The Connections Between Cosmic Rays Clouds and Climate

Prof Henrik Svensmark & Jacob Svensmark discuss the connection between cosmic rays, clouds and climate with the GWPF’s Benny Peiser and Jonny Bairstow from Energy Live News after his recent presentation in London. Video and slideshow follow.

H/T to Watts Up With That


Weak Solar Activity And La Nina Forebode Cooling Temperatures For The Months Ahead

By P Gosselin on 13. December 2017

The Sun in November 2017

By Frank Bosse and Prof. Fritz Vahrenholt
(Translated and edited by P Gosselin)

In November the sun was unusually quiet with respect to activity. The observed sunspot number (SSN) was merely 5.7, which is only 14% of what is typically normal for month number 108 into the cycle. The current cycle number 24 began in December 2008. The sun was completely spotless 19 of 30 days in November.

At the end of the month some activity appeared, but only at a very low level. The following chart depicts the current cycle’s activity:

Figure 1: The monthly SSN values for the current solar cycle 24 (red) 108 months into the cycle, the curve for the mean of the previous 23 cycles (blue), and the similar solar cycle number 5 (black). Enlarged

The next chart shows a comparison of all observed solar cycles thus far:

Figure 2: The monthly accumulated anomalies of the cycles up to 108 months into the cycle. Cycle number 24 has taken third place for the most inactive. Enlarged

Icecap Note: The ability with today’s advanced technology to see the smallest spots or pores probably inflates the number of spots and diminishes the number of spotless days.

The situation thus remains unchanged: such a weak solar cycle has not been witnessed in 200 years. It is anticipated with quite high certainty that also the upcoming solar cycle number 25 will be about as weak, because the sun’s polar fields are about as strong as they were during the minimum between cycle number 23 and cycle number 24.

The very weak solar north pole so far has recovered significantly over the past few months since June. What this means now and for the future can be seen graphically at the chart posted here. You can find the latest information at

LaNina is here

An update to our last post here is surely of interest. We were sure of a La Nina by the end of December, and in the meantime, the Australian Bureau of Meteorology officially announced a La Nina in its most recent bulletin. The current model forecast shows continued falling sea surface temperatures along the equatorial eastern Pacific until about February, 2018:

Figure 3: The model for El Nino/La Nina in the Pacific, Source: NOAA. All forecasts point to a moderately strong La Nina event until spring. A powerful La Nina such as the one observed in 2011/12 is currently not projected by the models (which incidentally did not even forecast a La Nina just a few months ago). Enlarged

The impacts on global temperatures lag behind by about 3 to 4 months, and so we should expect a La Nina dip by spring.

When the sun pulses X-rays, Earth’s ionosphere pulses in sync

The earth’s upper atmosphere has a closer link to the sun than was previously know. When sun burps X-Rays the Ionosphere pulse in sync.

Full article at is at WUWT, but here is the interesting part.

. . .the team of scientists — led by Laura Hayes, a solar physicist who splits her time between NASA Goddard and Trinity College in Dublin, Ireland, and her thesis adviser Peter Gallagher — looked at how the lowest layer of the ionosphere, called the D-region, responded to pulsations in a solar flare.

“This is the region of the ionosphere that affects high-frequency communications and navigation signals,” Hayes said. “Signals travel through the D-region, and changes in the electron density affect whether the signal is absorbed, or degraded.”

The scientists used data from very low frequency, or VLF, radio signals to probe the flare’s effects on the D-region. These were standard communication signals transmitted from Maine and received in Ireland. The denser the ionosphere, the more likely these signals are to run into charged particles along their way from a signal transmitter to its receiver. By monitoring how the VLF signals propagate from one end to the other, scientists can map out changes in electron density.

Pooling together the VLF data and X-ray and extreme ultraviolet observations from GOES and SDO, the team found the D-region’s electron density was pulsing in concert with X-ray pulses on the Sun. They published their results in the Journal of Geophysical Research on Oct. 17, 2017.

“X-rays impinge on the ionosphere and because the amount of X-ray radiation coming in is changing, the amount of ionization in the ionosphere changes too,” said Jack Ireland, a co-author on both studies and Goddard solar physicist. “We’ve seen X-ray oscillations before, but the oscillating ionosphere response hasn’t been detected in the past.”

Hayes and her colleagues used a model to determine just how much the electron density changed during the flare. In response to incoming radiation, they found the density increased as much as 100 times in just 20 minutes during the pulses — an exciting observation for the scientists who didn’t expect oscillating signals in a flare would have such a noticeable effect in the ionosphere. With further study, the team hopes to understand how the ionosphere responds to X-ray oscillations at different timescales, and whether other solar flares induce this response.

“This is an exciting result, showing Earth’s atmosphere is more closely linked to solar X-ray variability than previously thought,” Hayes said. “Now we plan to further explore this dynamic relationship between the Sun and Earth’s atmosphere.”

Both of these studies took advantage of the fact that we are increasingly able to track solar activity and space weather from a number of vantage points. Understanding the space weather that affects us at Earth requires understanding a dynamic system that stretches from the Sun all the way to our upper atmosphere — a system that can only be understood by tapping into a wide range of missions scattered throughout space.

I think we are about to learn the sun has more influence on our weather than we currently understand.  Your thoughts?

On the Cusp of the Next Grand Minimum?


One of the signs that we are on the cusp of the Next Grand Minimum is an increase in the number late spring frosts and early on set of winter frost and snow.

The Bonsetreporting world wine production ‘to hit 50-year low due to extreem weather, even though they failed to mention it was due to severe spring frost.

Here are estimates of the drops in wine production by country:

• Italian production will fall 23% to 39.3 million hectolitres.

• French production will drop 19% to 36.7 million hectolitres … its worst harvest since 1945.

• Spanish production will be 15% lower at 33.5 million hectolitres.

• A hectolitre is 100 litres, equivalent to about 133 standard 750mL bottles.

The BBC may blame ‘extreme weather,’ but back in August the French agriculture minister presented a more honest picture, saying that the losses were “mainly attributable to the severe spring frost.”

Bitter cold struck twice within a week in April, ravaging fragile shoots and buds.

Switzerland, Austria, Germany and Hungary also experienced hard frosts this year, and were worried that wine harvests could fall by 30%, even up to 60% in some areas.

H/T to Ice Age Now

Waiting for the early winter cold. Stay tuned.

High Energy Cosmic Rays Not From Our Galaxy



This sky map shows the flux of high-energy (E ≥ 8 EeV) cosmic rays used for this study. The cross marks the source of the cosmic rays, while the circles denote the 68% and 95% confidence level regions.
The Pierre Auger Collaboration.


Last week, an international team of over 400 researchers from 18 nations finally confirmed that high-energy cosmic rays are not coming from inside the Milky Way Galaxy, but instead from somewhere beyond.

In the study, published September 22 in the journal Science, the researchers gathered over ten years of data taken with the Pierre Auger Observatory to determine whether high-energy cosmic rays were hitting Earth equally from all directions. They are not.

Instead, the researchers found an overabundance of cosmic rays arriving from one specific region in the sky, located about 120 degrees away from our galactic center, in a direction that falls outside the Milky Way’s disk and cannot be associated with any possible sources within the galaxy. The researchers concluded that high-energy cosmic rays must have extragalactic origins.


Since high-energy cosmic rays have been associated with cloud formation, I was wondering if the cosmic ray numbers fluxed, or were they a stable stream? If the number was stable, the impact would be the same on cloud formation. However, if they varied over time, the cosmic rays could impact our climate from afar? Does anyone have more information, access to the paper?

Solar Minimum in 2019-2020

According to the NASA Video below the next solar minimum is on the way and should arrive by 2019

As the next solar minimum is exposed by time, I will be focusing more on this event and its potential impact on the climate and our daily lives.

One of the events associated with a quiet sun in the increased number of high-energy cosmic rays that can reach the earth and it’s atmosphere. These cosmic rays are mention in the video. and the students of Earth to Sky Calculus project have been tracking the increase in cosmic rays since 2015 When the number of sunspots started to decline. and the students of Earth to Sky Calculus fly space weather balloons to the stratosphere over California. These balloons are equipped with radiation sensors that detect cosmic rays, a surprisingly “down to Earth” form of space weather. Cosmic rays can seed clouds, trigger lightning, and penetrate commercial airplanes.


See Cosmic Rays in the Atmosphere at for more details.


A GLOBAL cooldown will usher in a 100-year mini-ice age, UK Experts

Details in the UK Daily Star:

Experts told Daily Star Online planet Earth is on course for a “Little Age Ice” within the next three years thanks to a cocktail of climate change and low solar activity.

Research shows a natural cooling cycle that occurs every 230 years began in 2014 and will send temperatures plummeting even further by 2019.

Scientists are also expecting a “huge reduction” in solar activity for 33 years between 2020 and 2053 that will cause thermometers to crash.

Both cycles suggest Earth is entering a global cooling cycle that could have devastating consequences for global economy, human life and society as we know it.


David Dilley, CEO of Global Weather Oscillations, told Daily Star Online global warming and cooling cycles are determined by the gravitational forces of the Earth, moon and sun.

Each cycle lasts around 120,000 years, with sub-cycles of around 230 years.

He said: “We have had five warming cycles since about 900AD, each followed by a dramatic cooling cycle.

“The last global warming cycle ended in 1790 and the year 2020 is 230 following this – thus I have been talking about rapid cooling beginning in 2019.”

He said the oncoming cooling will send temperatures plummeting to lows last seen in the 1940s – when the mercury bottomed out at -21C during winter in the UK.

He said: “Cooling from 2019 into about 2020 to 2021 will bring world temperatures back to where they were in the 1940s through the 1960s.

“The Arctic will freeze solid and rapidly by 2020 and thus allow much more Arctic air to build up and move southward toward Great Britain.

“Expect by the mid to late 2020s that winter temperatures will dip even colder than the 1940s to 1960s.

“This will last for 60 to 100 years and then a gradual warm-up toward the next global warming cycle that will not be as warm as the one we are now coming out of.”


The Met Office has previously told Daily Star Online that a new mini-ice age is a “worst case scenario”, adding that while temperatures are likely to dip, it will do little to offset man-made global warming.

But, if there is no global warming, as the pause continues, we could still see some serious cooling on the scale of a Maunder Minimum over then next 60–70 years.