Big Data, Small Places:
How Smart Data Collection Can Shape
EcoDistricts
Marshall Duer-Balkind
Energy Administration
District Department of the Environment Government of the District of Columbia
September 25, 2014 Washington, DC
Agenda
Marshall Duer-‐Balkind
Program Manager, Energy Benchmarking District Department of the Environment
Helen Gurfel
Execu;ve Director
ULI Greenprint Center for Building Performance
Sean C. Luther
PiCsburgh 2030 Districts Senior Director Green Building Alliance
Constan:ne E. Kontokosta, PhD, PE
Associate Professor and Deputy Director
District Department of
the Environment
•
Leading authority on energy and environmental issues
affecting the District of Columbia.
•
DDOE is leading implementation of the Sustainable DC
“In just one generation—20 years—the District of Columbia will
be the healthiest, greenest, and most livable city in the United
States.”
•
First-in-nation Energy Benchmarking program
•
DC is home to three EcoDistrict Pilot Cities projects
DowntownDC EcoDistirct
SW Ecodistrict
Big Data, Small Places
We live in a world of increasing quan;;es of data—Big Data.
Data collec;on, analysis, and repor;ng are essen;al to
EcoDistricts from incep;on through full implementa;on.
However, poor quality data can be just as bad as no data at
all.
Yet comprehensive data collec;on can be challenging.
This panel will discuss best prac;ces in data collec;on, and
analysis and reports to date from DC, PiCsburgh, and NYC.
Data Collection
Methods
Voluntary reporting through sharing of data, either ongoing or through surveys • Pittsburgh • DC
1
2
3
VOLUNTARY REPORTING
MANDATORY REPORTING
DIRECT UPLOAD
4
DIRECT METERING
Synergies with mandatory city or state benchmarking policies
• DC
• NYC
Direct, authorized upload of utility data
• DC
Install of advanced meters to track data points in at short-interval or in real-time
Data Quality
Leverage Points
Upstream
• Community
Outreach
• Technical
Assistance
In-‐Stream
• U;lity
Partnerships
• Third-‐Party
Verifica;on
• Tool
Op;miza;on
Downstream
• Sta;s;cal Cleaning
& Analysis
• Itera;ve
improvement
• Enforcement
Data Privacy
Purposes of Benchmarking
Help Owners and Managers understand their
energy use and compare to peers
Help policymakers with analysis, planning
program design
Drive Market Transformation
1
2
DC Mandatory Reporting
•
Clean and Affordable Energy Act of 2008:
ENERGY STAR® Portfolio Manager®
benchmarking & public reporting
DC Government Buildings >10,000 sq. ft.
Private Buildings >50,000 sq. ft
•
District Government and Downtown DC
EcoDistrict are partners in the U.S. DOE
Better Buildings Challenge
•
Benchmarking Data is one of the methods
Direct Upload
•
Problem: Owners can’t access tenant data
•
Problem: Manual data entry errors
•
Best Solution: Aggregated whole-building
consumption data, with direct automated
upload to Portfolio Manager
Mandated in the Sustainable DC Act of 2014
Pepco: Available Now
Presenters
1
2
3
Helen Gurfel
Execu;ve Director
ULI Greenprint Center for Building Performance
Sean C. Luther
PiCsburgh 2030 Districts Senior Director
Green Building Alliance
Constan:ne E. Kontokosta, PhD, PE
Associate Professor and Deputy Director
2030 Districts:
Goal Oriented ▪ Data Driven
Sean C. Luther, LEED AP ND ▪ @tooluther
Green Building Alliance ▪ @go_gba
Copyright © 2014, Green Building Alliance
G
OAL
O
RIENTED
/I
NSPIRED
BY
THE
2030 C
HALLENGE
G
REENHOUSE
G
AS
R
EDUCTIONS
E
NERGY
, W
ATER
, T
RANSPORTATION
E
MISSION
G
OALS
P
LACE
BASED
(
DEFINED
GEOGRAPHY
)
G
RASS
R
OOTS
& P
RIVATE
S
ECTOR
L
EAD
L
OCALLY
RUN
(
NATIONALLY
COLLABORATIVE
)
N
OT
AN
E
CO
D
ISTRICT
?
4
Copyright © 2014, Green Building Alliance
= Energy Consumption = Water Consumption & Transportation Emissions
661 Buildings
174 Property Members
96 Professional Stakeholders 64 Community Stakeholders
Copyright © 2013, Green Building Alliance 7
Copyright © 2014, Green Building Alliance
Oakland (est. 2014)
Downtown (est. 2012)
Copyright © 2014, Green Building Alliance
P
ROPERTY
C
OMMITMENTS
:
Downtown
34,671,637 S.F.
60%
Oakland
24,593,609 S.F.
Total
:
59,265,246 S.F.
81%
67%
116
25%
244
63%
360
43%
Copyright © 2014, Green Building Alliance
‹#›
‹#›
‹#›
Energy Star Score (1-100) 2013 Score: 83 2013 Progress Report Example Building XXX Street, Pittsburgh, PA 15222 Portfolio Manager Property ID: Primarily: Office
Year Built:
Performance against baseline: -32.4%
67.3 EUI 99.4 EUI -32.4% -10% -20% -35% -50% 0 20 40 60 80 100 120 CBECS 2003 Baseline 2013 2015 2020 2025 2030 EUI ( kB tu /s q f t)
Example Building: Pittsburgh 2030 District Energy Report
2013 Site EUI 2030 District Goals CBECS 2003 Baseline
• The above graph represents Example Building’s 2013 energy performance compared to the Pittsburgh 2030 District goals, a -10% reduction by 2015 being the first incremental step. • A baseline of 99.4 EUI (kBtu/sq ft/yr) was established which represents a national average of
buildings similar in sq ft and function.
• Example Building demonstrated a site EUI of 67.3, a reduction of -32.4% from the baseline. • Example Building has reached the 2015 energy goal.
A B C D -32.4% F G H I J K L M N O P Q R S T U V W X -60% -50% -40% -30% -20% -10% 0% 10% 20% 30%
Pittsburgh 2030 District Energy Report:
Offices Properties> 200,000 sq ft
Office Site EUI vs. 2030 District Goals 2015 Goal 2030 Goal
• The above graph represents Example Building’s 2013 energy performance compared to Reporting Pittsburgh 2030 District office buildings greater than 200,000 sq ft.
• 24 reporting office buildings greater than 200,000 sq ft make up our largest cohort in the district. • 2013 energy performance is -32.4% below the baseline (labeled in solid orange).
Example Building
XXX Street, Pittsburgh, PA 15222 Portfolio Manager Property ID: Primarily: Office
Example Building
XXX Street, Pittsburgh, PA 15222 Portfolio Manager Property ID: Primarily: Office A B C D E +1.2% G H I J K L M N O P Q R -‐100% -‐50% 0% 50% 100% 150% 200%
Pittsburgh 2030 District Water Report:
Office Properties > 200,000 sq ft
WUI 2015 Goal 2030 Goal
• The above graph represents Example Buildings 2013 Water performance compared to Reporting Pittsburgh 2030 District office buildings greater than 200,000 sq ft.
• 2013 Water performance is +1.2% above the baseline (labeled in solid Blue).
Copyright © 2013, Green Building Alliance 18
B
UILDING
P
ERFORMANCE
C
ONFIDENTIALITY
M
ANDATORY
B
ENCHMARKING
VS
. V
OLUNTARY
D
ISCLOSURE
C
ARROT
VS
. S
TICK
D
ATA
Q
UALITY
U
SER
INPUT
IS
A
WONDERFUL
,
DANGEROUS
THING
U
TILITIES
ARE
IMPORTANT
FRIENEMIES
Sergey Semonov via h.p://theatln.tc/1i7S1Jd
Dr. Constantine E. Kontokosta, PE, AICP, LEED AP, FRICS
Head/Principal Investigator of CUSP Quantified Community Research Lab
Assistant Professor of Urban Informatics
NYU CUSP and NYU Polytechnic School of Engineering Deputy Director for Academics, NYU CUSP
The CUSP Quantified Community
MEASURING, MODELING, and UNDERSTANDING the URBAN ENVIRONMENT
New York City
as a Living Lab
The Center for Urban Science and Progress
(CUSP) is a unique public-private research center that uses New York City as its laboratory and
classroom to help cities around the world become more productive, livable, equitable, and resilient. CUSP observes, analyzes, and models cities to optimize outcomes, prototype new solutions, formalize new tools and processes, and develop new expertise/experts. These activities will make CUSP the world’s leading authority in the emerging field of “Urban Informatics.”
The CUSP Partnership
National Laboratories • Brookhaven • Lawrence Livermore • Los Alamos • Sandia Industrial Partners • IBM • Microsoft • Xerox• Cisco, Con Edison, Lutron, National Grid, Siemens • AECOM, Arup, IDEO
University Partners
• NYU (multiple schools)
• The City University of New York • Carnegie Mellon University • University of Toronto (Canada) • The University of Warwick (UK)
• IIT-Bombay (India) City & State Agency Partners • The City of New York
• Metropolitan Transportation Authority • Port Authority of NY & NJ
Buildings
City Planning
Citywide Administrative Services
Design and Construction
Economic Development
Environmental Protection
Finance
Fire Department
Health and Mental Hygiene
Information Technology and Telecommunications
Parks and Recreation
Police Department
Sanitation
Transportation
- Jane Jacobs, Death and Life of
Great American Cities, 1961
CITIES ARE AN IMMENSE LABORATORY OF
TRIAL AND ERROR, FAILURE AND SUCCESS,
IN CITY BUILDING AND CITY DESIGN. THIS IS THE
LABORATORY IN WHICH CITY PLANNING SHOULD HAVE
BEEN LEARNING AND FORMING AND TESTING ITS
THEORIES. INSTEAD THE PRACTITIONERS AND TEACHERS
OF THIS DISCIPLINE (IF SUCH IT CAN BE CALLED) HAVE
IGNORED THE STUDY OF SUCCESS AND
FAILURE IN REAL LIFE….
The CUSP “Quantified Community” (QC) will be a fully instrumented urban neighborhood that uses an integrated, expandable sensor
network and citizen engagement to support the
measurement, integration, and analysis of neighborhood conditions.
Through an informatics overlay, data on
physical and environmental conditions and use patterns will be processed in real-time to
maximize operational efficiencies, improve quality of life for residents and visitors, and drive evidence-based planning.
Kontokosta, et al.
The Quantified Community
QC Data Sources
Combing fixed instrumentation, mobile devices, and participatory sensing
Novel
Technologies
• Visible, infrared and
spectral imagery
• RADAR, LIDAR
• Gravity and magnetic
• Seismic, acoustic • Ionizing radiation, biological, chemical • … Sensors • Personal (location, activity, physiological)
• Fixed in situ sensors
• Crowd sourcing
(mobile phones, …)
• Choke points (people,
vehicles) Organic Data Flows
• Administrative records
(census, permits, …)
• Transactions (sales,
communications, …)
• Operational (traffic,
transit, utilities, health system, …)
• Social media (Twitter,
Facebook, blogs, …)
Data management, integration
Analytics,
Modeling, and
Simulation
Residents/
visitors/
workers
Operators
Evaluation and MonitoringIMPACT
System Optimizatio n Behavior Change Economic ModelsInformation Flows in the QC Environment
Open Data Platform – Publicly Accessible
TaxiVis: Interactive Visual Exploration of NYC Taxi Records
Modified Gaussian Dispersion Plume
Graph Theory Applied to Building Emissions and Air Quality Monitoring
Source: Jain, Moura, Kontokosta 2014
Urban Sleep Pa.erns
A Day in the Life
of Water Street –
as Seen through
Data
R. Dunks et al.ecoDistrict Summit
What is the
ULI
Greenprint
Center?
2
Urban Land Institute
Greenprint
Center for Building
Performance, founded in 2009
Greenprint is a worldwide alliance of
leading real estate
owners and financial institutions
committed to
improving the environmental performance of buildings
Greenprint‘s
mission
is to lead the global real estate
community toward
value-enhancing carbon reduction
strategies
Greenprint is a member driven nonprofit , that is “
by the
Greenprint Environmental Management Platform
Data analytics • Normalization • Carbon calculation • Online dashboards Improving performance • Benchmarkingproperties, funds, & portfolios
• Project tracking
• On-demand reporting • Tracking against goals
Analysis & Benchmarking Environmental Reporting Reporting Variance checks Multi-stakeholder data entry and review process Greenhouse gas protocol calculation methodology ISO 14064 Auditability Data Quality Review Asset Data • Property characteristics • Space & tenant use • Certification/Rating Environmental Data • Energy • Emissions • Water • Waste • Refrigerants Environmental & Asset Data Capture
By the industry, for the industry City initiatives
Environmental
Management
Platform
Greenprint Program of Work
Best Practices and Case Studies Setting Global Standards Valuation & Portfolio Management Committee Innovation RoundtableLink financial metrics with environmental metrics
5
Greenprint Membership
9/24/2014 6
Greenprint Performance Report™ Volume 5: Office Properties, Cities
SAN FRANCISCO 96 properties 199 annual kWh/m2 (19 annual kWh/ft2) WASHINGTON D.C. 134 properties 197 annual kWh/m2 (18 annual kWh/ft2) NEW YORK 67 properties 271 annual kWh/m2 (25 annual kWh/ft2 PARIS 13 properties 163 annual kWh/m2 (15 annual kWh/ft2) LONDON 251 properties 275 annual kWh/m2 (26 annual kWh/ft2) FRANKFURT 11 properties 214 annual kWh/m2 (20 annual kWh/ft2) TOKYO 15 properties 125 annual kWh/m2 (12 annual kWh/ft2) SYDNEY 2 properties 299 annual kWh/m2 (28 annual kWh/ft2)
Metro Washington DC Building Performance Report, Volume 2
The ULI Greenprint Center and DowntownDC are pleased to present the second
Metro Washington, D.C. Building Performance Report
Metro Washington DC area is divided into 3 subcategories:
• DC BID
• Washington DC (the District) • Virginia & Maryland suburbs
Downtown DC ecoDistrict Members
8
Downtown DC ecoDistrict’s Contributing Members
9
energy
-1.7%
2013: 2,503 million kBtucarbon
2013: 321,000 mtCO2e-3.7%
occupancy
1.4%
2013: 99% electricity-2.5%
2013: 2,416 million kBtu-1.7%
2013: $85 million cost of energy-8.9%
2013: 855 million gallonswater
2013 portfolio includes 171 office and multifamily properties with consistent year over year data
Report Performance Snapshot
Greenprint Metro
Washington Range Washington Greenprint Median Greenprint U.S. Office Median Number of Properties 157 861 Size of Buildings (SF) 8,901–1,177,173 214,690 196,682 Year Built 1888 - 2012 1988 1987 2013 % Occupancy 0% - 100% 100% 100%
Site Energy Intensity
(kBtu/SF) 6.5 - 220 62 63
Energy Star Score 5 - 97 79 82
Site Carbon Intensity
(kg CO2e/SF) 0.8 – 24.9 8.2 7.5 Metro Washington Greenprint Office Portfolio
Properties in Metro Washington Office Portfolio
Overview of office properties in the analysis:
All properties were submitted on a voluntary basis by property owners; institutional investors, investment trusts, and private real estate companies
Metro Washington DC Building Performance
Building environmental performance is impacted by many factors, the report specifically explores space use, age, size, FTEs and occupancyMETRO
WASHINGTON VIRGINIA AND MARYLAND DC DC BID
Number of Properties 157 73 84 36
Site Energy Intensity 62 65 61 59
Site Carbon Intensity
(kg CO2e/SF)
8.2 8.7 7.6 7.5
Total Floor Area (MSF) 39.5 16.3 23.2 11.0
Average Building Age 1988 1989 1985 1991
Property Usage: % Government 20% 35% 11% 10% % General Business Services 41% 13% 58% 55% % Financial 5% 2% 7% 5% % Health Care 2% 1% 3% 3% % Technology 12% 30% 2% 4% % Retail 2% 1% 2% 2% % Other* 18% 18% 18% 21%
12
Relationship between Energy and Weather
• Heating and cooling account for ~ 40 percent of a building’s energy consumption • Variations in weather can increase or decrease energy consumption by 7 percent
Weather across the globe in 2013 diverged from 30 year average
Greenprint Metro
Washington Office
Normalization
Weather & FTE normalization enables performance comparisons over time
• In 2013 DC performed 1.4% better than the normalized prediction
14
Correlating natural gas use with weather for multifamily properties shows a base load in summer months and heating peaks in winter months which are possibly due to tenant behavior
Greenprint Metro Washington Multifamily Weather Normalization
Occupancy vs FTE (Energy)
• Energy usage decreased 11.3% from 2009 to 2013
• Energy use intensity by FTE decreased 9.1% from 2009 to 2013
• Absolute energy consumption, energy use per SF, energy use per FTE all
decreased demonstrating increased energy efficiency
50,000 55,000 60,000 65,000 70,000 75,000 80,000 85,000 90,000 95,000 100,000 0 10 20 30 40 50 60 70 80 90 2009 2010 2011 2012 2013 FT Es O ccu pa ncy % Occupancy FTEs 8,081
kWh/FTE kWh/FTE 8,101 kWh/FTE 8,023 kWh/FTE 7,446 kWh/FTE 7,348
16
Water Utility Costs
• Cost of water has outpaced CPI by over 200 basis points • Water is now 4.5 times more expensive compared to 1983
Metro
Washington Water Cost
• Water use for metro Washington decreased by 8.9% from 2012 to 2013 • Average cost per gallon of water increased by 32 percent from $6.74 to
$9.05 per 1,000 gallons
Over the past five years, water cost increased by 55%
Metro Washington DC Office Building
Performance Report
The ULI Greenprint Center and DowntownDC are pleased
to present the Metro Washington, D.C. Performance Report
The report will be available for download on the
Greenprint website:
www.uli.org/greenprint
19 Greenprint Metro Washington Range Greenprint Metro Washington Median Greenprint U.S. Multifamily Median Number of Properties 38 524 Size of Buildings (SF) 9,769–1,081,784 308,380 260,586 Year Built 1900-2013 1997 2000 Number of units 96-842 275 234 Common-are Site Energy Intensity (kBtu/SF) 1.3-19.6 6.7 9.1 Whole-building area site energy intensity (kBtu/SF) 12.3- 93.2 48 40 Metro Washington Multifamily Greenprint Portfolio
Multifamily properties capture different subsets of energy data; whole-building/common-area energy
20
Correlating natural gas use with weather for multifamily properties shows a base load in summer months and heating peaks in winter months which are possibly due to tenant behavior
Greenprint Metro Washington Multifamily Weather Normalization
What is the ULI Greenprint Center?
Measure, Manage, Enhance Property Value
Greenprint provides an environmental management
platform for members to measure, track and benchmark
property-level
•
Energy consumption
•
Carbon emissions
•
Water usage
•
Waste diversion
Members receive
customized reports
outlining individual
portfolio and fund performance
Greenprint Performance Report
is a consolidated view of
participating properties, detailing environmental
performance by geography and asset class
Comparing HDD and CDD
22
By comparing 2012 and 2013 heating degree days and cooling degree days with the 30 year average shows that it is becoming warmer through out the year.