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environmental stewardship 2017 Summary
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  • environmental2017 Annual Reportstewardship2017 Summary

  • WelcomeOur promise is to elevate the human experience through design. This inspires our culture of design and fuels the work we do around the world.

    Challenge of the Century One of the most pressing challenges in the century is to mitigate climate change caused by greenhouse gas emissions from human activities. The DLR Group Sustainability Report for 2017 reflects our progress toward meeting the 2030 Challenge, the architecture industry's charge to design carbon-neutral buildings and developments. Information in this report has been extracted from the estimated operational energy consumption, energy production, and energy optimization of DLR Group designs in 2017. Beyond these typical metrics of achievement, we are further beginning to consider the water-energy nexus, calculating not only how much water is used to create the energy we use, but how to reclaim or conserve it.

    Validate Performance DLR Group continues to complete data research to verify actual performance of our designs. We are excited to have submitted three additional buildings into the process of recognition by the New Buildings Institute in 2017 for exemplary energy performance. Once finalized, it will bring our total NBI recognized buildings to a total of 1.5 million square feet of emerging zero energy, high performance buildings.

    Raise the Bar DLR Group’s average reduction targets of predicted energy use for our high performance designs have consistently exceeded the national peer group average. We designed to an aggressive goal of 10 percent reductions over the previous year. In 2017, our reduction target came in at 40 percent less energy use compared to the average building. A 10 percent improvement set our goal at 44 percent for this past year. I’m thrilled to report that we exceeded that goal and reached a 48 percent energy reduction in 2017. Additionally, in 2016 we reported that 16 percent of our entire portfolio by gross square footage met the 2030 Challenge goal. This past year, 36 percent of our portfolio achieved this milestone.

    However, as a global design leader, we aim for continuous improvement in meeting 2030 Challenge reduction targets. The trend in our 2030 Commitment reporting shows tangible progress in achieving these goals through broader participation across all DLR Group studios. Both renewable energy and building optimization projects are significantly contributing to our efforts in achieving the benchmarks of Architecture 2030.

    Through our performance design practice, DLR Group is poised to meet 2030 Challenge goals on every new project by 2020.

    Premnath Sundharam, AIA, WELL AP Global Sustainability Leader DLR Group

    http://www.dlrgroup.com/insights/articles/cocea-water-energy-nexus/http://www.dlrgroup.com/people/premnath-sundharam/

  • Shona O'Dea, LEED AP BD+C, WELL APChicagoSenior Associate

    Monica Green, FAIAClevelandPrincipal

    Mary Ruppenthal, AIA, LEED APSacramentoSenior Associate

    Amarpreet Sethi, BEMP, HBDPSeattlePrincipal

    Ivy J. Glasgow, WELL AP, LEED AP BD+CSacramentoSenior Associate

    Heather M. Hughes, AIA, LEED AP BD+CLincolnSenior Associate

    Lindsey Piant Perez, AIA, GGPOrlandoPrincipal

    Laura Dulski, AIA, LEED BD+CSan FranciscoPrincipal

    Craig Randock, AIA, LEED AP BD+CPhoenixPrincipal

    SustainabilityLeadership

    Roger Chang, PE, LEED FellowWashington, D.C.Principal

    http://www.dlrgroup.com/people/jui-chen-chang/http://www.dlrgroup.com/people/laura-dulski/http://www.dlrgroup.com/people/monica-green/http://www.dlrgroup.com/people/shona-odea/http://www.dlrgroup.com/people/gilbert-randock/http://www.dlrgroup.com/people/ivy-glasgow/http://www.dlrgroup.com/people/lindsey-piant-perez/http://www.dlrgroup.com/people/amarpreet-sethi/http://www.dlrgroup.com/people/shona-odea/http://www.dlrgroup.com/people/monica-green/http://www.dlrgroup.com/people/amarpreet-sethi/http://www.dlrgroup.com/people/ivy-glasgow/http://www.dlrgroup.com/people/lindsey-piant-perez/http://www.dlrgroup.com/people/laura-dulski/http://www.dlrgroup.com/people/gilbert-randock/http://www.dlrgroup.com/people/jui-chen-chang/

  • Sustainable Design

    INSPIRE PROMOTECONSERVE

    COMMUNITYAWARENESS

    HONESTYBEAUTY

    LANDWATER

    ENERGYECO-SYSTEM

    PRODUCTIVITYWELLBEING

    HEALTHFITNESS

    In every project DLR Group aims to:

    Inspire. Our work should create an emphasis on community by raising awareness of social, ecological, and built systems; being open and honest in our actions and decisions; and honoring existing beauty as we design anew.

    At DLR Group, sustainability is intrinsic to our design culture.

    Conserve. In our design process, we search for ways to conserve water and energy in every way possible. We aim to conserve the land. We promise to not only look at the ways that one building can impact a neighborhood, but also the global ecosystem as a whole.

    Promote. We aim to encourage our building users, as well as the surrounding community, to be their best in productivity, wellbeing, health, and fitness through our sustainable design choices.

    LIVE SUSTAINABLY IN OUR OFFICE

    TELL OUR STORY

    LEAD THIS CHALLENGE

    1PRACTICE INTEGRATED DESIGN & SUSTAINABILITY2SET ENERGY PERFORMANCE GOALS

    6ENCOURAGE POST OCCUPANCY ENERGYMEASUREMENT & VERIFICATION

    5ASSESS RENEWABLEOPPORTUNITIES3OPTIMIZE BUILDING DESIGN & PERFORMANCE

    74VERIFY MODELING & TESTING89

    DLR Group2030 Commitment Guiding Principles

  • The ChallengeClimate change is considered one of the greatest challenges of our time. As designers of the built environment, it is our responsibility to balance operational efficiency with design goals.

  • Parts per million volume of Greenhouse Gases (GHG)

    Today400 350 300 250 200 150 100 50 0

    Global Change in Temperature C° (past 400,000 years)

    °C10

    8

    6

    4

    2

    0

    Greenhouse Gases Cause Climate Change

    GHG concentrations are higher today, than they have been in the last 650,000 years.

    Paris COP21Agreement

    A sharp increase in GHG concentrations in the recent past has increased the global change in temperature by 0.87°C

    when compared with a base period of 1951-1980.

    0.87°C

    CO2 levels breached the 410 parts per million threshold on April 21, 2017

    420 PPM400380360340320

    300280260240220200180

    °C 420

    -2-4-6-8

    -10

    420 PPM

    400

    380

    360

    340

    320

    Global Challenge

  • Balance operational efficiency with other design goals. Holistic design thinking maximizes opportunities for optimal design impact on people, operations, and infrastructure.

    OPERATIONS

    INFRASTRUCTURE

    PEOPLEWellness & Productivity

    OPERATIONSDurability & Maintenance

    INFRASTRUCTUREFirst Costs

    Fossil Fuel Energy Reduction

    Fossil Fuel Energy Consumption

    2030 CHALLENGE

    100%90%80%70%

    203020252020Today

    Design Challenge Design Solution

    PEOPLE

  • Design ImpactAs an integrated design practice, we believe in the advantages of carbon neutral buildings. Our process, strategies, and tactics for designing high-performing buildings continues to evolve.

  • Based on solar architecture projects

    firm-wide in 2017

    * GHG emissions are estimated using national average fuel ratio for energy use in buildings and EPA's Power Profiler ToolWater diverted at the energy plant is based on the average Water-Energy Nexus data from New Buildings Institute.

    DLR Group Firm-Wide

    Culture+Performing Arts

    Justice+Civic

    Healthcare

    Workplace

    Education K-12

    Energy+Engineering

    Retail/Mixed-Use

    Higher Education

    Hospitality

    40%

    49%

    44%

    50,000,000 kWh Produced | 14,000,000 kBtu Optimized

    60%

    37%

    61%

    27%

    51%

    48%

    REDU

    CTIO

    N

    2030 G

    OAL

    48%

    METRIC TONS OF GHG AVOIDED

    Based on energy optimizationprojects firm-wide in 2017

    MILLIONgallons of water*

    diverted from energy plants

    67

    Annual energy reduction over average building

    REDUCED

    2%THROUGHOPTIMIZATION

    2017 Design ImpactGreenhouse gas emissions avoidedProjected energy savings per market sector

    84,000METRIC TONS

    OF GHG* AVOIDED

    56% THROUGH

    REDUCTION

    41% THROUGH

    PRODUCTION

    GWhPRODUCED

    50

    Based on energy optimizationprojects firm-wide in 2017

    70%2030 GOALfor 2017

    Putting it in perspective

    MILLIONkBtu

    Optimized

    14

    http://www.dlrgroup.com/insights/articles/cocea-water-energy-nexus/http://www.dlrgroup.com/insights/articles/cocea-water-energy-nexus/

  • 102The amount ofwater used in

    U.S. Olympic-size swimming pools

    The impact of design choices DLR Group made in partnership with our clients in 2017 can be

    expressed as any of the following. 18,000Removing

    passenger vehicles from the road

    9,000The amount of

    energy consumed by

    homes in a year

    100,000The amount of

    energy consumed by

    acres of forest

  • 100% = Net Zero // EUI=0

    Baseline // 0%Net Zero A P P R O A C H

    6- Renewables

    5- Controls

    4- HVAC

    3- Lighting

    2- Envelope10%

    30%

    40%

    50%

    75%

    1- Programming

    Our approach to systematically evaluate design strategies that achieve carbon neutrality.

    Net Zero Ready

    Process StrategyWe practice integrated design. The path to net zero.At the core of an integrated design practice are collaborative, integrated, and productive teams composed of project life-cycle stakeholders. Our practice embraces a research-based and results-oriented approach. Deeply embedded in our practice is our performance design team.

    A robust team of performance designers across the firm analyze critical aspects of our designs against performance metrics established by our clients.

    A key focus area within our integrated design practice is our commitment to carbon neutrality goals of the 2030 Challenge. Our experts are uniquely poised to service the full life-cycle of a building from energy optimization to energy reduction and energy production.

    investigate experiment

    test analyze

    case study fact-find fieldwork examine

    determine submit frame

    benchmark establish

    documentsubstantiate

    confirm

    originate devisefashiondevelopfabricategeneratebuildproduce

    experiment assess evaluate investigate inspect analyze explorecorroborate

    TEST &EVALUATE

    RECORD &DELIVER

    RESEARCH CREATE

    ?

  • Simulation Services

    DLR Group leads the building performance simulation industry, offering services ranging from utility consumption estimates to measurement and verification of natural ventilation, renewable energy, and daylighting simulations. These services are performed to further optimize the performance of your facility.

    Our energy services are a crucial part of the design process and involve envelope, daylighting, lighting, and HVAC design of the proposed facility. This enables the confirmation of performance or the optimization of various building systems. We use robust building performance analysis tools that quantify the impact of decisions through the design process, maximizing the benefit to the owner, occupants, and the facilities team.

    DLR Group is able to generate a representative model of the building for the purpose of detailed energy and utility cost benefit analysis.

    Simulations will guide your design team in making value based decisions and to comply with applicable energy codes. Additionally, we are able to provide an estimate of the potential for the project to qualify for LEED’s Energy and Atmosphere (EA) Prerequisite and the anticipated number of LEED EA Credit 1 points.

    In addition to the initial simulation measures we can provide:

    • Comparative HVAC system efficiency analysis

    • High efficiency vs. conventional plant equipment

    • Envelope and fenestration thermal optimization

    • High performance lighting systems design

    • Daylighting and occupant control strategies

    LEED Compliance Energy Modeling

    Compliance modeling is the process of analyzing the design of a facility to elevate energy code and LEED compliance. For projects pursuing LEED and ASHRAE 90.1, baseline shall be compared to the proposed design. During the final design phase, the analysis will generate the building’s final potential for LEED energy performance credits. The compliance model will provide LEED documentation for EA Prerequisite 2 and EA Credit. Once LEED documentation is submitted, any comments from the LEED reviewer will be responded to by the energy modeler.

    Post-Occupancy Services

    Measurement and verification is recommended to ensure anticipated savings are realized during building operation. This requires that the energy model is calibrated to the actual building performance during the first year of operation. Any deviation from savings is identified and resolved to maximize energy and utility cost savings for the project.

    PREDESIGN SCHEMATIC DESIGN DESIGN DEVELOPMENT CONSTRUCTION DOCSCONSTRUCTION

    ADMIN PROJECT CLOSE-OUT

    Shoe-Box Energy Studies

    Comprehensive Energy Model

    DESIGN ASSISTANCE

    Energy Studies, Massing, Shading,

    Daylighting

    GOAL SETTINGPreliminary

    Model/Eco Charrette

    FINANCIAL ANALYSIS

    Energy Life Cycle

    Cost Analysis

    FINE TUNINGDetailed

    Energy Model

    CHECKS

    UpdateModel

    DOCUMENTATION

    FinalCompliance

    Model

    VERIFICATIONMEASURE

    +VERIFY

    Effo

    rt p

    er D

    esig

    n Ph

    ase

    Performance ModelingMeasuring and validating design goals and building performance.

  • 2030 Goal

    2010 2011 2012 2015 20182013 2016 20192014 2017 2020

    DLR Group National Peer Group Average

    DLR Group aims to design to 2030 Challenge metrics for all projects by 2020.

    0%

    10%

    20%

    30%

    40%

    50%

    60%

    70%

    80%

    Percent energy reduction from average buildings.

    Progress

    Square footage of DLR Group design projects that tracked design energy performance

    against 2030 Challenge goals.

    Squa

    re F

    oota

    ge in

    Mill

    ions

    2010 2011 2012 2015 2016 20172013 2014

    13

    12

    11

    10

    9

    8

    7

    6

    5

    4

    3

    2

    1

    Progress

  • Renewable Energy Systems Designed

    Renewable Energy Systems Installed

    Meg

    a W

    atts

    of R

    enew

    able

    Sys

    tem

    s

    20122010 20132011 2014 2015 2016 2017

    3231302928272625242322212019181716151413121110

    987654321

    Mill

    ion

    kBtu

    Of E

    nerg

    y Sa

    ving

    s

    2012 2013 2014 2015 2016 2017

    50

    45

    40

    35

    30

    25

    20

    15

    10

    5

    Predicted Energy Savings Through Building Optimization Strategies

    Energy Savings Through Implemented Building Optimization Strategies

    Progress

  • 2015 2016 2017 2018 2019 2020

    100%

    90%

    80%

    70%

    60%

    50%

    40%

    30%

    20%

    10%

    Participation as a % of total project area (GSF)

    Performance analysis as a % of participating project area (GSF)

    Designing to 2030 as a % of project area with performance analysis

    DLR Group 2030 CommitmentKey Performance Indicators

    DLR Group Goal by 2020

  • ProjectsOur design highlights in 2017 and the estimated annual impact on climate change.

  • 85 43 469 126 63 691

    2030 GOAL

    75%3pEUI

    KBTU/SF/YR

    REDU

    CTIO

    N

    2030 GOA

    L75%

    REDU

    CTIO

    N

    18pEUI

    KBTU/SF/YR

    K-12West-MEC Southwest Energy CampusBuckeye, Ariz. 51,750 SF

    Justice+CivicSFO Long-Term Parking Garage No. 2San Francisco, Calif. 943,445 SF

    http://www.dlrgroup.com/work/westmec-southwest-energy-campus/http://www.dlrgroup.com/work/westmec-southwest-energy-campus/

  • 55 28 302

    Higher EducationGolden West College Criminal Justice TrainingHuntington Beach, Calif. 38,917 SF

    2030 GOA

    L73%36

    pEUIKBTU/SF/YR

    REDU

    CTIO

    N

  • 92 46 504

    2030 GOAL

    70%22pEUI

    KBTU/SF/YR

    REDU

    CTIO

    N

    K-12Camas Discovery High SchoolCamas, Wash. 93,000 SF

  • 594 300 3,267

    2030 GOAL

    70%38pEUI

    KBTU/SF/YR

    REDU

    CTIO

    N

    WorkplaceXcel EnergyMinneapolis, Minn. 221,286 SF

    http://www.dlrgroup.com/work/xcel-engergy-minneapolis/http://www.dlrgroup.com/work/xcel-engergy-minneapolis/

  • 113 57 622

    2030 GOAL

    63%

    REDU

    CTIO

    N

    49pEUI

    KBTU/SF/YRCulture+Performing ArtsSacramento Community Center TheaterSacramento, Calif. 92,750 SF

  • 2030 GOA

    L61%24

    pEUIKBTU/SF/YR

    REDU

    CTIO

    N

    2030 GOA

    L59%28

    pEUIKBTU/SF/YR

    REDU

    CTIO

    N

    K-12Seymour, Iowa SchoolsSeymour, Iowa 30,140 SF

    Justice+CivicMonterey County New Juvenile HallSalinas, Calif. 6,141 SF

    40 620 221 4 2 20

    http://www.dlrgroup.com/work/county-of-monterey-new-juvenile-hall/

  • 24 31 16

    2030 GOA

    L54%24

    pEUIKBTU/SF/YR

    REDU

    CTIO

    N

    Justice+CivicPueblo Convention Center AdditionPueblo, Colo. 30,000SF

  • The New Buildings Institute (NBI) curates a comprehensive list of high performance buildings aiming to achieve zero-net energy (ZNE) based on actual energy consumption over a year, including actual renewable energy production. NBI classifies the list of high performing as follows:

    ZNE emerging buildings have a publicly stated goal of reaching ZNE but have not yet demonstrated achievement of that goal.

    Ultra-low energy buildings have demonstrated significant technical progress towards goals of energy use reduction, though the design may not pursue a ZNE energy path by investing on-site renewables.

    High Performance DesignsPending NBI Verification in 2017

    2030 GOA

    L22

    EUIKBTU/SF/YR 2

    030 GOA

    L21

    EUIKBTU/SF/YR 2

    030 GOA

    L17

    EUIKBTU/SF/YR 2

    030 GOA

    L32

    EUIKBTU/SF/YR

    2030 GOA

    L22

    EUIKBTU/SF/YR 2

    030 GOA

    L30

    EUIKBTU/SF/YR 2

    030 GOA

    L30

    EUIKBTU/SF/YR 2

    030 GOA

    L31

    EUIKBTU/SF/YR 2

    030 GOA

    L55

    EUIKBTU/SF/YR

    2030 GOA

    L32

    EUIKBTU/SF/YR2

    030 GOA

    L41

    EUIKBTU/SF/YR 2

    030 GOA

    L45

    EUIKBTU/SF/YR 2

    030 GOA

    L28

    EUIKBTU/SF/YR 2

    030 GOA

    L56

    EUIKBTU/SF/YR

    Agua Fria High School #5Goodyear, Ariz.

    ELKC at Fairmount ElementaryEverett, Wash.

    Mall of America - JW Marriot HotelBloomington Minn.

    Mall of America - Office BuildingBloomington Minn.

    Tartesso ElementaryBuckeye, Ariz.

    Fayetteville High SchoolFayetteville, Ark.

    Wainwright ElementaryTacoma, Wash.

    Jefferson County CourthouseMadras, Ore.

    Hines T3 Office BuildingMinneapolis, Minn.

    Washburn Center for ChildrenMinneapolis, Minn.

    A. G. Bell ElementaryKirkland, Wash.

    Valencia College - Poinciana CampusKissimmee, Fla.

    Lake Stickney ElementaryLynnwood, Wash.

    McCarver Elementary ModernizationTacoma, Wash.

    2030 GOA

    L24

    EUIKBTU/SF/YR

    West-MEC Soutwest Campus Energy Campus Phase l & llBuckeye, Ariz.

    http://Thehttps://newbuildings.org/http://www.dlrgroup.com/work/agua-fria-high-school/http://www.dlrgroup.com/work/lake-stickney-elementary-school/http://www.dlrgroup.com/work/jefferson-county-courts/http://www.dlrgroup.com/work/hines-t3/http://www.dlrgroup.com/work/washburn-center-for-children/http://www.dlrgroup.com/work/ag-bell-elementary-school/http://www.dlrgroup.com/work/xx-hos00-01-jw-marriott-moa/http://www.dlrgroup.com/work/fayetteville-high-school/http://www.dlrgroup.com/work/agua-fria-high-school/http://www.dlrgroup.com/work/agua-fria-high-school/http://www.dlrgroup.com/work/xx-hos00-01-jw-marriott-moa/http://www.dlrgroup.com/work/fayetteville-high-school/http://www.dlrgroup.com/work/jefferson-county-courts/http://www.dlrgroup.com/work/hines-t3/http://www.dlrgroup.com/work/washburn-center-for-children/http://www.dlrgroup.com/work/washburn-center-for-children/http://www.dlrgroup.com/work/ag-bell-elementary-school/http://www.dlrgroup.com/work/ag-bell-elementary-school/http://www.dlrgroup.com/work/lake-stickney-elementary-school/http://www.dlrgroup.com/work/lake-stickney-elementary-school/http://www.dlrgroup.com/work/westmec-southwest-energy-campus/http://www.dlrgroup.com/work/westmec-southwest-energy-campus/http://www.dlrgroup.com/work/westmec-southwest-energy-campus/

  • VisionWith a holistic approach to sustainability, we continue to refine a set of metrics to evaluate our design impact and evolve our practice by cultivating a passion for innovation.

  • Today Near-term 3-5 years

    Long-term within the next decade

    carbon counting

    net zero waste

    net zero &power energy

    net zero &power water

    materials 2.0

    materials

    biomimicry

    biophilia

    human wellness

    social equity

    community scale thinking

    resiliency

    designing for all species

    sustainability domain intro

    duct

    ion

    of c

    once

    ptaw

    aren

    ess

    dem

    onst

    ratio

    n/pi

    lot

    early

    ado

    ptio

    nbu

    rden

    of p

    roof

    wid

    e-sp

    read

    adop

    tion

    Trends in Sustainability

  • Connect with Us

    https://www.instagram.com/dlr_group/https://twitter.com/DLRGrouphttps://www.facebook.com/DLRGroup/https://www.youtube.com/user/DLRGroupDesignhttps://www.linkedin.com/company-beta/211981/?pathWildcard=211981


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