Impacts of Weakening the Existing EPA Phase 2 GHG Standards. April 2018

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Transcription:

Impacts of Weakening the Existing EPA Phase 2 GHG Standards April 2018

Overview Background on Joint EPA/NHTSA Phase 2 greenhouse gas (GHG)/fuel economy standards Impacts of weakening the existing Phase 2 standards Current technological and cost developments on Clean Cars 2

Phase 2 Greenhouse Gas and Fuel Economy Standards 3

GHG/Fuel Economy Standards for Light Duty Vehicles EPA and NHTSA finalized joint rules in April 2010 and in August 2012, which created one national program and aligned the Federal program with California requirements By 2025, average fleet wide CO 2 emission levels projected to be 163 grams per mile (g/mi), which is equivalent to 54.5 mpg Average price increase for 2025 vehicle projected to be about $1,800; net lifetime savings due to better fuel efficiency estimated at $5000 per vehicle Combined program reduces CO emissions by 6 billion metric tons and reduces our oil dependence by 2 million barrels per day in 2025 4

Existing Light Duty GHG Standards are Insufficient From EPA 5

Status of Midterm Evaluation of MY2022 2025 Standards In January 2017, EPA made a Final Determination that the MY2022 2025 standards remain appropriate based on the fact that automakers are developing and deploying fuel efficient technologies more quickly and at lower costs than initially forecasted. California also completed a separate, corresponding midterm evaluation (MTE) and determined, on March 24, 2017, that the MY2022 2025 standards remain appropriate On March 22, 2017, EPA published its intention to reconsider the Final Determination, and on August 23, 2017, EPA issued a notice requesting comment on its reconsideration of the Final Determination and along with the MY2021 standards. It is widely anticipated that EPA and NHTSA will issue joint NPRM that will substantially relax the GHG and fuel economy standards. 6

What s at Stake if Phase 2 Standards are Relaxed as Anticipated CO2 Losses Fuel Saving Losses Criteria Emission Impacts 7

Scenarios Evaluated The MY2022 2025 augural standards that NHTSA presented in the Phase 2 final rule were used as the reference case, which reflect fleet wide annual fuel economy increases of about 4.7 to 4.9% between MY2022 and 2025 Four likely weakening scenarios evaluated based on reports NHTSA is considering CAFE standards of 35.7 mpg in 2026 (~0.5% annual improvement): MY2022 2025 standards improve at 0.5% year over year MY2022 2025 passenger car standards improve at 1% year over year and light truck standards improve at 2% year over year MY2021 2025 standards improve at.5% year over year MY2021 2025 passenger car standards improve at 1% year over year and light truck standards improve at 2% year over year NHTSA s Volpe modeling tool used to assess impacts 8

Lost Annual Fuel Savings and CO 2 Impacts Associated with a Weakening of Cars Standards 25,000 250 Fuel Savings [million gallons] 20,000 15,000 10,000 5,000 SEE IMPACTS IN TABLE A SEE IMPACTS IN TABLE A 200 150 100 50 CO2 Emissions Reductions [million metric tons] Augural Standards (~5% Annual Increase) 0.5% Annual Increase; Starting in MY2021 0.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2021 1/2% Annual Increase; Starting in MY2022 MY2020 Standards Held Constant 0 2025 2030 2035 2040 0 9

TABLE A: Impacts of 0.5% Weakening Scenario in 2025 and 2040 IMPACTS 2025 2040 0.5% weakening scenario would 53 MILLION METRIC TONS 156 MILLION METRIC TONS allow additional CO2 emissions of: 0.5% weakening scenario would erode the original standards benefits by: 57% 67% These lost CO2 emissions reductions are equivalent to: 0.5% weakening scenario would result in lost fuel savings of: MORE THAN 13 COAL FIRED POWER PLANTS MORE THAN 38 COAL FIRED POWER PLANTS 4.8 BILLION GALLONS 14 BILLION GALLONS These lost fuel savings are equivalent to: $12.5 BILLION $36 BILLION 10

Cumulative CO 2 Losses Associated with a Weakening of Cars Standards Starting in MY 2021, Relative to the Augural Standards 2,500 Cumulative CO2 Emissions [million metric tons] 2,000 1,500 1,000 500 1 BILLION METRIC TONS CO2 MY2020 Standards Held Constant 0.5% Annual Increase; Starting in MY2021 1/2% Annual Increase; Starting in MY2021 0.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2022 0 2030 2035 2040 11

Cumulative Fuel Savings Losses Associated with a Weakening of Cars Standards Starting in MY 2021, Relative to the Augural Standards 250,000 Cumulative Fuel Savings [million gallons] 200,000 150,000 100,000 50,000 100 BILLION GALLONS OF FUEL MY2020 Standards Held Constant 0.5% Annual Increase; Starting in MY2021 1/2% Annual Increase; Starting in MY2021 0.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2022 0 2030 2035 2040 12

Manufacturers Contribution to Excess CO2 Emissions and Lost Fuel Savings Others 13.0% General Motors 17.5% VW 5.2% Hyundai Kia 6.8% Ford 14.3% Nissan 7.5% Honda 8.3% Toyota 13.5% Fiat Chrysler 13.9% 13

Criteria Pollutant Annual Impact in 2030 70,000 3,000 Emissions [US tons] 60,000 50,000 40,000 30,000 20,000 10,000 0 VOC Emissions [US tons] 2,500 2,000 1,500 1,000 500 0 PM2.5 0.5% Annual Increase; Starting in MY2021 0.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2021 Emissions [US tons] 18,000 16,000 14,000 12,000 10,000 8,000 6,000 4,000 2,000 0 NOx Emissions [US tons] 12,000 10,000 8,000 6,000 4,000 2,000 0 SOx 1/2% Annual Increase; Starting in MY2022 14

Emissions [US tons] Emissions [US tons] Lifetime Vehicle Criteria Pollutant Impacts for MY 2021 to MY 2032 1,400,000 1,200,000 1,000,000 800,000 600,000 400,000 200,000 350,000 300,000 250,000 200,000 150,000 100,000 50,000 0 0 VOC NOx Emissions [US tons] Emissions [US tons] 60,000 50,000 40,000 30,000 20,000 10,000 0 250,000 200,000 150,000 100,000 50,000 0 PM2.5 SOx 0.5% Annual Increase; Starting in MY2021 0.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2021 1/2% Annual Increase; Starting in MY2022 15

Current Clean Car Developments 16

Technologies are Developing Rapidly Advanced gasoline vehicle technologies will continue to be main compliance pathway through 2025; very low levels of plug in hybrid electric vehicles (PHEVs) and battery electric vehicles (BEVs) are needed to comply with current GHG standards Automakers are developing and deploying fuel efficient technologies at a faster rate than forecasted in 2012 final rule A number of emerging technologies offer the potential to lower costs and achieve greater reductions in the future The cost of lithium ion batteries is declining rapidly The availability of cost competitive zero emission vehicle (ZEV) technologies opens a technological pathway for all OEMs to achieve very large CO 2 emission reductions 17

Automaker Investments in Electric Vehicle Development Ford will invest $4.5 billion in electrified vehicles by 2020: including a 300 mile range fully electric SUV and a F 150 hybrid GM recently laid out a bold vision for a zero crashes, zero emissions, and zero congestion future, announced plans for 20 new electric vehicles by 2023 including two by 2019, and rolled out the acclaimed Chevy Bolt across the U.S. Toyota committed to having at least 10 new models of all electric vehicles by the early 2020 s Daimler AG announced a billion dollar investment to build electric vehicles in the U.S. with production starting in the early 2020 s BMW reached 100,000 in global electric vehicle sales while promising a dozen new models of electric vehicles by 2025 Fiat Chrysler to electrify portfolio (Wards Auto, July 2017) Volvo announced that all the models it introduces starting in 2019 will be either hybrids or powered solely by batteries (New York Times, July 2017) 18

Trends in Electric Vehicle Penetration From January through August 2017, sales of 8 fully electric cars grew 47% in the US; Sales of 6 plug in hybrid cars were up 30%. (Clean Technica, September 2017) France set target to end sale of gasoline and diesel cars by 2040 (New York Times, July 2017) India has announced goal of ending sale of petrol and diesel powered cars by 2030 (NDTV, June 2017) China has called for one out of every five cars sold to run on alternative fuel by 2025, and has said it will eventually ban sale of all gas powered cars (New York Times, October 2017) Britain announced that it will ban the sale of all diesel and gas powered cars after 2040 (New York Times, July 2017) Norway aims to ban sale of fossil fuel powered cars by 2025 (Independent, June 2016) 19

Vehicle Compliance Cost Projections Continue to Decline Since EPA s 1/17 Final Determination ICCT s recent (3/17) technology and cost assessment concludes: previous costs of compliance have been greatly overestimated ICCT estimates that MY 2025 vehicle compliance costs relative to MY2021 at $551 compared to EPA s FD estimate of $875 The cost of lithium ion batteries is declining rapidly Battery prices have fallen about 80% from 2010 to 2016 Bloomberg projects battery costs will fall below $100 per kw hr 100 mile BEV could be cost competitive with a conventional technology vehicle by 2030 20

Figure 1: Lithium Ion Batteries Costs are Falling Faster than Anticipated (From McKinsey & Co. January 2017) From McKinsey & Co. January 2017 21

Conclusions The.5% annual increase alternatives will result in the loss of most to essentially all of the CO2 benefits and fuel savings expected from NHTSA s augural standards 60 to 90% of the benefits are lost The 1% (cars) and 2% (trucks) annual increase alternatives will erode the benefits of the augural standards by 50 to 70 % All of the alternatives will substantially reduce the criteria emission benefits anticipated from the existing EPA MY 2021 2025 standards The.5% starting in MY2021 scenario increases emissions for all pollutants compared to 2021 baseline levels For the other scenarios, lost emission reductions range from 64 to 89% Efforts to weaken the standards are inconsistent with trends in technology development and cost and manufacturers own statements underscoring their investment in clean vehicles. 22

Appendix

Table 1: Projected Fleet Wide CO2 Compliance Targets From 10/12 Final Rule (in gram/mile) 2017 2018 2019 2020 2021 2022 2023 2024 2025 Passenger Cars 212 203 193 183 173 164 157 150 143 Light Trucks 295 287 278 270 250 238 226 214 204 Combined Cars and Trucks 243 234 223 214 200 190 181 172 163 24

Table 2: Projected Fleet Wide Fuel Economy Compliance Targets From 10/12 Final Rule (in mpg) 2017 2018 2019 2020 2021 2022* 2023* 2024* 2025* Passenger Cars 40.1 41.6 43.1 44.8 46.8 49.0 51.2 53.6 56.2 Light Trucks 29.4 30.0 30.6 31.2 33.3 34.9 36.6 38.5 40.3 Combined Cars and Trucks 35.4 36.5 37.7 38.9 41.0 43.0 45.1 47.4 49.7 * The MY2022 2025 standards were considered augural since NHTSA determined that they could not finalize these standards due to statutory constraints. 25

Table 3: Projected Fleet wide CO2 and Fuel Economy Compliance Targets From Draft TAR Annual Energy Outlook (AEO) Fuel Price Case 2012 Final Rule AEO Low AEO Reference AEO High Car/Truck Mix (%) 67/33 48/52 52/48 62/38 CAFE (mpg) 48.7 45.7 46.3 47.7 CO2 (g/mi)/mpg equivalent 163/54.5 178/50.0 175/50.8 169/52.6 26

Table 4: Year Over Year Improvement in CO2 Standards (in %) 2017 2018 2019 2020 2021 2022 2023 2024 2025 Passenger Cars 5.3 4.7 4.9 5.4 5.5 4.6 4.3 4.5 4.7 Light Trucks 1.0 2.7 3.1 3.0 7.4 4.8 5.1 5.3 4.7 Combined Cars and Trucks 2.8 3.7 4.3 4.0 6.6 4.5 5.3 5.0 4.7 27

Table 5: CO2 Annual Reduction for Each Scenario Relative to a 2016 Baseline (in million metric tons) Scenario 2025 2030 2035 2040 Augural Standards 93 170 215 234.5% Annual Increase; 39 62 73 78 Starting in MY2021.5% Annual Increase; 60 96 114 122 Starting in MY2022 1/2% Annual Increase; 52 87 105 113 Starting in MY2021 1/2% Annual Increase; 66 110 133 143 Starting in MY2022 MY2020 Standards Held Constant 34 51 59 63 28

Table 6: Lost CO2 Annual Benefit for Each Scenario Relative to the Augural Standards (in million metric tons) Scenario 2025 2030 2035 2040 Augural Standards.5% Annual Increase; 53 108 141 156 Starting in MY2021.5% Annual Increase; 33 74 101 113 Starting in MY2022 1/2% Annual Increase; 41 84 110 121 Starting in MY2021 1/2% Annual Increase; 27 60 81 91 Starting in MY2022 MY2020 Standards Held Constant 58 119 155 172 29

Table 7: Fuel Savings for Each Scenario Relative to 2016 Baseline (in million gallons) Scenario 2025 2030 2035 2040 Augural Standards 8,318 15,283 19,266 21,034.5% Annual Increase; 3,515 5,580 6,589 7,018 Starting in MY2021.5% Annual Increase; 5,384 8,649 10,236 10,914 Starting in MY2022 1/2% Annual Increase; 4,680 7,774 9,424 10,128 Starting in MY2021 1/2% Annual Increase; 5,902 9,913 11,974 12,280 Starting in MY2022 MY2020 Standards Held Constant 3,096 4,611 5,320 5,619 30

Table 8: Lost Fuel Savings for Each Scenario Relative to the Augural Standards (in million gallons) Scenario 2025 2030 2035 2040 Augural Standards.5% Annual Increase; 4,803 9703 12,677 14,017 Starting in MY2021.5% Annual Increase; 2,934 6,634 9,030 10,121 Starting in MY2022 1/2% Annual Increase; 3,679 7509 9,842 10,907 Starting in MY2021 1/2% Annual Increase; 2,417 5,370 7,292 8,174 Starting in MY2022 MY2020 Standards Held Constant 5,223 10,671 13,946 15,416 31

Table 9: Lost Annual CO2 Benefit compared to the Augural Standards Relative to a 2016 Baseline (in %) Scenario 2025 2030 2035 2040 Augural Standards.5% Annual Increase; 58 63 66 67 Starting in MY2021.5% Annual Increase; 35 43 47 48 Starting in MY2022 1/2% Annual Increase; 44 49 51 52 Starting in MY2021 1/2% Annual Increase; 29 35 38 39 Starting in MY2022 MY2020 Standards Held Constant 38 70 72 73 Note: This table would also apply to lost annual fuel savings as a percentage of the benefit of the CAFE augural standards relative to a 2016 baseline. 32

Table 10: Lost Annual CO2 Benefit as a % of the Incremental Benefit of the Augural Standards Relative to Holding MY2020 Standards Constant Scenario 2025 2030 2035 2040.5% Annual Increase; Starting in MY2021.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2021 1/2% Annual Increase; Starting in MY2022 91 91 91 91 54 62 65 66 70 70 71 71 44 50 52 53 Note: This table would also apply to lost annual fuel savings as a percentage of the incremental benefit of the CAFE augural standards relative to holding the MY2020 standards constant into the future. 33

Table 11: Cumulative CO2 Losses Starting in 2021 Relative to the Augural Standards (in million metric tons) Scenario 2030 2035 2040 Augural Standards.5% Annual Increase; Starting in 604 1253 2009 MY2021.5% Annual Increase; Starting in 385 842 1385 MY2022 1/2% Annual Increase; Starting in 461 965 1552 MY2021 1/2% Annual Increase; Starting in 315 684 1123 MY2022 MY2020 Standards Held Constant 659 1373 2204 34

Table 12: Cumulative Lost Fuel Savings Starting in 2021 Relative to the Augural Standards (in million gallons) Scenario 2030 2035 2040 Augural Standards.5% Annual Increase; Starting in 54,300 112,575 180,438 MY2021.5% Annual Increase; Starting in 34,588 75,606 124,395 MY2022 1/2% Annual Increase; Starting in 41,413 86,630 139,383 MY2021 1/2% Annual Increase; Starting in 28,249 61,393 100,791 MY2022 MY2020 Standards Held Constant 59,231 123,348 197,986 35

Table 13: Manufacturers Contribution to Excess CO2 Emissions and Lost Fuel Savings Manufacturer Projected MY2025 Sales % Contribution General Motors 2,636,880 17.5 Ford 2,225,337 14.3 FCA 2,091,735 13.9 Toyota 2,235,706 13.5 Honda 1,529,932 8.3 Nissan 1,351,830 7.5 Hyundai Kia 1,316,828 6.8 VWA 817,315 5.2 Subaru 647,152 3.6 BMW 444,231 3.0 Daimler 386,354 2.6 Others 750,693 3.8 Total 16,433,993 100.0 36

Table 14: Criteria Emission Annual Impact in 2030 Relative to EPA s MY2021 Standards (in US tons) Scenario VOC NOx PM2.5 SOx Existing EPA Standards (53,575) (13,625) (2,012) (8,317).5% Annual Increase; 12,740 (+24%)* 3,388 (+25%) 546 (+27) 2,210 (+27%) Starting in MY2021.5% Annual Increase; (5,956) ( 89%) (1,520) ( 89%) (224) ( 89%) (925) ( 89%) Starting in MY2022 1/2% Annual Increase; (5,139) ( 90%) (1,442) ( 89%) (209) ( 90%) (841) ( 90%) Starting in MY2021 1/2% Annual Increase; Starting in MY2022 (19,073) ( 64%) (4,919) ( 64%) (728) ( 64%) (2,996) ( 64%) * Represents the the percentage increase (+) or decrease ( ) in emission reductions relative to those expected from the existing EPA MY 2021 2025 standards (row 1 of table). 37

Table 15: Lifetime Vehicle Criteria Emissions Impacts for MY 2021 through MY2032 Relative to EPA s MY2021 Standards (in US tons) Scenario VOC NOx PM2.5 SOx Existing EPA Standards (961,406) (236,735) (35,842) (150,667).5% Annual Increase; Starting in MY2021 235,757 79,971 15,193 40,415.5% Annual Increase; Starting in MY2022 1/2% Annual Increase; Starting in MY2021 1/2% Annual Increase; Starting in MY2022 (101,861) (8,788) 671 (16,588) (88,348) (6,036) 1,283 (16,588) (340,206) (72,316) (9,558) (54,470) 38