Invisible matter in the solar system: new observational evidence

Slides:



Advertisements
Similar presentations
The Science of Solar B Transient phenomena – this aim covers the wide ranges of explosive phenomena observed on the Sun – from small scale flaring in the.
Advertisements

Week 10 Dark Matter Reading: Dark Matter: 16.1, 16.5d (4 pages)
Hubble Science Briefing Hubble Does Double-Duty Science: Finding Planets and Characterizing Stellar Flares in an Old Stellar Population Rachel Osten Space.
Searching for N 2 And Ammonia In Saturn's Inner Magnetosphere Polar Gateways Arctic Circle Sunrise 2008 Polar Gateways Arctic Circle Sunrise January.
SH13A-2240 Automatic Detection of EUV Coronal Loops from SDO-AIA Data Alissa N. Oppenheimer¹ ( ), A. Winebarger², S. Farid³,
+ Hard X-Ray Footpoint Motion and Progressive Hardening in Solar Flares Margot Robinson Mentor: Dr. Angela DesJardins MSU Solar Physics Summer REU, 2010.
Ryan Payne Advisor: Dana Longcope. Solar Flares General  Solar flares are violent releases of matter and energy within active regions on the Sun.  Flares.
RHESSI/GOES Observations of the Non-flaring Sun from 2002 to J. McTiernan SSL/UCB.
Space Physics at Mars Paul Withers Journal Club Research Talk Center for Space Physics, Boston University Aims: Show students how principles.
MACRO Atmospheric Neutrinos Barry Barish 5 May 00 1.Neutrino oscillations 2.WIMPs 3.Astrophysical point sources.
What stellar properties can be learnt from planetary transits Adriana Válio Roque da Silva CRAAM/Mackenzie.
Adriana V. R. Silva CRAAM/Mackenzie COROT /11/2005.
The Sun. Sun Considered a medium STAR 93,000,000 miles away from Earth 1.39 million kilometers in diameter (one million Earths can fit inside the sun.
The Sun and the Solar System
1 Saturn Aurora: The ionospheric and magnetospheric fingerprint, and a manifestation of interactions beyond. Saturn Aurora: The ionospheric and magnetospheric.
The Sun Earth Science - Mr. Gallagher. The Sun is the Earth's nearest star. Similar to most typical stars, it is a large ball of hot electrically charged.
Earth Science With Mr. Thomas.  All stars get their energy from fusion: - the combining of the nuclei of lighter elements to form a heavier element.
 The visible light we see is only a small amount of energy coming from various objects.  By studying other forms of energy, astronomers can learn more.
The Sun Our Nearest Star. The Source of the Sun’s Energy The Source of the Sun’s Energy Fusion of light elements into heavier elements. Hydrogen converts.
High Resolution Imaging and EUV spectroscopy for RHESSI Microflares S. Berkebile-Stoiser 1, P. Gömöry 1,2, J. Rybák 2, A.M. Veronig 1, M. Temmer 1, P.
The Sun By Jack. What is the sun? The sun is a star, it is the closest star to Earth and is the centre of our solar system. It is an average star, meaning.
 The sun lies at the heart of the solar system, where it is by far the largest object. (1)It holds 99.8 percent of the solar system's mass and is (2)roughly.
SHINE SEP Campaign Events: Long-term development of solar corona in build-up to the SEP events of 21 April 2002 and 24 August 2002 A. J. Coyner, D. Alexander,
The Sun- Solar Activity. Damage to communications & power systems.
Solar Wind and Coronal Mass Ejections
The Sun 1 of 200 billion stars in the Milky Way. Our primary source of energy.
The Sun.
Space Science MO&DA Programs - September Page 1 SS It is known that the aurora is created by intense electron beams which impact the upper atmosphere.
The ionosphere of Mars never looked like this before Paul Withers Boston University Space Physics Group meeting, University of Michigan.
The Sun and the Solar System Chapter Sun’s Size, Heat and Structure Diameter= 1,400,000 km or 868,000 miles –More than 3x the distance of Earth.
1 The effects of solar flares on planetary ionospheres Paul Withers and Michael Mendillo Boston University 725 Commonwealth Avenue, Boston MA 02215, USA.
1. active prominences - solar prominences that change in a matter of hours.
Our Star, the Sun. The Sun is the Largest Object in the Solar System The Sun contains more than 99.85% of the total mass of the solar system If you.
The Sun Diameter is 110 times Earth’s Mass is 745 times Earth’s
Know about the Sun’s Energy Know about the Sun’s Core, Atmosphere, and Sunspots Comprehend the Solar System’s Structure The Sun and It’s Domain.
The Solar System. Nebula Theory (our solar system) The solar system started from the spinning and condensing of a cloud of dust and gas. The greatest.
Ch 26 The Sun & the Solar System Review. Name & describe the location of the layers of the sun. What happens in each layer? How does the temperature change?
The Sun: Our star.
THE SUN, OUR NEAREST STAR STARS ARE FORMED IN GIANT CLOUDS OF DUST CALLED NEBULA.
Signals for invisible matter from solar - terrestrial observations Konstantin Zioutas University of Patras / Greece Work with: Sergio Bertolucci, Sebastian.
Our Star, the Sun. The Sun is the Largest Object in the Solar System The Sun contains more than 99.85% of the total mass of the solar system If you.
Signals for invisible matter from solar – terrestrial observations [ ] The Sun and its Planets as detectors for invisible matter arXiv:
University of Patras / Greece
The Sun: Our star.
University of Patras / Greece
A joint study of the University of Göttingen (1) and Astrium (2)
Kimura, T. , R. P. Kraft, R. F. Elsner, G. Branduardi-Raymont, G. R
Atmosphere-Ionosphere Wave Coupling as Revealed in Swarm Plasma Densities and Drifts Jeffrey M. Forbes Department of Aerospace Engineering Sciences, University.
A Relation between Solar Flare Manifestations and the GLE Onset
Intensities of SATURN KILOMETRIC RADIATION
Neutrino astronomy Measuring the Sun’s Core
Phillip Chamberlin Solar Flares (303) University of Colorado
SSA Review # 1 - Astronomy
The Big Bang Theory There was a large explosion in the center of the universe. All the matter in the universe came from this explosion.
Size and Mass in the Universe
The Sun.
Chapter 29-2 Solar Activity.
PHYS 2070 Tetyana Dyachyshyn
The Sun: Our star.
Earth Science Ch. 24 The Sun.
Motions of isolated G-band bright points in the solar photosphere
The Sun’s Surface and Activity
The Sun & It’s Solar System
The properties of CMEs embedded in extreme solar wind
Exploring the ionosphere of Mars
Exploring the ionosphere of Mars
The Sun.
Ch. 26 The Sun and the Solar System
The Sun.
Long-term trends of magnetic bright points: The evolution of MBP size and modelling of the number of MBPs at disc centre D. Utz [1,2,3], T. Van Doorsselaere.
Presentation transcript:

Invisible matter in the solar system: new observational evidence Konstantin Zioutas University of Patras / Greece Collaboration work with: Sergio Bertolucci, Horst Fischer, Sebastian Hofmann, Marios Maroudas [ ] S. Bertolucci et al., Phys. Dark Universe 17 (2017) 13, and ref’s therein. https://doi.org/10.1016/j.dark.2017.06.001 New solar data received from: M.J. Aschwanden / Lockheed Martin, Palo Alto / USA >> New list of the 1976-2012 GOES solar Flares D.H. Brooks / Virginia/ USA >> 2010-2014 coronal element abundances D. Utz / IGAM, Institute of Physics, University of Graz /Austria >> 2006-2016 HINODE/SOT solar Magnetic Bright Points IBS Conference on Dark World 30th October – 3rd November, 2017 KAIST Munji Campus, Daejeon, Korea 2nd November 2017

Physics of the Dark Universe First Time Impact Factor 8.57... ranking #6 … the highest among non-review journals! Most Downloaded Articles: 1) Spontaneous creation of the Universe Ex Nihilo December 2013 Maya Lincoln | Avi Wasser 2) The Sun and its Planets as detectors for invisible matter September 2017 >>> 1311x Sergio Bertolucci | Konstantin Zioutas | Sebastian Hofmann | Marios Maroudas https://www.mendeley.com/stats/articles/2-s2.0-85024498415 The question towards this work …. p. 7 http://cerncourier.com/cws/article/cern/69886

? Dark sector signatures are not expected! - WIMPs - Photon (dis)- appearance Solar / terrestrial behavior is unexpected Dark sector signatures are not expected! Within known physics The unnoticed manifestation of the Dark sector ? Intrinsic? External?

Solar Flares Solar Corona Ionosphere too long remain unanswered! 1859 - unpredictable mysteries one of the most important challenges in solar physics [1] 1939 - one of the fundamental problems in space science [2]. Solar Corona [1] V. Polito et al., ApJ 816 (2016) 89 ; https://doi.org/10.3847/0004-637X/816/2/89 [2] J.A. Klimchuk et al. , PASJ (2017); https://arxiv.org/abs/1709.07320 [3] E.V. Appleton, Proc. Roy. Soc. London A162 (1937) 451; http://rspa.royalsocietypublishing.org/content/162/911/451 . Ionosphere 1937 - a long-standing unexplained annual anomaly [3]: ρe(DEC) > ρe(JUNE) too long remain unanswered! MBPs + solar composition

? Planetary (and solar) gravitational focusing of The working hypothesis: Planetary (and solar) gravitational focusing of non-relativistic “invisible massive particles” The focused invisible streaming matter interacts somehow with solar / planetary atmospheres  Repeating activity enhancement every time the planetary alignment occurs Timing = Θlongitude Search for planetary correlations ? origin

351923 Flares Thanks to Markus J. Aschwanden !

EARTH

VENUS BIN=12o

MERCURY Original Original - Random BIN=8o ALL FLARES original BIN=18o Eccentricity removed BIN=18o

MERCURY LARGE FLARES SMALL FLARES ! BIN=8o >> 152 orbits

Flares =/=> f(Θlongitude) MERCURY Large/ALL… BIN=8o ..removes eccentricity Known physics: Flares =/=> f(Θlongitude) => Residuals ≈ 1 This work: - Flare-energy dependent planetary correlation  unknown physics  - Narrow peak(s) exclude gravitational tidal forces

Combined planetary effects

MERCURY  VENUS EXCESS/RANDOM >45%  dominating planetary impact  Distributions of M-class solar flares as a function of Mercury’s heliocentric longitude with the constraint of Venus being at longitude between 215°–305° (top) and between 35°–125° (bottom). The dotted black lines represent the expected number of flares if they were equally distributed in time. (BIN=14.4o) EXCESS/RANDOM >45%  dominating planetary impact  3 NARROW PEAKS =/=> tidal forces http://cerncourier.com/cws/article/cern/69886

MERCURY  VENUS ALL Flares BIN=18o

ALL Flares VENUS  EARTH BIN=4o ? !

ALL Flares MERCURY  EARTH G.C.? BIN=4o

ALL Flares VENUS  EARTH G.C.? ~20o BIN=4o

ALL Flares EARTH  MERCURY G.C.? BIN=1.5o BIN=3o BIN=3o

ALL Flares EARTH  JUPITER G.C.? BIN=3o BIN=3o

! !? FWHM more narrow ~3x ALL Flares If JUPITER-EARTH aligned: EARTH  G.C.? BIN=3o BIN=1.5o ! If JUPITER-EARTH aligned: FWHM more narrow ~3x !?

Beyond Flares-EUV: Ionosphere… … anomalies lasting for some decades >>> First obs’ 1937

TECUs/d = f(MOONPHASE) VENUS  MERCURY BIN=4o TECUs/d = f(MOONPHASE) x

Beyond Flares-EUV: MBPs Dominik Utz, FWF Project: The interaction of the solar granulation with small-scale magnetic fields (MBPs). D. Utz, et al., https://arxiv.org/abs/1710.01678

Magnetic Bright Points Small scale magnetic flux concentrations kG fields ~ 200 km diameters Bright (especially in the G-band) Found in intergranular regions Lifetimes in min. range Theoretical Models Single isolated flux tubes In the higher atmosphere canopy structue Created by convective collapse process

D. Utz: excluding ARs, incomplete image transfers, etc. 

MBPs – planetary relations 14% 10% VENUS EARTH !

Beyond Flares-EUV: Solar composition The 27-day running average ratio coronal (AC) to photospheric (AP) composition in the Sun’s corona THANKS to David Brooks! DH Brooks, Baker, van Driel-Gesztelyi, Warren, Nature Comm.  8 (3rd Aug 2017) 183 https://www.nature.com/articles/s41467-017-00328-7.pdf

! Solar-element-abundances – planetary correlations EARTH MERCURY  VENUS BIN=15o 14% ! DH Brooks, D Baker, L van Driel-Gesztelyi, HP Warren, Nature Comm.8 (3rd August 2017) 183 https://www.nature.com/articles/s41467-017-00328-7

“Solar composition problem” The mystery of the sun’s missing matter “perhaps we are looking at the sun in the wrong way” S. Palus, NEW SCIENTIST (18th Oct. 2017) https://www.newscientist.com/issue/3148/

Conclusions The analysis of more data: Supports the working hypothesis that streaming invisible particles are focused by the planets and trigger the onset of diverse phenomena. Confirms an even more striking peaking distribution (in planetary longitudes) of solar activity and the electron content of the Ionosphere; tidal related effects are excluded, with the planetary working hypothesis remaining as the only viable scheme. The nature of the ‘invisible matter’ ? Anti-quark nuggets are presently the best candidate and they deserve further consideration. First indication of an invisible stream from the galactic center direction is fitting-in solar + ionosphere data >> FWHM = f(planetary configuration)! We strongly suggest the re-analysis of Dark Matter exp’s like DAMA, KIMS,…, but also other solar system observations. DM searches can profit from temporal signal enhancement like: Sikivie effect, ABRACADABRA, Dish Antenna, CASPEr, EDM osci’s in storage rings. Therefore, ….

The Dark World is not dark! THANK YOU

Additional slides

Three cases are calculated: Left columne: a particle starts at rest at 12 AU and 266 degrees longitude, Middle: initial velocity of the particle at 12 AU is 70m/s Right: the particle moves with speed of light. From Saturn it would reach the sun in 1.5 hours and we could not observe any angular shift within our resolution or binning, respectively. The table gives the „observed“ position of a planet for that moment when an event is observed at the sun and the planet was crossing a stream of DM at 266 longitude. Horst Fischer

ONE OF 4 INITIAL POISSON DISTRIBUTIONS mean value = 25 SIGMA/MEAN ~ 20% MULTIPLICATION OF 4 POISSON DISTRIBUTIONS each with mean=25  SIGMA/MEAN ~ 40% CONCLUSION: multiplying random distributions => NO PEAKS

Solar flaring activityEUV emission MERCURY  VENUS FLARES/EUV Solar flaring activityEUV emission = corona >>> (partly) common origin?

UNIVERSE SUN ~3000K ~6000K ± MK

EUV  X-Flares 40d 12%

Visible  130-Flares