The University of Southampton
University of Southampton Institutional Repository

Global energy budgets and `Trenberth diagrams' for the climates of terrestrial and gas giant planets

Global energy budgets and `Trenberth diagrams' for the climates of terrestrial and gas giant planets
Global energy budgets and `Trenberth diagrams' for the climates of terrestrial and gas giant planets
The climate on Earth is generally determined by the amount and distribution of incoming solar radiation, which must be balanced in equilibrium by the emission of thermal radiation from the surface and atmosphere. The precise routes by which incoming energy is transferred from the surface and within the atmosphere and back out to space, however, are important features that characterize the current climate. This has been analyzed in the past by several groups over the years, based on combinations of numerical model simulations and direct observations of the Earth's climate system. The results are often presented in schematic form to show the main routes for the transfer of energy into, out of and within the climate system. Although relatively simple in concept, such diagrams convey a great deal of information about the climate system in a compact form. Such an approach has not so far been widely adopted in any systematic way for other planets of the Solar System, let alone beyond, although quite detailed climate models of several planets are now available, constrained by many new observations and measurements. Here we present an analysis of the global transfers of energy within the climate systems of a range of planets within the Solar System, including Mars, Titan, Venus and Jupiter, as modelled by relatively comprehensive radiative transfer and (in some cases) numerical circulation models. These results are presented in schematic form for comparison with the classical global energy budget analyses for the Earth, highlighting important similarities and differences. We also take the first steps towards extending this approach to other Solar System and extrasolar planets, including Mars, Venus, Titan, Jupiter and the ‘hot Jupiter’ exoplanet HD 189733b, presenting a synthesis of both previously published and new calculations for all of these planets.
0035-9009
703-720
Read, P.L.
20e91c6a-0b16-4ac1-9a91-bc0a67423d96
Barstow, J.
c121aaae-8e62-4cbc-bd05-9c3195b65b46
Charnay, B.
2d7b6e8a-9676-4cf0-bfb0-604098910b80
Chelvaniththilan, S.
3502b909-80b6-4ffe-b2cc-0944a9d3cb37
Irwin, P.G.J.
5430dfe2-a257-4c8e-b0d3-80162046f92f
Knight, S.
89c5fe6b-99fc-4d8e-9b5a-47e40f834281
Lebonnois, S.
1a1f9387-fb0c-411e-b729-16c5bf2ade62
Lewis, S.R.
9ddaa7f8-b5d7-4956-a21f-2fd0b4e908a5
Mendonça, J.
cb29fe08-eb94-4fad-8eba-eac1c5de491b
Montabone, L.
02deab1b-3943-445c-85bc-7f7326851454
Read, P.L.
20e91c6a-0b16-4ac1-9a91-bc0a67423d96
Barstow, J.
c121aaae-8e62-4cbc-bd05-9c3195b65b46
Charnay, B.
2d7b6e8a-9676-4cf0-bfb0-604098910b80
Chelvaniththilan, S.
3502b909-80b6-4ffe-b2cc-0944a9d3cb37
Irwin, P.G.J.
5430dfe2-a257-4c8e-b0d3-80162046f92f
Knight, S.
89c5fe6b-99fc-4d8e-9b5a-47e40f834281
Lebonnois, S.
1a1f9387-fb0c-411e-b729-16c5bf2ade62
Lewis, S.R.
9ddaa7f8-b5d7-4956-a21f-2fd0b4e908a5
Mendonça, J.
cb29fe08-eb94-4fad-8eba-eac1c5de491b
Montabone, L.
02deab1b-3943-445c-85bc-7f7326851454

Read, P.L., Barstow, J., Charnay, B., Chelvaniththilan, S., Irwin, P.G.J., Knight, S., Lebonnois, S., Lewis, S.R., Mendonça, J. and Montabone, L. (2016) Global energy budgets and `Trenberth diagrams' for the climates of terrestrial and gas giant planets. Quarterly Journal of the Royal Meteorological Society, 142 (695), 703-720. (doi:10.1002/qj.2704).

Record type: Article

Abstract

The climate on Earth is generally determined by the amount and distribution of incoming solar radiation, which must be balanced in equilibrium by the emission of thermal radiation from the surface and atmosphere. The precise routes by which incoming energy is transferred from the surface and within the atmosphere and back out to space, however, are important features that characterize the current climate. This has been analyzed in the past by several groups over the years, based on combinations of numerical model simulations and direct observations of the Earth's climate system. The results are often presented in schematic form to show the main routes for the transfer of energy into, out of and within the climate system. Although relatively simple in concept, such diagrams convey a great deal of information about the climate system in a compact form. Such an approach has not so far been widely adopted in any systematic way for other planets of the Solar System, let alone beyond, although quite detailed climate models of several planets are now available, constrained by many new observations and measurements. Here we present an analysis of the global transfers of energy within the climate systems of a range of planets within the Solar System, including Mars, Titan, Venus and Jupiter, as modelled by relatively comprehensive radiative transfer and (in some cases) numerical circulation models. These results are presented in schematic form for comparison with the classical global energy budget analyses for the Earth, highlighting important similarities and differences. We also take the first steps towards extending this approach to other Solar System and extrasolar planets, including Mars, Venus, Titan, Jupiter and the ‘hot Jupiter’ exoplanet HD 189733b, presenting a synthesis of both previously published and new calculations for all of these planets.

Text
Quart J Royal Meteoro Soc - 2015 - Read - Global energy budgets and Trenberth diagrams for the climates of terrestrial - Version of Record
Available under License Creative Commons Attribution.
Download (6MB)

More information

Accepted/In Press date: 3 November 2015
e-pub ahead of print date: 14 November 2015
Published date: 3 February 2016

Identifiers

Local EPrints ID: 496773
URI: http://eprints.soton.ac.uk/id/eprint/496773
ISSN: 0035-9009
PURE UUID: 78c620a9-64ce-4b5d-b65f-56863dc9d47c
ORCID for J. Mendonça: ORCID iD orcid.org/0000-0002-6907-4476

Catalogue record

Date deposited: 08 Jan 2025 05:21
Last modified: 22 Aug 2025 02:46

Export record

Altmetrics

Contributors

Author: P.L. Read
Author: J. Barstow
Author: B. Charnay
Author: S. Chelvaniththilan
Author: P.G.J. Irwin
Author: S. Knight
Author: S. Lebonnois
Author: S.R. Lewis
Author: J. Mendonça ORCID iD
Author: L. Montabone

Download statistics

Downloads from ePrints over the past year. Other digital versions may also be available to download e.g. from the publisher's website.

View more statistics

Atom RSS 1.0 RSS 2.0

Contact ePrints Soton: eprints@soton.ac.uk

ePrints Soton supports OAI 2.0 with a base URL of http://eprints.soton.ac.uk/cgi/oai2

This repository has been built using EPrints software, developed at the University of Southampton, but available to everyone to use.

We use cookies to ensure that we give you the best experience on our website. If you continue without changing your settings, we will assume that you are happy to receive cookies on the University of Southampton website.

×