash.
Creation of a transparent open source resource
facilitating estimation of capital carbon of future
projects and pipelines
Materials, products & components:
EPD (Environmental Product Declaration) directories
Carbon factor databases (e.g. ICE database)
Bespoke tools
Assets & projects:
Independent LCA studies
Environmental Statements produced as part of EIA
Information from stakeholder databases
Resource also includes links to guidance and tools
Key data sources for amalgamation
Example excerpt from carbon assessment within A9/A96 Inshes to Smithton EIA
A9/A96 Inshes to Smithton
DMRB Stage 3 Environmental Impact Assessment Report
Appendix A17.2: Carbon Assessment
Page A17.2-6
• treatment of wastes;
• transportation of waste and material;
• operational electricity consumption; and
• emissions associated with maintenance activities.
2.12 Footway quantities are not included in the pavement/sub base materials in Table 1, but are modelled
and the impacts included in the results below. Footway construction depth is assumed to be 220mm,
comprising Type 1 unbound mixture sub-base 150mm thick, dense macadam binder course with 20mm
aggregate 50mm thick, close graded macadam surface course with 6mm aggregate 20mm thick =
5,245m3 (including 10% worst-case scenario contingency).
3 Results
3.1 Transport Scotland’s Projects Carbon Tool was used to estimate the carbon emissions associated with
the proposed scheme. The results are set out in Table 2, Table 3 and Table 4. The calculations are
based on a worst-case scenario, including a 10% contingency to cover unknown items.
3.2 Table 2 shows the total carbon emissions anticipated from the proposed scheme throughout its lifetime,
during construction and maintenance. It should be noted that that due to rounding of data outputs there
are slight discrepancies between the totals presented in Tables 3 and 4, when compared to Table 2. It
is confirmed that the information provided in these tables is correct as an output of the Carbon Tool.
Table 2: Proposed Scheme Emissions Summary (Worst Case Scenario Including 10% Contingency)
Carbon source tCO2e
Construction: Materials embodied 15,050
Maintenance: Materials embodied 13,975
3.3 Table 3 and Table 4 provide more detailed information on the carbon emissions for each of the 3 stages
by splitting the figures into individual project elements and the carbon emissions for construction
materials by type. All volumes shown are based on the worst-case scenario figures that include a 10%
contingency.
Table 3: Summary by Project Elements (Worst-case scenario including a 10% contingency)
Project elements Materials embodied (tCO2e) Maintenance (materials embodied)
(tCO2e)
Drainage 60 615
Earthworks 8,290 0
Fencing 120 470
Road Pavement 3,085 12,230
Safety Barriers 125 490
Signs 35 165
Structures (civils & buildings) 3,345 0
1.	 Stock distribution implies impending spike in
maintenance, refurbishment & new construction 	
e.g. wave of 70s roads requiring remedial work
2.	 Stimulus spending 							
will we ‘build back better’ or ‘build build build’?
3.	Legal challenges questioning compatability with
Paris Agreement								
e.g. Heathrow ANPS ruling & RIS2 legal challenge
4.	Numerous ongoing ‘net zero’ initiatives that could
be informed by the proposed resource		 	
e.g. Net Zero Infrastructure Coalition Embodied
Carbon Working Group
Timeliness of project
Photo by Chris on Unsplash
1.	 Compile an open and extendable prototype resource detailing CapCarb emissions
factors for products, components, projects and asset types; coupled with a set of
representative material inventories for common model elements.
2.	 Generate CapCarb benchmarks for physical assets, capital investments, and units of
service provision. These high-level benchmarks will be suitable for use in long term
scenario modelling where detailed asset designs are not yet available.
3.	Demonstrate application of these benchmarks within the designated corridor
4.	Further develop understanding of stakeholder needs through engagement and
prototype testing, with the intention of developing a final product through a future
funding bid.
Project objectives
Focus of activities to date:
Engaging stakeholders
Compiling directory of links to standards, guidance, learning resources etc.
Compiling material, product, component and asset data
Project timeline
Work packages
1. Rapid review of CapCarb integration in current models
2. Compilation of CapCarb data
3. Benchmark generation
4. Development of prototype online resource
Development of alpha version
Stakeholder workshop
Development of beta version
Delivery of beta version
Jul Aug Sep Oct Nov Dec
1.	 Submit user needs
2.	 Contribute data
3.	Connect relevant stakeholders & projects
4.	Participate in development workshops
5.	Offer feedback or develop resultant resource
How to get involved
Tunnel boring machine under construction courtesy of HS2
email: J.Giesekam@leeds.ac.uk
Thank you
Please get in touch with any queries
J.Giesekam@leeds.ac.uk
these slides are available at www.jannikgiesekam.co.uk

Cut Carbon Symposium: Capital Carbon Inventory Seedcorn Project

  • 1.
    29/09/2020 Dr Jannik Giesekam@jannikgiesekam Research Fellow in Industrial Climate Policy University of Leeds Capital carbon inventory seedcorn project these slides are available at www.jannikgiesekam.co.uk
  • 2.
    Emissions from aninfrastructure asset Figure 7 from PAS 2080:2016 Carbon Management in Infrastructure helping to ensure a balanced perspective by showing the gross size/scale of emissions and when they occur. In this way informed decisions can be made supporting optimum low carbon outcomes. Figure 7 – Modular approach showing the life cycle stages and individual modules for infrastructure GHG emissions quantification 18 © The British NOTE 1 Figure 7 provides a framework for the quantification of GHG emissions for an infrastruc programme of works and corresponds to the modular structure for information reporting used Product Declarations (EPD) for construction products, processes and services following a structu the principles set out in BS EN 15978:2011 and BS EN 15804:2012. NOTE 2 Figure 7 is taken from BS EN 15978:2011 and has been adapted for PAS 2080 and infras NOTE 3 Figure 7 is to be read in conjunction with Annex A and the Guidance Document to PAS provides descriptions and worked examples of the modular life cycle boundaries. 18 NOTE 1 Figure 7 provides a framework for the quantification of GHG emiss programme of works and corresponds to the modular structure for informa Product Declarations (EPD) for construction products, processes and service the principles set out in BS EN 15978:2011 and BS EN 15804:2012. NOTE 2 Figure 7 is taken from BS EN 15978:2011 and has been adapted for NOTE 3 Figure 7 is to be read in conjunction with Annex A and the Guidan provides descriptions and worked examples of the modular life cycle bound 18 NOTE 1 Figure 7 provides a framework for the quan programme of works and corresponds to the modul Product Declarations (EPD) for construction product the principles set out in BS EN 15978:2011 and BS EN NOTE 2 Figure 7 is taken from BS EN 15978:2011 and NOTE 3 Figure 7 is to be read in conjunction with An provides descriptions and worked examples of the m
  • 3.
    UK greenhouse gasemissions & targets Territorial emissions & carbon footprint from 2020 official statistics to 2018 and 2017 respectively. Others from CCC (2019) Net Zero. The UK’s contribution to stopping global warming & 2020 Annual Progress Report to Parliament; DBEIS Energy & emissions projections 16/05/19 & 2017 Green Construction Board Low Carbon Routemap update 0 100 200 300 400 500 600 700 800 900 1000 1990 1995 2000 2005 2010 2015 2020 2025 2030 2035 2040 2045 2050 MtCO2 e Least cost pathway from CCC 5th Carbon Budget advice Legislated Carbon Budgets (5 year periods) Carbon footprint of UK consumption UK territorial emissions DBEIS Reference Scenario Capital carbon (GCB) Surface transport 451 794 113 113 43 49 772 918 Residual emissions in CCC net zero scenario 88 Remaining UK budget til net zero of ~7000 MtCO2e
  • 4.
    “outside of thescope of this plan are the GHG emissions associated with power generation and distribution for transport, and construction of transport infrastructure, noting their consideration in other policy areas”. Transport challenge DfT (2020) Decarbonising transport. Setting the challenge. Emphasis added. Decarbonising Transport Setting the Challenge March 2020
  • 5.
    “Reaching net-zero GHGemissions requires extensive changes across the economy, with complete switchovers of several parts of the UK capital stock... Achieving net-zero emissions will require new infrastructure... Major infrastructure decisions need to be made in the near future and quickly implemented... Just how much infrastructure will need to be developed in each sector will depend on decisions on the pathway to achieving net-zero emissions.” Infrastructure transformation is essential for net zero CCC (2019) Net Zero. The UK’s contribution to stopping global warming. Emphasis added. Net Zero The UK's contribution to stopping global warming Committee on Climate Change May 2019
  • 6.
    Required across allscales, e.g. National National Infrastructure Assessment, associated models & recommendations National Infrastructure & Construction Pipeline from Infrastructure & Projects Authority Green Construction Board Low Carbon Routemap for the Built Environment Regional Strategic Transport Plan & Long Term Investment Pipeline from Transport for the North London Infrastructure Plan & Mayor’s Transport Strategy for London Sectoral Road Investment Strategies 1 & 2 Corporate Highways England Strategic Business Plan & Delivery Plans Long term scenarios, routemaps & investment pipelines What are the associated emissions?
  • 7.
    Already routinely evaluatedIncreasingly commonplace Rarely evaluated Materials, products & components Assets & projects Asset portfolios Investment plans, pipelines & scenarios CapCarb OpCarb UseCarb Recent trends Rapidly expanding range of Environmental Product Declarations (>8000); new and recently updated databases (e.g. ICE v3); suppliers increasingly able to provide information on request Carbon assessment increasingly embedded into regulations (e.g. 2014/52/EU); organisational requirements and standards (e.g. Network Rail Environmental and Social Minimum Requirements) Carbon management commonplace; many organisations with carbon KPIs (e.g. Highways England supply chain emissions); some benchmarking (though often only for OpCarb & UseCarb) Increasingly detailed and integrated system models evaluating futures but CapCarb largely absent from models and rarely assessed for investment pipelines Where our project fits
  • 8.
    Proposed solution Photo byOscar Nord on Unsplash. Creation of a transparent open source resource facilitating estimation of capital carbon of future projects and pipelines
  • 9.
    Materials, products &components: EPD (Environmental Product Declaration) directories Carbon factor databases (e.g. ICE database) Bespoke tools Assets & projects: Independent LCA studies Environmental Statements produced as part of EIA Information from stakeholder databases Resource also includes links to guidance and tools Key data sources for amalgamation Example excerpt from carbon assessment within A9/A96 Inshes to Smithton EIA A9/A96 Inshes to Smithton DMRB Stage 3 Environmental Impact Assessment Report Appendix A17.2: Carbon Assessment Page A17.2-6 • treatment of wastes; • transportation of waste and material; • operational electricity consumption; and • emissions associated with maintenance activities. 2.12 Footway quantities are not included in the pavement/sub base materials in Table 1, but are modelled and the impacts included in the results below. Footway construction depth is assumed to be 220mm, comprising Type 1 unbound mixture sub-base 150mm thick, dense macadam binder course with 20mm aggregate 50mm thick, close graded macadam surface course with 6mm aggregate 20mm thick = 5,245m3 (including 10% worst-case scenario contingency). 3 Results 3.1 Transport Scotland’s Projects Carbon Tool was used to estimate the carbon emissions associated with the proposed scheme. The results are set out in Table 2, Table 3 and Table 4. The calculations are based on a worst-case scenario, including a 10% contingency to cover unknown items. 3.2 Table 2 shows the total carbon emissions anticipated from the proposed scheme throughout its lifetime, during construction and maintenance. It should be noted that that due to rounding of data outputs there are slight discrepancies between the totals presented in Tables 3 and 4, when compared to Table 2. It is confirmed that the information provided in these tables is correct as an output of the Carbon Tool. Table 2: Proposed Scheme Emissions Summary (Worst Case Scenario Including 10% Contingency) Carbon source tCO2e Construction: Materials embodied 15,050 Maintenance: Materials embodied 13,975 3.3 Table 3 and Table 4 provide more detailed information on the carbon emissions for each of the 3 stages by splitting the figures into individual project elements and the carbon emissions for construction materials by type. All volumes shown are based on the worst-case scenario figures that include a 10% contingency. Table 3: Summary by Project Elements (Worst-case scenario including a 10% contingency) Project elements Materials embodied (tCO2e) Maintenance (materials embodied) (tCO2e) Drainage 60 615 Earthworks 8,290 0 Fencing 120 470 Road Pavement 3,085 12,230 Safety Barriers 125 490 Signs 35 165 Structures (civils & buildings) 3,345 0
  • 10.
    1. Stock distributionimplies impending spike in maintenance, refurbishment & new construction e.g. wave of 70s roads requiring remedial work 2. Stimulus spending will we ‘build back better’ or ‘build build build’? 3. Legal challenges questioning compatability with Paris Agreement e.g. Heathrow ANPS ruling & RIS2 legal challenge 4. Numerous ongoing ‘net zero’ initiatives that could be informed by the proposed resource e.g. Net Zero Infrastructure Coalition Embodied Carbon Working Group Timeliness of project Photo by Chris on Unsplash
  • 11.
    1. Compile anopen and extendable prototype resource detailing CapCarb emissions factors for products, components, projects and asset types; coupled with a set of representative material inventories for common model elements. 2. Generate CapCarb benchmarks for physical assets, capital investments, and units of service provision. These high-level benchmarks will be suitable for use in long term scenario modelling where detailed asset designs are not yet available. 3. Demonstrate application of these benchmarks within the designated corridor 4. Further develop understanding of stakeholder needs through engagement and prototype testing, with the intention of developing a final product through a future funding bid. Project objectives
  • 12.
    Focus of activitiesto date: Engaging stakeholders Compiling directory of links to standards, guidance, learning resources etc. Compiling material, product, component and asset data Project timeline Work packages 1. Rapid review of CapCarb integration in current models 2. Compilation of CapCarb data 3. Benchmark generation 4. Development of prototype online resource Development of alpha version Stakeholder workshop Development of beta version Delivery of beta version Jul Aug Sep Oct Nov Dec
  • 13.
    1. Submit userneeds 2. Contribute data 3. Connect relevant stakeholders & projects 4. Participate in development workshops 5. Offer feedback or develop resultant resource How to get involved Tunnel boring machine under construction courtesy of HS2 email: [email protected]
  • 14.
    Thank you Please getin touch with any queries [email protected] these slides are available at www.jannikgiesekam.co.uk