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Extreme weather is upon us

Fr, 08/09/2017 - 09:14

Extreme weather is upon us. Global warming is increasing the intensity, occurrence, size, duration and impact of many catastrophic events, including wildfires, droughts, heat waves, cold snaps, storms, lightning, flooding and seismic events such as earthquakes and associated tsunamis.

Ever larger numbers of people are getting hit directly by such events, as well as indirectly due to lack of fresh water, food, shelter, medicine, health care and emergency services.

Many lives were lost and many further lives are at stake. In a September 11, 2017, statement, AccuWeather predicts the joint economic costs of Hurricane Harvey and Hurricane Irma to be $290 billion, or 1.5% of the U.S. GDP.

The following three images show Hurricane Irma (left) and Hurricane Jose (right), and are forecasts for September 10, 2017. The image directly below shows that waves are forecast to be as high as 48 ft (or 14.63 m).

Waves for September 10, 2017, 15:00 UTC (at green circle, 26°N, 80°W) are forecast as high as 48 ft or 14.63 mThe image below shows that winds are forecasts to be as fast as 163 mph (or 263 km/h).
Winds for Sept. 10, 2017, 12:00 UTC (green circle, 25.5°N, 80.5°W, 850 hPa) forecast as fast as 163 mph or 263 km/hThe image below shows that as much as 6.59 in (or 167.4 mm) of rain is forecast.

As much as 6.59 in (or 167.4 mm) of rain is forecast for Sept. 10, 2017, 6:00 UTC (3-hour accumulation, green circle)Forecasts were posted widely, such as the image below that was posted at facebook.

Earlier, Hurricane Harvey hit Houston. Again, warnings were posted widely, such as the forecast below, posted at facebook.

[ click on images to enlarge ]There is no doubt that people's emissions are causing global warming and that this is causing more extreme weather to occur across the world.

Extreme weather is amplified by changes to the Jet Streams. As the Arctic is warming more rapidly than the rest of the world, the temperature difference between the Arctic and the Equator is narrowing, which is slowing down the speed at which the Jet Streams circumnavigate the globe.

The Coriolis Effect makes Jet Streams circumnavigate the globe horizontally, and this used to keep cold air inside the Arctic and warmer air outside of the Arctic.

As the Jet Streams circumnavigate the globe at lower speeds, they increasingly move more vertically, allowing cold air from the Arctic to move down south more easily, and warm air to move up north more easily. This can make it easier for cyclones to move land-inward, where they previously would have kept following a path over the sea. This can also make it easier for weather conditions to stay the same for many days in an area, allowing huge amounts of rain water to accumulate in such an area.

This is illustrated by the image on the right, showing Jet Streams crossing the Equator at speeds as fast as 82 km/h or 51 mph (at the location marked by the green circle, at 250 mb) on August 27, 2017, 21:00 UTC. The image also shows Jet Streams crossing the Arctic at multiple locations.

Furthermore, numerous cyclones are visible on the image. As Earth retains more energy, winds and currents are getting stronger, waves are getting higher, etc., while higher temperatures are also causing winds to carry more moisture. This is especially the case for cyclones that are also stronger due to high sea surface temperatures.

The image below shows Hurricanes Jose, Irma and Katia lining up over the Atlantic Ocean on September 7, 2017.

The image below shows the hurricanes lining up over the Atlantic Ocean on September 8, 2017.

The image below shows Hurricane Jose off the coast of North America and Hurricane Maria underneath, with winds as fast as 149 mph or 241 km/h (at 850 hPa) and as much as 7.92 inch or 201.1 mm of rain (3-hour precipitation accumulation) at the location marked by the green circle.

In the video below, Paul Beckwith discusses the situation.

There can be many interactions between such events. Seismic events such as earthquakes, landslides and associated tsunamis, can be triggered by human activities in several ways.

Seismic events triggered by human activities
• Earthquakes can be triggered by fracking and by pools associated with fracking.
• Warming caused by people makes snow and ice melt, removing weight off the land and dumping it into the sea. This change in weight can trigger earthquakes.
• The Earth's crust can be flexed by storms. Large cyclones first suck up water, making sea level retreat and lifting up the crust. Then, a surge follows, while huge amounts of rainwater can add further weight, pushing the crust down again. This change can be felt over longer distances, triggering earthquakes across continents.
• Wild weather swings can be the result of changes in the jet streams caused by global warming. Huge sudden swings in temperature and in air pressure can make soils and ice go abruptly from expansion to compression and back again, which can cause cracks and landslides, and associated shockwaves, which can in turn trigger larger seismic events and open up methane craters with can come with large releases of methane.

After Sandy hit New York, in 2012, earthquakes hit the coast off Vancouver and links between the two events were discussed in this post.

Hurricane Harvey caused massive flooding in several States. The weight of the torrential rains brought by Hurricane Harvey caused Houston to sink by 2 centimeters. Water weighs about a ton per cubic meter and the flooding was so widespread that it "flexed Earth's crust", NASA scientist Chris Milliner said. 

An earthquake with a magnitude of 8.1 on the Richter scale hit at 69.7 km depth, off the coast of Mexico, 87km SW of Pijijiapan, on September 8, 2017 at 04:49:21 UTC, at 15.068°N 93.715°W.

Numerous aftershocks are visible on the map below (screenshot taken September 13, 2017).

Rising temperatures are increasing the amount of water vapor in the atmosphere at a rate of 7% more water vapor for every 1°C warming. This is further speeding up warming, since water vapor is a potent greenhouse gas. Over the coming years, a huge amount of additional water vapor threatens to enter the atmosphere, due to the warming caused by albedo changes in the Arctic, methane releases from the seafloor, etc., as described at this page.

The situation is dire and calls for comprehensive and effective action, as described at the Climate Plan.

Hurricane Damage Mitigation
A 2014 study by scientists led by Mark Jacobson calculates that large turbine arrays (300+ GW installed capacity) could diminish peak near-surface hurricane wind speeds by 25–41 m/s−1 (56–92 mph) and storm surge by 6–79% AND provide year-round clean and renewable electricity.

How many electric cars will be ready to move into Miami to provide emergency support in the wake of Hurricane Irma?

Storms can cause power outages, electricity poles can get damaged. Electricity poles can also be a traffic hazard (i.e. collisions can occur even if the pole hasn't fallen down, especially when streetlights fail). When damaged, power lines hanging off poles constitute electrical shock hazards and they can cause fires to ignite and wildfires to start.

Storms can also cause damage to backup generators and to fuel storage tanks, making it hard for emergency services to give the necessary support. Electric cars can supply electricity where needed, e.g. to power necessary air conditioning, autoclave and emergency equipment, such as in hospitals. After a tsunami hit Japan in 2011, electric cars moved in to provide electricity from their batteries, as described in many articles such as this one.

Wind turbines and solar panels are pretty robust. Hurricane Harvey hit the Papalote Creek Wind Farm near Corpus Christi, Texas. The wind farm had little or no damage, there was just a short delay in restarting, mostly due to damage to power lines. The Tesla roof that doubles as solar panels is much stronger than standard roofs. Have a look at this video.

Join the Renewables group at facebook!Clean and renewable energy can provide more stable, robust and safe electricity in many ways. Centralized power plants are vulnerable, in that all eggs are in one basket, while there can be long supply and delivery lines. Many of the benefits of clean and renewable energy are mentioned on above image.

Furthermore, there are ways to lower sea surface temperatures. The image on the right shows the very high sea surface temperature anomalies on August 28, 2017.

Note the colder area (blue) in the Gulf of Mexico. Hurricane Harvey cooled the sea surface as water evaporated and warm moisture was added to the atmosphere. The cyclonic force also mixed colder water below the surface with warmer water at the surface, resulting in colder water at the surface. The combination image below shows the difference between August 20, 2017, and August 30, 2017.

[ click on images to enlarge ]
A number of geoengineering methods can be used to reduce sea surface temperatures and thus reduce the intensity of hurricanes. Methods include upwelling associated with ocean fertilization and with ocean tunnels, marine cloud brightening and increasing and brightening bubbles in the wake of vessels, as discussed at the geoengineering group at facebook.

Besides cooling the sea surface, there's also the upwelling of nutrients that can help combat ocean stratification. Warm water holds less oxygen than cold water. As the water warms, it also tends to form a layer at the surface that does not mix well with cooler, nutrient-rich water below, depriving phytoplankton of some of the nutrients needed in order for phytoplankton to grow (and take up carbon).

Some of these methods are also discussed at this 2011 page, which also mentions that more research is needed into the impact of such methods. Of course, possible application should go hand in hand with dramatic reductions in emissions including a rapid shift to 100% clean and renewable energy.

thesolutionsproject.orgSimilarly, the necessary shift to clean and renewable energy in itself will not be enough to avoid catastrophic warming, and it should go hand in hand with further lines of action to remove pollution and to cool the Arctic Ocean, as described at the Climate Plan.


• Climate Plan

• How much warming did and could people cause?

• Did Sandy trigger major earthquakes off Vancouver?

• Geophysicist: Weight of Harvey rains caused Houston to sink

• As Harvey breaks rainfall record, Houston imposes a curfew and death toll climbs to 18

• Historic Hurricane Harvey's Recap

• Hurricane Katia strikes Mexico, killing at least two, as the nation still reels from a massive earthquake

• Deadly quake and Hurricane Katia a one-two punch for Mexico (September 8, 2017).
Updated: Death toll now at 90 as aftershocks rattle southern Mexico (September 11, 2017).

• AccuWeather predicts economic cost of Harvey, Irma to be $290 billion

• After Disaster Hit Japan, Electric Cars Stepped Up

• In Big Test of Wind Farm Durability, Texas Facility Quickly Restarts After Harvey

• Tesla Unveils Powerwall 2 & Solar Roof

• Taming hurricanes with arrays of offshore wind turbines, by Mark Z. Jacobson et al. (2014)

• The Solutions Project

• Weakening of hurricanes via marine cloud brightening (MCB), by John Latham, Ben Parkes, Alan Gadian, Stephen Salter (2012)

• Multiple Benefits Of Ocean Tunnels

• Oxygenating the Arctic

• Reducing hurricane intensity using arrays of Atmocean Inc.'s wave-driven upwelling pumps

• Could bright, foamy wakes from ocean ships combat global warming?

Temperature Rise

Mi, 16/08/2017 - 11:23

How much could temperatures rise by 2026? The above image shows how a rise of 10°C (18°F) could occur by the year 2026, based on temperature anomalies from 1750 for February and on progressive growth of warming elements. The image below shows the same rise in another way.

Such a rise could take place even more rapidly, as discussed in the earlier post 10°C or 18°F warmer by 2021? For more on calculating the temperature rise from 1750 to 2016, see this page and this post.

Crucial will be the decline of snow & sea ice and associated feedbacks. Ominously, global sea ice is at a record low at the moment, as illustrated by the graph below by Wipneus.

[ click on images to enlarge ]Arctic sea ice extent on August 15, 2017, was the 2nd lowest on record for the time of year (behind only 2012), as illustrated by the image on the right.

While extent was lower on August 15, 2012, Arctic sea ice is very thin at the moment, as the Arctic Ocean has become warmer, and sea ice could disappear altogether in one month time, as discussed in earlier posts such as this one.

And ominously, July 2017 was the hottest July on record, as illustrated by the image below.

Above image shows that July 2017 was 2.25°C (4.05°F) warmer than the annual global mean 1980-2015 (seasonal cycle). Only in August 2016 was it warmer (2.29°C), but then again, August 2017 looks set to be warmer than that yet.

The situation is dire and calls for comprehensive and effective action, as described at the Climate Plan.


• Climate Plan

• Extinction

• Temperature rise from 1750 to 2016

• How much warming have humans caused?
• Feedbacks

• How much warming have humans caused?

• 10°C or 18°F warmer by 2021?

• Arctic Sea Ice Break Up August 2017

Arctic Sea Ice Break Up August 2017

Mo, 14/08/2017 - 13:14
Sun at 8:00 am, captured by Jim Reeve on August 7, 2017 near Sechelt AirPort, B.C., CanadaArctic sea ice is under attack from all sides.  At this time of year, the sun doesn't set at the higher latitudes.

As the image below shows, it was as hot as 94°F or 34.5°C in North Canada on August 13, 2017 (at the green circle, at 1000 hPa, at 00:00 UTC). Temperatures at surface level were as high as 33.1°C or 91.5°F at that location, where wind was coming from the south and blowing toward the north at a speed of 28 km/h or 17 mph at that time.

Above image shows cyclonic winds over the Arctic Ocean pulling warm air from North Canada over the Arctic Ocean, while pushing cold air out. Winds and rain have been battering the sea ice for some time now, as discussed in an earlier post.

Fires are becoming more devastating, as discussed in an earlier post. The August 2, 2017, satellite image below shows smoke from fires in British Columbia blanketing Vancouver and Seattle. Carbon dioxide (CO₂) levels were as high as 527 ppm, carbon monoxide (CO) levels as high as 12.59 ppm and sulfur dioxide (SO₂) levels as high as 490.77 µg/m³, as these images show.  

The combination image below shows the situation on August 8, 2017, 13:30 UTC. CO levels were as high as 29.05 ppm, CO₂ levels were as high as 625 ppm and SO₂ levels were as high as 1089.65 µg/m³ (each time at the green circle). Also note the emissions from forest fires in Siberia.

The image below, by Harold Hensel, shows smoke over British Columbia, Washington, and Montana on August 9, 2017. 

Winds can carry smoke from forest fires over long distances, all the way to the Arctic sea ice, where the soot can settle and darken the ice, thus speeding up its decline. The image below, also by Harold Hensel, shows smoke from fires in Russia entering the Arctic Ocean near the Laptev Sea on August 9, 2017. 

The image below shows the situation on August 14, 2017.

The thickest sea ice in the Arctic Ocean is located close to the north of Greenland and the Canadian Archipelago. This ice is now breaking up, due to high temperatures and strong cyclonic winds that cause warm rain, high waves and strong sea currents. 
Watch the thickest sea ice break up on the animation below. This is a 17 MB file, so it may take some time to fully load. Click here if you do not see the file appear below.
The animation below shows the thickest sea ice breaking up between July 14, 2017, and August 13, 2017. 
[ click on image to enlarge ]
The situation is dire and calls for comprehensive and effective action, as described at the Climate Plan.

Arctic sea ice may well be gone by September 2017

Do, 03/08/2017 - 08:02
The Arctic Ocean is warming up fast and this is melting the sea ice from below.

Sea surface temperature anomalies are well above 8°C (14.4°F) in several parts of the Arctic Ocean.

The image on the right shows sea surface temperature anomalies from 1961-1990 for the Arctic (60°N - 90°N) on August 2, 2017.

Global sea ice extent is at a record low for the time of the year, as illustrated by the graph below, by Wipneus. Lower sea ice extent means that less sunlight is reflected back into space.

Arctic sea ice extent in 2017 is shrinking along a path that may look much similar to the years 2012, 2016 and 2007, when sea ice reached 1st, 2nd and 3rd place, respectively, regarding lowest extent (image right).

While sea ice extent may look similar to these other three years, sea ice thickness has fallen dramatically over the years, as illustrated by the image below, showing Arctic sea ice thickness (in m) in July 31, 2012 (left) versus thickness on July 31, 2017 (right).

The animation on the right shows sea ice getting thinner recently, with especially the thicker sea ice disappearing fast.

One of the reasons for this dramatic shrinking of the thicker sea ice is the ever warmer water getting pushed into the Arctic Ocean along the Gulf Stream. This is melting the sea ice from below.

Warming of the Arctic Ocean heats up the air over the Arctic Ocean, as illustrated by the image below.

The above image shows a 365-day surface temperature anomaly. The change over time is also illustrated by the animation on the right.

On average, surface temperatures over the Arctic Ocean have been more than 2.5°C (or 4.5°F) warmer than in 1981-2010. The warmer air is now melting the sea ice from above, as temperatures over the Arctic have risen above the freezing point.

High temperatures over the Arctic Ocean means that precipitation no longer takes the form of snow, but instead falls in the form of rain.

High temperatures of the surface of the ocean combined with strong winds makes that a lot of moisture is rising from the sea surface to the atmosphere.

The image on the right shows that sea surface temperatures in the Bering Strait were as high as 19°C (or 66.2°F) on July 22, 2017. This is partly the result of warm water from rivers entering the Bering Strait.

Furthermore, cyclones can make winds reach high speeds. The image below shows Typhoon Noru approaching Japan.

The image shows a forecast for August 5, 2017, 18:00 UTC. Waves have been forecast to be as high as 16.15 m or 53 ft, while winds have been forecast to be as fast as 214 km/h or 133 mph or 116 kn.

Total precipitable water has been forecast to be as much as 91.000 kg/m² and 3-hr Precipitation Accumulation has been forecast to be as much as 281.3 mm (or 281.3 kg/m²) or 11.07 in.

Back to the Arctic, where strong winds and moist air combine to make a lot of rain, as temperatures are well above freezing in most areas, as illustrated by the image on the right (showing air temperature at 2 m).

The image below shows how strong winds are pushing warm and moist air through the Bering Strait on July 31, 2017 at surface level (left), at 700 hPa (center) and at 250 hPa (right), where the jet stream used to separate the cold air in the Arctic from the warmer air further south.

As the image also shows, the jet stream is getting more and more out of shape, at places crossing the Arctic Ocean.

The image below shows trends for both Arctic and Antarctic sea ice area pointing downward.

When looking at sea ice volume, zero sea ice in September 2017 is within the margins of the trendline below on the right.

[ Arctic sea ice, gone by Sept. 2017? ]Given the speed at which many feedbacks can kick in and the interaction between warming elements, Arctic sea ice volume may well be gone by September 2017.

The low sea ice volume means that there is very little sea ice left to act as a buffer this year. Therefore, a huge amount of heat will not be able to be consumed this year in the process of melting ice and will instead speed up warming of water of the Arctic Ocean.

Less sea ice additionally means that less sunlight will be reflected back into space, and this heat will instead further speed up Arctic warming.

The Buffer has gone, feedback #14 on the Feedbacks page
Where can all this extra heat go? Sea ice is expected to start sealing off much of the surface of the Arctic Ocean by the end of September 2017, which will make it harder for heat to escape the Arctic Ocean by entering the atmosphere.

The danger is that much of the extra heat will instead reach sediments at the seafloor of the Arctic Ocean that contain huge amounts of methane in currently still frozen hydrates.

The image on the right shows that methane reached levels as high as 2583 ppb on July 31, 2017.

The image also shows high methane levels over Antarctica where hydrate destabilization also appears to be taking place, as discussed in an earlier post.

The situation is dire and calls for comprehensive and effective action, as described at the Climate Plan.


• Climate Plan

• 10°C or 18°F warmer by 2021?

• Abrupt Warming - How Much And How Fast?

• Accelerating growth in CO₂ levels in the atmosphere

• Feedbacks

• Extinction

• Methane Erupting From Arctic Ocean Seafloor

• Warning of mass extinction of species, including humans, within one decade


Do, 13/07/2017 - 15:18
Levels of carbon dioxide (CO2) in the atmosphere are accelerating, even though emissions from fossil fuel burning have remained virtually the same over the past few years.

One of the reason behind this is accelerating emissions from wildfires as temperatures are rising.

Wildfires in Nevada caused CO2 to reach levels as high as 742 ppm on July 12, 2017 (green circle image on the right).

Global warming is greatly increasing the chance for what was previously seen as an extreme weather event to occur, such as a combination of droughts and storms. Heat waves and droughts can cause much vegetation to be in a bad condition, while high temperatures can come with strong winds, storms and lightning.

Wildfires cause a range of emissions, including CO2, soot, methane and carbon monoxide (CO). In Nevada, CO levels were as high as 30.43 ppm (green circle image right).

Above satellite image below shows the smoke plumes and the charred area. The google maps image below further shows where the fires were burning.

At the moment, wildfires are hitting many places around the world.

Wildfires caused carbon dioxide to reach levels as high as 746 ppm on July 11, 2017 (green circle on image on the right).

Carbon monoxide levels in the area were as high as 20.96 ppm on July 10, 2017.

The satellite image shows wildfires in Kazakhstan on July 9, 2017.

The satellite images show wildfires in Kazakhstan on July 11, 2017.

Meanwhile, temperatures keep rising. Surface temperature as high as 53.1°C or 127.5°F were forecast in Iran for July 11, 2017, at the location marked by the green circle on the image below.

At 1000 mb (image below), temperatures in Iran were forecast to be slightly lower, i.e. as high as 51.9°C or 125.3°F at the location marked by the at green circle, but note the difference in color, especially over Greenland, the Himalayas and the Tibetan Plateau.

The situation is dire and calls for comprehensive and effective action as described at the Climate Plan.

Rain Over Arctic Ocean

Mo, 10/07/2017 - 12:56
It's raining over the Arctic Ocean and the rain is devastating the sea ice. What are the conditions that led to this?

As has been known for a long time, energy is added to Earth due to emissions by people and this translates into a warmer troposphere with more water vapor, warmer oceans and stronger winds.

Warming is hitting the Arctic particularly hard, due to numerous feedbacks, as illustrated by the sea surface temperature anomalies image on the right.

On July 6, 2017, cyclonic winds lined up to create a 'perfect storm'. As a result, an Atmospheric River of moisture was driven through Bering Strait into the Arctic Ocean, as shown on the images below.

On July 6, 2017, 1500 UTC, winds in Bering Strait were as high as 58 km/h (36 mph) at surface level (green circle on above image left), and as high as 82 km/h (51 mph) at 850 mb (green circle on above image right).

On July 6, 2017, surface temperatures of the air in Bering Strait were as high as 8.1°C (46.5°F) (green circle on image right).

Another indication of the strength of the wind driven through Bering Strait is wave height. On July 6, 2017, waves were as high as 3.35 m or 11 ft in the Bering Strait, at the location marked by the green circle on the image on the right.

The relatively warm and moist air driven through Bering Strait by strong winds is causing rain to fall over the sea ice of the Arctic Ocean, as shown on the video and images further below.

On July 7, 2017, high air temperatures were recorded over land and over the water.

The image below shows temperatures recorded at two locations over the Mackenzie River, one of 32.6°C or 90.8°F at the mouth of the Mackenzie River and another one of 34.7°C or 94.5°F further inland. Warm water from rivers can substantially warm up the sea surface and thus melt the sea ice.

Temperature of the surface of the water was 10°C or 50.1°F where the water was pushed into the Bering Strait, while temperatures as high as 46.9°C or 116.3°F were recorded over California.

The combined impact of high temperatures, strong winds, high waves and warm river water, rain water and melt water looks set to further devastate what sea ice is left in the Arctic Ocean.

Rain can be particularly devastating. The very force at which rain strikes can fracture the sea ice where it's weak, while pools of rainwater and meltwater will form at places where the sea ice is stronger. Where fractures appear in the sea ice, warm water can reach further parts of the ice and widen the cracks.

The video below shows rain over the Arctic Ocean. The video was created with forecasts from July 3, 2017, 18:00 UTC to July 17, 2017, 00:00 UTC.

Arctic sea ice is in a terrible shape. Sea ice volume is at a record low, as indicated by the Wipneus image below showing volume anomalies from 2002.
The image below, by Torstein Viddal, shows how low the 2017 year-to-date average sea ice volume is.

An additional danger is wildfires. Due to high temperatures, wildfires have broken out near the Mackenzie River, as illustrated by the satellite image below.

Wildfires come with a lot of emissions, including soot that darkens the surface when settling down, thus further speeding up warming.

The situation is dire and calls for comprehensive and effective action as described at the Climate Plan.

High Waves Set To Batter Arctic Ocean

Di, 06/06/2017 - 16:33
High temperatures hit Pakistan end May 2017. The image below shows readings as high as 51.1°C or 123.9°F on May 27, 2017 (at green circle).

As the image below shows, sea temperature was as high as 32.6°C or 90.6°F on May 28, 2017 (at the green circle), 1.8°C or 3.2°F warmer than 1981-2011.

High temperatures over land and at the sea surface reflect an atmosphere that contains huge amounts of energy. On May 27, 2017, the Convective Available Potential Energy (CAPE) was predicted to be as high as 6976 J/kg at the location in the United States marked by the green circle. Storms subsequently hit a large part of the United States, with baseball-sized hail reported in the Kansas area.

Storms look also set to hit the Arctic Ocean over the next few months.

Waves as high as 2.34 m or 7.7 ft are forecast to hit the Arctic Ocean on June 8, 2017, at the location marked by the green circle.

How is it possible for waves to get that high in a part of the Arctic Ocean that is surrounded by continents that act as shields against winds?

On June 8, 2017, temperatures are forecast to be as high as 40.6°C or 105.2°F near Phoenix, Arizona, and as high as 26.0°C or 78.7°F in Alaska, as the image below shows.

These high temperatures on land are warming up the Arctic Ocean in a number of ways. Firstly, as above image shows, warm air is getting blown from Siberia over the Arctic Ocean.

Secondly, high temperatures on land can strongly warm up water of rivers flowing into the Arctic Ocean.

Thirdly, rising temperatures in the Arctic are causing wind patterns to changing, in particular the jet stream.

The image on the right shows the same area as above image, but this time showing a forecast for the jet stream for June 8, 2017.

As temperatures over the Arctic rise faster than they do at the Equator, the jet stream becomes more wavy, and where loops extend over the Arctic Ocean, as the image shows, they can bring strong winds and higher temperatures into the Arctic. Strong winds can cause high waves and these waves can break up the sea ice, mix warmer water all the way down to the seafloor, and destabilize hydrates that can contain huge amounts of methane.

The situation is dire and calls for comprehensive and effective action, as described in the Climate Plan.