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Page 1: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Introduction to Infrastructure sustainability

Page 2: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Session Aim

By the end of this session, participants should be able to • describe the key concepts

of the IS rating tool and• drive improved outcomes

for projects/assets using the IS rating scheme.

Page 3: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

INTRODUCTION TO INFRASTRUCTURE SUSTAINABILITY

ISCA Overview

The IS Rating Scheme

Delivering Sustainability Outcomes

Page 4: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Age

nda

Introduction

Topic 1 – ISCA Overview and the Value of the IS Tool

What is Sustainable Infrastructure?

What is ISCA?

Measuring the value of the IS Tool

Topic 2 – The IS rating scheme

What does it cover?

How does it work?

What is the process?

Topic 3 – Delivering Sustainability Outcomes

Planning

Design & Construction

Operations

Final Thoughts and Close

Page 5: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Tell us ….What do you most want to get out of

this session?

Page 6: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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ISCA Overview and the Value of the IS tool

Page 7: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Infrastructure that is

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What is Sustainable Infrastructure?

to optimise

outcomes over the long term

planned

designed

built

operated

environmental

societal economic

Page 8: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Asset classes

Transport Utilities Public Realm/Open Space

Page 9: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Role: Accelerating

sustainability in infrastructure

through collaboration

What is ISCA?

ISCA

Collaboration

Passion

Change

Knowledge

Page 10: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Australian States are Mandating IS

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State Agency Mandate

NSW Department of Planning Critical state significant infrastructure

Transport for NSW ALL projects >$50m, High risk projects <$50m

Sydney Metro ALL project in program

Queanbeyan Palerang regional Council ALL projects >$2m

QLD Transport and Main Roads ALL projects >$100m

WA Main Roads WA ALL projects >$100m

VIC Vic Roads ALL projects >$100m

Level Crossings Removal Authority ALL projects in program

Melbourne Metro ALL projects in program

City of Casey Capital works projects

NZ City Rail Link Ltd ALL projects in program

Page 11: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Members

ACCSR Consulting Pty LtdACT Government Capital Metro AgencyAECOMArrium (Onesteel)ArupAsh Development Association of AustraliaATRC (Inland Rail)AureconAustralian (Iron and Steel) Slag AssociationAustralian Society for Concrete PavementBlueScope SteelCivil Contractors FederationClayton UtzCLOUGH Projects Australia Pty LtdColonial First StateDepartment of Planning, Transport and Infrastructure SADOWNER GROUPEdge EnvironmentEnvironment & Sustainable Development DirectorateFremantle PortsFulton HoganGEMS Pty LtdGHDGood Environmental Choice Australia (GECA)Greater Shepparton City CouncilHames SharleyHolcimHyder ConsultingJacobsJohn HollandKMH EnvironmentalLaing O'RourkeLeighton ContractorsLend LeaseLevel Crossing Removal AuthorityMain Roads Western AustraliaMcConnell DowellMeg-aphone ExchangeMetropolitan Redevelopment AuthorityMMRA (Vic) Melbourne Metro Rail AuthorityMott MacDonaldNSW Environmental Protection AuthorityOffice of Environment and Heritage (NSW)OpusParkes Shire Council NSWPublic Transport VictoriaQLD TMRQueanbeyan City CouncilRoads and Maritime ServicesRPS Australia Asia PacificSalini Impregilo SpA AustraliaSBENRC (Curtin Univeristy)Scott Losee ConsultingSociety for Sustainability & Environmental EngineeringStart2SeeSustainable Asset StrategiesThe Plastics Industry Pipe AssociationTownley Environmental Service Pty LtdTransport Project Delivery (TfNSW)TransurbanUGLUNSWUrban Growth NSWUtilibiz Pty LtdValue Adviser AssociatesVictoria International Container Terminal LimitedWSP / Parsons Brinckerhoff WWF AustraliaXYPEX Australia

Page 12: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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ISCA’s Mandate

Assurance Capability Community

Page 13: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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• Ratings• IS Supply• Resources and

Guidelines

Assurance

Undertake comparative analysis and benchmark against sustainability performance nationally

Increase transparency and accuracy of performance using a third party assured rating scheme

Demonstrate leadership and capability through success

ISCA’s Mandate

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• Training• Resources• Professional

Accreditation

Capability

Build internal capability to increase influence, integration and unity

Gain access to tools and guidance for facilitating the IS rating framework

Support professional development and gain industry recognition as an IS Accredited Professional

Learn the emerging national language of sustainability

ISCA’s Mandate

Page 15: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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• Membership• Awards• Events• Advocacy

Community

Gain access to other like minded individuals and reduce the learning curve in adopting the IS framework and sustainability

Be at the forefront of best practice and participate in events, community of practice, knowledge sharing

Be recognised as an industry leader through events, awards and membership

ISCA’s Mandate

Page 16: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

• Financial ROI

• Short and long term savings

• Direct and indirect benefits

• Tangible and intangible outcomes

Measuring the Value of the IS Tool

Page 17: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

• Financial ROI

• Short and long term savings

• Direct and indirect benefits

• Tangible and intangible outcomes

Measuring the Value of the IS Tool

Page 18: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Graphical representation

Capital Value Rating Type

RegionRating Delivery Type

Infrastructure Type

Whitsundays STP Upgrades

18

$45 millionWater

Design & As Built

D&C Queensland

Proserpine and Cannonvale sewage treatment plants in North Queensland Growing communities and meet the most stringent effluent discharge requirements to protect the Great Barrier Reef. Benefits to the local community by reducing sewage overflows, noise and odour

• Sustainability ROI = >400%• Total construction savings =

$1.1M• Total operational savings =

$182,000 pa

Measuring Value – Financial ROI

Purpose:Meet the needs of growing population & stricter standards

Page 19: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Whitsundays STP Upgrade IS Design and As Built rating

Costs

19

Benefits

Rating Fees $43,000

Consulting Assistance $16,000

Enhanced Vegetation $5,000

Internal labour costs $150,000

TOTAL $214,000

Fewer construction materials:• 4,4000 t less materials• Green concrete used for roads• 40% fly ash blend in asphalt • 100% reuse of excavated

materials

$900,000 savedReduction in embodied carbon emissions of 1,661 tCO

2-e (30%)

Reduced electricity use $120,000 saved pa Operations

Improved dust suppression $100,000 saved

Reduced water use through efficient use of recycled effluent

43% reduction in water use across the asset lifecycle.3GL water saved over the operation life of the asset.

Ecological and biodiversity value enhanced

>5,000m2 new regenerated native habitat Improved biodiversity value by 200%

InnovationWorld first nitrogen effluent removal technology

• ROI = >400%• Total construction savings =

$1.1M• Total operational savings =

$182,000 pa

Measuring Value – Financial ROI

Page 20: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

• Financial ROI

• Short and long term savings

• Direct and indirect benefits

• Tangible and intangible outcomes

Measuring the Value of the IS Tool

Page 21: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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LXRP, BayswaterProject Name: Bayswater Level CrossingsProponent: LXRA, Laing O’RourkeAsset Type: RailPurpose: Connecting communities and improving safety of road and rail crossings

ENERGY 43%

WATER 70%

MATERIALS 31%

Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle. Design initiatives achieved a 70% reduction in 'whole of life' water consumption.Demonstrated a significant reduction (approximately 6,600 tCO2-e or 31%) in material impacts for the project.

Measuring Value - Short & long term savings

Page 22: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Measuring Value - Short & long term savings

Page 23: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

• Financial ROI

• Short and long term savings

• Direct and indirect benefits

• Tangible and intangible outcomes

Measuring the Value of the IS Tool

Page 24: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Rous Head Industrial Park

Project Name: Rous Head Industrial ParkProponent: Freemantle PortsAsset Type: PortPurpose: Port development to increase capacity and improve efficiency

WASTE>90% by volume of inert and non-hazardous waste85% office waste recycled

ECOLOGYEstablishment of a new ecosanctuary

HEALTH AND WELLBEINGTwo issues identified and measured; driver wellbeing, community connectedness

INNOVATIONTruck Marshalling Area

KEY OUTCOMES

Measuring Value - Direct and indirect benefits

Page 25: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

• Financial ROI

• Short and long term savings

• Direct and indirect benefits

• Tangible and intangible outcomes

Measuring the Value of the IS Tool

Page 26: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Level Crossings Removal Projects

Bayswater AllianceInnovation: Dewatering Centrifuge UnitClass: First in rail across the globeBenefit: 11.2ML of slurry waste reduced, approximately 5.6ML water saved, 700 travel trips for offsite waste, estimate $1M saved in waste disposal and water use

Renewable energyMore than 600 solar panels are being installed this month across Gardiner, Ormond, McKinnon and Bentleigh train stationsBenefit: generate up to 200 kilowatt-hours daily or roughly enough power to run 40 Victorian homes a year

Measuring Value - Tangibles & intangibles

Page 27: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Level Crossings Removal Projects -KRAs and Brand

Page 28: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Innovations• 11 verified innovations (10pts)

• Adaptive lighting

• Dimming of Lighting

• EME Asphalt

• Asphalt Design Life

• Reclaimed Asphalt Pavement

• Roundabout Interchange

• Large Principal Shared Path

• Solar VMS

• Supply Chain School Partnership

• 3 Pin Arch for Pedestrians

Other Environmental and Social Outcomes Approx. 50 other initiatives whose

benefits were not easily quantified in

dollars e.g.

• Future proofed for expansion

• Resilient to climate change

• Improved noise conditions

• Topsoil enhanced

• Enhanced ecological value

• Enhanced urban design

• Buy local targets achieved

• Increased connectivityReputation

• Leading Design Rating

• Score of 93

• Highest Road Score

• Highest D&C Score

• IS Outstanding Achievement Award 2017

• IS Impact Award: Major Project 2017

Financial [$178m Capex]

• $646K additional investment

• ~$2.6M capex savings (including

tender initiatives)

• ~$42M up to opex savings

• Ultimately benefit tax payers

Return on investment

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Page 29: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Identify the IS rating aspect that most benefits or resonates with you.

WHY?

❖ Benchmarking ❖ Comparative analysis❖ Continuous improvement ❖ Risk and opportunity management❖ Efficiency gains ❖ Change readiness❖ Collaboration ❖ Enhanced stakeholder relationships❖ Improved performance & service provision

Page 30: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Questions/comments?

Image: Institute for Sustainable Infrastructure

Page 31: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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The IS Rating Scheme

Page 32: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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What is the IS rating scheme?

4 Step rating process 3rd party

verification

Developed by industry for

industrySince 2012

All infrastructure types and across the

lifecycle

Page 33: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Flexible Approaches

Minor Works Alternate contract modelsPrograms

Page 34: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

What does IS cover?

Design Rating

As Built Rating

Planning RatingOperation Rating

OperationDevelopmentInitiation Procurement Design Construction

Page 35: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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IS International Features

An adjustment based on IS v1.2 Design and

As Built

Robust and maintains the IS rating scheme core principles (third party assured, beyond BAU, evidence based

etc.)

Aligns with the UN Sustainable

Development Goals

Flexible, using materiality principals, and can be applied to any region or Country,

and can easily be adapted for the local

context

Support local capability in

infrastructure sustainability and

provide the support/training to

facilitate best for asset outcomes

Easy to use and cost effective while still

demonstrating leadership in infrastructure sustainability

Page 36: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Current IS Themes & Categories (V1.2)

Themes CategoriesGov

Econ

Env

Soc

Management and Governance

Management Systems ● ● ● ●Procurement and Purchasing ● ● ● ●Climate Change Adaptation ● ● ●

Using ResourcesEnergy and Carbon ● ●Water ● ●Materials ● ●

Emissions, Pollution and Waste

Discharges to Air, Land and Water ●Land ● ●Waste ●

Ecology Ecology ●

People and Place

Community Health, Well-being and Safety ● ●Heritage ●Stakeholder Participation ● ●

Urban and Landscape Design ● ●

Innovation Innovation ● ● ● ●

Page 37: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Credit Layout

Ref-x Credit TitleAimThe aim of the credit – “To reward…” This describes the guiding principles behind the credit.Criteria

Additional GuidanceAdditional information to help the assessor to determine the appropriate level achieved and the evidence needed to demonstrate that achievement. Note that where the word ‘must’ is used, this refers to a requirement for achievement of a benchmark level, whereas the word ‘should’ is more general guidance.

Level 1 Level 2 Level 3

Level 1 Level 2 Level 3

Benchmark

Level 1 benchmark – describes the requirements a project or asset needs to meet to achieve Level 1 performance. This is the lowest level of performance that receives any score.

Level 2 benchmark describes the requirements a project or asset needs to meet to achieve Level 2 performance.

Level 3 benchmark describes the requirements a project or asset needs to meet to achieve Level 3 performance. This is the highest level of performance and thus receives the highest score.

Evidenc

e

Level 1 evidence – the suggest evidence that may be used to demonstrate the benchmark performance level has been achieved.

Level 2 evidence Level 3 evidence

37

Page 38: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Credit Layout

Ref-x Credit TitleAimThe aim of the credit – “To reward…” This describes the guiding principles behind the credit.Criteria

Additional GuidanceAdditional information to help the assessor to determine the appropriate level achieved and the evidence needed to demonstrate that achievement. Note that where the word ‘must’ is used, this refers to a requirement for achievement of a benchmark level, whereas the word ‘should’ is more general guidance.

Level 1 Level 2 Level 3

Level 1 Level 2 Level 3

Benchmark

Level 1 benchmark – describes the requirements a project or asset needs to meet to achieve Level 1 performance. This is the lowest level of performance that receives any score.

Level 2 benchmark describes the requirements a project or asset needs to meet to achieve Level 2 performance.

Level 3 benchmark describes the requirements a project or asset needs to meet to achieve Level 3 performance. This is the highest level of performance and thus receives the highest score.

Evidenc

e

Level 1 evidence – the suggest evidence that may be used to demonstrate the benchmark performance level has been achieved.

Level 2 evidence Level 3 evidence

38

Page 39: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Credit Layout

Ref-x Credit TitleAimThe aim of the credit – “To reward…” This describes the guiding principles behind the credit.Criteria

Additional GuidanceAdditional information to help the assessor to determine the appropriate level achieved and the evidence needed to demonstrate that achievement. Note that where the word ‘must’ is used, this refers to a requirement for achievement of a benchmark level, whereas the word ‘should’ is more general guidance.

Level 1 Level 2 Level 3

Level 1 Level 2 Level 3

Benchmark

Level 1 benchmark – describes the requirements a project or asset needs to meet to achieve Level 1 performance. This is the lowest level of performance that receives any score.

Level 2 benchmark describes the requirements a project or asset needs to meet to achieve Level 2 performance.

Level 3 benchmark describes the requirements a project or asset needs to meet to achieve Level 3 performance. This is the highest level of performance and thus receives the highest score.

Evidenc

e

Level 1 evidence – the suggest evidence that may be used to demonstrate the benchmark performance level has been achieved.

Level 2 evidence Level 3 evidence

39

Page 40: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Credit Layout

Ref-x Credit TitleAimThe aim of the credit – “To reward…” This describes the guiding principles behind the credit.Criteria

Additional GuidanceAdditional information to help the assessor to determine the appropriate level achieved and the evidence needed to demonstrate that achievement. Note that where the word ‘must’ is used, this refers to a requirement for achievement of a benchmark level, whereas the word ‘should’ is more general guidance.

Level 1 Level 2 Level 3

Level 1 Level 2 Level 3

Benchmark

Level 1 benchmark – describes the requirements a project or asset needs to meet to achieve Level 1 performance. This is the lowest level of performance that receives any score.

Level 2 benchmark describes the requirements a project or asset needs to meet to achieve Level 2 performance.

Level 3 benchmark describes the requirements a project or asset needs to meet to achieve Level 3 performance. This is the highest level of performance and thus receives the highest score.

Evidenc

e

Level 1 evidence – the suggest evidence that may be used to demonstrate the benchmark performance level has been achieved.

Level 2 evidence Level 3 evidence

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Page 41: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Alternative Credits for International Projects

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Page 42: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Alternative Credits for Developing Countries

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Page 43: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Benchmarking

Beyond Compliance

Compliance

Level 3 Restoration and Enhancement

Level 2 No Net Impact

Level 1 Measurement

BAU

Page 44: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Benchmarking

Beyond Compliance

Compliance

Level 3 Restoration and Enhancement

Level 2 No Net Impact

Level 1 Measurement

BAU

Page 45: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Benchmarking

Beyond Compliance

Compliance

Level 3 Restoration and Enhancement

Level 2 No Net Impact

Level 1 Measurement

BAU

Page 46: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Benchmarking

Beyond Compliance

Compliance

Level 3 Restoration and Enhancement

Level 2 No Net Impact

Level 1 Measurement

BAU

Page 47: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Not all infrastructure projects are the same

Energy and Carbon

Water

Page 48: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Weightings assessment

How does this a

dd value to

the process?

Page 49: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

25-49 points

50-74 points

75-100 points

The total score is calculated with points from a total across the different topic areas “credits”

IS Rating Levels

Page 50: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Guidance on Application• IS Planning Technical Manual• IS Design/AB Technical Manual• IS Ops Technical Manual• IS International Technical

Manual

4 step rating process

Finding Key Resources

Page 51: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

1. Complete Registration of Interest form and values declaration.

2. Execute Rating Agreement.

3. Pay rating fees.

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Registration

Assessment

Verification

Certification

Rating Process

Page 52: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

1. Kick off workshop (incl. weightings assessment)

2. Develop IS Management Plan

1. Self-assessment

2. Case manager review points

3. Clarifications-rulings

4. Communications

3. Implement and manage the IS rating scheme

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Registration

Assessment

Verification

Certification

Rating Process

Page 53: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

1. Collate evidence and submit for round 1 verification

2. Verification feedback received

3. Mid-verification review meeting

4. Update submission for round 2 verification

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Registration

Assessment

Verification

Certification

Rating Process

Page 54: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

1. Certification approved by ISCA Board

2. Case studies developed for inclusion in IS Technical Manual

3. Certification event to celebrate achievement

4. Participate in Industry Networking Event to showcase achievements

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Registration

Assessment

Verification

Certification

Rating Process

Page 55: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Questions/comments?

Image: Institute for Sustainable Infrastructure

Page 56: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Delivering Sustainability Outcomes - Planning

Page 57: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Planning for Sustainability Outcomes

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Initiation Development Procurement Design Construction Operation

Project Planning

Time

Ability to influence sustainability outcomes

Achievement of sustainability

outcomes

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• Identify key target areas for sustainability on the project• Align targets with other sustainability objectives/drivers

Targets

• Using the sustainability in planning review, assess sustainability considerations• Identify key actions/timing during project planning

Sustainability Considerations

• Define a sustainability strategy incl targets/objectives and sustainability in procurement approach

• Communicate strategy through procurement and to market

Strategy

• Implement IS strategy through planning phases (EIS and approvals, procurement etc.,)

• Collect relevant evidence for Design/As Built rating• Monitor and manage IS performance throughout

Implement and Manage

1

2

3

4

Project Planning

Page 59: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Aligned targets with Key quadruple bottom line priorities

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Identify and Align Targets

Target Areas:

• Carbon Reduction• Waste Minimisation• Social Outcomes

Manukau Bus Train Interchange

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Project Planning

• Identify key target areas for sustainability on the project• Align targets with other sustainability objectives/drivers

Targets

• Using the sustainability in planning review, assess sustainability considerations• Identify key actions/timing during project planning

Sustainability Considerations

• Define a sustainability strategy incl targets/objectives and sustainability in procurement approach

• Communicate strategy through procurement and to market

Strategy

• Implement IS strategy through planning phases (EIS and approvals, procurement etc.,)

• Collect relevant evidence for Design/As Built rating• Monitor and manage IS performance throughout

Implement and Manage

1

3

4

2

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Use IS tool and identify key actions during planning

Project Name: Sydney Metro NorthwestProponent: Transport for NSW Asset Type: RailDelivery: 3 separate D&C contractsPurpose: Connecting communities and improving public transport

✓ IS tool planned, embedded and managed across 3 packages

✓ Management accountability✓ Management reporting✓ 2 packages Design and As Built rating

>85pts✓ Final package Design rating 83 points

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• Identify key target areas for sustainability on the project• Align targets with other sustainability objectives/drivers

Targets

• Using the sustainability in planning review, assess sustainability considerations• Identify key actions/timing during project planning

Sustainability Considerations

• Define a sustainability strategy incl targets/objectives and sustainability in procurement approach

• Communicate strategy through procurement and to market

Strategy

• Implement IS strategy through planning phases (EIS and approvals, procurement etc.,)

• Collect relevant evidence for Design/As Built rating• Monitor and manage IS performance throughout

Implement and Manage

1

2

4

Project Planning

3

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Define sustainability strategy in procurement

Project Name: Sydney Metro City and SoutheastProponent: Transport for NSW Asset Type: Rail

✓ Planning phase integration and support✓ Streamlined supplier contracts with

simplified sustainability requirements✓ Specific credits mandated in supplier

contracts

Page 64: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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• Identify key target areas for sustainability on the project• Align targets with other sustainability objectives/drivers

Targets

• Using the sustainability in planning review, assess sustainability considerations• Identify key actions/timing during project planning

Sustainability Considerations

• Define a sustainability strategy incl targets/objectives and sustainability in procurement approach

• Communicate strategy through procurement and to market

Strategy

• Implement IS strategy through planning phases (EIS and approvals, procurement etc.,)

• Collect relevant evidence for Design/As Built rating• Monitor and manage IS performance throughout

Implement and Manage

1

2

3

Project Planning

4

Page 65: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Implement IS strategy through planning phases

Page 66: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Questions/comments?

Page 67: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Delivering Sustainability Outcomes – Design & Construction

Page 68: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

What are some risks from not managing sustainability risk through design and construction?

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Page 69: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Contract’s sustainability targets not achieved!

Sustainability budget runs out!

Reputational damage!

Loss of social licence!

Key sustainability risks left unaddressed!

Impact on future tenders!

Project does not realise full potential!

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Page 70: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

70

Engaging management in sustainability

Virtually a 1:1

correlation

Page 71: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Management Systems

Team Engagement

Ongoing implementation and

reporting

71

Whose role is sustainability

Assign tasks and

responsibility

Track/ manage progress

Page 72: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 73: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 74: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

74

Page 75: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 76: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 77: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 78: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 79: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

79

Page 80: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Rating Set up

Team Engagement

Ongoing implementation and

reporting

Design

Implementation plan

Reporting

Team engagement and EVIDENCE collection

Kick off workshop

Base Case / Weightings Assessment

Verification

Detailed design Planning

• Baseline studies• Environmental

approvals• Stakeholder

engagement• IS in procurement

The Rating Process starts now

Towards construction

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Page 81: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Leadership

Systems & Processes Resources

3 Key ingredients for success in realizing sustainable outcomes?

Page 82: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

82

Questions/comments?

Image: Institute for Sustainable Infrastructure

Page 83: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

83

Delivering Sustainability Outcomes – Operations

Page 84: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Broadening the IS Rating to Operations

84

Operating Models (Public & Private)

• Owned and operated• Leased• Outsourced asset management or

maintenance • Single asset/network• Portfolios • Programs

Page 85: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Flexible Delivery Approach

1- year Approach Year 1 Year 2 Year 3

Registration Registration

Self Assessment Self Assessment Self Assessment Self Assessment

Verification Interim

verificationInterim

Verification Verification

Certification Certification

Registration Registration

Page 86: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Ops Rating Fees

86

Single Asset / Network

Program/ Portfolio

IS Rating Type Member

By Negotiation

IS Operations rating (1yr) $25,100

   

IS Operations rating (3yr) $35,700

Cashflow projection (3yr )

Member Cashflow projection

Year 1 Year 2 Year 3$13,500 $7,800 $14,400

Page 87: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Graphical representation

Capital Value Rating Type

RegionRating Delivery Type

Infrastructure Type

Auckland Airport

87

- Airport Operation

OperationNew

Zealand

Auckland Airport is the key gateway into New Zealand. It handles 14.5 million passengers each year and includes international and domestic terminals.

Page 88: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

Auckland Airport - Asset Performance

Risk ManagementIdentified key risk areas:

• Ecology

• Community Participation,

• Waste

Governance• Asset owner benchmarking to

establish objectives and targets

• Sustainability strategy and 10 year master plan

Sustainability Outcomes

88

79% reduction per passengerEnergy

Water

Page 89: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

89

Questions/comments?

Page 90: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Final thoughts

Page 91: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Do you believe there is a need for an Infrastructure Sustainability rating scheme?

Indu

stry

Fee

dbac

k

Page 92: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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Does IS encourage sustainability outcomes in addition to BAU?

75%Believe IS encourages

sustainability outcomes in addition to the BAU

sustainability outcomes

Indu

stry

Fee

dbac

k

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Application of ISIn

dust

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ack

Page 94: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

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And finally…..its not just about getting a rating!

Page 95: Introduction to Infrastructure sustainability · 2018. 12. 6. · Design improvements achieved a 43% reduction in energy use over the project’s whole of infrastructure life cycle

What’s your key takeaway?

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