Severe Solar Activity/Space Weather and the Global Threat to Electric Grids John G. Kappenman.

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Presentation transcript:

Severe Solar Activity/Space Weather and the Global Threat to Electric Grids John G. Kappenman

A Review of Power Grid Vulnerability to Solar Activity & Geomagnetic Storms Geomagnetic Storms have Continent-Wide & Planetary Footprints Geomagnetic Storms are disturbances in the Earth’s normally quiescent geomagnetic field caused by intense Solar activity Intense Solar Activity

A Review of Power Grid Vulnerability to Solar Activity & Geomagnetic Storms A rapidly changing geomagnetic field over large regions will induce Geomagnetically-Induced Currents (i.e. GIC a quasi-DC current) to flow in the continental interconnected Electric Power Grids Storm causes Geomagnetic Field Disturbances from Electrojet Current that couple to Power Systems

A Review of Power Grid Vulnerability to Solar Activity & Geomagnetic Storms Areas of Probable Power System Collapse Blackouts of Unprecedented Scale GIC flow in transformers can cause Power Grid Blackouts & Permanent Grid Damage

A Review of Power Grid Vulnerability to Solar Activity & Geomagnetic Storms GIC flow can also has potential to cause wide-spread catastrophic damage to key Power Grid Transformers Causing Restoration Problems Salem Nuclear Plant GSU Transformer Failure, March ‘89 Internal Damage due to one storm These Key Assets may take a Year or More to Replace

Great Geomagnetic Storms US Electric Grid Vulnerability Trends and Preparedness Threat New Awareness that Geomagnetic Storm Severity is 4 to 10 Times larger than previously understood – Past Metrics did not measure risks correctly for power industry Vulnerability Power Grid infrastructures have experienced a “Design Creep” over past few decades that have unknowingly escalated vulnerability to these threats – No Design Code Yet Exists Consequences Power Supply is an essential scaffolding of modern society All other Critical infrastructures will also collapse with long-term loss of Electricity Risk – Events have catastrophic potential, the ability to take the lives of hundreds of people in one blow, or to shorten or cripple the lives of thousands or millions more, impact future generations of society

Time 2:39-2:58 EST (7:39-7:58 UT) March 13, 1989 – Storm 7:39UT 20 Minutes of Bad Space Weather

Time 2:39-2:58 EST (7:39-7:58 UT) Quebec Blackout in 92 Seconds at Intensity 0f ~480 nT/min Reported Power System Events – March 13, 1989

Time 4:40-5:30 PM EST (21:40-22:30 UT) March 13, 1989 – Storm 21:40UT

Time 16:03-17:30 EST (21:03-22:30 UT) Intensity over Mid-Atlantic Region ~300 nT/min Reported Power System Events – March 13, 1989

Great Geomagnetic Storms March 1989 Superstorm & May 1921 Storm Comparisons Boundaries of Eastward Electrojet March 13, 1989 Position of Westward Electrojet

Great Geomagnetic Storms March 1989 Superstorm & May 1921 Storm Comparisons Estimated Boundaries of Eastward Electrojet May 14-15, 1921 Larger & More Intense than March 1989

Geomagnetic Storms – GIC & Conventional Wisdom Conventional Wisdom Only Power Grids at High Latitude Locations needed to worry about GIC This did not explain Power Grid Problems Reported at Low-Latitudes A New Class of GIC Risks Large GICs are possible at Low-Latitudes and Have Caused Problems Potential for Severe Storm to Cause Impacts to Developed Grids on a Planetary Scale Southern Japan South Africa +/- 40 o Geomagnetic

Station 3 Gen Transformer 4 HV winding failure Station 3 Gen. Transformer 5 evidence of overheating Courtesy Eskom, Makhosi, T., G. Coetzee Overview of South Africa EHV Transformer Failures due to Oct-Nov 2003 Geomagnetic Storms Failures linked to Long Duration / Low Intensity GIC Exposure

Nuclear Plant GSU Transformer Incidents Within 25 months after the March 1989 Storm Salem 2.Oyster Creek 3.South Texas 4.Shearon Harris 5.Surry 1 6.Zion 2 7.WNP 2 8.Peach Bottom 3 9.D.C. Cook 1 10.Susquehanna 11.Maine Yankee 12.Nine-Mile 7 Latent Impacts of March 1989 Storm – Delayed Failures of Large Transformers at Nuclear Plants suspected across US

Nuclear Plant GSU Transformer Incidents Nuclear Plants have some special vulnerability issues Severe Storms could initiate a Long Term Outage to large portions of the US electric grid – Including many Nuclear Power Plants all at the Same Time The Large Transformers in Nuclear Plants also have Higher Exposure to GIC, making them more Vulnerable to damage/failure Transformer Damage - Fire & Disruptive Failure of the Exposed Transformer - Collateral Damage to Vital Back-up and Cooling Systems at the Nuclear Plant Fukushima demonstrated that loss of outside power (Grid Blackout) & Plant Damage to Back-up Systems has severe consequences for both reactors and spent fuel pools Trends of Increasing EMP and RF Weapon Vulnerabilities for Nuclear Plant Control Systems (Fast Transient Vulnerability in addition to GIC Vulnerability)

Nuclear Plant GSU Transformer Incidents Above Movie is Disruptive Failure of ~3MVA Transformer Nuclear Plant Transformers can be 400 Times Larger Capacity Movie of Transformer Disruptive Failure – NOT DUE TO GIC

Wrap-Up The Nation has experienced a Several Decade Long Failure to Understand how Risk has Migrated into our Electric Grid Infrastructures from Space Weather Threats What are the Issues We should Understand Going Forward The Sun, Magnetosphere remain fully Capable of Producing Historically Large Geomagnetic Storms in the Future Grid Design Evolutions have unknowingly Escalated GIC Risks and Potential Impacts Un-Recognized Systemic Risk – No Design Code Yet to minimize this Threat Given Sufficient Time the Reoccurrence of Large Storm Event is a Certainty – Only with Much more Serious Consequences