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Rising Sea Levels Affecting Many Species

From the Arctic to the Everglades, impacts like rising sea levels, warmer temperatures, loss of sea ice, and changing precipitation patterns are affecting the species we care about, the services we value, and the places we call home.

In addition to ensuring the sustainability of these resources, along with their many ecological, economic, and recreational benefits, we have an obligation to safeguard our nation’s natural heritage in a changing world.

In an unprecedented collaborative effort, federal, state, and tribal partners with input from many other diverse groups from across the nation are working together to develop a common strategy to respond to these challenges. The National Fish, Wildlife, and Plants Climate Adaptation Strategy will provide a unified approach—reflecting shared principles and science-based practices—for reducing the negative impacts of climate change on fish, wildlife, plants, and the natural systems upon which they depend.

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Plan For Global Warming

U.S. Scientists Call for Integrated Study of Carbon Cycle Print E-mail
The carbon cycle science community in the United States has just finished its planning process for carbon cycle research for the upcoming decade. This reassessment of the U.S. carbon cycle science priorities was initiated by the U.S. Carbon Cycle Interagency Working Group (CCIWG) and Carbon Cycle Science Steering Group (CCSSG) in 2008. This planning process has culminated in the publication of the new U.S. Carbon Cycle Science Plan. The new Plan is intended to provide guidance for U.S. research efforts on the global carbon cycle for the next decade.

The Plan outlines priorities for research in carbon cycle science, including a substantial expansion in the scope of the field. In addition to reaffirming the need for basic research and for continuing the current areas of research in carbon cycle science, the Plan outlines specific recommendations for new priorities:

With greenhouse-gas concentrations rising rapidly, active management of the global carbon cycle is increasingly urgent. The plan outlines the need for carbon-cycle research on the efficacy and environmental consequences of carbon management policies, strategies, and technologies.

Because humans are an integral part of the carbon cycle, both through influences on “natural” systems and through direct emissions of greenhouse gases, study of the human elements of the carbon cycle must be more thoroughly integrated into the future research agenda.

The Plan recommends increased exploration of the direct impact of rising greenhouse gas concentrations and carbon-management decisions on ecosystems, species, and natural resources.

Finally, because decisions about the carbon cycle will inevitably be made with imperfect knowledge, the Plan emphasizes the need for a better understanding of uncertainly in all aspects of the global carbon cycle, and improved ways of conveying those uncertainties to policy and decision makers, as well as society at large.

Electronic copies of “A U.S. Carbon Cycle Science Plan” are available at: http://www.carboncyclescience. gov/carbonplanning.php

Printed copies or copies on CD can be requested from the U.S Carbon Cycle Science Program Office, Dr. Gyami Shrestha at gshrestha@usgcrp.gov

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Iceberg B-15J Breaks Up

Iceberg B-15J

acquired December 2, 2011 download large image (2 MB, JPEG, 2400×2400)
acquired December 2, 2011 download GeoTIFF file (7 MB, TIFF)

Ice shelves are thick slabs of ice that stretch from land over nearby ocean water. The world’s largest ice shelves are in Antarctica, and the biggest of these is the Ross. As part of a natural cycle, ice shelves periodically calve icebergs, and in March 2000, the Ross Ice Shelf calved an iceberg nearly the size of Connecticut. Named B-15, it was one of the largest icebergs on record. B-15 broke into smaller pieces, but by remaining in a cold climate, some of those pieces lasted more than a decade.

One fragment of B-15, named B-15J, was still in existence in early December 2011. B-15J had traveled far from Antarctica by then, and was breaking into smaller pieces. The Moderate Resolution Imaging Spectroradiometer (MODIS) on NASA’s Terra satellite captured this natural-color image of B-15J on December 2, 2011.

Sliver-shaped pieces of ice formed an arc around the oblong iceberg, which had disintegrated discernibly since late November. B-15J and the smaller ice fragments were roughly 2,400 kilometers (1,500 miles) east-southeast of New Zealand. Just as remaining near Antarctica allowed this iceberg to persist for more than a decade, floating into warmer waters prompted it to break apart. An iceberg from the Larsen Ice Shelf on the Antarctic Peninsula underwent a similar disintegration in 2008.

As of late November 2011, several other remnants of Iceberg B-15 were still in existence, including B-15B, B-15F, B-15G, B-15K, B-15R, B-15T, and B-15X.

  1. References

  2. National Ice Center. (2011, November 27). Current Antarctic Iceberg Positions. Accessed December 6, 2011.
  3. National Ice Center. (2011, November 27). Antarctic Icebergs, Ross Sea East, B15J. Accessed December 6, 2011.
  4. National Snow and Ice Data Center. (2010, October 20). State of the Cryosphere: Ice Shelves. Accessed December 6, 2011.

NASA Earth Observatory image created by Jesse Allen, using data provided courtesy of the LANCE/EOSDIS Rapid Response team. Caption by Michon Scott with information from Ted Scambos, National Snow and Ice Data Center.

Instrument: 
Terra – MODIS
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The Arctic And Global Warming

Arctic settles into new phase – warmer, greener, and less ice

NOAA Arctic StarDot NetCam - Monday, July 5, 2010.

NOAA Arctic StarDot NetCam – Monday, July 5, 2010.

Download here. (Credit: NOAA)

An international team of scientists who monitor the rapid changes in the Earth’s northern polar region say that the Arctic is entering a new state – one with warmer air and water temperatures, less summer sea ice and snow cover, and a changed ocean chemistry. This shift is also causing changes in the region’s life, both on land and in the sea, including less habitat for polar bears and walruses, but increased access to feeding areas for whales.

Changes to the Arctic are chronicled annually in the Arctic Report Card, which was released today. The report is prepared by an international team of scientists from 14 different countries.

Ice photos from NOAA Ships.

Ice photos from NOAA Ships.

Download here. (Credit: NOAA)

“This report, by a team of 121 scientists from around the globe, concludes that the Arctic region continues to warm, with less sea ice and greater green vegetation,” said Monica Medina, NOAA principal deputy under secretary of commerce for oceans and atmosphere. “With a greener and warmer Arctic, more development is likely. Reports like this one help us to prepare for increasing demands on Arctic resources so that better decisions can be made about how to manage and protect these more valuable and increasingly available resources.”

Among the 2011 highlights are:

  • Atmosphere: In 2011, the average annual near-surface air temperatures over much of the Arctic Ocean were approximately 2.5° F (1.5° C) greater than the 1981-2010 baseline period.
  • Sea ice: Minimum Arctic sea ice area in September 2011 was the second lowest recorded by satellite since 1979.
  • Ocean: Arctic Ocean temperature and salinity may be stabilizing after a period of warming and freshening. Acidification of sea water (“ocean acidification”) as a result of carbon dioxide absorption has also been documented in the Beaufort and Chukchi seas.
  • Land: Arctic tundra vegetation continues to increase and is associated with higher air temperatures over most of the Arctic land mass.

Ice photos from NOAA Ships.

Ice photos from NOAA Ships.

Download here. (Credit: NOAA)

In 2006, NOAA’s Climate Program Office introduced the State of the Arctic Report which established a baseline of conditions at the beginning of the 21st century. It is updated annually as the Arctic Report Card to monitor the often-quickly changing conditions in the Arctic. Peer-review of the scientific content of the report card was facilitated by the Arctic Monitoring and Assessment (AMAP) Program.

The Report Card tracks the Arctic atmosphere, sea ice, biology, ocean, land, and Greenland. This year, new sections were added, including, greenhouse gases, ozone and ultraviolet radiation, ocean acidification, Arctic Ocean primary productivity, and lake ice. The Arctic Report Card is available online.

NOAA’s mission is to understand and predict changes in the Earth’s environment, from the depths of the ocean to the surface of the sun, and to conserve and manage our coastal and marine resources. Join us on Facebook, Twitter and our other social media channels.

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Land and Water Degradation Lead to Food Shortages

Scarcity and degradation of land and water: growing threat to food security

New FAO report profiles the state of the natural resource base upon which world food production depends

Prime farmland in Madagascar. Healthy agricultural ecosystems are the foundation of food security.

28 November 2011, Rome – Widespread degradation and deepening scarcity of land and water resources have placed a number of key food production systems around the globe at risk, posing a profound challenge to the task of feeding a world population expected to reach 9 billion people by 2050, according to a new FAO report published today.

The State of the World’s Land and Water Resources for Food and Agriculture (SOLAW) notes that while the last 50 years witnessed a notable increase in food production, “in too many places, achievements have been associated with management practices that have degraded the land and water systems upon which food production depends.”

Today a number of those systems “face the risk of progressive breakdown of their productive capacity under a combination of excessive demographic pressure and unsustainable agriculture use and practices,” the report says.

No region is immune: systems at risk can be found around the globe, from the highlands of the Andes to the steppes of Central Asia, from Australia’s Murray-Darling river basin to the central United States.

Agricultural systems at risk: map | table

At the same time, as natural resource bottlenecks are increasingly felt, competition for land and water will become “pervasive,” the report suggests. This includes competition between urban and industrial users as well as within the agricultural sector – between livestock, staple crops, non-food crop, and biofuel production.

And climate change is expected to alter the patterns of temperature, precipitation and river flows upon which the world’s food production systems depend.

As a result, the challenge of providing sufficient food for an ever-more hungry planet has never been greater, SOLAW says — especially in developing countries, where quality land, soil nutrients and water are least abundant.

“The SOLAW report highlights that the collective impact of these pressures and resulting agricultural transformations have put some production systems at risk of breakdown of their environmental integrity and productive capacity. These systems at risk may simply not be able to contribute as expected in meeting human demands by 2050. The consequences in terms of hunger and poverty are unacceptable. Remedial action needs to be taken now,” said FAO Director-General Jacques Diouf.

Warning signs

Between 1961 and 2009, the world’s cropland grew by 12 percent, but agricultural production expanded 150 percent, thanks to a significant increase in yields of major crops.

But one of the “warning signs” flagged by the SOLAW report is that rates of growth in agricultural production have been slowing in many areas and are today only half of what they were during the heyday of the Green Revolution.

Overall, the report paints the picture of a world experiencing an increasing imbalance between availability and demand for land and water resources at the local and national levels. The number of areas reaching the limits of their production capacity is fast increasing, the report warns.

25 percent of the earth’s lands are degraded

SOLAW provides for the first time ever a global assessment of the state of the planet’s land resources. Fully one quarter are highly degraded. Another 8 percent are moderately degraded, 36 percent are stable or slightly degraded and 10 percent are ranked as “improving.” The remaining shares of the earth’s land surface are either bare (around 18 percent) or covered by inland water bodies (around 2%).  (These figures include all land types, not just farmland.)

FAO’s definition of degradation extends beyond soil and water degradation per se and includes an assessment of other aspects of affected ecosystems, for instance biodiversity loss.

Large parts of all continents are experiencing land degradation, with particularly high incidences down the west coast of the Americas, across Mediterranean region of Southern Europe and North Africa, across the Sahel and the Horn of Africa, and throughout Asia. The greatest threat is the loss of soil quality, followed by biodiversity loss and water resources depletion.

Some 1.6 billion hectares of the world’s best, most productive lands are currently used to grow crops. Parts of these land areas are being degraded through farming practices that result in water and wind erosion, the loss of organic matter, topsoil compaction, salinization and soil pollution, and nutrient loss.

Breakdown of world land degradation: graph

Water scarcity and pollution on the rise

Water scarcity is growing and salinization and pollution of groundwater and degradation of water bodies and water-related ecosystems are rising, SOLAW also reports. Large inland water bodies are under pressure from a combination of reduced inflows and higher nutrient loading — the excessive build up of nutrients like nitrogen and phosphorus. Many rivers do not reach their natural end points and wetlands are disappearing.

In key cereal producing areas around the world, intensive groundwater withdrawals are drawing down aquifer storage and removing the accessible groundwater buffers that rural communities have come to rely on.

“Because of the dependence of many key food production systems on groundwater, declining aquifer levels and continued abstraction of non-renewable groundwater present a growing risk to local and global food production,” FAO’s report cautions.

Distribution of world water scarcity: map

A poverty trap

“Worldwide, the poorest have the least access to land and water and are locked in a poverty trap of small farms with poor quality soils and high vulnerability to land degradation and climatic uncertainty,” the report notes.

Some 40 percent of the world’s degraded lands are found in areas with high poverty rates. Still, in a sign that degradation is a risk across all income groups, 30 percent of the world’s degraded lands are in areas with moderate levels of poverty while 20 percent are in areas with low poverty rates.

Prospects for the future

FAO estimates that by 2050, rising population and incomes will require a 70 percent increase in global food production. This equates to another one billion tonnes of cereals and 200 million tonnes of livestock products produced each year.

“For nutrition to improve and for food insecurity and undernourishment to recede, future agricultural production will have to rise faster than population growth and consumption patterns adjusted,” says SOLAW.

More than four-fifths of production gains will have to occur largely on existing agricultural land through sustainable intensification that makes effective use of land and water resources while not causing them harm.

Recommendations

Improving the efficiency of water use by agriculture will be key, according to the report. Most irrigation systems across the world perform below their capacity. A combination of improved irrigation scheme management, investment in local knowledge and modern technology, knowledge development and training can increase water-use efficiency.

And innovative farming practices such as conservation agriculture, agro-forestry, integrated crop-livestock systems and integrated irrigation-aquaculture systems hold the promise of expanding production efficiently to address food security and poverty while limiting impacts on ecosystems.

FAO recently highlighted its vision for the sustainable intensification of agricultural production in its publication, Save and Grow: A New Paradigm for Agriculture, released earlier this year.

Another area where improvement is needed is increasing investment in agricultural development. Gross investment requirements between 2007 and 2050 for irrigation water management in developing countries are estimated at almost $1 trillion. Land protection and development, soil conservation and flood control will require around $160 billion worth of investment in the same period, SOLAW reports.

Finally, greater attention should be paid not only to technical options for improving efficiency and promoting sustainable intensification, but also to ensuring that national policies and institutions are modernized, collaborate together and are better equipped to cope with today’s emerging challenges of water and land resource management.

SOLAW contains numerous examples of successful actions undertaken in various parts of the world, which illustrate the multiple options available that are potentially replicable elsewhere. Given increasing competition for land and water resources, choices of options inevitably require stakeholders to evaluate trade-offs among a variety of ecosystem goods and services. This knowledge would serve to mobilize political will, priority setting and policy-oriented remedial actions, at the highest decision-making levels.

 
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Food Vs. Climate Change

“Energy-smart” agriculture needed to escape fossil fuel trap

FAO paper published during UN Climate Change Conference highlights how food sector can tackle energy challenges to safeguard a food-secure future

Photo: ©FAO/Alberto Conti

A Malinese woman uses a low-cost, fuelwood-efficient mud stove to prepare a family meal.

29 November 2011, Durban, South Africa/Rome – The global food system needs to reduce its dependence on fossil fuels to succeed in feeding a growing world population, FAO said today.

“There is justifiable concern that the current dependence of the food sector on fossil fuels may limit the sector’s ability to meet global food demands. The challenge is to decouple food prices from fluctuating and rising fossil fuel prices,” according to an FAO paper published today during the UN Conference on Climate Change.

High and fluctuating prices of fossil fuels and doubts regarding their future availability mean that agri-food systems need to shift to an “energy-smart” model, according to the report Energy-Smart Food for People and Climate.

The food sector both requires energy and can produce energy — an energy-smart approach to agriculture offers a way to take better advantage of this dual relationship between energy and food, it says.

The food sector (including input manufacturing, production, processing, transportation marketing and consumption) accounts for around 95 exa-Joules (1018 Joules), according to the report — approximately 30 percent of global energy consumption — and produces over 20 percent of global greenhouse gas emissions.

On-farm direct energy use amounts to around 6 exa-Joules per year, if human and animal power are excluded — just over half of that is in OECD countries.

On farms, energy is used for pumping water, housing livestock, cultivating and harvesting crops, heating protected crops, and drying and storage. After harvest, it is used in processing, packaging, storing, transportation and consumption.

New approach to farming

“The global food sector needs to learn how to use energy more wisely. At each stage of the food supply chain, current practices can be adapted to become less energy intensive,” said FAO Assistant Director-General for Environment and Natural Resources, Alexander Mueller.

Such efficiency gains can often come from modifying at no or little cost existing farming and processing practices, he added.

Steps that can be taken at the farm level include the use of more fuel efficient engines, the use of compost and precision fertilizers, irrigation monitoring and targeted water delivery, adoption of no-till farming practices and the use of less-input-dependent crop varieties and animal breeds.

After food has been harvested, improved transportation and infrastructure, better insulation of food storage facilities, reductions in packaging and food waste, and more efficient cooking devices offer the possibility of additionally reducing energy use in the food sector.

Adding up both on-farm and post-harvest losses, around one-third of all food produced — and the energy that is embedded in it — is lost or wasted, FAO’s report notes.

Making agriculture less fossil fuel dependent

FAO’s report also highlights the tremendous potential for agriculture to produce more of the energy needed to feed the planet and help rural development.

“Using local renewable energy resources along the entire food chain can help improve energy access, diversify farm and food processing revenues, avoid disposal of waste products, reduce dependence on fossil fuels and greenhouse gas emissions, and help achieve sustainable development goals,” it says.

Where good solar, wind, hydro, geothermal or biomass energy resources exist, they can be used as a substitute for fossil fuels in farming and aquaculture operations. They can also be used in food storage and processing. For example, sugar mills frequently use their residue materials for combined heat and power generation. So-called “wet processing wastes” like tomato rejects and skins, or pulp from juice processing, can be used in anaerobic digester plants to produce biogas. Already, millions of small-scale domestic digesters are being used by subsistence farmers in the development world to produce biogas for home use.

Significant action is needed to reduce food losses, and this will also improve energy efficiency in the agri-food chain.

Finally it is essential to improve access to modern energy services to the millions of people who still use biomass in a nontraditional way as energy for cooking and heating.

A long row to hoe

Transitioning to an energy-smart agricultural sector will be a “huge undertaking” that will require long-term thinking, and needs to start now, FAO says.

During the climate talks in Durban, the UN agency is advocating “Energy-smart food for people and climate,” an approach based on three pillars: (i) providing energy access for all with a focus on rural communities; (ii) improving energy efficiency at all stages of the food supply chain; and (iii) substituting fossil fuels with renewable energy systems in the food sector.

“The key question at hand is not, ‘If or when we should begin the transition to energy-smart food systems?’ but rather ‘how can we get started and make gradual but steady progress?” said Mueller.

 
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Greenhouse Gases Still Increasing

NOAA’s updated Annual Greenhouse Gas Index (AGGI), which measures the direct climate influence of many greenhouse gases such as carbon dioxide and methane, shows a continued steady upward trend that began with the Industrial Revolution of the 1880s.

Started in 2004, the AGGI reached 1.29 in 2010. That means the combined heating effect of long-lived greenhouse gases added to the atmosphere by human activities has increased by 29 percent since 1990, the “index” year used as a baseline for comparison. This is slightly higher than the 2009 AGGI, which was 1.27, when the combined heating effect of those additional greenhouse gases was 27 percent higher than in 1990.

“The increasing amounts of long-lived greenhouse gases in our atmosphere indicate that climate change is an issue society will be dealing with for a long time,” said Jim Butler, director of the Global Monitoring Division of NOAA’s Earth System Research Laboratory in Boulder, Colo. “Climate warming has the potential to affect most aspects of society, including water supplies, agriculture, ecosystems and economies. NOAA will continue to monitor these gases into the future to further understand the impacts on our planet.”

The AGGI is analogous to the dial on an electric blanket – that dial does not tell you exactly how hot you will get, nor does the AGGI predict a specific temperature. Yet just as turning the dial up increases the heat of an electric blanket, a rise in the AGGI means greater greenhouse warming.

VIDEO: NOAA greenhouse gas index continues climbing.

VIDEO: NOAA greenhouse gas index continues climbing.

View YouTube video (Credit: NOAA)

NOAA scientists created the AGGI recognizing that carbon dioxide is not the only greenhouse gas affecting the balance of heat in the atmosphere. Many other long-lived gases also contribute to warming, although not currently as much as carbon dioxide.

The AGGI includes methane and nitrous oxide, for example, greenhouse gases that are emitted by human activities and also have natural sources and sinks. It also includes several chemicals known to deplete Earth’s protective ozone layer, which are also active as greenhouse gases. The 2010 AGGI reflects several changes in the concentration of these gases, including:

  • A continued steady increase in carbon dioxide: Global carbon dioxide levels rose to an average of 389 parts per million in 2010, compared with 386 ppm in 2009, and 354 in the index or comparison year of 1990. Before the Industrial Revolution of the 1880s, carbon dioxide concentration in the atmosphere was about 280 ppm. Carbon dioxide levels swing up and down in natural seasonal cycles, but human activities – primarily the burning of coal, oil, and gas for transportation and power – have driven a consistent upward trend in concentration.
  • A continued recent increase in methane: Methane levels rose in 2010 for the fourth consecutive year after remaining nearly constant for the preceding 10 years, up to 1799 parts per billion. Methane measured 1794 ppb in 2009, and 1714 ppb in 1990. Pound for pound, methane is 25 times more potent as a greenhouse gas than carbon dioxide, but there’s less of it in the atmosphere.
  • Graph showing NOAA's Annual Greenhouse Gas Index.

    NOAA’s Annual Greenhouse Gas Index is a gauge of the climate warming influence of greenhouse gases added to the atmosphere by human activities and compared with the “index” year of 1990. The AGGI shows a steady upward trend, reaching 1.29 in 2010. This means that the heating effect of additional greenhouse gases in the atmosphere has increased by 29 percent since 1990

    High resolution (Credit: NOAA)

    A continued steady increase in nitrous oxide: Best known as laughing gas in dentistry, nitrous oxide is also a greenhouse gas emitted from natural sources and as a byproduct of agricultural fertilization, livestock manure, sewage treatment and some industrial processes.

  • A continued recent drop in two chlorofluorocarbons, CFC11 and CFC12: Levels of these two compounds – which are ozone-depleting chemicals in addition to greenhouse gases – have been dropping at about one percent per year since the late 1990s, because of an international agreement, the Montreal Protocol, to protect the ozone layer.

Scientists at NOAA’s Earth System Research Laboratory prepare the AGGI each year from atmospheric data collected through an international cooperative air sampling network of more than 100 sites around the world.

NOAA researchers developed the AGGI in 2004 and have so far back calculated it to 1978. Atmospheric composition data from ice core and other records could allow the record to be extended back centuries.

NOAA’s mission is to understand and predict changes in the Earth’s environment, from the depths of the ocean to the surface of the sun, and to conserve and manage our coastal and marine resources. Join us on Facebook, Twitter and our other social media channels.

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Warming Global Temperatures

Global temperatures 8th warmest on record for October

Global warming models suggest increased volatility including:

Strengthened La Niña conditions expected through winter

Global surface temperature Anomalies - October 2011.
Global surface temperature Anomalies – October 2011.

High Resolution (Credit: NOAA)

The globe experienced its eighth warmest October since record keeping began in 1880. Arctic sea ice extent was the second smallest extent on record for October at 23.5 percent below average. Additionally, La Niña conditions strengthened during October 2011. According to NOAA’s Climate Prediction Center, La Niña is expected to continue through the Northern Hemisphere winter.

This monthly analysis from NOAA’s National Climatic Data Center is part of the suite of climate services NOAA provides government, business and community leaders so they can make informed decisions.

Global temperature highlights: October

  • The combined global land and ocean average surface temperature for October 2011 was the eighth warmest on record at 58.14 F (14.58 C), which is 1.04 F (0.58 C) above the 20th century average of 57.1 F (14.0 C). The margin of error associated with this temperature is +/- 0.13 F (0.07 C).
  • The global land surface temperature was 1.98 F (1.10 C) above the 20th century average of 48.7 F (9.3 C), making this the 2nd warmest October on record. The margin of error is +/- 0.20 F (0.11 C). Warmer-than-average conditions occurred across Alaska, Canada, most of Europe and Russia, and Mongolia. Cooler-than-average regions included the southeastern United States, most of southern and western South America, parts of Algeria and Libya, part of Eastern Europe, and far southeast Asia.
  • The global ocean surface temperature was 0.70 F (0.39 C) above the 20th century average of 60.6 F (15.9 C), making it the 11th warmest October on record. The margin of error is +/- 0.07 F (0.04 C). The warmth was most pronounced across the north central and northwest Pacific, the northeast Atlantic, and portions of the mid-latitude Southern oceans.
  • The United Kingdom marked its warmest October since 2006 and eighth warmest in the last 100 years, at 3.6 F (2.0 C) above the 1971–2000 average.
  • Several locations in Argentina experienced their coolest October in five decades.
Global significant events for October 2011.
Global significant events for October 2011.

High Resolution (Credit: NOAA)

Global temperature highlights: Year to date

  • The combined global land and ocean average surface temperature for the January – October period was 0.95 F (0.53 C) above the 20th century average of 57.4 F (14.0 C), making it the 10th warmest such period on record. The margin of error is +/- 0.16 F (0.09 C).
  • The January – October worldwide land surface temperature was 1.53 F (0.85 C) above the 20th century average, the sixth warmest such period on record. The margin of error is +/- 0.34 F (0.19 C). The global ocean surface temperature for the year to date was 0.74 F (0.41 C) above the 20th century average and was the 12th warmest such period on record. The margin of error is +/-0.07 F (0.04 C).
  • La Niña conditions strengthened during October 2011. According to NOAA’s Climate Prediction Center, La Niña is expected to continue through the Northern Hemisphere winter 2011/2012.
  • Monthly rainfall across Spain was 35 percent below average, the driest October since 1998.

Polar Sea Ice and Precipitation Highlights

  • The average Arctic sea ice extent during October was 23.5 percent below average, ranking as the second smallest October extent since satellite records began in 1979. The extent was 846,000 square miles (2.19 million square kilometers) below average and 127,000 square miles (330,000 square kilometers) larger than the record low October extent set in 2007.
  • On the opposite pole, the October Antarctic monthly average ice extent was 1.2 percent above the 1979–2000 average, the 12th largest on record.
  • Despite a record-breaking snowstorm in the US Northeast, Northern Hemisphere snow cover extent during October was below average, and ranked as the 15th smallest October snow cover extent in the 44-year period of record. The North America and Eurasian land areas both had below-average snow cover during the month.

Scientists, researchers and leaders in government and industry use NOAA’s monthly reports to help track trends and other changes in the world’s climate. This climate service has a wide range of practical uses, from helping farmers know what and when to plant, to guiding resource managers with critical decisions about water, energy and other vital assets.

NOAA’s mission is to understand and predict changes in the Earth’s environment, from the depths of the ocean to the surface of the sun, and to conserve and manage our coastal and marine resources. Join us on Facebook, Twitter and our other social media channels.

* Included in this report: NOAA is now making it easier to find information about margins of error associated with its global temperature calculations. NCDC previously displayed this information in certain graphics associated with the report, but it will now publish these ranges in the form of “plus or minus” values associated with each monthly temperature calculation. These values are calculated using techniques published in peer-reviewed scientific literature. More information.

* In November, the GHCN-M version 3.1.0 dataset of monthly mean temperature replaced the GHCN-M version 3.0.0 monthly mean temperature dataset. Beginning with the October 2011 Global Monthly State of the Climate Report, GHCN-M version 3.1.0 is used for NCDC climate monitoring activities, including calculation of global land surface temperature anomalies and trends. More information on this transition can be found at: ftp://ftp.ncdc.noaa.gov/pub/data/ghcn/v3/techreports/

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Australia Fires

Photograph of the fires taken from the sky by NASA

Fire season in northern Australia usually wraps up by October, but 2011 has been an exceptional year. In mid-November, dry grasses and low humidity combined to create extremely dangerous fire conditions, prompting the Queensland Fire and Rescue service to issue a warning. Because of the ongoing high fire danger, residents are not permitted to start a fire without a permit until January 1, 2012. Despite such precautions, several large fires burned throughout the state, said ABC News on November 17. Some of the fires were ignited by lightning.

This true color image shows multiple fires, large and small, burning in northeast Queensland. The Moderate Resolution Imaging Spectroradiometer (MODIS) on NASA’s Aqua satellite acquired this image on November 15, 2011. The fires are outlined in red.

  1. References

  2. CSIRO. (2008, February 14). Bushfire in Australia. Accessed November 17, 2011.
  3. CSIRO. (2008, April 30). The months of the fire season. Accessed November 17, 2011.
  4. Queensland Fire and Rescue Service. (2011, November 16). North coast residents warned of heightened fire danger. Queensland Government. Accessed November 17, 2011.
  5. Rego, F. (2011, November 17). Big outback grassfire under control. ABC News. Accessed November 17, 2011.

NASA image courtesy Jeff Schmaltz, LANCE/EOSDIS MODIS Rapid Response Team at NASA GSFC. Caption by Holli Riebeek.

 

Australia Wild Fires

Australia Wild Fires

The Album Baptism By Fire

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Say No To No-Nukers

A friend wrote, “Please read some of this and share it with everybody… this is important: http://www.nuclearreader.info/ ”

“It is clear by now that nuclear power is not economically viable.”

“Wall Street has refused to finance nuclear power for more than 30 years, rendering new construction impossible.”

Our response, “Sorry, this is not good information.”

The friend asks, “Why?”

Our response, “The website twists facts into lies.

Nuclear energy is quite economically viable… the problem is that consumers are misinformed by sites like nuclearreader.info.

The reason no new plants have been built is because investors’ fear of regulations.   Protests and years of public meetings make nuclear plants so that they are not economically viable.

After all, humans have been using the biggest nuclear plant for energy since the beginning of time — the sun.

True the sun kills many people every year; however, eliminating the sun would be a mistake.”

PS. Nuclear energy is probably the hope to help stabilize human induced climate change.,

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