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Timothy J Wallington

Biographic Data

ID7711258
NAMETimothy J Wallington
GIVEN NAMESTimothy J
FAMILY NAMEWallington
SIGNATUREWALLINGTON T J
AFFILIATIONSFord Motor Company (United States)
ORCID0000-0002-9810-6326
VERIFIEDYes
TOTAL WORKS8
TOTAL CITATIONS0
AUTHOR COUNT8
EDITOR COUNT0
FIRST PUBLICATION YEAR2011
LATEST PUBLICATION YEAR2022
H-INDEX0
  • The role of pickup truck electrification in the decarbonization of light-duty vehicles

    Open Access•Maxwell Woody, Parth Vaishnav et al.•ARTICLE•Environmental Research Letters•2022

    Electrification can reduce the greenhouse gas (GHG) emissions of light-duty vehicles. Previous studies have focused on comparing battery electric vehicle (BEV) sedans to their conventional internal combustion engine vehicle (ICEV) or hybrid electric vehicle (HEV) counterparts. We extend the analysis to different vehicle classes by conducting a cradle-to-grave life cycle GHG assessment of model year 2020 ICEV, HEV, and BEV sedans, sports utility v…

  • Tropospheric Ozone Assessment Report

    Open Access•Alexander T Archibald, Jessica L Neu et al.•ARTICLE•Elementa Science of the…•2020

    Our understanding of the processes that control the burden and budget of tropospheric ozone has changed dramatically over the last 60 years. Models are the key tools used to understand these changes, and these underscore that there are many processes important in controlling the tropospheric ozone budget. In this critical review, we assess our evolving understanding of these processes, both physical and chemical. We review model simulations from …

  • Understanding Ridesourcing Mobility and the Future of Electrification

    Wei Tu, Patrizia Santi et al.•ARTICLE•Journal of Urban Technology•2020

    The development of mobile Internet, smartphones, and location-based services has enabled ridesourcing, which pools vehicles and drivers to provide on-demand travel services. As an alternative transportation option, ridesourcing has significant impacts on urban travel. However, the unique mobility pattern of ridesourcing and its impact on vehicle electrification have not been well studied. To address this gap, this paper presents a comparative, bi…

  • Tropospheric Ozone Assessment Report

    Open Access•David Tarasick, I E Galbally et al.•ARTICLE•Elementa Science of the…•2019

    From the earliest observations of ozone in the lower atmosphere in the 19th century, both measurement methods and the portion of the globe observed have evolved and changed. These methods have different uncertainties and biases, and the data records differ with respect to coverage (space and time), information content, and representativeness. In this study, various ozone measurement methods and ozone datasets are reviewed and selected for inclusi…

  • When Comparing Alternative Fuel‐Vehicle Systems, Life Cycle Assessment Studies Should Consider Trends in Oil Production

    Open Access•Timothy J Wallington, James E Anderson et al.•ARTICLE•Journal of Industrial Ecology•2017

    Petroleum from unconventional reserves is making an increasingly important contribution to the transportation fuel supply, but is generally more expensive and has greater environmental burdens than petroleum from conventional sources. Life cycle assessments (LCAs) of alternative fuel‐vehicle technologies typically consider conventional internal combustion engine vehicles fueled by gasoline produced from the average petroleum slate used in refiner…

  • Life Cycle Impacts of Natural Fiber Composites for Automotive Applications

    Open Access•Claire S Boland, Claire Boland et al.•ARTICLE•Journal of Industrial Ecology•2016

    This study examines the life cycle energy demand and greenhouse gas (GHG) emissions associated with substituting natural cellulose and kenaf in place of glass fibers in automotive components. Specifically, a 30 wt% glass‐fiber composite component weighing 3 kilograms (kg) was compared to a 30 wt% cellulose fiber composite component (2.65 kg) and 40 wt% kenaf fiber composite component (2.79 kg) for six cars, crossovers, and sport utility vehicles.…

  • Life Cycle Water Use of Ford Focus Gasoline and Ford Focus Electric Vehicles

    Open Access•Hyung Chul Kim, Timothy J Wallington et al.•ARTICLE•Journal of Industrial Ecology•2016

    Literature data for vehicle life cycle water consumption are limited and contradictory; there are no published estimates of vehicle life cycle water withdrawal. To place future discussions of sustainable mobility on a firmer technical basis, we report the results of a cradle‐to‐grave assessment of water withdrawal and water consumption for the gasoline internal combustion engine vehicle (ICEV) and battery electric vehicle (BEV) variants of the 20…

  • Global Lithium Availability

    Open Access•Paul W Gruber, Pablo A Medina et al.•ARTICLE•Journal of Industrial Ecology•2011

No prominent works on this page.

  • Global Lithium Availability

    Open Access•Paul W Gruber, Pablo A Medina et al.•ARTICLE•Journal of Industrial Ecology•2011

  • Life Cycle Impacts of Natural Fiber Composites for Automotive Applications

    Open Access•Claire S Boland, Claire Boland et al.•ARTICLE•Journal of Industrial Ecology•2016

    This study examines the life cycle energy demand and greenhouse gas (GHG) emissions associated with substituting natural cellulose and kenaf in place of glass fibers in automotive components. Specifically, a 30 wt% glass‐fiber composite component weighing 3 kilograms (kg) was compared to a 30 wt% cellulose fiber composite component (2.65 kg) and 40 wt% kenaf fiber composite component (2.79 kg) for six cars, crossovers, and sport utility vehicles.…

  • Life Cycle Water Use of Ford Focus Gasoline and Ford Focus Electric Vehicles

    Open Access•Hyung Chul Kim, Timothy J Wallington et al.•ARTICLE•Journal of Industrial Ecology•2016

    Literature data for vehicle life cycle water consumption are limited and contradictory; there are no published estimates of vehicle life cycle water withdrawal. To place future discussions of sustainable mobility on a firmer technical basis, we report the results of a cradle‐to‐grave assessment of water withdrawal and water consumption for the gasoline internal combustion engine vehicle (ICEV) and battery electric vehicle (BEV) variants of the 20…

  • When Comparing Alternative Fuel‐Vehicle Systems, Life Cycle Assessment Studies Should Consider Trends in Oil Production

    Open Access•Timothy J Wallington, James E Anderson et al.•ARTICLE•Journal of Industrial Ecology•2017

    Petroleum from unconventional reserves is making an increasingly important contribution to the transportation fuel supply, but is generally more expensive and has greater environmental burdens than petroleum from conventional sources. Life cycle assessments (LCAs) of alternative fuel‐vehicle technologies typically consider conventional internal combustion engine vehicles fueled by gasoline produced from the average petroleum slate used in refiner…

  • Tropospheric Ozone Assessment Report

    Open Access•David Tarasick, I E Galbally et al.•ARTICLE•Elementa Science of the…•2019

    From the earliest observations of ozone in the lower atmosphere in the 19th century, both measurement methods and the portion of the globe observed have evolved and changed. These methods have different uncertainties and biases, and the data records differ with respect to coverage (space and time), information content, and representativeness. In this study, various ozone measurement methods and ozone datasets are reviewed and selected for inclusi…

  • Tropospheric Ozone Assessment Report

    Open Access•Alexander T Archibald, Jessica L Neu et al.•ARTICLE•Elementa Science of the…•2020

    Our understanding of the processes that control the burden and budget of tropospheric ozone has changed dramatically over the last 60 years. Models are the key tools used to understand these changes, and these underscore that there are many processes important in controlling the tropospheric ozone budget. In this critical review, we assess our evolving understanding of these processes, both physical and chemical. We review model simulations from …

  • Understanding Ridesourcing Mobility and the Future of Electrification

    Wei Tu, Patrizia Santi et al.•ARTICLE•Journal of Urban Technology•2020

    The development of mobile Internet, smartphones, and location-based services has enabled ridesourcing, which pools vehicles and drivers to provide on-demand travel services. As an alternative transportation option, ridesourcing has significant impacts on urban travel. However, the unique mobility pattern of ridesourcing and its impact on vehicle electrification have not been well studied. To address this gap, this paper presents a comparative, bi…

  • The role of pickup truck electrification in the decarbonization of light-duty vehicles

    Open Access•Maxwell Woody, Parth Vaishnav et al.•ARTICLE•Environmental Research Letters•2022

    Electrification can reduce the greenhouse gas (GHG) emissions of light-duty vehicles. Previous studies have focused on comparing battery electric vehicle (BEV) sedans to their conventional internal combustion engine vehicle (ICEV) or hybrid electric vehicle (HEV) counterparts. We extend the analysis to different vehicle classes by conducting a cradle-to-grave life cycle GHG assessment of model year 2020 ICEV, HEV, and BEV sedans, sports utility v…

Environmental Science (7 works) · Engineering (6 works) · Economics (3 works) · Electricity (3 works) · Geography (3 works) · Life-cycle assessment (3 works) · Waste management (3 works) · Atmospheric and Environmental Gas Dynamics (2 works) · Atmospheric chemistry and aerosols (2 works) · Atmospheric Ozone and Climate (2 works)

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