creating a resilient energy network of net zero buildings ... the... · off-grid islanding...
TRANSCRIPT
The EMerge Alliance is the world's largest professional organization dedicated to advancing standards for direct current technology. It is an open industry association of
collaborating commercial, government and academic organizations developing standards covering hybrid AC/DC microgrids used in commercial and residential
buildings and campuses. EMerge standards facilitate the achievement of greater energy efficiency, safety, resiliency, and sustainability while maximizing the potential
to use of clean, renewable on-site energy.
http://www.emergealliance.org
Smart GridEminent DomainSynchronizationFrequency ControlVoltage MaintenanceReactive Power (VARs)Spinning ReservesPeaking Turbines
Renewable Energy Sources (RES)Solar (PV) – Wind - Fuel CellsMicro-turbines - Combined Heat & Power Distributed Energy Resources (DER)Clean EnergyEnergy Storage
SSL - EfficiencySmart ControlsDigital Devices – IoTAC/DC Power ConversionFast Charge Electric VehiclesSmart BuildingsZero Net Energy (ZNE)
Remote Power AccessOff-gridIslandingMicrogridsLoad ShiftingDemand ResponseNet Metering
Power System ResiliencyElectro-Magnetic PulsesBrownouts-BlackoutsTerrorismExtreme WeatherPower QualityLinear Dynamic Failure
© EMerge Alliance 2016
Building ServicesPower Storage & Control
Factory or WarehouseIndustrial Space
Outdoor SourcesOffice & Occupied Space
Data Center
© EMerge Alliance 2016
Wind Farm
Solar Farm
Sub-station
Sub-station
Commercial Campus
Microgrid
Community Microgrids
Peaking Power Plant
Utility-Scale Microgrids
© EMerge Alliance 2016
Utility Microgrids are Ener-connected into ‘Smart-Macro-Grids’
Base Load Power Plant
Base Load Power Plant
Base Load Power Plant
Base Load Power Plant
Utility Transmission Macrogrid
© EMerge Alliance 2016
Combining ideal solutions with key virtues learned from the Internet
Resilient Infrastructure
The New Energy Marketplace
© EMerge Alliance 2016
Non-Synchronous Nanogrids, Microgrids and Macrogrids Organized into an Increasingly Expansive and Inclusive Tiered Framework
The ENERNET
Macrogrids
National
Tier 3Regional
MicrogridsCommunity
Tier 2Campus
Nanogrids Building Tier 1
Level, Room, Device Area
© EMerge Alliance 2016
Transforming Traditional Power Gridsto an ENERNET Mesh Topology:
Integrated Mesh NetworkCluster Tree Network
© EMerge Alliance 2016
Transactive Power Management Framework
+
Public Utilities Local Service Providers
ProsumersCloud Based Service Providers
+++
© EMerge Alliance 2016
Internet of Things + Microgrid of PowerDesigned, Operated and Financially Transacted
by Integrated Software
© EMerge Alliance 2016
Dispatching Distributed Assets
Forecasting System Utilization
Simulation and Modeling of System
Market Activity Management
Behind-the-meter loads
Integration of Smart PV Optimizers
Controlling Energy Storage
Demand Response Management
Integration with Utility Distribution
Management Systems (DMS)
Power Flow Control
Data Exchange
Incorporation of Smart Meter Data
Limiting Excessive Equipment
Operations
Monitoring Equipment Performance
Managing Momentary & Sustained
Outages
Integration with Self-Healing Automated
Switching Systems
Support of Customer-Facing
Applications – i.e. Augmented Reality
Predicted Transition to a market driven Transactive Energy FrameworkSource: GridWise Architecture Council
Transactive Power Management Framework Timing
© EMerge Alliance 2016
The ENERNET
Flexible, clean, efficient, resilient, affordable and sustainable energy infrastructure
Involving a greater reliance on the native form of electricity: DIRECT CURRENT in microgrids
© EMerge Alliance 2016
Why DC Microgrids?
Key Drivers: • Solar and other renewable sources
• The use of electricity storage
• The local coupling of multiple sources and loads
• Ease of solid-state digital (dc) articulation of power
• Increasing use of electronic loads
• Desire to simplify system electronics
© EMerge Alliance 2016
Electric Function AC Microgrid Hybrid DC Microgrid
Power Sources(Solar / Wind / Fuel Cell / CHP/ grid)
AC + DC to AC DC + AC to DC
Power Storage(Battery / Thermal Electric)
IN: DC + AC DC + DC
OUT: DC to AC
IN: DC
OUT: DC
Distribution/Wiring(Conduit / Wiring / Circuit Protection)
AC + DC to AC DC
Loads/Devices/Outlets(Lighting / Motors / Pumps / IT
Security / Appliances / Desktop)
AC + AC to DC DC + DC to AC
Controls/Monitoring(Wired / Wireless)
AC to DC DC
Total Frequency Conversion Points 6 2
Microgrids Require Power Conversions
Notes: •Frequency conversions are generally much less efficient than simple voltage conversions•Conversion efficiency is almost always better at higher voltages and currents•Wire Size favors DC at equivalent voltages
© EMerge Alliance 2016
Optimizing Power Conversions Via the Use of DC Microgrids Can Result in Double-Digit
Efficiency Increases
Source: Arthur D. Little Report to IEC SG4, September 2011
Immediate
Short Term
Long Term
© EMerge Alliance 2016
Barriers to Overcome Full Utilization of DC Microgrids
• The Myths:
• Not as safe as AC
• Not good for long distance transmission
• Thicker wires needed?
• It’s not that much more efficient?
• The Reality:
• Standards & codes gaps
• Under-developed supply base
• Insufficient Industry knowledge base
• MEP, contractor & trade training required
• Volume market pricing
© EMerge Alliance 2016
100+ Test, Beta, & Production SitesCommercial, Residential, Data Center Applications
NextHomeCampion HomesDetroit. MI
© EMerge Alliance 2016
PNC Banking on Net Zero
Uses 50% of traditional branch – annually produces a surplus of electric energy
© EMerge Alliance 2016
Bedrock (Quicken Loans – Detroit, MI)
• 3 Floors of Class A
Office Space
• 14th Floor:T8 Fluorescent – No Controls
• 15th Floor:LED Retro Tube – No controls
• 16th Floor:LED Retro Tube – W IPv6
controls
• Dramatic Energy
Savings
75%!
• Recognized by
Americas Green
Challenge
(White House Initiative)
System Case Studies
© EMerge Alliance 2016
State of Michigan – Flint Office Bldg.
• Deep Renovation of 7 Story Office Bldg.
• 110,000sf of 24v DC LED Lighting
• 70,000sf of DC Energized Ceiling
• IPv6 Wireless Lighting Control
• Complete Early 2016
System Case Studies
© EMerge Alliance 2016
NextEnergy Center – Detroit …
380v DC Microgrid
380v DC Bus
380v DC Data Center
30kW Rectifier
23,300sf of 24v DC Lighting
IPv6 Wireless Controls
16kW of PV Solar
High Bay Lighting
System Case Studies
© EMerge Alliance 2016
Pitt-Ohio Express Harmar Facility• Renewable DC Energy (Solar/Wind) and Storage System
• Innovative DC-based design and operation / future expansion plans
System Case Studies
© EMerge Alliance 2016
Duquesne Light Microgrid at Wood’s Run- Distributed Energy Development/Integration
- Multiple resources/loads, AC and DC aspects, demonstration
Woods Run Campus
Preble AvenueService Center
New Manchester Facility
System Case Studies
© EMerge Alliance 2016
The Sendai DC Microgrid• Powered area hospital following the disastrous tsunami
• Innovative DC-based design and operation / still fully operational
System Case Studies
© EMerge Alliance 2016
Smart Energy Marketplace Pavilion
DON”T MISS THIS EXCITING NEW FEATURE AT THIS YEAR’S SHOWS
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