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1

tribes, and other stakeholders early in the planning process, the impact may be

2

lessened or avoided.

3

 

4• Discussion of the 1997 BLM National PA is being revised to acknowledge

5

that this PA has been updated with the 2012 National PA.

6

 

7

 

8

5.16 NATIVE AMERICAN CONCERNS

9

 

10As discussed in Section 5.16.1 of the Draft Solar PEIS, impacts on resources important

11to Native Americans (including, but not limited to, cultural sites and landscapes, traditional use

12areas, culturally important plants and wildlife, geographic features, and water sources) that

13could result from utility-scale solar energy development include those associated with initial

14site characterization, facility construction, operations, and decommissioning. The complete

15destruction of resources of significance to Native Americans could occur from the clearing,

16grading, and excavation of the project area, and the construction of facilities and associated

17infrastructure. Destruction and/or degradation of resources of significance to Native Americans

18is possible within the project footprint downslope or downstream from the alteration of

19topography; the alteration of hydrological patterns; the removal of soils; the erosion of soils;

20runoff into and sedimentation of adjacent areas; and oil or other contaminant spills. Impacts are

21also possible from the modification of natural flow systems and possible degradation of surface

22water quality as a result of construction activities and water withdrawals for a solar energy

23development project; increased human access and subsequent disturbance (e.g., looting,

24vandalism, and trampling) from the establishment of corridors or facilities in otherwise intact or

25inaccessible areas; visual degradation of a landscape caused by the presence and associated land

26disturbance of utility-scale solar energy facilities could affect those resources for which visual

27integrity is a component of a site’s significance; and the pristine nature and peacefulness of a

28culturally significant location could be affected by noise degradation caused by utility-scale solar

29energy development. The potential for impacts on resources of significance to Native Americans

30would be directly related to the amount of land disturbance, the presence of significant resources

31of concern, and the location of the project.

32

 

33

The information provided in Section 5.16 remains valid, with the following update:

34

 

35

• Reference to IM 2012-032 (BLM 2011d) is being added as additional

36

guidance for conducting Native American consultations.

37

 

38

 

39

5.17 SOCIOECONOMICS

40

 

41Socioeconomic resources could be affected by the construction and operation of utility-

42scale solar energy facilities through the creation of direct and indirect employment and income,

43the generation of direct sales and income taxes, SEZ acreage rental and capacity payments to the

44BLM, the in-migration of solar facility workers and their families, and impacts on local housing

45markets and on local public service and educational employment. Higher levels of population in-

46migration may also produce social change, with the breakdown of traditional rural community

Final Solar PEIS

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July 2012

1 structures, and social disruption, with potential increases in crime, alcoholism, depression and 2 other social impacts, depending on the residential location of solar workers and their families, 3 and the extent to which in-migration is temporary or permanent.

4

5Information provided in the Draft Solar PEIS remains valid; there are no updates for this

6

section.

7

 

8

 

9

5.18 ENVIRONMENTAL JUSTICE

10

 

11Potential impacts from noise and dust during construction and operations, visual impacts,

12cultural impacts, and effects on property values could be incurred as a result of the construction

13and operation of solar facilities, and could affect environmental justice if impacts are high,

14adverse, and disproportionately affect low-income and minority populations. Higher levels of

15population in-migration may also produce social change, with the breakdown of traditional rural

16community structures, and social disruption, with potential increases in crime, alcoholism,

17depression, and other social impacts, which might disproportionately affect low-income and

18minority population groups, depending on the residential location of solar workers and their

19families, and the extent to which in-migration is temporary or permanent.

20

21Information provided in the Draft Solar PEIS remains valid; there are no updates for this

22section.

23

24

25 5.19 TRANSPORTATION

26

27Potential impacts on transportation near solar facilities are related to the specific project

28location, the project size, the delivery of equipment, materials, and supplies; and the daily

29commute of workers, as was discussed in Section 5.19 of the Draft Solar PEIS.

30

31The potential general transportation impacts as discussed in the Draft Solar PEIS remain

32valid, with the following updates:

33

 

34

• It is recognized that site planning and the incorporation of site access into the

35

local and regional road network must be conducted under the supervision of

36

local, county, state, and federal agencies with jurisdiction over relevant

37

matters such as road maintenance and repair, road improvements,

38

requirements for and construction of new roads, if necessary, and traffic

39

management. Dependent on the agencies with jurisdiction and the actual site

40

location and existing roads and traffic patterns, approval of any site access

41

proposal, including any mitigation measures, could require traffic studies,

42

analyses of existing and proposed new roads to handle the added load from

43

increased construction, commuter, and truck traffic, and possibly other

44

environmental studies.

45

 

Final Solar PEIS

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July 2012

1• In addition to potential impacts on aviation from glare from solar facility

2

operation, improper facility design could also result in impacts from glare to

3

motorists on nearby roads and the operation of nearby railroads.

4

 

5

 

6

5.20 HAZARDOUS MATERIALS AND WASTE

7

 

8

Section 3.5 of the Draft Solar PEIS provided a discussion of the amounts and types of

9hazardous materials that would be present at a solar facility during its construction, operation,

10decommissioning, and reclamation phases. Section 5.20 discussed the possible adverse impacts

11resulting from the presence and use of hazardous materials and the generation, management, and

12disposal of wastes. For example, the potential for contamination of environmental media from

13accidental releases was discussed.

14

15Information provided in Section 5.20 of the Draft Solar PEIS remains valid; there are no

16updates for this section.

17

18

19 5.21 HEALTH AND SAFETY

20

21As discussed in Section 5.21 of the Draft Solar PEIS, impacts on public and worker

22health could result from utility-scale solar energy development during initial site

23characterization, facility construction, operations, and decommissioning. For workers, the

24primary concerns are associated with injuries or fatalities from physical hazards (e.g., electrical

25hazards, exposure to weather extremes, and retinal damage from exposure to glare). Health and

26safety risks to the general public can include physical hazards from unauthorized access to

27construction or operational areas of solar facilities; increased risk of traffic accidents in the

28vicinity of solar facilities; risk of eye damage from glare from mirrors, heliostats, and power

29tower receivers; and aviation safety interference. Because of the remote nature of most solar

30facilities, these health and safety risks are generally low. Health and safety risks to both workers

31and the public would be addressed in project-specific health and safety plans for solar facilities.

33The information provided in the Draft Solar PEIS remains valid, with the following

34updates:

35

 

 

 

36

• A potential hazard, particularly during construction, is the possible increased

 

37

release of spores of the fungus that causes valley fever, a condition

 

38

characterized by coldor flu-like symptoms, which in infrequent cases also

 

39

spreads through the bloodstream resulting in a more serious condition called

 

40

disseminated coccidioidomycosis (named for the fungal organism causing the

41

condition) (A.D.A.M. 2011). The best method to prevent exposure to the

 

42

organism is to reduce fugitive dust emissions using best available practices as

43

required under a facility’s Dust Abatement Plan and described in various

 

44

design features included for the protection of soil, water, and air resources

 

45

(see Section A.2 of Appendix A). The Health and Safety plans for solar

 

46

facilities in areas endemic to the coccidioides fungus should also include

 

 

Final Solar PEIS

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July 2012

1

requirements for construction workers with exposure potential to wear dust

2

masks.

3

 

4• With respect to proper siting and design of solar facilities to eliminate glint

5

and glare effects, it is noted that consideration of potential impacts on nearby

6

railroad staff and passengers needs to be considered, in addition to impacts on

7

roadway users, nearby residences, commercial areas, or other highly sensitive

8

viewing locations. As stated in the design features for the Final Solar PEIS

9

(see Section A.2.2.13.2 of Appendix A), efforts to eliminate glint and glare

10

impacts or reduce them to the lowest achievable levels will be required.

11

Regardless of the solar technology proposed, potential glint and glare effects

12

will be assessed and potential health, safety, and visual impacts associated

13

with glint and glare effects will be addressed.

14

 

15

 

16

5.22 REFERENCES

17

 

18Note to Reader: This list of references identifies Web pages and associated URLs where

19reference data were obtained for the analyses presented in this Final Solar PEIS. It is likely that

20at the time of publication of this Final Solar PEIS, some of these Web pages may no longer be

21available or their URL addresses may have changed. The original information has been retained

22and is available through the Public Information Docket for this Final Solar PEIS.

23

24A.D.A.M., 2011, “Valley Fever: San Joaquin Valley Fever, Coccidioidomycosis,” in ADAM

25Medical Encyclopedia, PubMed Health. Available at http://www.ncbi.nlm.nih.gov/

26pubmedhealth/PMH0002299. Last reviewed Aug. 29, 2011.

27

28ADWR (Arizona Department of Water Resources), 2012, Water Management Requirements for

29Solar Power Plants in Arizona. Available at http://www.azwater.gov/azdwr/WaterManagement.

30Accessed March 28, 2012.

31

32AMEC Americas Limited, 2005, Mackenzie Gas Project Effects of Noise on Wildlife, prepared

33for Imperial Oil Resources Ventures Limited, July. Available at http://www.ngps.nt.ca/Upload/

34Proponent/Imperial%20Oil%20Resources%20Ventures%20Limited/birdfield_wildlife/

35Documents/Noise_Wildlife_Report_Filed.pdf. Accessed Feb. 19, 2010.

36

37Archer, S.R., and K.I. Predick, 2008, “Climate Change and Ecosystems of the Southwestern

38United States” Rangelands 30:23–28.

39

40Barber, J.R., et al., 2010, “The Costs of Chronic Noise Exposure for Terrestrial Organisms,”

41Trends in Ecology and Evolution 25(3):180–189.

42

43Barber, J.R., et al., 2011, “Anthropogenic Noise Exposure in Protected Natural Areas:

44Estimating the Scale of Ecological Consequences,” Landscape Ecology 26:1281–1295.

Final Solar PEIS

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July 2012

1 Bayne, E.M., et al., 2008, “Impacts of Chronic Anthropogenic Noise from Energy- 2 Sector Activity on Abundance of Songbirds in the Boreal Forest,” Conservation

3 Biology 22(5):1186–1193.

4

5 Belnap, J., et al., 2001, Biological Soil Crusts: Ecology and Management, Technical 6 Reference 1730-2.

7

8 BLM (Bureau of Land Management), 1998, Instruction Memorandum 98-164, Visual Resource

9 Management Restatement, U.S. Department of the Interior, Washington, D.C., Sept. 8. 10

11BLM, 2008, Instruction Memorandum 2008-204, Offsite Mitigation, U.S. Department of the

12Interior, Washington, D.C., Sept. 30.

13

14BLM, 2009, Instruction Memorandum 209-167, Application of the Visual Resource Management

15Program to Renewable Energy, U.S. Department of the Interior, Washington, D.C., July 7.

16

17BLM, 2011a, Consideration of Lands with Wilderness Characteristics in the Land Use Planning

18Process (Public), BLM Manual 6302, Release 6-127, U.S. Department of the Interior,

19Washington, D.C., Feb. 25. Available at http://www.blm.gov/pgdata/etc/medialib/blm/wo/

20Information_Resources_Management/policy/blm_manual.Par.46960.File.dat/6302.pdf.

21

22BLM, 2011b, Consideration of LWCs for Project-Level Decisions in Areas Not Analyzed in

23Accordance with BLM Manual 6302 (Public), BLM Manual 6303, Release 6-128,

24U.S. Department of the Interior, Washington, D.C., Feb. 25. Available at http://www.blm.gov/

25pgdata/etc/medialib/blm/wo/Information_Resources_Management/policy/blm_manual.

26Par.36094.File.dat/6303.pdf.

27

28BLM, 2011c, Instruction Memorandum 2011-060, Solar and Wind Energy Applications—Due

29Diligence, U.S. Department of the Interior, Washington, D.C., Feb. 7.

30

31BLM, 2011d, Instruction Memorandum No. 2012-032, Native American Consultation and

32Section 106 Compliance for the Solar Energy Program Described in Solar Programmatic

33Environmental Impact Statement, U.S. Department of the Interior, Washington, D.C., Dec. 1.

34

35BLM and DOE (BLM and U.S. Department of Energy), 2010, Draft Programmatic

36Environmental Impact Statement for Solar Energy Development in Six Southwestern States,

37DES 10-59, DOE/EIS-0403, Dec.

38

39BOR (U.S. Bureau of Reclamation), 2012, WaterSMART. Available at http://www.usbr.gov/

40WaterSMART/water.html. Accessed March 28, 2012.

41

42Brattstrom, B.H., and M.C. Bondello, 1983, “Effects of Off-Road Vehicle Noise on Desert

43Vertebrates,” pp. 167–206 in Environmental Effects of Off-Road Vehicles, Impacts and

44Management in Arid Region, R.H. Webb and H.G. Wilshire (editors), Springer-Verlag,

45New York, N.Y. (as cited in Larkin 1996).

46

Final Solar PEIS

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July 2012

1 Bredehoeft, J., and T. Durbin, 2009, “Ground Water Development—The Time to Full Capture 2 Problem,” Ground Water 47(4):506–514.

3

4 Brown, B.T., et al., 1999, “The Influence of Weapons-Testing Noise on Bald Eagle Behavior,” 5 Journal of Raptor Research 33:227–232.

6

7 Brumm, H., 2004, “The Impact of Environmental Noise on Song Amplitude in a Territorial 8 Bird,” Journal of Animal Ecology 73:434–440.

9

10CDFG (California Department of Fish and Game), 2012, Lake and Streambed Alteration

11Program. Available at http://www.dfg.ca.gov/habcon/1600. Accessed March 28.

12

13Chan, A.A.Y.-H., et al., 2010, “Anthropogenic Noise Affects Risk Assessment and Attention:

14The Distracted Prey Hypothesis,” Biology Letters 6(4):458–461.

15

16Datry, T., 2011, “Benthic and Hyporheic Invertebrate Assemblages along a Flow Intermittence

17Gradient: Effects of Duration of Dry Events,” Freshwater Biology 57(3):563–574.

18

19Delaney, D.K., et al., 1999, “Effects of Helicopter Noise on Mexican Spotted Owls,” Journal of

20Wildlife Management 63(1):60–76.

21

22Desert Tortoise Council, 1994 (revised 1999), Guidelines for Handling Desert Tortoises during

23Construction Projects, E.L. LaRue, Jr. (editor), Wrightwood, Calif.

24

25Egnor, S.E.R., et al., 2007, “Tracking Silence: Adjusting Vocal Production to Avoid Acoustic

26Interference,” Journal of Comparative Physiology A 193:477–483.

27

28EPA (U.S. Environmental Protection Agency), 2012, Clean Water Act Definition of “Waters

29of the United States.” Available at http://water.epa.gov/lawsregs/guidance/wetlands/

30CWAwaters.cfm. Accessed March 28, 2012.

31

32Field, K.J., et al., 2007, “Return to the Wild: Translocation as a Tool in Conservation of the

33Desert Tortoise (Gopherus agassizii),” Biological Conservation 136:232–245.

34

35Francis, C.D., et al., 2009, “Noise Pollution Changes Avian Communities and Species

36Interactions,” Current Biology 19:1415–1419.

37

38Fthenakis, V.M., et al., 2004, “Experimental Investigation of Emissions and Redistribution of

39Elements in CdTe PV Modules during Fires,” presented at the Nineteenth European PV Solar

40Energy Conference, Paris, France, June 7–11.

41

42Habib, L, et al., 2007, “Chronic Industrial Noise Affects Pairing Success and Age Structure of

43Ovenbirds Seiurus aurocapilla,” Journal of Applied Ecology 44:176–184.

44

45Halfwerk, W., et al., 2011, “Negative Impact of Traffic Noise on Avian Reproductive Success,”

46Journal of Applied Ecology 48:210–219.

Final Solar PEIS

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July 2012

1 Herrera–Montes, M.I., and T.M. Aide, 2011, “Impact of Traffic Noise on Anuran and Bird 2 Communities,” Urban Ecosystems 14:415–427.

3

4 Hockin, D., et al., 1992, “Examination of the Effects of Disturbance on Birds with Reference to 5 Its Importance in Ecological Assessments,” Journal of Environmental Management 36:253–286. 6

7 Horváth, G., et al., 2009, “Polarized Light Pollution: A New Kind of Ecological Photopollution,” 8 Frontiers in Ecology 7(6):317–325.

9

10Horváth, G., et al., 2010, “Reducing the Maladaptive Attractiveness of Solar Panels to

11Polarotactic Insects,” Conservation Biology 24:1644–1653.

12

13Krausman, P.R., et al., 2004, “Effects of Military Operations on Behavior and Hearing of

14Endangered Sonoran Pronghorn,” Wildlife Monographs 157:1–41.

15

16Lackey, M.L., et al., 2011, “Effects of Road Construction Noise on the Endangered Golden-

17Cheeked Warbler,” Wildlife Society Bulletin 35(1):15–19.

18

19Lake, P.S, 2003, “Ecological Effects of Perturbation by Drought in Flowing Waters,”

20Freshwater Biology 48:1161–1172.

21

22Larkin, R.P., 1996, Effects of Military Noise on Wildlife: A Literature Review, Technical

23Report 96/21, U.S. Army Construction Engineering Research Laboratory, Champaign, Ill.

25Larned, S., et al. 2010, “Emerging Concepts in Temporary-River Ecology, “ Freshwater

26Biology 55:717–738.

28Leonard, M.L., and A.G. Horn, 2008, “Does Ambient Noise Affect Growth and Begging Call

29Structure in Nestling Birds?” Behavioural Ecology 19:502–507.

31Levick, L., et al., 2008, The Ecological and Hydrological Significance of Ephemeral and

32Intermittent Streams in the Arid and Semi-arid American Southwest, EPA/600/R-08/134,

33ARS/233046, U.S. Environmental Protection Agency and USDA/ARS, Southwest Watershed

34Research Center, Nov.

36Longcore, T., and C. Rich, 2004, “Ecological Light Pollution,” Frontiers in Ecology and the

37Environment 2(4):191–198.

38

39Manci, K.M., et al., 1988, Effects of Aircraft Noise and Sonic Booms on Domestic Animals and

40Wildlife: A Literature Synthesis, NERC-88/29, U.S. Fish and Wildlife Service, National Ecology

41Research Center, Ft. Collins, Colo.

42

43McCluney, K.E., and J.L. Sabo, 2011, “River Drying Lowers the Diversity and Alters the

44Composition Assemblage of Desert Riparian Arthropods,” Freshwater Biology 57(1):91–103.

Final Solar PEIS

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July 2012

1Navara, K.J., and R.J. Nelson, 2007, “The Dark Side of Light at Night: Physiological,

2 Epidemiological, and Ecological Consequences,” Journal of Pineal Research 43(3):215–224. 3

4 NPS (National Park Service), 2000, Director’s Order #47: Soundscape Preservation and Noise

5 Management, approved by Robert Stanton, Director, Dec. 1. Available at http://www.nps.gov/ 6 policy/DOrders/DOrder47.html. Accessed May 7, 2012.

7

8 Parris, K.M., and A. Schneider, 2008, “Impacts of Traffic Noise and Traffic Volume on Birds of 9 Roadside Habitats,” Ecology and Society 14(1):20. Available at http://www.ecologyandsociety. 10 org/vol14/iss1/art29. Accessed Feb. 22, 2012.

11

12Pater, L.L., et al., 2009, “Recommendations for Improved Assessment of Noise Impacts on

13Wildlife,” Journal of Wildlife Management 73(5):788–795.

14

15Quinn, J.L., et al., 2006, “Noise, Predation Risk Compensation and Vigilance in the Chaffinch

16Fringilla coelebs,” Journal of Avian Biology 37:601–608.

17

18Rheindt, F.E., 2003, “The Impact of Roads on Birds: Does Song Frequency Play a Role in

19Determining Susceptibility to Noise Pollution?” Journal of Ornithology 144:295–306.

20

21Riggs, A.C., and J.E. Deacon, 2002, “Connectivity in Desert Aquatic Ecosystems: The Devils

22Hole Story,” Conference Proceedings, Spring-Fed Wetlands: Important Scientific and Cultural

23Resources of the Intermountain Region, May 7–9, Las Vegas, Nev.

24

25Schaub, A., et al., 2008, “Foraging Bats Avoid Noise,” The Journal of Experimental Biology

26211:3174–3180.

27

28Secretary of the Interior, 2010, “Protecting Wilderness Characteristics on Lands Managed by the

29Bureau of Land Management,” Secretarial Order 3310, Dec. 22. Available at http://www.blm.

30gov/pgdata/etc/medialib/blm/wo/Communications_Directorate/public_affairs/news_release_

31attachments.Par.26564.File.dat/sec_order_3310.pdf.

32

33Slabbekoorn, H., and E.A.P. Ripmeester, 2008, “Birdsong and Anthropogenic Noise:

34Implications and Applications for Conservation,” Molecular Ecology 17(1):72–83.

36Sponseller, R.A., et al., 2010, “Responses of Macroinvertebrate Communities to Long-term Flow

37Variability in a Sonoran Desert Stream,” Global Change Biology 16:2891–2900.

38

39Stanley, E.H., et al., 1994, “Invertebrate Resistance and Resilience to Intermittency in a Desert

40Stream, American Midland Naturalist 131:288–300.

41

42Sullivan, R.G., et al., 2012a, “Wind Turbine Visibility and Visual Impact Threshold Distances in

43Western Landscapes,” Proceedings, National Association of Environmental Professionals 2012

44Annual Conference, Portland, Ore., May 21–24.

45

Final Solar PEIS

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July 2012

1 Sullivan, R.G., et al., 2012b, “Visual Impacts of Utility-Scale Solar Energy Facilities on 2 Southwestern Desert Landscapes,” Proceedings, National Association of Environmental 3 Professionals 2012 Annual Conference, Portland, Ore., May 21–24.

4

5 Sun, J.W.C., and P.M. Narins, 2005, “Anthropogenic Sounds Differentially Affect Amphibian 6 Call Rate,” Biological Conservation 121:419–427.

7

8Swaddle, J.P., and L.C. Page, 2007, “High Levels of Environmental Noise Erode Pair

9 Preferences in Zebra Finches: Implications for Noise Pollution,” Animal Behaviour 74:363–368. 10

11SWCA and University of Arizona (SWCA Environmental Consultants and Bureau of Applied

12Research in Anthropology), 2011, Ethnographic and Class I Records Searches for Proposed

13Solar Energy Zones in California, Nevada, and Utah for the Bureau of Land Management’s

14Solar Programmatic Environmental Impact Statement, prepared by SWCA Environmental

15Consultants, Albuquerque, N.M., and Bureau of Applied Research in Anthropology, University

16of Arizona, Tucson, Ariz., Dec.

17

18Utah DWR (Utah Division of Water Rights), 2004, Stream Alteration Program Fact Sheet, SA-1,

192nd ed. Available at http://www.waterrights.utah.gov/strmalt/whitepapers/default.asp. Accessed

20March 28, 2012.

21

22Wright, A.J., et al. 2007, “Anthropogenic Noise as a Stressor in Animals: A Multidisciplinary

23Perspective,” International Journal of Comparative Psychology 20:250–273.

24

25Zhou, Y., 2009, “A Critical Review of Groundwater Budget Myth, Safe Yield and

26Sustainability,” Journal of Hydrology 370:207–213.

27

28

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