The Expert Review of the First Order Draft of the Intergovernmental Panel on Climate Change (IPCC) Special Report on the Ocean and
Cryosphere in a Changing Climate (SROCC) will take place from 4 May until 29 June 2018.
GENEVA, August 17 — The Intergovernmental Panel on Climate Change (IPCC) has invited 101 experts from 41 countries to begin work on the Special Report on the Ocean and
Cryosphere in a Changing Climate (SROCC) as Coordinating Lead Authors, Lead Authors and Review Editors.
At its session in Guadalajara in March 2017, the IPCC considered the outlines of the Special Report on the Ocean and
Cryosphere in a Changing Climate, and Climate Change and Land: an IPCC special report on climate change, desertification, land degradation, sustainable land management, food security, and greenhouse gas fluxes in terrestrial ecosystems.
The Expert Review of the First Order Draft of the Special Report on the Ocean and
Cryosphere in a Changing Climate (SROCC) has started.
Authors and Review Editors Graphics and statistics (nominations) Outline: Special Report on the Ocean and
Cryosphere in a Changing Climate (SROCC) Timeline Report page
During its 45th Session (Guadalajara, Mexico, 28 - 31 March 2017), the Panel approved the outline of the Special Report on the Ocean and
Cryosphere in a Changing Climate to be finalized in September 2019.
Not exact matches
Bentley, C.R., Some aspects of the
cryosphere and its role
in climatic
change,
in Climate Processes and
Climate Sensitivity Geophysical Monograph 29, Maurice Ewing Vol.
This work is also funded
in part by the National Science Foundation, the Carlsberg Foundation and the Centre of Excellence
Cryosphere - Atmosphere Interactions
in a
Changing Arctic
Climate (CRAICC) funded by NordForsk.
While it is often occurring
in remote regions, ongoing
change with the
cryosphere has impacts on people all around the world: sea level rise affects coastlines globally, billions of people rely on water from snowpack, and the diminishing sea ice that covers the Arctic Ocean plays a significant role
in Earth's
climate and weather patterns.
We used subfossil mosses and peats to document
changes in regional
climate,
cryosphere, and terrestrial ecosystems
in the western Antarctic Peninsula at ~ 65S latitude.
The class of hypothetical
climate shifts to which I allude involve fundamental
changes in the frequency and amplitude of known oscillatory behavio (u) r of the atmosphere - ocean -
cryosphere system and the potential emergence of new oscillatory behaviors.
Glaciers
in South America's Andes mountain range are receding at unprecedented rates as a result of
climate change, according to a recent study published
in the science journal
Cryosphere.
AMAP, 2011: Snow, Water, Ice and Permafrost
in the Arctic (SWIPA):
Climate Change and the
Cryosphere.
In both polar regions, components of the terrestrial
cryosphere and hydrology are increasingly being affected by
climate change (very high confidence).
The
cryosphere derives its importance to the
climate system from a variety of effects, including its high reflectivity (albedo) for solar radiation, its low thermal conductivity, its large thermal inertia, its potential for affecting ocean circulation (through exchange of freshwater and heat) and atmospheric circulation (through topographic
changes), its large potential for affecting sea level (through growth and melt of land ice), and its potential for affecting greenhouse gases (through
changes in permafrost)(Chapter 4).
Changes in socio - economic activities and modes of human response to
climate change, including warming, are just beginning to be systematically documented
in the
cryosphere (MacDonald et al., 1997; Krupnik and Jolly, 2002; Huntington and Fox, 2004; Community of Arctic Bay et al., 2005).
Glaciologists involved
in the
cryosphere chapter of the Intergovernmental Panel on
Climate Change's (IPCC) first phase report, launched last week, said there [continue reading...]
Dr Jorge Carrasco, Antarctic
climate change researcher at the University of Magallanes
in Chile and lead author on the
cryosphere chapter
in the last IPCC report, tells Carbon Brief why the research underpinning the «Keeling Curve» was so important.
The warning comes
in a report by the International
Cryosphere Climate Initiative (ICCI), a group of scientists, diplomats and others who say climate change «is happening in the cryosphere faster and more dramatically than anywhere else on ear
Cryosphere Climate Initiative (ICCI), a group of scientists, diplomats and others who say climate change «is happening in the cryosphere faster and more dramatically than anywhere else on earth&
Climate Initiative (ICCI), a group of scientists, diplomats and others who say
climate change «is happening in the cryosphere faster and more dramatically than anywhere else on earth&
climate change «is happening
in the
cryosphere faster and more dramatically than anywhere else on ear
cryosphere faster and more dramatically than anywhere else on earth».
Pam Pearson, ICCI's founder and director, introduced the report on the risks of irreversible
climate change in the
cryosphere − the scientific name for the parts of the world that are covered
in ice and snow for part or all of the year — by saying: «We are worried by the disconnect between
cryosphere dynamics and the policy response.»
The NSIDC DAAC provides data and information on snow, sea ice, glaciers, ice sheets, ice shelves, frozen ground, soil moisture,
cryosphere, and
climate interactions,
in support of research
in global
change detection, model validation, and water resource management.
The research, published Nov. 21
in the European Geosciences Union journal The
Cryosphere, underlines that the Antarctic Sea is actually less sensitive to
climate change repercussions than previously thought, especially when compared to the Arctic.
In Chapter 4 of WGI, the changes in the cryosphere since the TAR are described in detail, including the description of climate and non-climate forcing factors and mechanisms (Lemke et al., 2007
In Chapter 4 of WGI, the
changes in the cryosphere since the TAR are described in detail, including the description of climate and non-climate forcing factors and mechanisms (Lemke et al., 2007
in the
cryosphere since the TAR are described
in detail, including the description of climate and non-climate forcing factors and mechanisms (Lemke et al., 2007
in detail, including the description of
climate and non-
climate forcing factors and mechanisms (Lemke et al., 2007).
Climate change commitment - Due to the thermal inertia of the ocean and slow processes in the biosphere, the cryosphere and land surfaces, the climate would continue to change even if the atmospheric composition were held fixed at today's
Climate change commitment - Due to the thermal inertia of the ocean and slow processes
in the biosphere, the
cryosphere and land surfaces, the
climate would continue to change even if the atmospheric composition were held fixed at today's
climate would continue to
change even if the atmospheric composition were held fixed at today's values.
Unlike Charney
climate sensitivity, which is related to the strength of feedbacks involving short timescale
climate processes such as those involving clouds and water vapor, Earth System sensitivity also integrates feedbacks involving long timescale
changes in the
cryosphere, terrestrial vegetation, and deep ocean circulation.
A
change in surface temperature can occur because of a) radiative forcing b) shuffling around of heat between different components of the
climate system (eg oceans,
cryosphere, atmosphere)
«Ice911: Developing an Effective Response to
Climate Change in Earth's
Cryosphere using High Albedo Materials,» Leslie A Field, Peter Wadhams, Terry Root, Satish Chetty, Daniel M Kammen, Shalini Venkatesh, Dolf van der Heide, and Ellen Baum, American Geophysical Union Fall Meeting, San Francisco, CA, December 2012.
Because the basics of anthropogenic global warming are fairly straightforward — CO2 is a greenhouse gas, because of the lapse rate water vapor condenses or freezes out
in the troposphere and acts mainly to amplify the effect of CO2, humans are burning a lot of fossil C and increasing the CO2
in the atmosphere, the surface of the earth is warming, the
cryosphere is retreating, the
climate that supports civilization is rapidly
changing, and consequently we are facing an uncertain future — but the details are complex, it's easy to «misunderestimate» the way
climate works
in detail.
(
Cryosphere Systems) How do rapid
changes in cryospheric systems, or areas of the earth where water exists as ice or snow, interact with the
climate system?