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1 C H Center for High Performance Buildings at Purdue P B Center for High Performance Buildings (CHPB) A center dedicated to partnering with industry in the development, demonstra7on, evalua7on, and deployment of new technologies and analysis tools for high performance buildings.

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1C" H"

Center"for"High"Performance"Buildings"at"Purdue"

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Center  for      High  Performance  Buildings  (CHPB)  

 A  center  dedicated  to  partnering  with  industry  in  the  development,  demonstra7on,  evalua7on,  and  deployment  of  new  technologies  and  

analysis  tools  for  high  performance  buildings.    

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Center"for"High"Performance"Buildings"at"Purdue"

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CHPB Vision and Mission

Vision: To be the leading university research program for high performance building technology development and assessment.

Mission: To partner with industry in the development, demonstration, evaluation, and deployment of new technologies and analysis tools for high performance buildings.

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Outline•  Why Buildings?•  Why Purdue?•  What are some unique research

opportunities for the CHPB? •  Industry members proposal •  Status and timeline for moving forward

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Why Buildings?

●  41% of primary energy usage

●  72% of electrical usage

●  55% of natural gas usage

●  38% of CO2 emissions

●  $370 billion in annual utility bills

●  10% of GDP related to buildings

●  Among the largest engineered systems in existence

●  Where we spend about 90% of our time

Primary Energy Use Sectors

EIA, 2011

Buildings Figure 2.1a Energy Consumption Estimates by Sector Overview

Total Consumption by End-Use Sector, 1949-2011 End-Use Sector Shares of Total Consumption, 2011

Primary and Total Consumption by Sector, 2011 Electric Power Sector, 1949-2011

38 U.S. Energy Information Administration / Annual Energy Review 2011

1 Conventional hydroelectric power, geothermal, solar/photovoltaic, wind, and biomass.Note: • See “Primary Energy Consumption” in Glossary. • Sum of components may not

equal 100 percent due to independent rounding.

Sources: Tables 2.1a and 2.1f.

1950 1960 1970 1980 1990 2000 20100

10

20

30

40

Qua

drill

ion

Btu

Industrial

Transportation

Residential

22%

Transportation

28%

Industrial

31%

Commercial

19%

Residential

Commercial

Petroleum

Coal

Nuclear ElectricPower

Natural Gas

RenewableEnergy1

21.618.0

30.627.1

39.3

6.64.1

20.3

27.0

Residential Commercial Industrial Transportation Electric0

10

20

30

40

50

Qua

drill

ion

Btu

Primary Consumption Total Consumption

Power 1950 1960 1970 1980 1990 2000 20100

5

10

15

20

25

Qua

drill

ion

Btu

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Center"for"High"Performance"Buildings"at"Purdue"

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Why Purdue?●  Incomparable History within the HVAC&R Industry

Ø  Herrick Labs initially founded in the 1950’s by a grant from Ray W. Herrick, founder of the Tecumseh Products Corp. to perform research on compressors

Ø  Evolved over several decades to consider all aspects of building: HVAC&R components/equipment/systems, building controls and diagnostics, indoor air quality, building envelopes, daylighting/lighting, occupant comfort, ….

Ø  ~400 theses related to buildings’ research Ø  Hosting 3 of the most significant conferences in the field

every two years Ø  Interdisciplinary research with industry continuously for over

50 years (> 50 different companies) Ø  Long history of leadership within ASHRAE, IIR, etc.

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Why Purdue?●  Incomparable Faculty

Ø  3 endowed chairs, 3 fellows of ASHRAE, 1 fellow of IBPSA, 1 fellow of ISIAQ

Ø  1 NSF Career Award, 4 ASHRAE New Investigator Awards

Ø  Associate or Chief Editors for 3 of the most significant journals in the field

Ø  Expertise spanning the field including building components, sub-systems, systems, controls, indoor air quality, lighting, …

Ø  >$2M in annual funding

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CHPB Faculty Research AreasProfessor Primary Research Activities Jim Braun Modeling, analysis, and optimization with applications to: Intelligent

Controls, Automated Diagnostics, Component & System Improvements, Building Simulation Tools

Stuart Bolton Noise Control, Sound Absorbing Materials & Systems, Sound Propagation & Transmission, Source Characterization, & Sound Field Visualization & Simulation

Qingyan Chen CFD for air flow in & around buildings with applications to: Indoor Air Quality, Homeland Security, Energy Analysis

George Chiu Dynamic Systems and Control, Mechatronics, Embedded Systems and Real-Time Control

Patricia Davies Impacts of Noise on People: Annoyance, Speech Interference, Sleep Disturbance; Sound Quality & Sound Perception. System Identification and Signal Processing.

Eckhard Groll Experiments and modeling with applications to: Alternative Refrigeration Technologies, Natural Refrigerants, Component & System Performance

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CHPB Faculty Research AreasProfessor Primary Research Activities Travis Horton Ground-Coupled Heat Pumps, Building Energy Performance

Analysis

Jianghai Hu Multi-agent systems; control of uncertain systems; energy efficient building management

Neera Jain Dynamic modeling and optimal control applied to building systems and equipment

Panagiota Karava Mixed-Mode Buildings, Building-Integrated Solar Energy Systems, Buildings Systems Modeling and Identification, Model-Predictive Control, Human-Building Interactions

Robert Proctor Human Performance, Human Factors & Human-Computer Interaction, & Experimental Research Methods

Ming Qu Solar Systems, Intelligent Controls, Absorption Systems

Thanos Tzempelikos Building Envelope, Lighting and Daylighting, Dynamic Facades, Thermal and Visual Comfort, Building Simulation

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CHPB Research Thrusts

Testbeds

Indoor Environment &

Human Perception

Building Tech. & Systems

Building Envelopes Lighting & Daylighting Comfort Delivery Modeling, Design Tools Optimal Building Controls Automated Diagnostics Renewable Energy System Optimization

Equipment • Compressors • Heat Pumps • Refrigerants • CHP • Geothermal Technology • Modeling & Testing • Appliances

• Comfort, Productivity, Human Health

• Indoor Air Quality • Prediction Models • Personalized Control • Interfaces

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Center"for"High"Performance"Buildings"at"Purdue"

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Why Purdue?●  Incomparable Facilities

Ø  New $31.5M building with one-of-a-kind capabilities to study comfort delivery, occupant response, HVAC&R equipment, and integrated systems

Ø  Existing facilities at old Herrick that are complementary to new facilities

Ø  Reconfigurable facilities within the Architectural Engineering program located at Bowen to study building envelopes, daylighting controls, renewable energy, …

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Old Herrick FacilitiesTwo  Large  Environmental  Chambers  •  Tes?ng  of  AC,  HP  and  Refrig.  Systems  •  -­‐20  C  to  +  50  C,  <  5-­‐ton  equipment  •  Steady-­‐state  and  cyclic  tes?ng  of  exis?ng,  modified,  or  new  equipment  designs  

 90-­‐ton  Centrifugal  Chiller  •  Automated  control  of  boundary  condi?ons  

Heat  Exchanger  Test  Facility  •  Tes?ng  of  coiling  coils,  hea?ng  coils,  evaporators,  condensers  

•  Capable  of  controlled  heat  exchanger  fouling    Compressor  Test  Facili?es  •  CO2,  R22,  R410a  Load  Stands  •  Compressor  Calorimeter  

Noise  and  Vibra?on  Laboratory  •  Noise  source  iden?fica?on  •  Sound  quality  facility    

Refrigeration Coil

ElectricResistance Heaters

10,000 CFM Blowers (2-blower wheels)

SteamInjector

Perforated Floor

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Old Herrick FacilitiesIndoor  Environmental  Chamber  

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Architectural Engineering Facilities at Bowen• Full-­‐scale  offices  to  study  the  impact  of  envelope  systems  and  façade/ligh?ng/thermal  controls  on  energy  use  and  indoor  environment  

• Testing facility for MPC strategies in buildings with mixed-mode cooling

• BIPV/T  tes?ng  facility •  Concentrating solar collectors with

absorption cooling

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New CHPB Facilities•  Perception-Based Engineering Laboratory: study combined

impacts of lighting, acoustics, air quality, temperature, humidity and air flow on occupant perceptions and performance

•  Psychrometric Rooms – Two pairs of rooms with extended temperature and humidity ranges and capacity compared to existing rooms at Old Herrick

•  Geothermal Ground Loop: Allows testing for model validation, control algorithms, equipment coupling, alternative bore designs, etc.

•  Indoor Air Quality Room – Reproduces and expands capabilities compared to Old Herrick

•  Living Laboratories: fully-instrumented occupied laboratory offices with reconfigurable facades, comfort delivery, primary equipment, and controls to allow testing for impacts of new building technologies on energy and occupant performance

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CHPB Facilities

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Perception-Based Engineering LabPBE Laboratory

PBE Lab Control Room

PBE  Lab  Features:  1.  Accessible  ceiling,  2.  Observation  panel,  3.  2-­‐D  shaker  table,  4.  Recon>igurable  walls/room,  5.  Overhead  doors,  6.  Recon>igurable  overhead  utilities,  7.   Recon>igurable   lighting,   8.   South   facing   daylight   exposure   aligned   with  recon>igurable  window/wall  in  lab,  9.  Control  room  and  subject  reception  area.

 

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Living Laboratories

Air Living Laboratory

Hydronic Living Laboratory

Recon2igurable   Features   with   Opportunities   for:     1.   Double   Skin   Façade,   2.   Integrated   PV,   3.  Advanced   Glazing   Materials,   4.   Natural   Ventilation,   5.   Controllable   Glazing:   Visible   Light  Transmittance   and   Thermal   Performance,   6.   Under>loor   Air   Distribution   (Air)   or   Radiant   Floor  Heating  (Hydronic),  7.  Personnel  Ventilation  Control  (Air)  or  Integrated  Thermal  Mass  (Hydronic),    8.  Primary  Air  System  with  Broad  Delivery  Range  (Air)  or  Radiant  Ceiling  Panels  (Hydronic),  9.  Overhead  Air   Distribution   (Air)   or   Active   and   Passive   Chilled   Beams   (Hydronic),   10.   Overhead   Light   Fixtures  (Air)  or  Displacement  Ventilation  (Hydronic),  11.Wall  Light  Fixtures  (Air)  or  Overhead  Light  Fixtures  (Hydronic),  12.  Task  Fixtures  (Air)  or  Wall  Light  Fixtures  (Hydronic),  13.  Task  Fixtures  (Hydronic)

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CHPB  Industrial  Members  Program  Proposal  

 

 

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Overview of CHPB Members Program Proposal

•  Membership fees and guidance to support research of general interest to member companies

•  Opportunity to leverage collaborative funding with no university overhead to work on problems of common interest

•  Early access to other non-proprietary (e.g., government funded) research results

•  Access to general-purpose software outputs•  Opportunity to license IP

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Overview of CHPB Members Program Proposal

•  Opportunity to hire talented CHPB students trained in application areas of interest to member companies

•  Opportunity to establish short-term testing agreements using CHPB facilities and staff

•  Opportunity to identify partnerships/teams for establishing proprietary or government-industry-academic research contracts using CHPB staff, students, and facilities

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Comparison to Existing University Centers

•  University of Illinois: ACRC–  Emphasis on heat transfer and components–  Initiated through NSF I/UCRC program

•  University of Maryland: CEEE–  Emphasis on components and primary cooling

equipment–  Collection of consortia: alternative cooling

technologies, advanced heat exchangers, electronics cooling, …

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Comparison to Existing University Centers

•  UC-Berkeley: CBE–  Emphasis on occupant comfort and comfort delivery

systems

•  Purdue: CHPB–  Expertise and facilities to study occupant comfort,

comfort delivery, components, primary equipment, sub-systems, building envelopes, controls, automated diagnostics, integrated systems, ..

–  Integrated building systems and range of expertise/test beds are differentiators

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CHPB Members Research •  Needs to be pre-competitive or have broad value

across industry segments–  Generating better understanding of processes or

technologies or new fundamental knowledge–  Helping to build the business case for new/evolving

technology–  Development of general modeling approaches and/or

software tools–  Tracking and assessing technology responses to new

regulations or standards–  Tracking of technology and commercial product

developments–  ????

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Example CHPB Research Topics●  Equipment

Ø  Vapor compression cycle enhancements to achieve future energy efficiency standards

Ø  New compression technologies

Ø  Assessment of future refrigerant alternatives

Ø  Non-vapor compression heat pumping technologies

Ø  Smart devices and equipment (e.g., compressors, valves, heat exchangers, pumps, air conditioners, heat pumps, home appliances) to enable the “Internet of Things”

Ø  Small-scale CHP for distributed energy generation and waste heat recovery

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Example CHPB Research Topics●  Building Technology and Systems

Ø  Assessments of advanced materials and envelopes for buildings (variable-property windows/walls; transparent insulation; intelligent walls/windows, ..)

Ø  Smart enclosure elements (e.g., walls, windows, floors, ceilings)

Ø  Plug-and-play optimal controls and diagnostics

Ø  Plug-and-play building components and sub-systems to enable modular, intelligent, pre-fabricated buildings that are customizable – “Lego Buildings”

Ø  Alternative approaches for delivery comfort to occupants à e.g., radiant technology

Ø  Big data analytics to detect anomalies, diagnosis problems, recommend service/retrofits, etc.

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Example CHPB Research Topics●  IEQ and Human Perception

Ø  Fast indoor air modeling to enable better design and assessment of controls

Ø  Evaluation of occupant responses to different approaches for comfort delivery (e.g., radiant vs. natural convection vs. forced convection)

Ø  Develop a fundamental understanding of combined impacts of thermal, air quality, acoustic, lighting conditions on occupant satisfaction, performance, and health

Ø  Overall occupant performance models to enable consideration of tradeoffs between energy and occupant performance

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CHPB Membership Potential•  Equipment

–  Compressors, Heat Exchangers, Valves, Primary Cooling and Heating Equipment, AHUs, ….

•  Building Technology and Systems–  Insulation, curtain wall, ceiling tiles, raised floor, PCM, lighting,

furniture, … –  Controls, maintenance, …–  Utilities–  End-use customers

•  Indoor Environment and Human Perception–  Most of the above–  NIH, ASHRAE, ..

•  Target Membership: 30-40 companies

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CHPB Members Participation

•  Fall Meeting – One Day– Update on current research projects– Generate research ideas based on industry

needs•  Spring Meeting – One Day

– Members committee votes on faculty proposals for next years’ research (multiple votes for each member company that can be split among proposals)

– Update on research projects

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Member Fees and Benefits•  $50K per year membership fees ($30K for companies with

less than 100 employees)•  Member Benefits

–  1 vote per $10K in annual membership fees for recommending members research projects (votes can be split among proposals)

–  Up to 3 participants from each company at spring and fall research review meetings

–  Opportunity to license technology developed from members research

–  Research results in the form of reports and presentation materials–  General purpose software resulting from CHPB members research–  Student recruiting: 1) insider knowledge of capabilities; 2) specific

training in application areas of interest to companies; 3) technology transfer through hiring

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Proposed IP Policy–  Purdue owns any IP resulting from members’

sponsored research–  CHPB will furnish members a disclosure of intellectual

property developed by member research projects within two months of development

–  Each member will have an option, within 90 days of receiving disclosure, to a nonexclusive, nontransferable, royalty-bearing, paid-up license

–  The paid-up license fee will be each members portion of all costs and fees for patent protection (for those members opting for the license)

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CHPB Status and TimelineDates   Descrip+on  

Nov.  6,  2014   CHPB  Workshop  to  explore  industry  membership:    more  than  30  par?cipants  with  representa?on  from  16  different  organiza?ons  covering  a  range  of  building-­‐related  products,  including  windows,  ligh?ng,  building  materials,  equipment,  controls,  etc.;  posi?ve  feedback  for  moving  forward  

Nov-­‐Feb,  2015   Develop  website  and  promo?onal  materials  

Feb-­‐June,  2015   Follow  up  with  companies  à  provide  needed  materials  (CHPB  background,  benefits,  terms,  membership  agreement)  

Apr–  Sep,  2015   Obtain  financial  commitments  from  member  companies  à  sign  1-­‐year  membership  agreement  

Early  June,  2015   Another  CHPB  Workshop  for  poten?al  industrial  members  

Nov,  2015   CHPB  mee?ng  with  members  to  establish  ini?al  research  agenda  

Jan,  2016   Launch  CHPB  membership  program  

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Next Steps•  Industry Partners

–  Feedback to CHPB team–  Promote CHPB within company

•  CHPB–  Promote CHPB membership program with other

companies–  Develop and share membership agreement–  Sign up company members