Lesson 5 introduces the criteria for siting new electric transmission lines. In general, the siting criteria principles used for electric transmission lines can also be used, with some modifications, to site oil and gas pipelines, highway corridors, rail corridors, and generating facilities.
In this lesson, we will learn how the distribution of electricity began and how it has evolved over the years. Along with this expansion of electricity came the regulation of the electric utility industry, from production through delivery. We will learn how these regulations came to be and how they have been changed to meet changing demands and needs. In the United States, both federal and state governments have a prominent place in developing and enforcing these regulations. We will learn where the federal government has jurisdiction and where the state government has control. We will learn that the regulation of transmission lines from state to state is not standardized. The siting of transmission lines is a complex process, and we will be introduced to the criteria used in siting these lines.
By the end of this lesson, you should be able to describe:
This lesson will take us one week to complete. Please refer to the calendar for specific time frames and due dates. Specific directions for the assignment below can be found within this lesson.
If you have any questions, please post them to our Questions? discussion forum. I will check that discussion forum daily to respond. While you are there, feel free to post your own responses if you, too, are able to help out a classmate.
Demand for electricity is expected to grow dramatically over the next 20-30 years. With that expected increase in demand comes the need for the expansion of existing electric transmission lines and corridors, and for new transmission lines. These expansions and additions require detailed planning, siting, and public participation before actual line construction can begin. Some estimates suggest that investment in new generation, transmission, and distribution could be anywhere from $1.5 to $2 trillion by 2030. Much of this cost will be associated with upgrading the existing electric transmission system, adding new transmission lines to serve our growing appetite for electricity, and bringing alternative energy, such as wind and solar, from its origin to the consumer. The siting of new transmission lines is the critical first step in the successful deployment of these transmission systems.
How does this investment transfer to the cost we pay for electricity? A review of the Department of Energy website shows projections for energy use and consumption between 2015 and 2050. Between 2015 and 2050, the total electric use in the United States will increase from 3.871.9 Bkwh (Billion kilowatt-hours) in 2015 to a projected 5.232.8 Bkwh in 2050, or an increase of 35.1% increase projected over this period. The
The average residential cost/kwh will go from 12.8 cents/kwh in 2017 to 17.3 cents/kwh in 2035.
Take time to explore this data from the U.S. Energy Information Administration site linked below. It has valuable information on energy generation, demand, and use. Check out the US Energy Mapping System by selecting "Geography" from the top ribbon menu, then selecting "US Energy Mapping" under "Highlights". Select "Find Address" located in the upper right corner of the map. Type in your address and select "LOCATE". The map will zoom into your address. On the left side of the map, zoom out a little to give you a bigger area to investigate. Now select "Legends and Layers" from the upper right map menu. Explore the various energy characteristics of your area by checking/unchecking menu items. Click on the icons on the map to see details about specific power plants.
The earliest electric distribution systems were located in the area surrounding the Pearl Street Power Station [5] in Manhattan, and in Menlo Park, NJ. Both were built by Thomas Edison in 1882. These systems used direct current (DC) and were very inefficient, requiring electric generating stations to be close to the users, generally within a mile. These types of generation-transmission systems were called distributed generation systems.
In the 1890s, further development and refinements of distribution systems were made. The most significant of these improvements was the design of alternating-current (AC) [6], high-voltage distribution transmission systems. This was significant because these new AC lines permitted electric power to be transmitted over much longer distances than the inefficient DC system did.
In 1896, George Westinghouse built an 11,000 volt AC line to connect Niagara Falls to Buffalo, NY – a distance of 20 miles. From that point on, the generation of electricity and the voltage capacity of transmission lines grew rapidly, while the distance from the point of production to the consumer grew wider. This resulted in a move away from the localized production of electricity to much larger, regionalized producers that could generate more electricity at one location and move it longer distances on the growing electrical grid.
The transmission system was built, over the past 100 years, by vertically integrated utilities that produced electricity at large generation stations located close to fuel supplies or needed infrastructure, and then relied on transmission facilities to transport their electricity to customers. Interconnections among neighboring utility systems were constructed to exchange power to increase reliability and share excess generation during certain times of the year. From its early beginnings in the late 1800s, the electric transmission and distribution system in the United States has evolved into a massive grid, bringing electricity to nearly every corner of the country. Today, this grid is a complex network of independently owned transmission lines that now encompasses a network of over 150,000 miles of high-voltage transmission lines linking generating facilities to load centers through interconnected transmission systems spanning states, territories, regions, and the borders of Mexico and Canada1.
1. Abraham, Spencer. "National Transmission Grid Study." United States Department of Energy, Washington, D.C., May, 2002. https://www.ferc.gov/sites/default/files/2020-04/transmission-grid.pdf [7]
The growth of these larger electric companies resulted in state governments extending the jurisdiction of their regulatory powers to include electric utilities. New York and Wisconsin were the first states to initiate regulatory commissions in 1907; and by 1914, 43 states had commissions in place for the regulation of electric utilities. In 1932, about three-quarters of the investor-owned utility businesses were controlled by eight holding companies, many of which crossed state lines.
Early 1900's: Investor owned and public utilities acquire right-of-way and construct first transmission lines.
Late 1920's: Federal government assumes jurisdiction over transmission lines crossing over state boundaries.
1935: Congress expands the authority of Federal Power Commission and limits where utilities can operate and expand.
1960's: First regional interconnects created after the massive November 1965 Northeast blackout.
1977: A blackout in New York City forced new standards of reliability on grid operations.
1978: Independent power producers given access to the grid
1992: Congress deregulates the wholesale power generation system, opening up competition among electricity producers. Requires transmission owners to allow use of the grid at fair prices to these wholesale power producers.
In 1927, as a consequence of this growth and consolidation, the U.S. Supreme Court ruled that electricity was not an intrastate commodity, but rather an interstate commodity subject to federal regulation. The Public Utility Holding Company Act (PUHCA) of 1935, was signed into law by President Roosevelt as a result of a Supreme Court ruling. PUHCA limits the geographical scope of utility holding companies and the corporate structure of the holding companies. The act vertically integrated utilities (allowing ownership of both generating facilities and transmission lines) in monopoly service areas. States retained jurisdiction over siting of generating facilities, transmission systems, and distribution rates.
With the backdrop of higher oil prices and a real concern about energy imports from politically unstable countries, Congress enacted the 1978 Public Utility Regulatory Policies Act (PURPA). PURPA was a game-changing piece of legislation because it required utilities to buy electricity from companies that were not designated as utilities, and created a new industry for independent power producers. This legislation also gave these independent power producers access to the transmission system they needed to deliver their power to the grid.
Again, because of the concern over the country’s dependence on foreign oil, Congress passed the Energy Policy Act of 1992 (EPACT). This Act allowed access to the grid by non-utility companies on rates and terms that were comparable to those that the utility would charge itself for access to the grid. Why was this important? Because it fueled the growth of the wholesale power market by allowing electric utilities and other power generators to use the transmission grid to send power to one another at fair market rates.
Siting new transmission lines in the United States has become a controversial issue, mainly because few property owners welcome the idea of having a transmission line built near their property or crossing it. As a result of this NIMBY ("Not in My Back Yard") concern, much of the old subjectivity of line corridor location has been removed from the process and replaced with objective, transparent corridor analysis. This objective analysis could not have come at a more appropriate time. With an aging transmission line infrastructure, an increased need to expand capacity, and the development of new conventional and alternative sources of energy, increasing pressure is being placed on utilities and regulatory agencies over siting concerns.
The primary regulatory responsibility for the siting of transmission lines resides with the individual state public utility commissions. In addition, various state and federal resource agencies review and comment on impacts to water, wetlands, wildlife and rare, threatened, and endangered species, land use, cultural and historical resources, and visibility concerns. A closer look at the link will show that not all transmission lines are covered by regulatory agencies. For example, in Pennsylvania, the Public Utility Commission only regulates transmission lines greater than 100kV. Transmission lines smaller than this are not regulated. Transmission lines proposed by the federal government, or transmission lines proposed by public and private utilities that cross state lines, cross federal and tribal lands, or impact national parks, require a detailed NEPA (National Environmental Policy Act [15]) analysis and review by the United States Environmental Protection Agency (USEPA). As part of a utility's public outreach program, affected property owners review and comment on the proposed project during the siting process.
The process for choosing a site for the construction of electric transmission lines involves an extensive study of environmental (water, wetlands, topography, soils, geology), land use, biological, cultural, and visual resource impacts. As you learned earlier in this course, public participation is an important component of the siting process. In the sections to follow, we will be introduced to these criteria. We will discuss each of these criteria in detail and address criteria characteristics, potential impacts to these criteria, and examples of mitigation measures that can be implemented to reduce impacts on these criteria.
Here is a short (3:16) YouTube video, introducing you to the siting process used by ATC, American Transmission Company:
NARRATOR: OK, we know that almost everyone needs electricity, and that we need transmission lines to help deliver that electricity. But who decides where and when they are installed? After all, very few people really want to look at them. While that is true, many people are involved in determining where new transmission lines will go.
At American Transmission Company, we have a very inclusive process for routing and siting transmission lines that involves evaluating location options and impacts, and soliciting input from regulators, government agencies, property owners, and community members.
At the beginning of the process, transmission system planners determine the need for a project and its benefits. Then they select the endpoints for the line. Next, a broad study area is evaluated.
Within that broad study area, we first look for existing corridors where there is already an existing power line or gas pipeline. We also will look at the possibility of siting a new power line within transportation corridors, such as highways or railroads.
Existing recreational trails are also evaluated. If necessary, the last option is to establish new or cross country corridors. We then gather data on environmental sensitivities, roads, railroads, pipelines, utility corridors, and environmental areas.
We also host public open houses to invite feedback from community members. People most familiar with the potentially impacted areas provide a lot of useful insight. All of this information helps us eventually narrow down dozens of potential corridors to fewer preliminary routes, and finally, to two or more final proposed routes. This process typically takes one to two years.
Final route options offer the best solutions based on environmental and land use considerations, suitability for construction, public input, cost, and electric system needs. These proposed routes are formally presented in an application to state regulators. State regulators then evaluate if the project is needed, hold public and technical hearings, and if approved, decide where to locate the line.
State regulators may or may not select an exact route recommended by ATC. They may make some modifications based on public input or other considerations. In the end, the final route represents a balanced blend of social, environmental, and logistical considerations from agencies, the public, communities, and property owners.
Soil type plays a significant part in the location of transmission lines. Soil stability is an important factor when locating transmission towers. Clearing of rights-of-way, especially on steep slopes, can expose soils and increase the chance of erosion. Slope failure, such as creeps, slides, and falls, can occur as a result of access road construction on unstable soils on steep hillsides. Soil compaction can result from the movement of heavy equipment along the right-of-way during construction, limiting the ability of the soil to be productive for forage or crops. Increased runoff can result in sediment loads that impact receiving streams. Where soils may be questionable for tower construction, additional engineering analysis must be done to find engineering solutions for tower placement and construction.
Topography is an important siting factor because it impacts environmental protection, construction activities, and ultimately, the transmission line cost. Construction of transmission lines on steeply sloped land creates added potential for soil erosion and sediment runoff, which then impacts receiving streams. Detailed engineered erosion and sediment control plans are developed to minimize environmental impacts. Construction on steep slopes presents many challenges: it affects the types of equipment used during construction, mobilization of this equipment, and how and where tower foundations are built. The erection and stringing of electric lines is more difficult on steep terrain than on flat terrain. Consequently, final project costs increase with an increase in slope.
The type and extent of geologic features encountered along the proposed transmission corridor will impact decisions on siting. Geologic fault zones, seismic zones, rock type and extent (an example would be limestone and associated solution channels) pose both environmental concerns and construction concerns. Disturbance of acid rock can create a source of water pollution that could impact receiving streams. Towers constructed in geologic fault zones or seismic zones require detailed engineering analysis and enhanced construction methods.
Water resources can be impacted by construction activities associated with new transmission lines, or with the upgrading of existing transmission lines. Removal or disturbance of vegetation, resulting from the clearing of right-of-way corridors, may affect the natural hydrology of a watershed by altering surface runoff and stream flows. This may lead to decline in water quality by increasing sediment and chemical pollutant loads and warm water inputs. Access roads have the potential to impact water resources by altering natural stream hydrology. Removal of stream shade cover resulting in warmer water could impact aquatic species, especially in cold-water streams. Herbicides used to maintain right-of-way can enter streams through runoff from impacted soils. The siting process should quantify the number of stream crossings and minimize the number of streams and rivers to be crossed by the transmission corridor.
Generally, wetlands are lands where saturation with water is the dominant factor determining the nature of soil development and the types of plant and animal communities living in the soil and on its surface. Wetland functions include water quality improvements, water storage, water filtration, and biological productivity. According to the U.S. Environmental Protection Agency: [19]
Wetlands vary widely because of regional and local differences in soils, topography, climate, hydrology, water chemistry, vegetation, and other factors, including human disturbance. For regulatory purposes under the Clean Water Act [21], the term "wetlands" means "those areas that are inundated or saturated by surface or groundwater at a frequency and duration sufficient to support, and that under normal circumstances do support, a prevalence of vegetation typically adapted for life in saturated soil conditions. Wetlands generally include swamps, marshes, bogs and similar areas."
The siting process for wetlands is usually a two-step process. During the initial stage of siting, the National Wetlands Inventory [22] is a resource used to identify wetlands in the proposed transmission line corridors. Once these wetlands have been mapped, they must be verified through field identification of plants and soils using methodology outlined in the 1987 Wetland Delineation Manual. The intent of the siting process is to minimize the impact on surveyed wetlands.
Some of you may remember the Great Flood of 1993 on the Mississippi River. It created billions of dollars in economic loss, not to mention the devastation to homes and communities along its path. You also remember Hurricane Katrina and the horrific impact it had on New Orleans. In 2011, we saw the same scenario played out again with the flooding of the Mississippi River. Each of these disasters can be contributed in some part to the loss of valuable wetlands. The Upper Mississippi River Basin has lost a significant amount of wetlands that historically provided storage and buffering from significant rain events. As for Katrina, the wetlands delta buffering New Orleans from ocean surges has also diminished in size over the years, reducing the protection from hurricanes the city once had. I'm sure many of you are aware of impacts on smaller scales in watersheds close to where you live. So, the message is: wetlands are important not only to protect our economy, but also because they play a part in minimizing impacts on individuals, families, communities, and ecology.
A detailed, technical explanation can be found in the 1987 U.S. Army Corps of Engineers Wetland Delineation Manual [24].
The following 4:10 minute video tells a story of sacred Indian wetlands in Kansas and the proposed construction of a highway corridor adjacent to it. It shows how a lack of due diligence in the siting process created public relations problems. Similar situations can occur when siting any energy generation facility or transmission line. You may encounter a message that says "The video contains content from EMI. It is restricted from playback on certain sites." If so, watch on YouTube. [25]
Haskell University Used to be Haskell Institute
An institution where children were taken from their families and beaten or thrown in the Haskell jail for speaking their own language. It is believed in an effort to keep official death rates down, students were buried in the wetlands just south of the Institute. It is also believed that students close to death, refusing to die within Haskell’s walls wandered out to these same wetlands as their place of passing. In an odd twist of irony, these wetlands today are used by the students and faculty to practice traditional Native American religions once banned by the institution. The wetlands are not only a refuge for students and faculty but also a wildlife refuge and sanctuary. Now the State of Kansas wants to put a highway right through its heart.
In 1992 The US Army Corps of Engineers sends out public notices soliciting comments about plans to mitigate the 31st Street wetlands in the path of the traffic way. Douglas County fails to include Haskell on the mailing list. Four individuals and a few agencies respond by the January 18th deadline. The Corps approves the permit without further public hearings.
In 1994 the Lawrence Chamber of Commerce has a groundbreaking ceremony for the western nine miles of the traffic way.
In 1998 in response to a lawsuit by American Indians and environmentalists, a federal judge halts work on the project until an impact statement is completed.
In 2000, the final supplemental environmental impact is released to the public. The 5-inch thick document includes the words…No Build
In April 2011 kdot Chief Council Mike Rees makes public his effort for a 32nd Street route for the traffic was that would move the project off Haskell property.
After many years of study, the Corps announced in January 2004 that it had determined that a 32nd Street route was the “least environmentally damaging practicable alternative.
But now, the Potawatomi Nation has proposed a new route that would run south of the Wakarusa River. The Potawatomi route would be considerably less expensive than the Corps route. We have a responsibility to respect cultural and religious viability. A responsibility to know the environmental and cultural wealth we are losing at the cost of “progress”. Save the Haskell & Baker Wetlands.
Land use is a critical siting criterion because of the different types of land uses. Of significance are woodlands, agricultural lands, developed lands, and lands used for parks and recreation. Woodlands, especially those used for forest production, can lose productive acreage created by the right-of-way. Some agricultural lands could be impacted, mainly by the footprint of the tower structure. Transmission lines can also affect field operations, aerial spraying, and field irrigation, as well as create opportunities for weed encroachment, and increase safety hazards associated with pole and guy wire placement. Property owner issues are often raised by individuals or communities along proposed transmission line routes. A common issue is one that involves property owner rights versus the public good [26].
Developed lands include lands used for residential, commercial, and industrial development. These lands should be avoided to the extent feasible during the siting process. The planning and siting of transmission lines through developed areas involves more detailed planning and public outreach to choose a final route. This added level of detail potentially results in delays or denials in approvals, and can significantly increase the cost of construction.
Local, state, and national recreational areas and parks should be avoided. The impact to these areas may result in the displacement or elimination of recreational uses. New recreational areas cannot be created within the boundaries of transmission lines, and the existing uses of the recreational areas could be changed. The aesthetic aspects of scenic and natural areas could also be impacted. In addition, unintended uses of right-of-ways for recreation activities, such as unauthorized ATV use, can occur.
Endangered species are species whose continued existence is in jeopardy. Threatened species are those species that are likely to become endangered. The construction and operation of transmission lines can affect plants and animals by altering habitat, displacing habitat, and causing injury or mortality due to collisions with transmission line insulators, conductors, and wires. For example, a transmission line proposed through the Lesser Prairie Chicken [27] habitat would automatically trigger the Endangered Species Act [28] and have a negative impact and create a delay in the siting process.
Cultural resources include archaeological and historical sites. These sites are important because they provide insights into past cultures and religions. Some of these sites are threatened and are listed on the National Registry of Historic Places [30]. The National Historic Preservation Act of 1966 [31], amended in 2000, was enacted to preserve historic properties throughout the United States.
The impact on cultural resources from electric transmission lines are most likely to occur during the construction phase. In addition, access to remote areas of archaeological significance may result, especially if access roads are left in place after construction is complete.
Historic sites can be impacted visually by the completed lines, resulting in fewer visitors to the site. Potentially, pollution can also affect the site.
Here is an example of how an endangered historic site can impact electric generation. In 2008, the Great Falls Portage [32], Great Falls, Montana, was listed as one of the 11 Most Endangered Historic Places in the United States [33]. The Great Falls Portage, one of the best preserved and most accessible landscapes along the Lewis and Clark Trail, is a windblown, undeveloped rural area surrounded by mountains and a panorama of blue Montana skies. This National Historic Landmark marks the location where, in 1805, the Lewis and Clark expedition faced its most challenging obstacle —the 18-mile, 31-day portage around the Great Falls of the Missouri River.
In May of 2008, the Southern Montana Electric Generation and Transmission Cooperative, Inc. (SME) sought financial support from the USDA Rural Utilities Service to build the Highwood Generating station, a $720 million coal-fired power plant that would produce 250 megawatts of power and serve up to 120,000 rural electricity customers from Great Portage to Billings. The plant was proposed inside the boundaries of the Great Falls Portage National Historic Landmark, raising grave concerns about the impact that project would have on the site. Construction plans included a large 435-acre power generating facility with a 400-foot smokestack, four 262-foot wind turbines, secondary buildings, access roads, transmission lines, lights, and miles of railroad tracks. Despite receiving 1,500 letters of protest from concerned citizens, the Cascade County Commission voted in 2006, and, most recently, in January 2008, to rezone this agricultural land to allow for industrial activity.
In March of 2009, the USDA Rural Utilities Service ceased providing funding for the project and SME was modifying its plans to include a natural gas generation facility that could be an alternative to, or supplemental to, earlier plans for a coal-fired facility. Currently, the United States Army Corps of Engineers needs to issue a Section 10 water intake permit for the facility and is now the lead federal agency for the project. The National Trust along with a large group of partner organizations are participating in the National Historic Preservation Act Section 106 consultation process for the project. Concerns about the impact to the cultural landscape of the Portage site remain unresolved.
In November of 2009, the SME took a loss of $9.1M because it abandoned the plans for a coal-fired generating facility and opted for a gas-fired generating facility, and the site has been removed from the list of most endangered historic places in the United States.
During the siting process, a cultural impact assessment is usually conducted. This includes identification of properties on or eligible for the National Register of Historic Places located within and adjacent to the proposed electric transmission line or generating facility. At a minimum, the following actions are included in the assessment:
Much of this information can be included as a layer used in the GIS analysis of transmission line route selection.
Because of the sensitivity of this data, each State Historic Preservation Office may have special requirements for the release and use of archaeological and historic site information.
Local, state and national parks, historic areas, and cultural areas may be miles from a proposed transmission line, but because they are visible, transmission lines can detract from the aesthetic value of these public lands. Possible solutions for this may include lower heights of towers, building towers that blend in with the surrounding environment or selecting a route where visibility impacts are not a concern.
An example of this is the visual controversy that surrounded the proposed local of an electric substation and transmission line through the Kituwah Valley in western North Carolina. Save Kituwah, a citizen group opposed to the line created the Save Kituwah website and Preserve Kituwah Valley video [34]. As a result of this protest, in August of 2010, the utility company found two alternative sites for the substation [35].
In almost every questionnaire completed and every public meeting attended by the affected public, the top two issues of concern are those of location and visibility. More specifically, will the proposed towers and lines be close enough to impact the real estate value of property, and what impact will visibility have on both aesthetic and the property values?
According to the USEPA [36], many people are concerned about potential adverse health effects of electric and magnetic electromagnetic fields (EMF). Much of the research done on electric transmission lines and potential health effects of EMF is inconclusive. Despite more than two decades of research to determine whether elevated EMF exposure, principally to magnetic fields, is related to an increased risk of childhood leukemia, there is still no definitive answer. The general scientific consensus is that, thus far, the evidence available is weak and is not sufficient to establish a definitive cause-effect relationship.
Watch the following 6 minute video about the PSE&G Susquehanna Roseland Power Lines Controversy.
REPORTER: It's picture postcard pretty in the Western part of New Jersey. Peaceful lakes, perfect homes, and beautiful views, yet this paradise is troubled.
COMMUNITY MEMBER: I'm very worried about the health of my children.
REPORTER: From the Delaware water gap to Roseland at the tip of Essex County, we heard the same thing.
COMMUNITY MEMBER: I'm worried about the children getting ill.
REPORTER: Entire communities are worrying about PSE&Gs Susquehanna Roseland project. It will dramatically increase the amount of electricity surging through power lines. Now at community meetings, people are angry.
COMMUNITY MEMBER: Their kids ain't out there playing underneath this goddamn thing as you hear it go [HUMMING NOISE].
REPORTER: Existing lines have carried electricity bound for Essex and Bergen counties through these communities since 1927. People haven't objected until now.
COMMUNITY MEMBER: We just moved here. We just bought the house a year ago and I just never imagined that this type of change could happen.
REPORTER: Change will more than double the size of the transmission towers and there will be nearly three times the amount of electricity. It will jump from 230,000 volts to 730,000 volts.
COMMUNITY MEMBER: It'll be 193 feet high. It'll bring the power lines up but it will also increase the capacity almost threefold.
REPORTER: Byram City Councilman, Scott Olson, walked the lines with us in Sussex County.
COMMUNITY MEMBER: It's very close to these homes. You've got people who are living 75, 80 feet away. They've got children, they've got a playground, it's a definite health concern for me.
REPORTER: The health concern is whether an increase in the electromagnetic field, or EMF, poses a danger.
COMMUNITY MEMBER: What is the minimum that's allowed?
REPORTER: Scott Clinger and his wife have two children. They built their house in Fredon nine years ago.
COMMUNITY MEMBER: We're all afraid. We're very afraid of how this whole thing shakes out.
REPORTER: And you're afraid because of the value of your house.
COMMUNITY MEMBER: Sure the value of my house.
REPORTER: But for families, there's a bigger issue.
COMMUNITY MEMBER: I'm more concerned with the safety of my children and the children of the county.
REPORTER: Because?
COMMUNITY MEMBER: Because of the EMFs and the unknowns.
REPORTER: Unknowns include possible cancer risk. In Morris County, Ethel Pearson, broken foot and all, has been going door to door to alert her neighbors in East Hanover.
COMMUNITY MEMBER: I didn't realize myself how serious it was.
REPORTER: She lives behind the current towers and she thinks that EMFs may have caused her two grown daughters to develop cancer.
COMMUNITY MEMBER: When you go door to door you realize how many cases of cancer there really is.
REPORTER: On one block here in East Hanover, out of seven homes, cancer struck six families. There have been brain tumors in three families. Richard Lowing had a brain tumor and cancer.
COMMUNITY MEMBER: Nobody told me it was dangerous.
REPORTER: When you moved in?
COMMUNITY MEMBER: When I moved in. They said it was perfectly safe.
REPORTER: And now that they're going to double the size?
COMMUNITY MEMBER: Well I'm really concerned about that.
REPORTER: Studies have found that childhood leukemia is linked to exposure to electromagnetic fields. But scientists say there's no scientific evidence that EMFs and power lines cause cancer. In a report, The National Institutes of Health say they haven't been able to conclusively prove a connection.
COMMUNITY MEMBER: We're still missing some scientific evidence to be conclusive to say, absolutely, this is what causes these cases of disease.
REPORTER: Doctor Dan Wartenberg at the University of Medicine and Dentistry of New Jersey worked on the national report. But he remains concerned.
COMMUNITY MEMBER: I think there's more evidence suggesting it does cause cancer than not, so I worry. And say, that the degree that one could reduce exposure or not be there is better.
REPORTER: You can't put us in harm's way. East Hanover MAYOR JOSEPH PANULLO speaks for many.
MAYOR JOSEPH PANULLO: If there's one one hundreth of a chance that this can cancer or can cause an illness to some of our residents, it has to be stopped.
REPORTER: But stopping it may be difficult because it's tied into a regional power grid issue.
MAYOR JOSEPH PANULLO: Give the people here a guarantee that it's not going to have an ill effect on their health. That's their main concern here. It's just too close, too dangerous.
REPORTER: A company called PJM Interconnection determined the need. PJM provides wholesale electricity for 13 states, including New Jersey, and it asked PSE&G to expand power capability to ensure that there is enough power for northern New Jersey.
CHRIS HANEMANN, PSE&G's lead engineer: We see circuits being overloaded as early as 2013, which can result in brownouts or blackouts.
REPORTER: CHRIS HANEMANN is PSE&G's lead engineer on the project.
COMMUNITY MEMBER: It's one thing is people don't like this project, we recognize that. But we also have to balance that with the need to ensure that we have a safe reliable electric power system.
REPORTER: That's why PSE&G has been going from town to town trying to convince the skeptics.
COMMUNITY MEMBER: We benefit from being part of a 13 state grid.
REPORTER: But communities remain opposed.
COMMUNITY MEMBER: You guys better pick another route, or you're going to have a big problem.
COMMUNITY MEMBER: You can't do anything you want. How about the health issues.
COMMUNITY MEMBER: God's watching. Look at that child and tell me there are no health issues.
REPORTER: PSE&G says new towers will cut the level of the electromagnetic field. Yet residents wonder why the lines can't be run underground.
CHRIS HANEMANN: It's not a proven technology. We have existing underground lines in northern New Jersey at lower voltages. It isn't really an option for 500 line.
REPORTER: Or along I80. Why not go along the highway.
CHRIS HANEMANN: Actually the DOT requirements do not allow for parallel of transmission lines along the right of way.
REPORTER: They also question whether more power is needed.
COMMUNITY MEMBER: There's no proof that they need to add to these wires so why put people at risk?
REPORTER: Even if communities continue to fight, because this involves interstate electricity, the federal energy regulatory commission can override all objections. So opponents of the plan think in order to change it or stop it they will have to take their battle to court. And we'll be following the story. In East Hanover, Barbara Nevins Taylor, Unit nine.
Over the past few lessons, we have discussed many aspects of the grid including planning, permitting and costs. Let’s pull this all together by watching the 57-minute video of former FERC commissioner, Suedeen Kelley’s presentation “Extending the Grid” from January 2010.
SUEDEEN KELLY: What I wanted to do today was take the opportunity to share with you what I've learned over the last six years at FERC about extending the grid. And what I'd really like to do is, rather than have it just be a lecture, is to have it be a conversation about, frankly, what the competing policies are about extending the grid and what the best solution to it might be if there is one.
And in Washington-- excuse me. I'm going to move this around a little bit. In Washington today, there's a lot of discussion about changing the traditional paradigm about surrounding the building of transmission. And when you think about the building of transmission, if you want to break it down, think about it in three steps.
If you're going to build transmission, what do you have to do? You have to plan it. You have to site it. And you have to pay for it and figure out who's going to pay what. They call it planning, siting, and cost allocation, or the three P's, planning, permitting, and paying for it. And that's how the discussion gets focused.
What we don't hear a lot about in Washington is about the proposed solutions, and what they would do, and why we would want them. So that's what I'd like to talk about with you. It's not part of the general discussion. So before we get to that, let's get a baseline. Traditionally, what is it that we've done with respect to transmission? How do we plan it, how do we site it, and how do we pay for it?
We plan it-- traditionally, the transmission owners, the utilities, traditionally plan it. And it's been a very focused effort by the utilities. And traditionally, the transmission was just built from the generating plant to bring it to load, usually, most of the time, not a very long distance.
In the west, it's been longer because of the big distances in the west, but around the country that's how it's worked. And then the siting. How is the siting done? In other words, who gives the transmission owner, the utility, the permission to put the line at any particular place?
Traditionally, it's the states. So if you have a line that goes from California, from LA to Palo Verde, it crosses two state lines. It crosses the state line into two states, the California Public Utility Commission approves the siting of the California part and the Arizona commission approves the siting of the Arizona part or not, as they may decide not to.
And how do you pay for transmission? What's the cost allocation? Traditionally, the rule is the beneficiary pays. Not only that, but the benefit of transmission was defined very narrowly. The benefit of transmission is to get an electron to the electricity customer.
That's the benefit. That's the traditional way. So if you put a transmission line in from Los Angeles Department of Water and Power to Palo Verde to get the nuclear generation from Palo Verde to Los Angeles, who pays for that line? The customers in LA DWP, because they get the electrons. OK. That's the traditional approach. It's changed a little bit in the last 15 years.
Planning. In the last 15 years, we've seen the rise of entities called independent system operators or regional transmission organizations. The California ISO is one of them. These entities have grown up since, I think-- well, Cal ISO is really the first one in the latter half of the 90s. These RTOs or ISOs do transmission planning in their regions.
Let's see how many we have of them in the country. We have seven, the California one-- in the rest of the West, we don't have another one. We have Texas. And that's an independent system. It's not interconnected with the rest of the grid. Texas, as you know, is very independent and exceedingly independent in their electricity.
In the eastern interconnect, we have the Midwest Independent System Operator. It's huge. It's most of the Midwest states over to Ohio. We also have the Southwest Power Pool, which is small. It's just to the north of Texas, Oklahoma, parts of Kansas, some Arkansas, Nebraska-- no, it doesn't even go into Nebraska.
And then we have what's called PJM. It's in the middle Atlantic states. It initially stood for Pennsylvania, New Jersey, and Maryland, but now it includes most of the middle Atlantic states. New York has one, and New England. So the only two parts of the country without ISOs or RTOs are the west outside of California and the Southeast.
These ISOs and RTOs plan transmission. So in the transmission planning, where there are ISOs, we've gone from having the individual utility planet to having the ISO planet. And then FERC, the agency that I came from, the Federal Energy Regulatory Commission-- FERC has jurisdiction to an extent over transmission.
And FERC, about two years ago, issued a policy that said that the utilities have to plan regionally. So those utilities outside of an ISO, all the utilities in the west outside of California and those in the Southeast that aren't part of ISOs, they have to plan regionally.
We left it broad. They've come in with their plans. So they now plan in conjunction with other utilities in a region. OK. So it's improved a little bit, transmission planning, in the last 15 years.
How about siting? No significant change in siting. Siting is still done by the states. One little exception, in 2005 Congress passed the Energy Policy Act and it gave a little bit of siting jurisdiction to the federal government. Took a little bit away from the states and gave it to the federal government, gave it to FERC.
And what that law says is that the Department of Energy shall establish national interest electricity corridors. Those corridors are supposed to be established by DOE in areas where there is congestion. Now today you might think, wait a minute, that's not the issue today.
The issue today is getting renewables to market, which is what we're going to get to. Why does this statue talk about congestion? Why doesn't it talk about getting renewables to market? Well, it's because in 2005 getting renewables to market wasn't a big deal in Washington policy circles. That's the one reason.
The real reason is because that particular provision was negotiated in 2002. And it was negotiated among Democrats and Republicans. And they pretty much got consensus on it. And so when it came time to pass the bill in 2005, because it didn't get out in 2002, it didn't get out of the Senate, they just left the provision where it was, because they had agreement.
So it's really dealing with yesterday's problem. But it's in the bill and it says in national interest corridors, if a state withholds approval for siting for more than a year, then FERC can come in and approve it. So there are only two corridors established by DOE in the country.
One of them is actually goes from LA over to Arizona, that's one, and the other is in the middle Atlantic states, Ohio, Pennsylvania, parts of Virginia, up into New York. So there's a limited inroad on state exclusive authority over siting that happened in 2005.
What about cost allocation? The rule is still beneficiary pays. But over the last 15 years there's been an expansion of the notion of what is a benefit from transmission. As I said, the traditional notion is it's the electron is the benefit and that's it. Well, in these areas that have ISOs, they've come to think about reliability, regional liability, as being a benefit.
If you build a transmission line, a big transmission line, a 345 kV transmission line in California from LA to the northern border, it's going to add a lot of reliability. And that reliability is benefiting everybody in California. That's the theory.
So the idea is for those reliability projects, maybe the cost should be-- or the idea is that the cost should be shared by others, not just the people in LA paying for the electrons, but the people in California should pay at least some share of those costs because it benefits them in terms of reliability.
How that sharing occurs is all over the map. In New England, the New Englanders, having worked together more or less since the late 1600s, are actually the best at sharing. And they share 100% of their-- some of you would disagree, huh? But they share 100% of all of the transmission that's sized at 115 kV and above. They share among each other.
In PJM, they share 100% of their big lines 500 kV and up. In the midwest, they share 20% of their 345 kV and above. In the Southwest Power Pool, they share 33%. I think it was originally proposed to be 33 and a third, but 33% of transmission lines 60 kV and above.
And actually California is pretty good. California shares 100% if it's greater than 200 kV. And Texas actually-- Texas is almost as good as New England. I don't recall them as quite as good sharers, because Texas is just one state.
And what we find is that it's easier in these one state ISOs, like the California ISO or the Texas ISO, for sharing to occur. There aren't multiple political jurisdictions and customers tend to look at themselves as similarly situated if they're in the same state. So Texas shares 100% of all their transmission.
All of these jurisdictions allow for merchant transmission, which is an-- I'm going to come back to it at the end, so I'd like to introduce the concept. Let me backup. Transmission is guaranteed a cost recovery. Transmission is treated like a monopoly.
They don't compete with each other. You have one transmission line. There's not usually room for two. Maybe in parts of California there's enough traffic to justify more than one. So the cost of transmission is mandated to go into your rates.
Merchant transmission is a little different. And merchant transmission typically have been transmission lines where one particular generator sees an opportunity to sell power from his own independent generator somewhere else where there's a real need for it.
And the generator will pay for the transmission line himself, because he figures that if he can reach that market, there's going to be enough profit in that market to enable him to sell his electricity at a profit including covering the cost of his generation. So you see a few merchant transmission lines.
For example, one is being built or was just built to take generation from Pennsylvania to New York over an RTO seam. And New York's a big market. And the generation being sited was particularly efficient and they saw the market in New York. So all of these jurisdictions allow for merchant transmission.
OK. Is this sharing a good thing? We're going to get into that, because there's a lot of emphasis on more sharing of costs of transmission. Is it a good thing? Yes and no. But it does have some unintended consequences. They're being discussed right now in New England.
For example, if you think of serving our energy needs as a mix of electrons, demand response, efficiency. Those are all different ways and different types of investments that we can make to serve our energy needs. If you socialize the cost of transmission across an area, you can unequal the comparative playing field.
For example, in Vermont right now, they're debating what should they do to meet their energy needs? Should they invest in efficiency? Should they invest in demand response, and/or should they build a new gas fired generator?
Well, when they think of the cost of gas fired generation, and the cost to get it to load, they don't have to think about the transmission costs. So when they do the comparison between efficiency and generation, the generation cost is artificially lowered, meaning that the efficiency-- if they're going to do a cost benefit analysis, the efficiency costs have to be even better for them to justify investing, because they have to spend their own money on efficiency whereas the rest of New England will help them with their transmission lines. OK.
So what's the problem with this? Why change this system? Why is Washington talking about changing the system? Two reasons. There are two current topics that lead people to believe that it should be changed. One is there is an interest in many parts of the country of upgrading transmission to a 765 kV overlay.
The idea is maybe analogous to the interstate highway system. Here's the argument. America needs a 765 kV overlay. It needs a superhighway that can get it across these RTO seams that will enable the efficient commerce in electricity. In other words, it will enable Midwest Winds to get to Boston.
It will enable cheap coal, if you like cheap coal. If you like cheap power, it will enable cheap coal to get to New York. It will improve reliability and make the United States a world class grid. That's one argument. There are a lot of adherents to that.
So what's wrong with the present system if you want to put a 765 kV overlay in the United States? The planning areas are too small. We want at least interconnect wide planning if not national planning, like for the interstate system.
The siting, having each state get involved, too many. Too many states, too many parochial interests. They aren't going to coalesce around a national goal.
The state of West Virginia is going to veto the putting of the transmission line from Ohio to New York because they don't see any benefit in it for them, which is probably true. There probably is not much benefit in it from them, at least the way it's traditionally been sited.
And cost allocation. How much is a 765 kV overlay going to cost? A heck of a lot. Who is going to pay for it? Who is going to get most of these electrons? The big cities, Chicago, New York LA, Arizona, Philadelphia. OK, let's have them pay for it. They don't want to pay for it.
OK. So maybe every customer in the United States should pay for it. If you add it on to their bill, it's only going to be a little bit. Nobody will ever notice. We'll get a 765 kV overlay. We should have better cost allocation rules. That's the argument.
OK. What's the other issue? Getting renewables to market. What's the assumption in getting renewables to market? The assumption in getting renewables to market is if we're going to capture renewables and send the electricity to load, it's going to have to be over long distances, and same problem as with the 765 kV overlay.
The transmission planning process is too small of an area. It should be, at a minimum, regional if not grid wise. The siting process. The states are going to be problems. They aren't going to get together on a national renewable to-market plan. And the cost allocation. Those transmission lines are going to be expensive.
Although California would like to see 33% renewables, if you try and tell the citizens of San Francisco that they have to pay for the entire line from Southern Canada to San Francisco for the good of cleaning up the environment, they are going to say, well, why doesn't the rest of the country help us out?
The environment is getting-- the carbon is being lessened and it's benefiting everybody. Why should we pay the whole thing? OK. Those are the arguments.
Let's look at where we are with renewables. You can see-- because that's the argument I really want to focus on. The 765 kV argument is in there, but the one that's capturing the attention of the policymakers and the legislators on Capitol Hill is the renewables argument. Where are we here here?
Here is US wind installation. You can see we've had significant growth in wind installation over the last, particularly, five years. Wind installation by state. Let's see where my little figures are. Texas is the leader. California is doing a good job. Iowa is a leader. Lots of wind in Iowa. New York has some.
As you can see, actually, most states have at least some wind today, except the Southeast. Photovoltaics, same kind of meteoric growth in photovoltaics grid connected.
But it's important to keep in mind that, even though we've seen significant renewable growth, we're still looking at renewables as a very small percentage of the electricity portfolio. Renewables are today 3% of our portfolio. Of that wind is almost half.
Wood, surprisingly, it's like who burns wood? Do they burn wood in California? No. And they burn wood in New England. And I'm from New Mexico. We don't have any trees, so the idea of burning wood is foreign to me. Biomass is pretty good and geothermal. But as you can see, it's still a very, very small percentage.
Where are the renewables? Here's the geothermal out here in the west, in major parts of the west in Nevada up into Idaho, Oregon. And a lot of those places are not where the people are, so if you're going to harvest those geothermal renewables, you're probably going to need transmission lines.
Solar. The best solar, not surprisingly, is in the Southwest. Of course there are a lot of people in the Southwest in Southern California, in Arizona, in Texas. But if you're going to take some of the solar to other parts of the country, you're going to need transmission.
Wind. The best wind is along the coast. Actually the most of the people are along the coast, but there's a heck of a lot of wind in the Rocky Mountain area. And those states would like to develop their wind.
Many of those states, North Dakota, South Dakota, Montana, Wyoming, Colorado, are woefully undeveloped economically and they would like to develop their renewables. But they don't have the people to use them, so there's a strong desire to take that wind and ship it to market over long transmission lines.
Michigan, probably the poster child for a poor economy right now, looks at the Great Lakes and the stupendous wind potential and is talking about doing wind in the Great Lakes and having that be part of their new economic engine along perhaps with electric cars and shipping that where? Well, probably out of Michigan. Maybe into Chicago, but they're looking to ship it to New York, Boston.
Historically-- I guess historically is a couple of years-- New England was opposed. The New England political structure was opposed to developing wind off the coast, particularly-- you probably read about Walter Cronkite-- no wind farms off of the Cape. No wind farms off of Nantucket. However, more recently given the recession, there is a big interest, a growing interest, in developing offshore wind off the east coast, particularly the North East coast. OK. Let's leave that.
OK. So what's happening? There are a number of bills in Congress that would respond to this concern about extending the grid. And I'm going to talk about three of them in particular. Senator Reid, who's the majority leader in the Senate, hails from Nevada, has a bill. Senator Bingaman, who's chair of the Senate Energy Committee, has a bill and that's been passed out of the Senate Energy Committee, so it's now on the calendar of the Senate.
And in Waxman-Markey, which is the bill in the House that deals with climate change, which was passed last year by the House, also has provisions that deal with transmission. So what would they do? What would they do with siting? Senator Reid's bill would--
I'm sorry. What would they do with planning? We have to do planning first. Senator Reid's bill and Senator Bingaman's bill would set up regional planning entities, but they're undefined. It doesn't say what they would be, but they would be set up by FERC.
So you can imagine that planning is very powerful. Whoever plans the grid gets to decide. They're the ones that get to decide what's going to be built. So who's going to plan it?
So there's a lot of jockeying for who would these-- would these regional entities be something newly created or would we take something that already exists and turn it into a regional entity? Would we take the California ISO and marry it with all the rest of the transmission owners in the west and come up with an entity, or would we create some new entity in the west that doesn't exist now, or would California plan its own and the rest of the west plan? OK.
In Waxman-Markey, they would also provide that FERC-- they don't even say regional entities. Waxman-Markey says FERC would establish planning entities. From time to time. I think maybe I should have stayed at FERC. It would give me a lot of power.
What about siting? So it looks like if we pass these bills, we're going to have a regional entity. Senator Bingaman's bill would provide for interconnection wide regional entity. So ideally, there would be one in the east, one in the west, and one in Texas.
What about siting? Senator Reid's bill would leave siting the way it is, but it would expand its authority to do backstopped siting in national interest corridors and it would allow FERC to site lines in the national interest corridors even over the objection of the states.
Senator Bingaman's bill would allow FERC-- the way it's written is that FERC could veto states' siting decisions. So it would allow the states to continue to go through the motions of siting transmission, but if they said no, then FERC would get to site it.
The Waxman-Markey bill does away with all the pretense and it says FERC sites it and the states are not involved. What about cost allocation? Senator Reid's bill says FERC gets to decide cost allocation and cost shall be allocated broadly. Period.
Senator Bingaman's bill said basically the same thing. But there was an amendment in committee sponsored by Senator Corker from Tennessee, as in the area where there are no renewables, and Senator Cantwell from the Northwest, as in we already have our renewables, as in we don't want to spend money for other people's transmission to get renewables.
They put an amendment in, and it went through committee, and it's in the bill, that says you cannot spread costs across states except by showing specific economic and grid reliability benefits, not just environmental benefits. So the notion that you would look at getting renewables to market as an environmental good, as an externality, as a benefit that benefits everybody in the United States, under this legislation, unless you can get a good legal interpretation, that's certainly not the intent of the Corker amendment.
In Waxman-Markey, it's silent on cost allocation. It doesn't address the issue. One of the interesting things in Waxman-Markey is that Waxman-Markey sets up planning principles for our new transmission build out unlike the other two that don't really have any principles. And FERC gets to do what FERC thinks it should do.
Under Waxman-Markey, it said that transmission should be for the deployment of renewables and other zero carbon and low carbon energy sources. That's the purpose of building transmission. That's what it says in Waxman-Markey. It also says it should also enhance reliability, reduce congestion, ensure cybersecurity, promote motherhood and apple pie, and be cost effective.
The other interesting little twist that happened to Waxman-Markey on the way to the vote was the transmission reform was limited to the western interconnect. Why, you might wonder. Does anybody know? Why did they, after working all this out and coming up with arguably a good plan, why in the end did they take the east out of it? Pardon?
The Southeast didn't like it because they don't think they have any renewables. And they don't want to pay for anybody else's lines. But it was the New England governors.
And what happened was, right in the beginning of the fall last year, the Midwest ISO here came up with a plan. And their plan was to build transmission lines from here, but guess what? It didn't stop in the Midwest.
Their plan was to come right over here, to go into New York, and to go up to Boston. And so the New England governors got together and said, wait a minute. The Midwest is going to preempt our wind development.
Well, we don't want no Midwest wind. We have our own wind. And our own wind doesn't need so much transmission, because it just has to get offshore to Boston. So you know what? We don't want any transmission reform, because if we have transmission reform today, tomorrow we have wind from North Dakota.
So politically what's going on? In Washington, the states are jockeying. And the real basis of their objection-- their most of their objection is couched in terms of states' rights. But the real objection is that they're worried that other states will preempt their renewable development.
Either it would prohibit them, like the governors in New England are worried that the Midwest will get a jump on them and corner the market with renewables from the Midwest and take away their market for developing their own renewables, or they are worried-- or they object because they don't have renewables to develop like in the Southeast and therefore they don't want to be any part of this plan. Thank you very much. Or they've already developed their renewables, like in the Northwest.
Bonneville is up in the Northwest and Bonneville is doing a very good job. Well, the Northwest looks at hydro as renewable. And they also have a lot of wind. And Bonneville in the Northwest is a federal power marketing agency with a pretty good budget and a good history of building transmission and getting wind on the wires.
And so the Northwest looks at it. We're solving our own renewable problem. And we can do it in our own budget. So why should we pay for California's? So they've already developed their renewables or their renewables are close by and they really don't think they're going to need long transmission lines to develop their renewables for themselves, so they don't want to pay for yours. So they're objecting to the siting provisions. They're direct objecting to the cost allocation provisions.
Let's talk about the cost allocation provisions. What do the cost allocation-- if you allocate costs broadly, because it's a good thing to do for the environment and everybody will end up paying just a little bit and it will solve all of our problems, what does that do?
It just changes things. I'm not saying that it's good or bad. But I think one thing that we've lost in the debate is if we broadly allocate the costs, it changes things. What does it change? It changes today's current cost advantage of developing close by renewables.
If it doesn't matter to the people of Los Angeles whether they put solar in the Mojave Desert-- now that probably would make a lot of sense from a transmission perspective, or some sense because the transmission is short. But maybe Senator Feinstein doesn't want to put solar in the Mojave Desert. And maybe you would prefer to bring in wind from British Columbia.
That's a lot more expensive to bring in wind from British Columbia. But if you're not paying for the transmission, what do you care? So it changes the decision making paradigm from what it is today.
The current incentive today is to develop the least cost renewable because the all in cost is going to be paid for by the user. If the all in cost is not paid for by the user, it changes the incentive to an extent. There's not such a drive to develop the least cost renewable. Is that a good thing or a bad thing? It's not necessarily good or bad, but it changes it.
What else does broad cost allocation do? If the cost of transmission isn't taken into account, then the decision of whether to do offshore wind, California, wind from Montana, wind from Wyoming, wind from Colorado, wind from New Mexico, wind from Canada, they're all equal, because the transmission costs are irrelevant. So OK. Well, what are you going to develop if they're all equal? How do you choose? Which one? Pardon.
AUDIENCE: Resource.
SUEDEEN KELLY: Resource. Best resource. Best resource. And is that a good decision? Is it good to have all your wind come from one wind location? So the wind dies down, no wind, whereas if you have it from multiple locations, and if it dies down in one place, it doesn't die down in another place, easier for the system to balance.
What if they're equally good? I don't know the answer, but who's going to decide? The transmission planner. He's going to decide. Who's the transmission planner going to get to be? Oh, FERC. I get to decide if I go back, if I were to go back. So is FERC going to decide? Is that who you want to decide?
Can you imagine the politics involved in this, because there is a lot of money. If you're going to build 6,000 megawatts of wind, can you imagine the competition that's going to go on here? There's a lot of money involved in developing 6,000 megawatts of wind.
So let's go back to who's going to plan transmission. Who's going to plan transmission? Is the California ISO going to plan transmission? Are the utilities going to get together as a group and plan transmission?
Are we going to have one planning entity in the West that FERC establishes or maybe we should have a West wide regional stakeholder process? That'll be great. That'll only take 25 years.
So if you do-- if you change-- once you change these solutions or these-- once you put forward a solution that solves some problems, you just have to think about the fact that it's going to present other ones. For me, although on the one hand broad cost allocation makes sense, on the other hand, it says to me there's going to be a lot of competition for development. And who's going to decide?
And are there going to be in-- if the utilities in the West get together and decide what transmission is going to be built, what are they going to decide and how are they going to decide? And is there going to be a conflict of interest, because they also build generation?
Well, what if they have options on land in Montana? Should they be allowed to do that? Maybe we don't care. Maybe we don't care where we get the land from. And if Southern California Edison or PG&E can make more money by developing their own land, fine.
AUDIENCE: Quick question. You talk about cost allocation and sharing, but on the technical level, how are the electrons going to be managed themselves or would they be managed by some FERC overlying authority?
SUEDEEN KELLY: Well, currently, if we don't change the law and we don't change the policy, then we'll just do it the way we do it today. And currently, the electrons are managed by the regional transmission entities. And so in California, for most of California, they're managed by the Cal ISO.
In the rest of the West where there isn't an ISO, each control area, which is about the size of a utility, maybe a couple of utilities sometimes will get together and create a control area, manages its own. So in the West you'll continue to have multiple stepwise management of transmission unless you build a DC line.
And that's the discussion to build the DC line. Anybody else have any questions or want to offer any opinions or? Yeah.
AUDIENCE: So if you build transmission infrastructure for renewables, how do you prevent some states from building coal plants competing with them?
SUEDEEN KELLY: You don't unless-- there are discussions in the West, in particular, in the states that are siting lines about having a state prohibition on hooking up a coal plant. And then there are some places that say, well, we don't like nuclear either. And we don't want you to hook up a nuclear plant. And we know it doesn't emit carbon, but we don't like them.
AUDIENCE: Crunch fundamentally, talking about then policy kind of change in terms of dispatch order, you're not going to do marketable [INAUDIBLE]. You're not going to do economic dispatch. You're going to have to change the policies governing resource dispatch. And you also are going to get into the [INAUDIBLE], the physics of the system. And, fundamentally, fine. You build these huge renewable sites and site transmission. Well, lo and behold, I suspect the planner can tell you you're going to need some sort of a fossil or nuclear or something that can support them to manage the system.
SUEDEEN KELLY: Unless you-- I think you're right. Unless you plan it really well, and-- who's the professor that I just met with? Atmosphere and energy?
AUDIENCE: Professor Jacobson.
SUEDEEN KELLY: Yes. Professor Jacobson would say, if you plan it really well, and if you plan it on a big enough scale like in the West, you could actually design-- in theory I guess, you could design a portfolio of renewable resources so that instead of developing 6,000 megawatts in Montana, you've built a line and you developed a lot of wind all the way down and solar. And you could plan it so that there would always be enough solar to back up, or there would always be enough renewables to back up the intermittency of the other renewables.
AUDIENCE: Over what time horizon did this professor suggest that you put this in place?
SUEDEEN KELLY: The other thing that's happening in Texas, for example, is they're backing up their intermittent in renewables with demand response programs. And right now, you can do an economic dispatch of generation with wind, because wind's a price taker at the moment. And so you can actually dispatch your renewable wind in the-- you would think that maybe you need an environmental dispatch.
And I think that, ultimately, you're right if you want to do an environmental dispatch. But right now actually wind being a price taker, it's working, at least in Texas where they're doing a pretty good job of it, I think, of dispatching their wind under an economic system. Yeah, good point.
AUDIENCE: How do you think about energy storage reducing the costs or needs of transmission?
SUEDEEN KELLY: Energy storage is fascinating and it's really at the cusp of all new policy issues, because energy storage has traditionally, if we talk about traditionally, at least at FERC, been treated as transmission. And there's some advantages to treating energy storage as transmission, because it goes into how we recover costs for transmission.
And transmission is part of the monopoly. And all of the costs are guaranteed recovery. But of course storage is also a generation. It also produces electricity. So there is some argument to be made that you should treat it as a generator. And there are those entities that want it to be treated as a generator.
Actually in PJM we have a market rule that allows storage to be treated as a generator to provide ancillary services. And frequently the price for ancillary services in the middle Atlantic is so high on a real time basis that, even though storage is expensive, it's making the market and it's getting a profit.
So there are some storage companies that would like stores to be treated as a generator, because they actually see that they could actually make more money. And then there are some entities that want it to be treated as both, so then they could capture both revenue streams. and then there's a-- not a bad gig if you can get it.
And then there is another school of thought that says, you know what, storage should be its own category. But of course if storage is its own category, that only begins to provide an answer to the question, OK, so how do you recover its costs? But it is a fascinating issue that's just starting to come up and starting to be resolved in those areas of the country that have bid based auction markets, at least to an extent. Yeah.
AUDIENCE: If you could design a supply portfolio like that, and sort of optimize for producers' transmission costs by uploading them to a supply portfolio, would that violate FERC order 888, or I forget which one it is which requires a sort of unbundling of generation and transmission?
SUEDEEN KELLY: No. No. Because it would really-- I see where your question is-- because really, when you talk about optimizing the supply, you're really only talking about the generation.
AUDIENCE: Right.
SUEDEEN KELLY: FERC [INAUDIBLE].
AUDIENCE: If a utility had transmission assets as well as diversion assets, wouldn't that be sort of [INAUDIBLE] to that in the transmission wind generation? [INAUDIBLE]
SUEDEEN KELLY: We wouldn't let them do it. Now maybe it could happen, but we wouldn't let them. I mean there would be a rule against it.
AUDIENCE: Right. So it can't happen.
SUEDEEN KELLY: It can't happen. I mean anybody can break the rule but, no, it can't happen. Yeah.
AUDIENCE: What would be your ideal federal transmission goals?
SUEDEEN KELLY: Well, I think it's-- OK. Here's some of the things that I draw from what I've seen happen nationally. If we could come up with a national policy, it would be helpful.
Right now we don't have a national policy. And we're talking about enacting transmission reform outside of a national policy. And so what are we planning for?
We don't have a national agreement on it. And that's why the states can have this productive debate, and discussion, and criticism. If we had a carbon-- if we price carbon, if we had a cap in trade, or some bill that actually priced carbon, and said our national policy is zero carbon or reduce carbon, it would go a long way to figuring out what we're planning for.
And at least we would be able to say, like it or not, this is our national policy. We're going to pay for it broadly. Or if we had a national renewable portfolio standard, so that would be helpful.
The first thing, I think, is you have to figure out what you're planning for. Now if we can't have a national policy, politically I don't know that we can plan nationally, because without a national policy these regional differences about what we're planning for are exceedingly significant. And I don't see us getting consensus.
You could give it to FERC, but I think it would be folly for FERC to attempt to come up with a national goal. What makes California happy is not going to make Georgia happy. And if the only authority is because FERC said so, I think it will be litigated till the cows come home and we won't move forward.
So if we can't have a national policy for purposes of planning, then I think we have to plan regionally. So that's on the planning aspect. On the siting aspect, what I think should be done, what I think would be the most productive, is for the regions to get together, once you have this region, to get together and say, what do you want to do? What's your plan? What does the West want?
Right now renewables is more than an electron issue. And it's more than an environmental issue. And it's more than a way of life and a green agenda issue. It's also a huge economic development issue. These states, particularly the ones on the western side of the Rockies, are competing as vigorously as they can with each other to develop their renewables.
This is like the new-- this is the new resource. This is the new oil or gas. And these are states, many of them with economic development challenges-- North Dakota, South Dakota, Montana, Idaho, Wyoming, northern Colorado, New Mexico-- they want economic development.
They all want to send their renewables to California. They would love it. They hope that California doesn't decide to develop any of theirs. And they hope that California is willing to pay for long transmission lines to the Rockies. And they all want to send it to California.
So I'm assuming California doesn't care where it comes from, particularly if you don't want to develop your own. So ideally, politically, if you could get those governors of those states to sit down and say, OK, work it out.
They do want to develop, so you're going to have-- there's going to be a response. They want to develop. But they all want a piece of the pie. But right now is the perfect time, because that's what we have, a big pie.
We haven't sent renewables to market yet. And we have this opportunity to plan for the next 30 years about which ones we will send. Well, if you could get all the states in the west to sit down and say, OK, we want to take a little bit of-- how about you take a little bit of our solar?
Well, OK, but you have to take some of our wind. Well, we want some of our geothermal. If you could get them all together and work it out, then frankly they'd also work out the siting of the transmission lines. And everybody would get something. And they'd work it out. So could you do that?
I think that the-- well, actually I should say that the Western Governors Association started this initiative two years ago called the Western Renewable Energy Zone Initiative. And it actually is an attempt to do this. But it doesn't have a lot of umph behind it, because it requires them to make a lot of-- it's time, isn't it?
It requires them to make a lot of choices. So I think that the way you get them to actually make the tough decisions and come to an agreement is you give FERC backstop siting authority and planning authority, and you say to the states in the region-- not the PUCs but the governors-- you say you have two years or whatever to come up with a plan of which renewables you're going to develop, where you're going to put your transmission lines, and how you're going to allocate the costs.
And you guys can do whatever you want, doesn't matter. We don't care. But if you can't agree, FERC will do it. I think they need something to come to the table. So sadly, I should stop.
AUDIENCE: Suedeen Kelly, I think one more question and then I think we need to wrap up.
SUEDEEN KELLY: OK.
AUDIENCE: So one last question. OK.
SUEDEEN KELLY: You pick.
No, you pick.
SUEDEEN KELLY: No, I get to pick. OK, how about back there in the gray shirt.
AUDIENCE: Me? Yeah. Go ahead. Considering the cost allocations, if and when do environmental litigation costs become enacted, who will pay for that? For instance, if you think of it in terms of native species affect on habitat mitigation, who will pay for that and what industry will mandate those mitigation costs, for sitings?
SUEDEEN KELLY: That's a big untested assumption that environmental mitigation costs will be put into it.
AUDIENCE: So how does-- another question would be how do environmental mitigation issues get put into place, like if a state does not site a high density or high--
SUEDEEN KELLY: The only way-- there is no legal way to get it put in there.
AUDIENCE: Because of environmental issues. Who puts their foot down?
SUEDEEN KELLY: There is no legal way to do it--
AUDIENCE: Really?
SUEDEEN KELLY: --unless the individual state decides to, but it could be negotiated. There's no prohibition against it, but if you have a transmission owner that doesn't want to pay the costs, they don't have to. I mean they have to pay the costs of eminent domain, but most likely the costs of eminent domain will not include the environmental mitigation costs. But if you could work it out, it would be fine.
AUDIENCE: OK, well thank you.
Thank you.
This was fascinating.
Printable Transcript (Word Document) [38]
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In this lesson, we presented an overview of the history of the electric transmission grid since its inception in the early 1900s. We presented how and why the various state and federal governments influenced the development and use of the grid, and we briefly discussed the criteria used to site new transmission lines. We also viewed some real-life video footage of actual transmission line siting controversies. Those videos gave us a quick look at the issues confronting transmission line siting teams and the "Not in My Back Yard" passion of local residents.
The takeaways from this lesson are:
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Links
[1] http://creativecommons.org/licenses/by-nc-sa/2.0/
[2] http://www.flickr.com/photos/nockii/
[3] http://www.eia.gov/forecasts/aeo/index.cfm
[4] http://en.wikipedia.org/wiki/File:PearlStreetStation.jpg
[5] http://en.wikipedia.org/wiki/Pearl_Street_Station
[6] http://en.wikipedia.org/wiki/AC_electricity
[7] https://www.ferc.gov/sites/default/files/2020-04/transmission-grid.pdf
[8] https://www.e-education.psu.edu/geog469/sites/www.e-education.psu.edu.geog469/files/images/elecgrid_timeline_large.jpg
[9] https://www.e-education.psu.edu/geog432/node/116
[10] http://en.wikipedia.org/wiki/Public_Utility_Holding_Company_Act
[11] http://en.wikipedia.org/wiki/Public_Utility_Regulatory_Policies_Act
[12] http://www.eia.gov/oil_gas/natural_gas/analysis_publications/ngmajorleg/enrgypolicy.html
[13] https://www.youtube.com/watch?v=lPAocsKRauA&list=PLDD3A506BCCF70C58
[14] http://progressivetimes.wordpress.com/2009/09/08/renewable-energy-battles-for-new-sites/
[15] http://www.epa.gov/compliance/nepa/index.html
[16] http://www.virdelldrilling.com/geology.htm
[17] http://geoscience.wisc.edu/geoscience/
[18] http://www.lknsocial.com
[19] http://water.epa.gov/type/wetlands/index.cfm
[20] http://web.mit.edu/polisci/mpepp/wetlands_wildlife.htm
[21] http://water.epa.gov/lawsregs/guidance/wetlands/sec404.cfm
[22] http://www.fws.gov/wetlands/
[23] https://www.epa.gov/wetlands/wetlands-factsheet-series
[24] https://www.lrh.usace.army.mil/Portals/38/docs/USACE%2087%20Wetland%20Delineation%20Manual.pdf
[25] https://www.youtube.com/watch?v=u7KyeO6ZgGw&feature=player_embedded
[26] http://www.winstead.com/portalresource/lookup/wosid/cp-base-4-30610/overrideFile.name=/LandownersPropertyRightsVsTransmissionlines.pdf
[27] http://en.wikipedia.org/wiki/Lesser_Prairie_Chicken
[28] http://www2.epa.gov/laws-regulations/summary-endangered-species-act
[29] https://abc7amarillo.com/news/local/transmission-line-route-causes-some-concern
[30] https://www.nps.gov/subjects/nationalregister/index.htm
[31] http://www.nps.gov/history/local-law/nhpa1966.htm
[32] https://www.nps.gov/places/great-falls-portage-mt.htm
[33] https://beautifulbuildings.wordpress.com/2008/11/25/americas-eleven-most-endangered-historic-places-2008/
[34] https://youtu.be/ooSky4hj5tk
[35] http://www.bizjournals.com/charlotte/blog/power_city/2010/08/new_duke_energy_station_site_satisfies_cherokees.html
[36] https://www.epa.gov/radtown/electric-and-magnetic-fields-power-lines
[37] http://www3.epa.gov/radtown/electric-magnetic-fields.html
[38] https://www.e-education.psu.edu/geog469/sites/www.e-education.psu.edu.geog469/files/documents/Transmission_Siting_Issues_Transcript.docx