Estimating the maximum rise in temperature according to climate models using abstract interpretation

Current climate models are complex computer programs that are typically iterated time-step by time-step to predict the next set of values of the climate-related variables. Since these iterative methods are necessarily computed only for a fixed number of iterations, they are unable to answer the natu...

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Main Authors: Revesz Peter Z., Woodward Robert J.
Format: Article
Language:English
Published: Sciendo 2019-08-01
Series:Acta Universitatis Sapientiae: Informatica
Subjects:
Online Access:https://doi.org/10.2478/ausi-2019-0001
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spelling doaj-bf420e4c2f8240daace7778d77ca5ff02021-09-06T19:41:25ZengSciendoActa Universitatis Sapientiae: Informatica2066-77602019-08-0111152310.2478/ausi-2019-0001ausi-2019-0001Estimating the maximum rise in temperature according to climate models using abstract interpretationRevesz Peter Z.0Woodward Robert J.1University of Nebraska–Lincoln, Department of Computer Science & Engineering, LincolnNE 68588-0115, USAUniversity of Nebraska–Lincoln, Department of Computer Science & Engineering, LincolnNE 68588-0115, USACurrent climate models are complex computer programs that are typically iterated time-step by time-step to predict the next set of values of the climate-related variables. Since these iterative methods are necessarily computed only for a fixed number of iterations, they are unable to answer the natural question whether there is a limit to the rise of global temperature. In order to answer that question we propose to combine climate models with software verification techniques that can find invariant conditions for the set of program variables. In particular, we apply the constraint database approach to software verification to find that the rise in global temperature is bounded according to the common Java Climate Model that implements the Wigley/Raper Upwelling-Diffusion Energy Balance Model climate model.https://doi.org/10.2478/ausi-2019-0001g.2.268r15constraint databasedatalogclimate modelinvariantmlpq systemsoftware verification
collection DOAJ
language English
format Article
sources DOAJ
author Revesz Peter Z.
Woodward Robert J.
spellingShingle Revesz Peter Z.
Woodward Robert J.
Estimating the maximum rise in temperature according to climate models using abstract interpretation
Acta Universitatis Sapientiae: Informatica
g.2.2
68r15
constraint database
datalog
climate model
invariant
mlpq system
software verification
author_facet Revesz Peter Z.
Woodward Robert J.
author_sort Revesz Peter Z.
title Estimating the maximum rise in temperature according to climate models using abstract interpretation
title_short Estimating the maximum rise in temperature according to climate models using abstract interpretation
title_full Estimating the maximum rise in temperature according to climate models using abstract interpretation
title_fullStr Estimating the maximum rise in temperature according to climate models using abstract interpretation
title_full_unstemmed Estimating the maximum rise in temperature according to climate models using abstract interpretation
title_sort estimating the maximum rise in temperature according to climate models using abstract interpretation
publisher Sciendo
series Acta Universitatis Sapientiae: Informatica
issn 2066-7760
publishDate 2019-08-01
description Current climate models are complex computer programs that are typically iterated time-step by time-step to predict the next set of values of the climate-related variables. Since these iterative methods are necessarily computed only for a fixed number of iterations, they are unable to answer the natural question whether there is a limit to the rise of global temperature. In order to answer that question we propose to combine climate models with software verification techniques that can find invariant conditions for the set of program variables. In particular, we apply the constraint database approach to software verification to find that the rise in global temperature is bounded according to the common Java Climate Model that implements the Wigley/Raper Upwelling-Diffusion Energy Balance Model climate model.
topic g.2.2
68r15
constraint database
datalog
climate model
invariant
mlpq system
software verification
url https://doi.org/10.2478/ausi-2019-0001
work_keys_str_mv AT reveszpeterz estimatingthemaximumriseintemperatureaccordingtoclimatemodelsusingabstractinterpretation
AT woodwardrobertj estimatingthemaximumriseintemperatureaccordingtoclimatemodelsusingabstractinterpretation
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