1 the tres amigas superstation vlpgo november 2011

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1 The Tres Amigas SuperStation VLPGO November 2011

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Page 1: 1 The Tres Amigas SuperStation VLPGO November 2011

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The Tres Amigas SuperStation

VLPGONovember 2011

Page 2: 1 The Tres Amigas SuperStation VLPGO November 2011

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LARGE INTERCONNECTED AC TRANSMISSION SYSTEMS

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Common Interconnected AC System Problems

Long Distance Transmission

• Line losses

• System Voltage Stability/Levels

• Reactive Power Loading

• Steady state

• Transient Stability

• Subsynchronous Oscillations

• Latency issues (ie Spinning Reserves)

• Inductive and Capacitive limitation factors

Interconnections

• Uncontrolled Load flow problems and bottlenecks– Congestion Issues– Inter Area loop flow– Cascading Blackouts

• Oscillation Stability

• Frequency control

• Voltage Stability

• Physical interactions between power systems

Diminishing Returns with large interconnected AC Systems

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Common Interconnected AC System Problems

High Cost of Interconnections– Reliability Costs: NERC, RC, Relaying– N-1 criteria often creates underutilization of transmission

lines– Complex coordinating arrangements (RTOs, IA, JOAs, etc.)– Need for sophisticated and costly system impact studies– Participation agreement complications with multiple

impacted entities– Regional/Subregional perturbations/phenomena difficult

and costly to analyze and manage – Deterministic planning practices do not capture the true

economic value of transmission additions/upgrades

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China: Current HVDC National Grid Plan

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FUTURE EUROPEAN SUPERGRID 2016 – 2020

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“PRESENTLY, ONLY 30% OF ALL POWER GENERATED USES POWER ELECTRONICS SOMEWHERE BETWEEN THE POINT OF

GENERATION AND END USE.  BY 2030, 80%OF ALL ELECTRIC POWER WILL FLOW THROUGH POWER ELECTRONICS .”

Power electronics moves beyond devices that simply provide increased awareness, such as Phasor measurement systems. These devices will respond to, interface with and control real time power flows.

From USDOE Office of Electric Delivery and Energy Reliability

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BENEFITS OF POWER ELECTRONICS

• Increased power system reliability and security

• Increased efficiency and loading of existing transmission and distribution infrastructure

• Huge gains in real time power flow control

• Improved voltage and frequency regulation

• Improved power system transient and dynamic stability

• More flexibility in siting transmission and generation facilities

• The distinction between consumer devices and utility devices will largely be eliminated electrically

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21st century smart grid technologies compared with those in use today

Source: IBM Institute for Business Value

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• Dispatch Equation

• Generation + Imports (or- Exports)=Load• Generators (real time data is known)• Ties (Import/Export) (real time data is known)• Load is not measured in real-time (load

forecasted)• Transmission with predetermined limits (known

with historical data)• New Solution every 5 minutes (SCED)

DISPATCH EQUATION

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Data to Information

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Hierarchical View of the Issues facing the European Transmission System Operators (TSOs)

Source: ENTSO-E: The pathway towards common European network operation

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SUMMARY OF KEY CHALLENGES

1. Developing the next generation dispatcher tools to turn the vast volumes of real time data to meaningful information not only for power dispatch and control, but to also fully integrate all user devices or aggregating systems in the dispatch equation , develop predictive control in microseconds, provide trading and public information in minutes, perform forensic analysis in days.

2. A security regimen to continuously update to the challenges

3. More HVDC expertise in engineering and planning, including solving the multi- node HVDC buss issues.

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The Location: Regional Renewable Resource Potential

Significant Regional Wind & Solar Capacity Factors in Excess of 35%

Source: NREL

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New Mexico Economic Impact: Ripple Effect

Induced ImpactsConstruction Phase

8,600 new jobs$905M to local economies

Operational Phase:800 new long-term jobs

$78.6M/year to local economies

Indirect ImpactsConstruction Phase:

7,200 new jobs$818M to local economies

Operational Phase:380 new long-term lobs

$39.2M/year to local economies

Direct Impacts from 6.0 GWLandowner Revenue:

Over $16.3M/yearConstruction Phase:

13,800 new jobs$2.6B to local economies

Operational Phase (20yrs):1,460 new long-term jobs

$130M/year to local economies

Source: CDEAC report

Illustrates Ripple Effect if 6.0 GW of Wind Is Developed

by 2015

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Design

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Strategic Partners and Vendors

Foundation Fuel