| Literature DB >> 33026137 |
Ben Bond-Lamberty1, Danielle S Christianson2, Avni Malhotra3, Stephanie C Pennington1, Debjani Sihi4, Amir AghaKouchak5, Hassan Anjileli5, M Altaf Arain6, Juan J Armesto7,8, Samaneh Ashraf9, Mioko Ataka10, Dennis Baldocchi11, Thomas Andrew Black12, Nina Buchmann13, Mariah S Carbone14, Shih-Chieh Chang15, Patrick Crill16, Peter S Curtis17, Eric A Davidson18, Ankur R Desai19, John E Drake20, Tarek S El-Madany21, Michael Gavazzi22, Carolyn-Monika Görres23, Christopher M Gough24, Michael Goulden25, Jillian Gregg26, Omar Gutiérrez Del Arroyo11, Jin-Sheng He27, Takashi Hirano28, Anya Hopple29,30, Holly Hughes31, Järvi Järveoja32, Rachhpal Jassal12, Jinshi Jian1, Haiming Kan33, Jason Kaye34, Yuji Kominami35, Naishen Liang36, David Lipson37, Catriona A Macdonald38, Kadmiel Maseyk39, Kayla Mathes40, Marguerite Mauritz41, Melanie A Mayes4, Steve McNulty22, Guofang Miao42, Mirco Migliavacca21, Scott Miller43, Chelcy F Miniat44, Jennifer G Nietz17, Mats B Nilsson32, Asko Noormets45, Hamidreza Norouzi46, Christine S O'Connell11,47, Bruce Osborne48, Cecilio Oyonarte49, Zhuo Pang33, Matthias Peichl32, Elise Pendall38, Jorge F Perez-Quezada50,51, Claire L Phillips52, Richard P Phillips53, James W Raich54, Alexandre A Renchon38, Nadine K Ruehr55, Enrique P Sánchez-Cañete56, Matthew Saunders57, Kathleen E Savage58, Marion Schrumpf21, Russell L Scott59, Ulli Seibt60, Whendee L Silver11, Wu Sun61, Daphne Szutu11, Kentaro Takagi62, Masahiro Takagi63, Munemasa Teramoto36, Mark G Tjoelker38, Susan Trumbore21, Masahito Ueyama64, Rodrigo Vargas65, Ruth K Varner66, Joseph Verfaillie11, Christoph Vogel67, Jinsong Wang68, Greg Winston69, Tana E Wood70, Juying Wu33, Thomas Wutzler21, Jiye Zeng36, Tianshan Zha71, Quan Zhang72, Junliang Zou33.
Abstract
Globally, soils store two to three times as much carbon as currently resides in the atmosphere, and it is critical to understand how soil greenhouse gas (GHG) emissions and uptake will respond to ongoing climate change. In particular, the soil-to-atmosphere CO2 flux, commonly though imprecisely termed soil respiration (RS ), is one of the largest carbon fluxes in the Earth system. An increasing number of high-frequency RS measurements (typically, from an automated system with hourly sampling) have been made over the last two decades; an increasing number of methane measurements are being made with such systems as well. Such high frequency data are an invaluable resource for understanding GHG fluxes, but lack a central database or repository. Here we describe the lightweight, open-source COSORE (COntinuous SOil REspiration) database and software, that focuses on automated, continuous and long-term GHG flux datasets, and is intended to serve as a community resource for earth sciences, climate change syntheses and model evaluation. Contributed datasets are mapped to a single, consistent standard, with metadata on contributors, geographic location, measurement conditions and ancillary data. The design emphasizes the importance of reproducibility, scientific transparency and open access to data. While being oriented towards continuously measured RS , the database design accommodates other soil-atmosphere measurements (e.g. ecosystem respiration, chamber-measured net ecosystem exchange, methane fluxes) as well as experimental treatments (heterotrophic only, etc.). We give brief examples of the types of analyses possible using this new community resource and describe its accompanying R software package.Entities:
Keywords: carbon dioxide; greenhouse gases; methane; open data; open science; soil respiration
Year: 2020 PMID: 33026137 PMCID: PMC7756728 DOI: 10.1111/gcb.15353
Source DB: PubMed Journal: Glob Chang Biol ISSN: 1354-1013 Impact factor: 10.863