High-resolution atmospheric inversion of urban CO2 emissions during the dormant season of the Indianapolis flux experiment (INFLUX)

Thomas Claude Yves Lauvaux, Natasha Lynn Miles, Aijun Deng, Scott James Richardson, Maria O. Cambaliza, Kenneth James Davis, Brian Gaudet, Kevin R. Gurney, Jianhua Huang, Darragh O’Keefe, Yang Song, Anna Karion, Tomohiro Oda, Risa Patarasuk, Igor Razlivanov, Daniel Sarmiento, Paul Shepson, Colm Sweeney, Jocelyn Turnbull, Kai Wu

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Abstract

Based on a uniquely dense network of surface towers measuring continuously the atmospheric concentrations of greenhouse gases (GHGs), we developed the first comprehensive monitoring systems of CO2 emissions at high resolution over the city of Indianapolis. The urban inversion evaluated over the 2012-2013 dormant season showed a statistically significant increase of about 20% (from 4.5 to 5.7 MtC ± 0.23 MtC) compared to the Hestia CO2 emission estimate, a state-of-the-art building-level emission product. Spatial structures in prior emission errors, mostly undetermined, appeared to affect the spatial pattern in the inverse solution and the total carbon budget over the entire area by up to 15%, while the inverse solution remains fairly insensitive to the CO2 boundary inflow and to the different prior emissions (i.e., ODIAC). Preceding the surface emission optimization, we improved the atmospheric simulations using a meteorological data assimilation system also informing our Bayesian inversion system through updated observations error variances. Finally, we estimated the uncertainties associated with undetermined parameters using an ensemble of inversions. The total CO2 emissions based on the ensemble mean and quartiles (5.26-5.91 MtC) were statistically different compared to the prior total emissions (4.1 to 4.5 MtC). Considering the relatively small sensitivity to the different parameters, we conclude that atmospheric inversions are potentially able to constrain the carbon budget of the city, assuming sufficient data to measure the inflow of GHG over the city, but additional information on prior emission error structures are required to determine the spatial structures of urban emissions at high resolution.

Original languageEnglish (US)
Pages (from-to)5213-5236
Number of pages24
JournalJournal of Geophysical Research
Volume121
Issue number10
DOIs
StatePublished - Jan 1 2016

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carbon dioxide
inversions
Fluxes
Greenhouse gases
high resolution
Carbon
experiment
Experiments
Towers
greenhouses
carbon budget
greenhouse gases
Monitoring
budgets
inflow
greenhouse gas
quartiles
atmospheric inversion
carbon
assimilation

All Science Journal Classification (ASJC) codes

  • Geophysics
  • Oceanography
  • Forestry
  • Aquatic Science
  • Ecology
  • Condensed Matter Physics
  • Water Science and Technology
  • Soil Science
  • Geochemistry and Petrology
  • Earth-Surface Processes
  • Physical and Theoretical Chemistry
  • Polymers and Plastics
  • Atmospheric Science
  • Earth and Planetary Sciences (miscellaneous)
  • Space and Planetary Science
  • Materials Chemistry
  • Palaeontology

Cite this

Lauvaux, Thomas Claude Yves ; Miles, Natasha Lynn ; Deng, Aijun ; Richardson, Scott James ; Cambaliza, Maria O. ; Davis, Kenneth James ; Gaudet, Brian ; Gurney, Kevin R. ; Huang, Jianhua ; O’Keefe, Darragh ; Song, Yang ; Karion, Anna ; Oda, Tomohiro ; Patarasuk, Risa ; Razlivanov, Igor ; Sarmiento, Daniel ; Shepson, Paul ; Sweeney, Colm ; Turnbull, Jocelyn ; Wu, Kai. / High-resolution atmospheric inversion of urban CO2 emissions during the dormant season of the Indianapolis flux experiment (INFLUX). In: Journal of Geophysical Research. 2016 ; Vol. 121, No. 10. pp. 5213-5236.
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abstract = "Based on a uniquely dense network of surface towers measuring continuously the atmospheric concentrations of greenhouse gases (GHGs), we developed the first comprehensive monitoring systems of CO2 emissions at high resolution over the city of Indianapolis. The urban inversion evaluated over the 2012-2013 dormant season showed a statistically significant increase of about 20{\%} (from 4.5 to 5.7 MtC ± 0.23 MtC) compared to the Hestia CO2 emission estimate, a state-of-the-art building-level emission product. Spatial structures in prior emission errors, mostly undetermined, appeared to affect the spatial pattern in the inverse solution and the total carbon budget over the entire area by up to 15{\%}, while the inverse solution remains fairly insensitive to the CO2 boundary inflow and to the different prior emissions (i.e., ODIAC). Preceding the surface emission optimization, we improved the atmospheric simulations using a meteorological data assimilation system also informing our Bayesian inversion system through updated observations error variances. Finally, we estimated the uncertainties associated with undetermined parameters using an ensemble of inversions. The total CO2 emissions based on the ensemble mean and quartiles (5.26-5.91 MtC) were statistically different compared to the prior total emissions (4.1 to 4.5 MtC). Considering the relatively small sensitivity to the different parameters, we conclude that atmospheric inversions are potentially able to constrain the carbon budget of the city, assuming sufficient data to measure the inflow of GHG over the city, but additional information on prior emission error structures are required to determine the spatial structures of urban emissions at high resolution.",
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Lauvaux, TCY, Miles, NL, Deng, A, Richardson, SJ, Cambaliza, MO, Davis, KJ, Gaudet, B, Gurney, KR, Huang, J, O’Keefe, D, Song, Y, Karion, A, Oda, T, Patarasuk, R, Razlivanov, I, Sarmiento, D, Shepson, P, Sweeney, C, Turnbull, J & Wu, K 2016, 'High-resolution atmospheric inversion of urban CO2 emissions during the dormant season of the Indianapolis flux experiment (INFLUX)', Journal of Geophysical Research, vol. 121, no. 10, pp. 5213-5236. https://doi.org/10.1002/2015JD024473

High-resolution atmospheric inversion of urban CO2 emissions during the dormant season of the Indianapolis flux experiment (INFLUX). / Lauvaux, Thomas Claude Yves; Miles, Natasha Lynn; Deng, Aijun; Richardson, Scott James; Cambaliza, Maria O.; Davis, Kenneth James; Gaudet, Brian; Gurney, Kevin R.; Huang, Jianhua; O’Keefe, Darragh; Song, Yang; Karion, Anna; Oda, Tomohiro; Patarasuk, Risa; Razlivanov, Igor; Sarmiento, Daniel; Shepson, Paul; Sweeney, Colm; Turnbull, Jocelyn; Wu, Kai.

In: Journal of Geophysical Research, Vol. 121, No. 10, 01.01.2016, p. 5213-5236.

Research output: Contribution to journalArticle

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T1 - High-resolution atmospheric inversion of urban CO2 emissions during the dormant season of the Indianapolis flux experiment (INFLUX)

AU - Lauvaux, Thomas Claude Yves

AU - Miles, Natasha Lynn

AU - Deng, Aijun

AU - Richardson, Scott James

AU - Cambaliza, Maria O.

AU - Davis, Kenneth James

AU - Gaudet, Brian

AU - Gurney, Kevin R.

AU - Huang, Jianhua

AU - O’Keefe, Darragh

AU - Song, Yang

AU - Karion, Anna

AU - Oda, Tomohiro

AU - Patarasuk, Risa

AU - Razlivanov, Igor

AU - Sarmiento, Daniel

AU - Shepson, Paul

AU - Sweeney, Colm

AU - Turnbull, Jocelyn

AU - Wu, Kai

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N2 - Based on a uniquely dense network of surface towers measuring continuously the atmospheric concentrations of greenhouse gases (GHGs), we developed the first comprehensive monitoring systems of CO2 emissions at high resolution over the city of Indianapolis. The urban inversion evaluated over the 2012-2013 dormant season showed a statistically significant increase of about 20% (from 4.5 to 5.7 MtC ± 0.23 MtC) compared to the Hestia CO2 emission estimate, a state-of-the-art building-level emission product. Spatial structures in prior emission errors, mostly undetermined, appeared to affect the spatial pattern in the inverse solution and the total carbon budget over the entire area by up to 15%, while the inverse solution remains fairly insensitive to the CO2 boundary inflow and to the different prior emissions (i.e., ODIAC). Preceding the surface emission optimization, we improved the atmospheric simulations using a meteorological data assimilation system also informing our Bayesian inversion system through updated observations error variances. Finally, we estimated the uncertainties associated with undetermined parameters using an ensemble of inversions. The total CO2 emissions based on the ensemble mean and quartiles (5.26-5.91 MtC) were statistically different compared to the prior total emissions (4.1 to 4.5 MtC). Considering the relatively small sensitivity to the different parameters, we conclude that atmospheric inversions are potentially able to constrain the carbon budget of the city, assuming sufficient data to measure the inflow of GHG over the city, but additional information on prior emission error structures are required to determine the spatial structures of urban emissions at high resolution.

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