Search

Your search keyword '"Ciais, Philippe"' showing total 5,193 results
Start Over Author "Ciais, Philippe"
5,193 results on '"Ciais, Philippe"'

204. More than Just a Word : Defining “Consistency” in Earth System Monitoring

Author

Popp, Thomas, Hegglin, Michaela I., Hollmann, Rainer, Ardhuin, Fabrice, Bartsch, Annett, Bastos, Ana, Bennett, Victoria, Boutin, Jacqueline, Brockmann, Carsten, Buchwitz, Michael, Chuvieco, Emilio, Ciais, Philippe, Dorigo, Wouter, Ghent, Darren, Jones, Richard, Lavergne, Thomas, Merchant, Christopher J., Meyssignac, Benoit, Paul, Frank, Quegan, Shaun, Sathyendranath, Shubha, Scanlon, Tracy, Schröder, Marc, Simis, Stefan G. H., and Willén, Ulrika

Published
2021

205. Integrating the evidence for a terrestrial carbon sink caused by increasing atmospheric CO₂

Author

Walker, Anthony P., De Kauwe, Martin G., Bastos, Ana, Belmecheri, Soumaya, Georgiou, Katerina, Keeling, Ralph F., McMahon, Sean M., Medlyn, Belinda E., Moore, David J. P., Norby, Richard J., Zaehle, Sonke, Anderson-Teixeira, Kristina J., Battipaglia, Giovanna, Brienen, Roel J. W., Cabugao, Kristine G., Cailleret, Maxime, Campbell, Elliott, Canadell, Josep G., Ciais, Philippe, Craig, Matthew E., Ellsworth, David S., Farquhar, Graham D., Fatichi, Simone, Fisher, Joshua B., Frank, David C., Graven, Heather, Gu, Lianhong, Haverd, Vanessa, Heilman, Kelly, Heimann, Martin, Hungate, Bruce A., Iversen, Colleen M., Joos, Fortunat, Jiang, Mingkai, Keenan, Trevor F., Knauer, Jurgen, Korner, Christian, Leshyk, Victor O., Leuzinger, Sebastian, Liu, Yao, MacBean, Natasha, Malhi, Yadvinder, McVicar, Tim R., Penuelas, Josep, Pongratz, Julia, Powell, A. Shafer, Riutta, Terhi, Sabot, Manon E. B., Schleucher, Juergen, Sitch, Stephen, Smith, William K., Sulman, Benjamin, Taylor, Benton, Terrer, Cesar, Torn, Margaret S., Treseder, Kathleen K., Trugman, Anna T., Trumbore, Susan E., van Mantgem, Phillip J., Voelker, Steve L., Whelan, Mary E., and Zuidema, Pieter A.

Published
2021

206. Doubling of annual forest carbon loss over the tropics during the early twenty-first century

Author

Feng, Yu, Zeng, Zhenzhong, Searchinger, Timothy D., Ziegler, Alan D., Wu, Jie, Wang, Dashan, He, Xinyue, Elsen, Paul R., Ciais, Philippe, Xu, Rongrong, Guo, Zhilin, Peng, Liqing, Tao, Yiheng, Spracklen, Dominick V., Holden, Joseph, Liu, Xiaoping, Zheng, Yi, Xu, Peng, Chen, Ji, Jiang, Xin, Song, Xiao-Peng, Lakshmi, Venkataraman, Wood, Eric F., and Zheng, Chunmiao

Published
2022
Full Text
View/download PDF

211. China and India lead in greening of the world through land-use management

Author

Chen, Chi, Park, Taejin, Wang, Xuhui, Piao, Shilong, Xu, Baodong, Chaturvedi, Rajiv K, Fuchs, Richard, Brovkin, Victor, Ciais, Philippe, Fensholt, Rasmus, Tømmervik, Hans, Bala, Govindasamy, Zhu, Zaichun, Nemani, Ramakrishna R, and Myneni, Ranga B

Subjects
Life on Land
Abstract

Satellite data show increasing leaf area of vegetation due to direct (human land-use management) and indirect factors (climate change, CO2 fertilization, nitrogen deposition, recovery from natural disturbances, etc.). Among these, climate change and CO2 fertilization effect seem to be the dominant drivers. However, recent satellite data (2000-2017) reveal a greening pattern that is strikingly prominent in China and India, and overlapping with croplands world-wide. China alone accounts for 25% of the global net increase in leaf area with only 6.6% of global vegetated area. The greening in China is from forests (42%) and croplands (32%), but in India is mostly from croplands (82%) with minor contribution from forests (4.4%). China is engineering ambitious programs to conserve and expand forests with the goal of mitigating land degradation, air pollution and climate change. Food production in China and India has increased by over 35% since 2000 mostly due to increasing harvested area through multiple cropping facilitated by fertilizer use and surface/ground-water irrigation. Our results indicate that the direct factor is a key driver of the "Greening Earth", accounting for over a third, and likely more, of the observed net increase in green leaf area. They highlight the need for realistic representation of human land-use practices in Earth system models.

Published
2019

212. Impact of the 2015/2016 El Niño on the terrestrial carbon cycle constrained by bottom-up and top-down approaches

Author

Bastos, Ana, Friedlingstein, Pierre, Sitch, Stephen, Chen, Chi, Mialon, Arnaud, Wigneron, Jean-Pierre, Arora, Vivek K, Briggs, Peter R, Canadell, Josep G, Ciais, Philippe, Chevallier, Frédéric, Cheng, Lei, Delire, Christine, Haverd, Vanessa, Jain, Atul K, Joos, Fortunat, Kato, Etsushi, Lienert, Sebastian, Lombardozzi, Danica, Melton, Joe R, Myneni, Ranga, Nabel, Julia EMS, Pongratz, Julia, Poulter, Benjamin, Rödenbeck, Christian, Séférian, Roland, Tian, Hanqin, van Eck, Christel, Viovy, Nicolas, Vuichard, Nicolas, Walker, Anthony P, Wiltshire, Andy, Yang, Jia, Zaehle, Sönke, Zeng, Ning, and Zhu, Dan

Subjects
Climate Action, Atmosphere, Carbon Cycle, Carbon Sequestration, Ecosystem, El Nino-Southern Oscillation, Models, Theoretical, carbon cycle, El Nino/Southern Oscillation, land-surface models, atmospheric inversions, El Niño/Southern Oscillation, Biological Sciences, Medical and Health Sciences, Evolutionary Biology
Abstract

Evaluating the response of the land carbon sink to the anomalies in temperature and drought imposed by El Niño events provides insights into the present-day carbon cycle and its climate-driven variability. It is also a necessary step to build confidence in terrestrial ecosystems models' response to the warming and drying stresses expected in the future over many continents, and particularly in the tropics. Here we present an in-depth analysis of the response of the terrestrial carbon cycle to the 2015/2016 El Niño that imposed extreme warming and dry conditions in the tropics and other sensitive regions. First, we provide a synthesis of the spatio-temporal evolution of anomalies in net land-atmosphere CO2 fluxes estimated by two in situ measurements based on atmospheric inversions and 16 land-surface models (LSMs) from TRENDYv6. Simulated changes in ecosystem productivity, decomposition rates and fire emissions are also investigated. Inversions and LSMs generally agree on the decrease and subsequent recovery of the land sink in response to the onset, peak and demise of El Niño conditions and point to the decreased strength of the land carbon sink: by 0.4-0.7 PgC yr-1 (inversions) and by 1.0 PgC yr-1 (LSMs) during 2015/2016. LSM simulations indicate that a decrease in productivity, rather than increase in respiration, dominated the net biome productivity anomalies in response to ENSO throughout the tropics, mainly associated with prolonged drought conditions.This article is part of a discussion meeting issue 'The impact of the 2015/2016 El Niño on the terrestrial tropical carbon cycle: patterns, mechanisms and implications'.

Published
2018

213. Land-use emissions play a critical role in land-based mitigation for Paris climate targets.

Author

Harper, Anna B, Powell, Tom, Cox, Peter M, House, Joanna, Huntingford, Chris, Lenton, Timothy M, Sitch, Stephen, Burke, Eleanor, Chadburn, Sarah E, Collins, William J, Comyn-Platt, Edward, Daioglou, Vassilis, Doelman, Jonathan C, Hayman, Garry, Robertson, Eddy, van Vuuren, Detlef, Wiltshire, Andy, Webber, Christopher P, Bastos, Ana, Boysen, Lena, Ciais, Philippe, Devaraju, Narayanappa, Jain, Atul K, Krause, Andreas, Poulter, Ben, and Shu, Shijie

Abstract

Scenarios that limit global warming to below 2 °C by 2100 assume significant land-use change to support large-scale carbon dioxide (CO2) removal from the atmosphere by afforestation/reforestation, avoided deforestation, and Biomass Energy with Carbon Capture and Storage (BECCS). The more ambitious mitigation scenarios require even greater land area for mitigation and/or earlier adoption of CO2 removal strategies. Here we show that additional land-use change to meet a 1.5 °C climate change target could result in net losses of carbon from the land. The effectiveness of BECCS strongly depends on several assumptions related to the choice of biomass, the fate of initial above ground biomass, and the fossil-fuel emissions offset in the energy system. Depending on these factors, carbon removed from the atmosphere through BECCS could easily be offset by losses due to land-use change. If BECCS involves replacing high-carbon content ecosystems with crops, then forest-based mitigation could be more efficient for atmospheric CO2 removal than BECCS.

Published
2018

214. ORCHIMIC (v1.0), a microbe-mediated model for soil organic matter decomposition

Author

Huang, Ye, Guenet, Bertrand, Ciais, Philippe, Janssens, Ivan A, Soong, Jennifer L, Wang, Yilong, Goll, Daniel, Blagodatskaya, Evgenia, and Huang, Yuanyuan

Subjects
Climate Action, Earth Sciences
Abstract

The role of soil microorganisms in regulating soil organic matter (SOM) decomposition is of primary importance in the carbon cycle, in particular in the context of global change. Modeling soil microbial community dynamics to simulate its impact on soil gaseous carbon (C) emissions and nitrogen (N) mineralization at large spatial scales is a recent research field with the potential to improve predictions of SOM responses to global climate change. In this study we present a SOM model called ORCHIMIC, which utilizes input data that are consistent with those of global vegetation models. ORCHIMIC simulates the decomposition of SOM by explicitly accounting for enzyme production and distinguishing three different microbial functional groups: Fresh organic matter (FOM) specialists, SOM specialists, and generalists, while also implicitly accounting for microbes that do not produce extracellular enzymes, i.e., cheaters. ORCHIMIC and two other organic matter decomposition models, CENTURY (based on first-order kinetics and representative of the structure of most current global soil carbon models) and PRIM (with FOM accelerating the decomposition rate of SOM), were calibrated to reproduce the observed respiration fluxes of FOM and SOM from the incubation experiments of Blagodatskaya et al. (2014). Among the three models, ORCHIMIC was the only one that effectively captured both the temporal dynamics of the respiratory fluxes and the magnitude of the priming effect observed during the incubation experiment. ORCHIMIC also effectively reproduced the temporal dynamics of microbial biomass. We then applied different idealized changes to the model input data, i.e., a 5K stepwise increase of temperature and/or a doubling of plant litter inputs. Under 5K warming conditions, ORCHIMIC predicted a 0.002K-1 decrease in the C use efficiency (defined as the ratio of C allocated to microbial growth to the sum of C allocated to growth and respiration) and a 3% loss of SOC. Under the double litter input scenario, ORCHIMIC predicted a doubling of microbial biomass, while SOC stock increased by less than 1% due to the priming effect. This limited increase in SOC stock contrasted with the proportional increase in SOC stock as modeled by the conventional SOC decomposition model (CENTURY), which can not reproduce the priming effect. If temperature increased by 5K and litter input was doubled, ORCHIMIC predicted almost the same loss of SOC as when only temperature was increased. These tests suggest that the responses of SOC stock to warming and increasing input may differ considerably from those simulated by conventional SOC decomposition models when microbial dynamics are included. The next step is to incorporate the ORCHIMIC model into a global vegetation model to perform simulations for representative sites and future scenarios.

Published
2018

215. Impact of priming on global soil carbon stocks.

Author

Guenet, Bertrand, Camino-Serrano, Marta, Ciais, Philippe, Tifafi, Marwa, Maignan, Fabienne, Soong, Jennifer L, and Janssens, Ivan A

Subjects
Carbon Dioxide, Carbon, Soil, Climate Change, Carbon Cycle, Carbon Sequestration, Earth, Planet, RCP scenario, carbon cycle, climate change, land surface model, priming, Environmental Sciences, Biological Sciences, Ecology
Abstract

Fresh carbon input (above and belowground) contributes to soil carbon sequestration, but also accelerates decomposition of soil organic matter through biological priming mechanisms. Currently, poor understanding precludes the incorporation of these priming mechanisms into the global carbon models used for future projections. Here, we show that priming can be incorporated based on a simple equation calibrated from incubation and verified against independent litter manipulation experiments in the global land surface model, ORCHIDEE. When incorporated into ORCHIDEE, priming improved the model's representation of global soil carbon stocks and decreased soil carbon sequestration by 51% (12 ± 3 Pg C) during the period 1901-2010. Future projections with the same model across the range of CO2 and climate changes defined by the IPCC-RCP scenarios reveal that priming buffers the projected changes in soil carbon stocks - both the increases due to enhanced productivity and new input to the soil, and the decreases due to warming-induced accelerated decomposition. Including priming in Earth system models leads to different projections of soil carbon changes, which are challenging to verify at large spatial scales.

Published
2018

216. Dependence of the evolution of carbon dynamics in the northern permafrost region on the trajectory of climate change

Author

McGuire, A David, Lawrence, David M, Koven, Charles, Clein, Joy S, Burke, Eleanor, Chen, Guangsheng, Jafarov, Elchin, MacDougall, Andrew H, Marchenko, Sergey, Nicolsky, Dmitry, Peng, Shushi, Rinke, Annette, Ciais, Philippe, Gouttevin, Isabelle, Hayes, Daniel J, Ji, Duoying, Krinner, Gerhard, Moore, John C, Romanovsky, Vladimir, Schädel, Christina, Schaefer, Kevin, Schuur, Edward AG, and Zhuang, Qianlai

Subjects
Agricultural, Veterinary and Food Sciences, Environmental Sciences, Forestry Sciences, Climate Action, climate system, permafrost dynamics, carbon dynamics, permafrost carbon-climate feedback, soil carbon, permafrost carbon–climate feedback
Abstract

We conducted a model-based assessment of changes in permafrost area and carbon storage for simulations driven by RCP4.5 and RCP8.5 projections between 2010 and 2299 for the northern permafrost region. All models simulating carbon represented soil with depth, a critical structural feature needed to represent the permafrost carbon-climate feedback, but that is not a universal feature of all climate models. Between 2010 and 2299, simulations indicated losses of permafrost between 3 and 5 million km2 for the RCP4.5 climate and between 6 and 16 million km2 for the RCP8.5 climate. For the RCP4.5 projection, cumulative change in soil carbon varied between 66-Pg C (1015-g carbon) loss to 70-Pg C gain. For the RCP8.5 projection, losses in soil carbon varied between 74 and 652 Pg C (mean loss, 341 Pg C). For the RCP4.5 projection, gains in vegetation carbon were largely responsible for the overall projected net gains in ecosystem carbon by 2299 (8- to 244-Pg C gains). In contrast, for the RCP8.5 projection, gains in vegetation carbon were not great enough to compensate for the losses of carbon projected by four of the five models; changes in ecosystem carbon ranged from a 641-Pg C loss to a 167-Pg C gain (mean, 208-Pg C loss). The models indicate that substantial net losses of ecosystem carbon would not occur until after 2100. This assessment suggests that effective mitigation efforts during the remainder of this century could attenuate the negative consequences of the permafrost carbon-climate feedback.

Published
2018

217. A strong mitigation scenario maintains climate neutrality of northern peatlands

Author

Qiu, Chunjing, Ciais, Philippe, Zhu, Dan, Guenet, Bertrand, Chang, Jinfeng, Chaudhary, Nitin, Kleinen, Thomas, Li, XinYu, Müller, Jurek, Xi, Yi, Zhang, Wenxin, Ballantyne, Ashley, Brewer, Simon C., Brovkin, Victor, Charman, Dan J., Gustafson, Adrian, Gallego-Sala, Angela V., Gasser, Thomas, Holden, Joseph, Joos, Fortunat, Kwon, Min Jung, Lauerwald, Ronny, Miller, Paul A., Peng, Shushi, Page, Susan, Smith, Benjamin, Stocker, Benjamin D., Sannel, A. Britta K., Salmon, Elodie, Schurgers, Guy, Shurpali, Narasinha J., Wårlind, David, and Westermann, Sebastian

Published
2022
Full Text
View/download PDF

224. On the use of Earth Observation to support estimates of national greenhouse gas emissions and sinks for the Global stocktake process: lessons learned from ESA-CCI RECCAP2

Author

Bastos, Ana, Ciais, Philippe, Sitch, Stephen, Aragão, Luiz E. O. C., Chevallier, Frédéric, Fawcett, Dominic, Rosan, Thais M., Saunois, Marielle, Günther, Dirk, Perugini, Lucia, Robert, Colas, Deng, Zhu, Pongratz, Julia, Ganzenmüller, Raphael, Fuchs, Richard, Winkler, Karina, Zaehle, Sönke, and Albergel, Clément

Published
2022
Full Text
View/download PDF

226. Indicate separate contributions of long-lived and short-lived greenhouse gases in emission targets

Author

Allen, Myles R., Peters, Glen P., Shine, Keith P., Azar, Christian, Balcombe, Paul, Boucher, Olivier, Cain, Michelle, Ciais, Philippe, Collins, William, Forster, Piers M., Frame, Dave J., Friedlingstein, Pierre, Fyson, Claire, Gasser, Thomas, Hare, Bill, Jenkins, Stuart, Hamburg, Steven P., Johansson, Daniel J. A., Lynch, John, Macey, Adrian, Morfeldt, Johannes, Nauels, Alexander, Ocko, Ilissa, Oppenheimer, Michael, Pacala, Stephen W., Pierrehumbert, Raymond, Rogelj, Joeri, Schaeffer, Michiel, Schleussner, Carl F., Shindell, Drew, Skeie, Ragnhild B., Smith, Stephen M., and Tanaka, Katsumasa

Published
2022
Full Text
View/download PDF

229. Retention of deposited ammonium and nitrate and its impact on the global forest carbon sink

Author

Gurmesa, Geshere Abdisa, Wang, Ang, Li, Shanlong, Peng, Shushi, de Vries, Wim, Gundersen, Per, Ciais, Philippe, Phillips, Oliver L., Hobbie, Erik A., Zhu, Weixing, Nadelhoffer, Knute, Xi, Yi, Bai, Edith, Sun, Tao, Chen, Dexiang, Zhou, Wenjun, Zhang, Yiping, Guo, Yingrong, Zhu, Jiaojun, Duan, Lei, Li, Dejun, Koba, Keisuke, Du, Enzai, Zhou, Guoyi, Han, Xingguo, Han, Shijie, and Fang, Yunting

Published
2022
Full Text
View/download PDF

236. Global nitrous oxide budget (1980–2020)

Author

Tian, Hanqin, primary, Pan, Naiqing, additional, Thompson, Rona L., additional, Canadell, Josep G., additional, Suntharalingam, Parvadha, additional, Regnier, Pierre, additional, Davidson, Eric A., additional, Prather, Michael, additional, Ciais, Philippe, additional, Muntean, Marilena, additional, Pan, Shufen, additional, Winiwarter, Wilfried, additional, Zaehle, Sönke, additional, Zhou, Feng, additional, Jackson, Robert B., additional, Bange, Hermann W., additional, Berthet, Sarah, additional, Bian, Zihao, additional, Bianchi, Daniele, additional, Bouwman, Alexander F., additional, Buitenhuis, Erik T., additional, Dutton, Geoffrey, additional, Hu, Minpeng, additional, Ito, Akihiko, additional, Jain, Atul K., additional, Jeltsch-Thömmes, Aurich, additional, Joos, Fortunat, additional, Kou-Giesbrecht, Sian, additional, Krummel, Paul B., additional, Lan, Xin, additional, Landolfi, Angela, additional, Lauerwald, Ronny, additional, Li, Ya, additional, Lu, Chaoqun, additional, Maavara, Taylor, additional, Manizza, Manfredi, additional, Millet, Dylan B., additional, Mühle, Jens, additional, Patra, Prabir K., additional, Peters, Glen P., additional, Qin, Xiaoyu, additional, Raymond, Peter, additional, Resplandy, Laure, additional, Rosentreter, Judith A., additional, Shi, Hao, additional, Sun, Qing, additional, Tonina, Daniele, additional, Tubiello, Francesco N., additional, van der Werf, Guido R., additional, Vuichard, Nicolas, additional, Wang, Junjie, additional, Wells, Kelley C., additional, Western, Luke M., additional, Wilson, Chris, additional, Yang, Jia, additional, Yao, Yuanzhi, additional, You, Yongfa, additional, and Zhu, Qing, additional

Published
2024
Full Text
View/download PDF

237. Ensemble estimates of global wetland methane emissions over 2000–2020

Author

Zhang, Zhen, primary, Poulter, Benjamin, additional, Melton, Joe R., additional, Riley, William J., additional, Allen, George H., additional, Beerling, David J., additional, Bousquet, Philippe, additional, Canadell, Josep G., additional, Fluet-Chouinard, Etienne, additional, Ciais, Philippe, additional, Gedney, Nicola, additional, Hopcroft, Peter O., additional, Ito, Akihiko, additional, Jackson, Robert B., additional, Jain, Atul K., additional, Jensen, Katherine, additional, Joos, Fortunat, additional, Kleinen, Thomas, additional, Knox, Sara, additional, Li, Tingting, additional, Li, Xin, additional, Liu, Xiangyu, additional, McDonald, Kyle, additional, McNicol, Gavin, additional, Miller, Paul A., additional, Müller, Jurek, additional, Patra, Prabir K., additional, Peng, Changhui, additional, Peng, Shushi, additional, Qin, Zhangcai, additional, Riggs, Ryan M., additional, Saunois, Marielle, additional, Sun, Qing, additional, Tian, Hanqin, additional, Xu, Xiaoming, additional, Yao, Yuanzhi, additional, Yi, Xi, additional, Zhang, Wenxin, additional, Zhu, Qing, additional, Zhu, Qiuan, additional, and Zhuang, Qianlai, additional

Published
2024
Full Text
View/download PDF

238. Supplementary material to "Ensemble estimates of global wetland methane emissions over 2000–2020"

Author

Zhang, Zhen, primary, Poulter, Benjamin, additional, Melton, Joe R., additional, Riley, William J., additional, Allen, George H., additional, Beerling, David J., additional, Bousquet, Philippe, additional, Canadell, Josep G., additional, Fluet-Chouinard, Etienne, additional, Ciais, Philippe, additional, Gedney, Nicola, additional, Hopcroft, Peter O., additional, Ito, Akihiko, additional, Jackson, Robert B., additional, Jain, Atul K., additional, Jensen, Katherine, additional, Joos, Fortunat, additional, Kleinen, Thomas, additional, Knox, Sara, additional, Li, Tingting, additional, Li, Xin, additional, Liu, Xiangyu, additional, McDonald, Kyle, additional, McNicol, Gavin, additional, Miller, Paul A., additional, Müller, Jurek, additional, Patra, Prabir K., additional, Peng, Changhui, additional, Peng, Shushi, additional, Qin, Zhangcai, additional, Riggs, Ryan M., additional, Saunois, Marielle, additional, Sun, Qing, additional, Tian, Hanqin, additional, Xu, Xiaoming, additional, Yao, Yuanzhi, additional, Yi, Xi, additional, Zhang, Wenxin, additional, Zhu, Qing, additional, Zhu, Qiuan, additional, and Zhuang, Qianlai, additional

Published
2024
Full Text
View/download PDF

239. Supplementary material to "Global Methane Budget 2000–2020"

Author

Saunois, Marielle, primary, Martinez, Adrien, additional, Poulter, Benjamin, additional, Zhang, Zhen, additional, Raymond, Peter, additional, Regnier, Pierre, additional, Canadell, Joseph G., additional, Jackson, Robert B., additional, Patra, Prabir K., additional, Bousquet, Philippe, additional, Ciais, Philippe, additional, Dlugokencky, Edward J., additional, Lan, Xin, additional, Allen, George H., additional, Bastviken, David, additional, Beerling, David J., additional, Belikov, Dmitry A., additional, Blake, Donald R., additional, Castaldi, Simona, additional, Crippa, Monica, additional, Deemer, Bridget R., additional, Dennison, Fraser, additional, Etiope, Giuseppe, additional, Gedney, Nicola, additional, Höglund-Isaksson, Lena, additional, Holgerson, Meredith A., additional, Hopcroft, Peter O., additional, Hugelius, Gustaf, additional, Ito, Akihito, additional, Jain, Atul K., additional, Janardanan, Rajesh, additional, Johnson, Matthew S., additional, Kleinen, Thomas, additional, Krummel, Paul, additional, Lauerwald, Ronny, additional, Li, Tingting, additional, Liu, Xiangyu, additional, McDonald, Kyle C., additional, Melton, Joe R., additional, Mühle, Jens, additional, Müller, Jurek, additional, Murguia-Flores, Fabiola, additional, Niwa, Yosuke, additional, Noce, Sergio, additional, Pan, Shufen, additional, Parker, Robert J., additional, Peng, Changhui, additional, Ramonet, Michel, additional, Riley, William J., additional, Rocher-Ros, Gerard, additional, Rosentreter, Judith A., additional, Sasakawa, Motoki, additional, Segers, Arjo, additional, Smith, Steven J., additional, Stanley, Emily H., additional, Thanwerdas, Joel, additional, Tian, Hanquin, additional, Tsuruta, Aki, additional, Tubiello, Francesco N., additional, Weber, Thomas S., additional, van der Werf, Guido, additional, Worthy, Doug E., additional, Xi, Yi, additional, Yoshida, Yukio, additional, Zhang, Wenxin, additional, Zheng, Bo, additional, Zhu, Qing, additional, Zhu, Qiuan, additional, and Zhuang, Qianlai, additional

Published
2024
Full Text
View/download PDF

240. Global Methane Budget 2000–2020

Author

Saunois, Marielle, primary, Martinez, Adrien, additional, Poulter, Benjamin, additional, Zhang, Zhen, additional, Raymond, Peter, additional, Regnier, Pierre, additional, Canadell, Joseph G., additional, Jackson, Robert B., additional, Patra, Prabir K., additional, Bousquet, Philippe, additional, Ciais, Philippe, additional, Dlugokencky, Edward J., additional, Lan, Xin, additional, Allen, George H., additional, Bastviken, David, additional, Beerling, David J., additional, Belikov, Dmitry A., additional, Blake, Donald R., additional, Castaldi, Simona, additional, Crippa, Monica, additional, Deemer, Bridget R., additional, Dennison, Fraser, additional, Etiope, Giuseppe, additional, Gedney, Nicola, additional, Höglund-Isaksson, Lena, additional, Holgerson, Meredith A., additional, Hopcroft, Peter O., additional, Hugelius, Gustaf, additional, Ito, Akihito, additional, Jain, Atul K., additional, Janardanan, Rajesh, additional, Johnson, Matthew S., additional, Kleinen, Thomas, additional, Krummel, Paul, additional, Lauerwald, Ronny, additional, Li, Tingting, additional, Liu, Xiangyu, additional, McDonald, Kyle C., additional, Melton, Joe R., additional, Mühle, Jens, additional, Müller, Jurek, additional, Murguia-Flores, Fabiola, additional, Niwa, Yosuke, additional, Noce, Sergio, additional, Pan, Shufen, additional, Parker, Robert J., additional, Peng, Changhui, additional, Ramonet, Michel, additional, Riley, William J., additional, Rocher-Ros, Gerard, additional, Rosentreter, Judith A., additional, Sasakawa, Motoki, additional, Segers, Arjo, additional, Smith, Steven J., additional, Stanley, Emily H., additional, Thanwerdas, Joel, additional, Tian, Hanquin, additional, Tsuruta, Aki, additional, Tubiello, Francesco N., additional, Weber, Thomas S., additional, van der Werf, Guido, additional, Worthy, Doug E., additional, Xi, Yi, additional, Yoshida, Yukio, additional, Zhang, Wenxin, additional, Zheng, Bo, additional, Zhu, Qing, additional, Zhu, Qiuan, additional, and Zhuang, Qianlai, additional

Published
2024
Full Text
View/download PDF

241. Remote sensing-based high-resolution mapping of the forest canopy height: some models are useful, but might they be even more if combined?

Author

Besic, Nikola, primary, Picard, Nicolas, additional, Vega, Cédric, additional, Hertzog, Lionel, additional, Renaud, Jean-Pierre, additional, Fogel, Fajwel, additional, Pellissier-Tanon, Agnès, additional, Destouet, Gabriel, additional, Planells-Rodriguez, Milena, additional, and Ciais, Philippe, additional

Published
2024
Full Text
View/download PDF

244. How much carbon can be added to soil by sorption?

Author

Abramoff, Rose Z., Georgiou, Katerina, Guenet, Bertrand, Torn, Margaret S., Huang, Yuanyuan, Zhang, Haicheng, Feng, Wenting, Jagadamma, Sindhu, Kaiser, Klaus, Kothawala, Dolly, Mayes, Melanie A., and Ciais, Philippe

Published
2021

248. Consistency of Satellite Climate Data Records for Earth System Monitoring

Author

Popp, Thomas, Hegglin, Michaela I., Hollmann, Rainer, Ardhuin, Fabrice, Bartsch, Annett, Bastos, Ana, Bennett, Victoria, Boutin, Jacqueline, Brockmann, Carsten, Buchwitz, Michael, Chuvieco, Emilio, Ciais, Philippe, Dorigo, Wouter, Ghent, Darren, Jones, Richard, Lavergne, Thomas, Merchant, Christopher J., Meyssignac, Benoit, Paul, Frank, Quegan, Shaun, Sathyendranath, Shubha, Scanlon, Tracy, Schröder, Marc, Simis, Stefan G. H., and Willén, Ulrika

Published
2020

249. Sensitivity of gross primary productivity to climatic drivers during the summer drought of 2018 in Europe

Author

Fu, Zheng, Ciais, Philippe, Bastos, Ana, Stoy, Paul C., Yang, Hui, Green, Julia K., Wang, Bingxue, Yu, Kailiang, Huang, Yuanyuan, Knohl, Alexander, Šigut, Ladislav, Gharun, Mana, Cuntz, Matthias, Arriga, Nicola, Roland, Marilyn, Peichl, Matthias, Migliavacca, Mirco, Cremonese, Edoardo, Varlagin, Andrej, Brümmer, Christian, de la Motte, Louis Gourlez, Fares, Silvano, Buchmann, Nina, El-Madany, Tarek S., Pitacco, Andrea, Vendrame, Nadia, Li, Zhaolei, Vincke, Caroline, Magliulo, Enzo, and Koebsch, Franziska

Published
2020

Catalog

Books, media, physical & digital resources
See catalog results