• Simple Item 1
  • 1

Didaktisches

U. von Kusserow, H. Mikelskis (2002) Vom Technischen Generator zum Kosmischen Dynamo - Elemente einer didaktischen Aufbereitung

U. von Kusserow, H. Mikelskis (2003) Weltraumwetter - Unterricht über Kosmische Magnetfelder

U. von Kusserow (2000) Lernen über Kosmische Magnetfelder (Teil 1)

U. von Kusserow (2000) Lernen über Kosmische Magnetfelder (Teil 2)

Prolog

M. Schüssler (2003) Perspektiven der Erforschung von Sonne und Heliosphäre

R. F. Wimmer-Schweingruber (2011) Extraterrestrische Physik

Kapitel 1 Das Sonnensystem und die Heliosphäre

F. Kneer u. a. (2003) Perspektiven der Erforschung von Sonne und Heliosphäre in Deutschland

1.1 Eigenschaften des Sonnensystems

StanfoE. J. Weber,  L. Davis Jr. (1967) The Angular Momentum of the Solar Windrd University (2020) Our Solar System - Ancient Worlds, New Discoveries

J. Zhao et al. (2022) Broadband Electrostatic Waves near the Lower-hybrid Frequency in the Near-Sun Solar Wind Observed by the Parker Solar Probe

1.2 Dynamoprozesse und magnetische Eigenschaften

S. - Y. Jeong et al. (2022) The Stability of the Electron Strahl against the Oblique Fast-magnetosonic/Whistler Instability in the Inner HeliosphereInstability in the Inner Heliosphere

1.3 Der Einfluss der Sonne auf die Heliosphäre

H. Sanderson et al. (2022) Can scallop-shell stars trap dust in their magnetic fields?

Springer Living Reviews in Solar Physics

1.4 Zur Erforschung des heliosphärischen Weltraumwetters

Space Weather has  a Long History ...

J. A. Broun (1858) On certain Results of Magnetical Oberservations

W.B. Cade III, C. Chan-Park (2015) The Origin of "Space Weather"

ESO A Brief History of Comets I (until 1950)

ESA  A History of Comets - Part 1. From harbingers of doom to celestial wanderers

M.-T. Federhofer M.-T,.(2014) "Magnetisches Ungewitter" und "Erd-Lichter": Alexander von Humboldt und das Nordlicht

R. M. Friedman (2012) Making Sense of the Aurora: A Research Project

T. E. Girish, G. Gopkumar, P. E. Eapen (2013) History of solar wind and space plasma physics revisited

N. Gopalswamy (2016) History and development of coronal mass ejections as a key player in solar terrestrial relationship

D. M. Hassler et al. (2022) Solaris: A Focused Solar Polar Discovery-class Mission to achieve the Highest Priority Heliophysics Science Now

H. Hayakawa u. a. (2020) South American auroral reports during Carrington storm

M. Korte, M. Mandea (2019) Geomagnetism: From Alexander von Humboldt to Current Challenges

S. Kwok (2018) The Path to Heliocentrism for  China and EuropeChina and Europe

S. R. C. Malin, D.R. Barraclough (1991) Humboldt and the Earth´s magnetic field

M. Mandea u. a. (2010) Alexander von Humboldt's charts of the Earth's magnetic field: an assessment based on modern models. - History of Geo- and Space Sciences

V. N. Obridko, O.L. Vaisberg (2016) On the History of the Solar Wind Discovery

E. N. Parker (2001) A history of early work on the heliospheric magnetic field

E. N. Parker (2001) A history of the solar wind concept 

K. Reich (2011) Alexander von Humboldt und Carl Friedrich Gauß als Wegbereiter der neuen Disziplin Erdmagnetismus

A. J. B. Russell (2018) 75th Anniversary of ´Existence of Electromagnetic-Hydrodynamic Waves´

K. Schlegel (2006) Space Weather and Alexander von Humboldt`s Kosmos

A. Stöger (2019) Vom Versuch zum Kosmos - Alexander von Humboldt und die Experimentierwissenschaften

O. Schwarz (2014) Alexander von Humboldt als astronomischer Arbeiter, Diskussionspartner und Ideengeber (siehe in Ingo Schwarz zum 65. Geburtstag, S.39 -50)

I. G. Usoskyn (2008) A History of Solar Activity over Millennia

 Y. Wang et al. (2022) Solar Ring Mission: Building a Panorama of the Sun and Inner-heliosphere

Kapitel 2 Erforschung der Sonne und Heliosphäre

2.1 Kurze Geschichte magnetischer Phänomene und Prozesse im Sonnensystem 

E. N. Parker (2001) A history of early work on the heliospheric magnetic field

G. P. Zank et al. (2022) The Early History of Heliospheric Science and the Spacecraft That Made It Possible

Plasmaphysik

B. T. Tsurutani  et al. (2022) Space Plasma Physics: A Review

2.2 Observatorien im Weltraum und auf der Erde

U. von Kusserow (2007) HINODE, STEREO und noch mehr Einblicke in die Zukunft der Sonnenbeobachtung (Teil 1)

U. von Kusserow (2007) GREGOR, NST und noch mehr Einblicke in die Zukunft der Sonnenbeobachtung (Teil 2)

U. von Kusserow (2007) SDO, SUNRISE und noch mehr Einblicke in die Zukunft der Sonnenbeobachtung (Teil 3)

U. von Kusserow (2008) Solar Orbiter, ATST und noch mehr Einblicke in die Zukunft der Sonnenbeobachtung (Teil 4)

U. von Kusserow (2008) Solar Sentinels, FASR und vielleicht auch Solar Probe - Einblicke in die Zukunft der Sonnenbeobachtung (Teil 5)

U. von Kusserow (2011) Sonnenteleskope auf den Kanarischen Inseln - Eine nicht nur „solare“ Bildergeschichte

2.3 Menschen und ihre Forschungsmethoden

2.4 Einige Messinstrumente und Messtechniken

M. J. Aschwanden (2011) Solar Stereoscopy and Tomography

A. Reiners (2012) Observations of Cool-Star Magnetic Fields

G. Del Zanna, H. E. Mason (2018) Solar UV and X-ray spectral diagnostics

2.5 Datenanalyse unter Ausnutzung physikalischer Effekte

2.6 Analytische Modellierung und Numerische Simulationen

 

 

Kapitel 3 Die magnetisch aktive Sonne

3.1 Magnetische Sonnenphänomene

Interstellarum (2013) Im Bann der Sonne

MPIA (1999) Sonnenatmosphaere, Sonnenwind, Sonnenaktivitaet

L. Gizon (2005) Am Puls der Sonne

3.2 Der innere Aufbau  und die Atmosphärenschichten der Sonne

S. Basu (2016) Global seismology of the Sun

A. - M. Broomhall et al. (2014) The Sun’s Interior Structure and Dynamics, and the Solar Cycle

T. Bührke (2011) Die Krone der Sonne

J. Christensen-Dalsgaard (2020) Solar structure and evolution

ESA ( )  The Structure of the Sun 

L. Gizon (2005) Local Helioseismology

V. H. Hansteen, M. Carlsson (2009) The Solar Atmosphere

R. Howe (2009) Solar Interior Rotation and its Variation

K. Irländer (2017) Die Sonne

MPS (2008) Die Sonne: Photosphäre und Chromosphäre

MPS (2005) Helioseismologie und das Innere der Sonne

MPS ( ) Solar Atmosphere 

Markus Roth (2004) Neue Blicke in das Innere der Sonne

L. B. Rubio, D. O. Suárez (2019) Quiet Sun magnetic fields: an observational view

S. K. Solanki (2004) The solar atmosphere

M. J. Thompson (2004) Helioseismology and the Sun’s interior

Princeton University ( ) The Solar Interior

Washington (2012) The Solar Atmosphere

3.3 Magnetische Sonnenflecken und solare Aktivitätszyklen

R. Arlt, J. M. Vaquero (2020) Historical sunspot records

J. M. Borrero, K. Ichimoto (2011) Magnetic Structure of Sunspots

A. Brandenburg (2005) The Case for a Distributed Solar Dynamo Shaped by Near-Surface Shear

A. R. Choudhuri (2011) The origin of the solar magnetic cycle

F. Clette et al. (2023) Reconstruction of the Sunspot Number Source Database and the 1947 Zurich Discontinuity 

L. van Driel-Gesztelyi, L. M. Green (2015) Evolution of Active Regions

ETH Zürich (2019) Fackeln, Flecken, Flares - Sonnenforschung an der ETH Zürich

C. Jin, G. Zhou (2022) Magnetic outbreak associated with exploding granulations

S. M. Hanasoge (2022) Surface and interior meridional circulation in the Sun

D. H. Hathaway (2015) The Solar Cycle

G. M. Horstmann et al. (2022) Tidally Forced Planetary Waves in the Tachocline of Solar-like Stars

U. von Kusserow  Indizien und Entwicklungs-Szenarien für solare Magnetfelder

U. von Kusserow Messung solarer magnetischer Flussdichten mit Hilfe des Zeeman-Effektes

U. von Kusserow (2009) Vermisste Sonnenflecken - Der Beginn eines neuen Maunder-Minimums? Über Bedeutung und Vorhersagemöglichkeiten der Entwicklung solarer Aktivitäts-Zyklen (Teil I)

U. von Kusserow (2009) Vermisste Sonnenflecken - Der Beginn eines neuen Maunder-Minimums? Über Bedeutung und Vorhersagemöglichkeiten der Entwicklung solarer Aktivitäts-Zyklen (Teil II)

U. von Kusserow (2010) Vermisste Sonnenflecken - Der Beginn eines neuen Maunder-Minimums? Über Bedeutung und Vorhersagemöglichkeiten der Entwicklung solarer Aktivitäts-Zyklen (Teil III)

U. von Kusserow (2010) Neues von der Sonne 2010 (Teil 1) Ein Bilderbogen im Telegrammstil

NASA  Ames (2022) Secrets of Sunspots and Solar Magnetic Fields Investigated in NASA Supercomputing Simulations

V. N. Obridko1, M. M. Katsova, D. D. Sokoloff1 (2022) Solar and stellar activity cycles — no synchronization with exoplanetsexoplanets

K. Petrovay (2020) Solar cycle prediction

M. Rempel, R. Schlichenmaier (2011) Sunspot Modeling: From Simplified Models to Radiative MHD Simulations

P. Riley (2022) On the Strength and Duration of Solar Cycle 25: A Novel Quantile-based Superposed Epoch Analysis

M. Schmassmann et al. (2022) Characterization of magneto-convection in sunspots - The Gough-Tayler stability criterion in MURaM sunspot simulations

S. Schmitt HZDR (2021) Die Taktgeber der Sonne - Alle Zyklen passen ins Bild: Berechnungen untermauern und erweitern Planetenhypothese

M. Schüssler (2015) Der Sonnenzyklus und die Planeten: eine unglückliche Beziehungsgeschichte

H. C. Spruit (2011) Theories of the Solar Cycle : A Critical View

F. Stefani et al. (2020) Schwabe, Gleissberg, Suess-de Vries: Towards a consistent model of planetary synchronization of solar cycles

F. Stefani, A. Giesecke, T. Weier (2018) A model of a tidally synchronized solar dynamo

F. Stefani, R. Stepanov, T. Weier (2020) Shaken and stirred: When Bond meets Suess-de Vries and Gnevyshev-Ohl

R. F. Stein (2012) Solar Surface Magneto-Convection

I. G. Usoskin (2017) A history of solar activity over millennia

B. T. Welsch (2022) The Photospheric Imprints of Coronal Electric Currents

Z. Zhang, J. Jiang, H. Zhang (2022) A Potential New Mechanism for the Butterfly Diagram of the Solar Cycle: Latitude-dependent Radial Flux Transport

3.4 Erzeugung solarer Magnetfelder in Dynamoprozessen

Y. Bekki, R. H. Cameron (2022) Three-dimensional non-kinematic simulation of post-emergence evolution of bipolar magnetic regions and Babcock-Leighton dynamo of the Sun

A. Brandenburg (2000) The Solar Dynamo: Old, Recent, and New Problems

P. Charbonneau (2020) Dynamo models of the solar cycle

A. R. Choudhuri, M. Schüssler, M. Dikpati (1995) The solar dynamo with meridional circulation

A. R. Choudhuri (2007) An Elementary Introduction to Solar Dynamo Theory

A. R. Choudhuri (2012) Flux-transport and mean-field dynamo theories of solar cycles

A. R. Choudhuri (2022) The emergence and growth of the flux transport dynamo model of the sunspot cycle

C. D. Duguid, P. J. Bushby, T. S. Wood (2023) Shear-driven magnetic buoyancy in the solar tachocline: The mean electromotive force due to rotation

B. K. Jha (2022) Long–term Study of the Sun and Its Implications to Solar Dynamo Models

S. M. Hanasoge (2022) Surface and interior meridional circulation in the Sun

B. B. Karak, K. Petrovay (2013) Flux Transport Dynamo coupled with a Fast Tachocline Scenario

B. B. Karak et al. (2014) Flux Transport Dynamos: From Kinematics to Dynamics

B. B. Karak, R. Cameron (2016) Babcock-Leighton solar dynamo: the role of downward pumping and the equatorward propagation of activity

M. Klevs1, F. Stefani, L. Jouve (2023) A synchronized two-dimensional α − Ω model of the solar dynamo

R. Kumar, L. Jouve, D. Nandy (2019) A 3D kinematic Babcock Leighton solar dynamo model sustained by dynamic magnetic buoyancy and flux transport processes

M. S. Miesch, M. Dikpati (2014) A 3D Babcock-Leighton Solar Dynamo Model

D. Nandy et al. (2023)  Exploring the Solar Poles: The Last Great Frontier of the Sun

U. von Kusserow (2019) Kosmische Dynamos und magnetische Rekonnexionsprozesse

E. N. Parker (1970) The Origin of the Solar Magnetic field

D. Passos (2012)  A Simple but Powerful Model of the Solar Cycle

A. P. Prabhu (2021, Dissertation) Towards constraining the solar dynamo with observational studies of the Sun’s magnetic field

K. H. Rädler (2014) Mean-field dynamos: The old concept and some recent developments

S. Sanchez et al. (2014) A mean-field Babcock-Leighton solar dynamo model with long-term variability

M. Stix (2007) Ein Stern als Dynamo

D. Tharakkal et al. (2022) Steady states of the Parker instability

A. Wilmot-Smith (2005) Low-order stellar dynamo models

K. - K. Zhang, X. - H. Liao (2003) The Kinematic Theory of Solar Dynamo

3.5 Chromosphärisches Netzwerk, Spikulen und Tornados

S. Bose et al. (2023) The chromosphere underneath a Coronal Bright Point

M. C. M. Cheung, H. Iso (2014) Flux Emergence (Theory)

S. Vargas Domınguez, D. Utz (2022) Interaction of convective plasma and small-scale magnetic fields in the lower solar atmosphere

Y. Duan et al. (2022) Macrospicules and Their Connection to Magnetic Reconnection in the Lower Atmosphere

K. J. Li,S. Evans et al. (2022) Multi-fluid Simulation of Solar Chromospheric Turbulence and Heating Due to the Thermal Farley-Buneman Instability

Y. Fan (2008) Magnetic Fields in the Solar Convection Zone

D. H. Mackay, A. R. Yeates (2011) The Sun’s Global Photospheric and Coronal Magnetic Fields: Observations and Models

F. Rincon, M. Rieutord (2018) The Sun’s supergranulation

J. C. Xu, W. Feng (2022) The role and contribution of magnetic fields, characterized via their magnetic fux, to the statistical structuring of the solar atmospherevia their magnetic fux, to the statistical structuring of the solar atmosphere

U.S. National Science Foundation (2022) U.S. NSF Celebrates the Inauguration of its Daniel K. Inouye Solar Telescope

3.6 Protuberanzen und koronale Magnetfeldstrukturen

V. V. Fedenev, S. A. Anfinogentov, G. D. Fleishman (2023) Strongest coronal magnetic fields in solar cycles 23-24: probing, statistics, and implications

S. E. Gibson, Y. Fan (2006) Coronal prominence structure and dynamics: A magnetic flux rope interpretation

S. E. Gibson (2018) Solar prominences: theory and models - Fleshing out the magnetic skeleton

H. Gilbert ( ) The Secret Lives of Solar Prominences

V. Jercic, R. Keppens (2022) Dynamic formation of multi-threaded prominences in arcade configurations

K. Kang et al. (2022) Modelling the magnetic structure of a large-scale horse-shoe-like filament in a decaying and diffuse active region

U. von Kusserow (2010) Neues von der Sonne 2010 (Teil 2) Ein Bilderbogen im Telegrammstil

D. Mackay et al. (2010) Physics of Solar Prominences: II Magnetic Structure and Dynamics

M. S. Madjarska (2019) Coronal bright points

L. Ofman, T. A. Kucera, C. R. DeVore (2023) Nonlinear Fast Magnetosonic Waves in Solar Prominence Pillars

S. Parenti (2014) Solar Prominences: Observations

F. Reale (2014) Coronal Loops: Observations and Modeling of Confined Plasma

B. Schmieder, G. Aulanier, T. Török (2009) Solar prominences

A. A. Solov'ev (2010) The structure of solar filaments. Prominences in the corona free from external magnetic field

H. Tian et al. (2009) Cool and hot components of a coronal bright point

H. Tian et al. (2009) Upflows in funnel-like legs of coronal magnetic loops

T. Wiegelmann, T. Sakurai (2021) Solar force-free magnetic fields

X. - L. Yan et al. (2015) Fine-scale structures and material flows of quiescent filaments observed by the New Vacuum Solar Telescope

3.7 Flares, solare Eruptionen und Koronale Masseauswürfe

A. Alt et al. (2023) Laboratory study of the failed torus mechanism in arched, line-tied, magnetic flux ropes

A. F. Battaglia et al. (2022) Identifying the energy release site in a Solar microflare with a jet

A. O. Benz (2017) Flare Observations

P. F. Chen (2011) Coronal Mass Ejections: Models and Their Observational Basis

F. Chen et al. (2023) Data-Driven Radiative Magnetohydrodynamics Simulations with the MURaM code

E. W. Cliver et al. (2021) Extreme solar events

Y. Fan (2022) An improved MHD simulation of the 2006 December 13 coronal mass ejection of active region NOAA 10930

C. Gontikakis, S. K. Antiochos, P. R. Young (2023) The Transition Region of Solar Flare Loops

N. Gopalswamy (2016) History and development of coronal mass ejections as a key player in solar terrestrial relationship

I. C. Jebaraj et al. (2023) Multiple injections of energetic electrons associated with the flare/CME event on 9 October 2021

B. Joshi, P. K. Mitra (2022) Origin of extreme solar eruptive activity from the active region NOAA 12673 and the largest flare of solar cycle 24largest flare of solar cycle 24

Y. Kotani et a. (2022) Unified Relationship between Cold Plasma Ejections and Flare Energies Ranging from Solar Microflares to Giant Stellar Flares

P. Kumar et al. (2022) Plasmoids, Flows, and Jets During Magnetic Reconnection in a Failed Solar Eruption

B. Lekshmi et al. (2022) Sub-surface Plasma Flows and the Flare Productivity of Solar Active Regions

G. Li et al. (2022) Modelling Solar Energetic Neutral Atoms from Solar Flares and CME-driven Shocks

E. Liokati1, A. Nindos1, M. K. Georgoulis (2023) Magnetic Helicity and Free Magnetic Energy as Tools to Probe Eruptions in two Differently Evolving Solar Active Regions

A. L. Lysenko et al. (2022) KW-Sun: The Konus-Wind Solar Flare Database in Hard X-ray and Soft Gamma-ray Ranges

S. M. Mulay et al. (2022) Formation and Thermodynamic Evolution of plasmoids in active region jets

A. Raghav et al. (2022) First in-situ observation of surface Alfvén waves in ICME flux rope

W. Ruan, L. Yan, R. Keppens (2022) MHD turbulence formation in solar flares: 3D simulation and synthetic observations

S. Sahu et al. (2022) Evolution of magnetic fields and energy release processes during homologous eruptive flares

K. Shibata, T. Magara (2011) Solar Flares: Magnetohydrodynamic Processes

I. Skokic et al. (2022) Flares detected in ALMA single-dish images of the Sun

I. V. Sokolov, T. I. Gombosi (2022)  A Titov-Démoulin Type Eruptive Event Generator for β>0 Plasmas

H. Song et al. (2022) On the Nature of the Three-part Structure of Solar Coronal Mass Ejections

M. Z. Stiefel et al. (2022) Solar flare hard X-rays from the anchor points of an eruptive filament

S. Toriumi, H. Wang (2019) Flare-productive active regions

X. Wang, C. Jiang, X. Feng (2023) MHD simulation of Solar Eruption from Active Region 11429 Driven by Photospheric Velocity Field

D. F. Webb, T. A. Howard (2012) Coronal Mass Ejections: Observations

T. Wiegelmann, M. S. Madjarska (2023) Automatic Computation of Linear Magneto-Hydro-Static Equilibria

H. Wu, Y. Dai, M. D. Ding (2023) Highly Energetic Electrons Accelerated in Strong Solar Flares as a Preferred Driver of Sunquakes

D. Yamasaki et al. (2022) A Data-constrained Magnetohydrodynamic Simulation of the X1.0 Solar Flare of 2021 October 28

R. Zheng et al. (2022) The deformation of an erupting magnetic flux rope in a confined solar flare

Magnetische Rekonnexion

R. Beg et al. (2022) Evolution, structure and topology of self-generated turbulent reconnection layers

A. H. Boozer (2022) Magnetic field evolution and reconnection in low resistivity plasmas

A. Hillier, S. Takasao (2022) Connecting theory of plasmoid-modulated reconnection to observations of solar flares

D. I. Pontin1, E. R. Priest (2022) Magnetic reconnection: MHD theory and modelling

Q. Zhang et al. (2022) Influence of magnetic reconnection on the eruptive catastrophes of coronal magnetic flux ropes

3.8 Zur Aufheizung der solaren Atmosphärenschichten

W. Ashfield, D. Longcope (2023) A Model for Gradual Phase Heating Driven by MHD Turbulence in Solar Flares

S. Bose et al. (2022) Chromospheric and Coronal heating in active region plage by dissipation of currents from braiding

R. Erdélyi (2004) Heating in the solar atmosphere

H. Fichtner (2007) Mehr als nur ein aktiver Stern

L. Gizon (2005) Am Puls der Sonne

T. Gundrum et al. (2023)  Alfvén wave experiments with liquid rubidium in a pulsed magnetic field

JHUAPL (2023) Parker Scientists May Have Solved Decades-old Mysteries About the Origins of the Solar Wind

P. G. Judge (2022) The enduring mystery of the solar corona

K. Karampelas et al. (2023) Oscillatory reconnection as a plasma diagnostic in the solar corona

D. M. Long et al. (2023) Multi-stage reconnection powering a solar coronal jet

R. E. Louis et al. (2023) Sustained heating of the chromosphere and transition region over a sunspot light bridge

B. Mondal et al. (2023) Role of small-scale impulsive events in heating the X-ray bright points of the quiet Sun

D. I. Pontin, G. Hornig (2020) The Parker problem: existence of smooth force-free fields and coronal heating

J. M. Sykora et al. (2022) Chromospheric Heating from Local Magnetic Growth and Ambipolar Diffusion Under Non-Equilibrium Conditions

A. A. Pevtsov et al. (2022) Helio2024 Science White Paper: Solar and Heliospheric Magnetism in 5D

R. A. Robinson, M. Carlsson, G. Aulanier (2022) From incoherent field to coherent reconnection - Understanding convection-driven coronal heating in the quiet SunUnderstanding convection-driven coronal heating in the quiet Sun

H. Washinoue, M. Shoda, T. K. Suzuki (2022) The Effect of the Chromospheric Temperature on Coronal Heating

S. Xu, A. Lazarian (2022) Turbulent reconnection acceleration

M. S. Yalim, G. P. Zank, M. Asgari-Targhi (2023) Coronal Loop Heating by Nearly Incompressible Magnetohydrodynamic and Reduced Magnetohydrodynamic Turbulence Models

Kapitel 4 Der Sonnenwind im Weltraum

E. Marsch (2017) Work areas and publications

Physik für alle! Sonnenwind

PhysOrg Solar Wind News

F. Spanier (2011) Der Einfluss des Sonnenwinds auf die Erde

University of Chicago The solar wind, explained

P. Volkmer (2016) Einführung in den Sonnenwind

4.1 Historische Bemerkungen

Historisches zum Sonnenwind

V. N. Obridko, O. L. Vaisberg (2017) On the history of the solar wind discovery

4.2 Sonnenwind und Heliosphäre

S. Gosain et al. (2022) Ground-based Synoptic Studies of the Sun

Z. Huang et al. (2022) Modeling the Solar Wind During Different Phases of the Last Solar Cycle

E. N. Porker (1965) Dynamical Theory of the Solar Wind

N. Poirier, A. Rouillard, P.- L. Blelly (2022) Confined plasma transition from the solar atmosphere to the interplanetary medium

C. Scolini et al (2022) Characteristic Scales of Complexity and Coherence within Interplanetary Coronal Mass Ejections: Insights from Spacecraft Swarms in Global Heliospheric Simulations

4.3 Eigenschaften des Sonnenwindes und ihre Variationen im Verlaufe des Sonnenzyklus

T. Alberti (2022) Contrasting Scaling Properties of Near-Sun Sub-Alfvénic and Super-Alfvénic Regions

R. D’Amicis et al. (2022) Investigating Alfvénic Turbulence in Fast and Slow Solar Wind Streams

S. Bourouaine, E. Marsch, F. M. Neubauer (2010) On the interactions of transverse ion-cyclotron waves with ions in solar wind plasma

L. P. Chitta et al. (2002) Direct observations of a complex coronal web driving highly structured slow solar wind

L. Franci et al. (2022) Plasma Turbulence in the Near-Sun and Near-Earth Solar Wind: A Comparison via Observation-Driven 2D Hybrid Simulations

L. F. Gomes et al. (2023) Origin of Multifractality in Solar Wind Turbulence: the Role of Current Sheets

J. He et al. (2013) Radial evolution of the wave-vector anisotropy of solar wind turbulence between 0.3 and 1 AU

T. Laitinen et al. (2022) An analytical model of turbulence in Parker spiral geometry and associated magnetic field line lengths

F. Malara, L. Primavera, P. Veltri (2022) Parametric Instability: An Evolutive Mechanism for the Alfvénic Turbulence in the Solar Wind

M. J. Owens, M. Lockwood, P. Riley (2017) Global solar wind variations over the last four centuries

D. Telloni (2022) The Dipolar Solar Minimum Corona

A. A. Vidotto (2022) How has the solar wind evolved to become what it is today?

D. Verscharen, E. Marsch (2011) Apparent temperature anisotropies due to wave activity in the solar wind

L. Yan et al. (2015) Spectral Anisotropy of Elsässer Variables in Two Dimensional Wave-vector Space as Observed in the Fast Solar Wind Turbulence

L. Zhao et al. (2022) Depletion of Heavy Ion Abundances in Slow Solar Wind and Its Association with Quiet Sun Regions

4.4 Quellen des Sonnenwindes in der Sonnenkorona

D. H. Brooks et al. (2021) The Formation and Lifetime of Outflows in a Solar Active Region

F. Matkovic et al. (2022) Differences in physical properties of coronal bright points and their ALMA counterparts within and outside coronal holes

MPS (2009) Die heiße Sonnenatmosphäre

 G. Poletto (2015) Solar Coronal Plumes

K. Shimizu, M. Shoda, T. K. Suzuki (2022) Role of Longitudinal Waves in Alfven-wave-driven Solar/Stellar Wind

D. Telloni (2021) The Dipolar Solar Minimum Corona

E. J. Weber,  L. Davis Jr. (1967) The Angular Momentum of the Solar Wind

L. Yang et al. (2016) A Numerical Investigation of the Recurrent High-speed Jets as a Possibility of Solar Wind Origin

 4.5 Heizung der Korona und des Sonnenwindes

J. He et al. (2015) Proton Heating in Solar Wind Compressible Turbulence with Collisions between Counter-propagating Waves

R. Marino, L. Sorriso-Valvo (2022) Scaling laws for the energy transfer in space plasma turbulence

Max Planck Society (2022) Direct observations of a complex coronal web uncover an important clue as to what mechanism drives solar wind

N. E. Raouafi et al. (2023) Magnetic Reconnection as the Driver of the Solar Wind

C. Shi et al. (2023) Proton and electron temperatures in the solar wind and their correlations with the solar wind speed

H. Tian et al. (2010) New views on the emission and structure of the solar transition region

4.6 Die dynamische Heliosphäre

D. Bhattacharjee et al. (2022) Turbulence and Anomalous Resistivity inside Near-Earth Magnetic Clouds

D. Bhattacharjee et al. (2022) On the specific energy and pressure in near-Earth magnetic clouds

E. E. Davies et al. (2022) Characterizing ICME-related Forbush Decreases at Mercury using MESSENGER Observations: Identification of a One or Two-Step Structure

University of Science and Technology of China (2022) Researchers observe directly turbulent magnetic reconnection in solar wind

4.7 Mikroskopische Prozesse im Sonnenwind

 S. Bourouaine, E. Marsch, F. M. Neubauer (2010) Correlations between the proton temperature anisotropy and transverse high-frequency waves in the solar wind

M. Camenzind (2019) Hannes Alfvén und der Sonnenwind

M. Desai, J. Giacalone (2017) Large gradual solar energetic particle events

G. Gruschka (2008) Die Flüsse energetischer Neutralatome in der inneren Heliosphäre

B. Heber u. a. (2007) Die Sonne als Teilchenbeschleuniger

P. A. Isenberg, B. J. Vasquez, C. W. Smith (2023) Turbulence Driving by Interstellar Pickup Ions in the Outer Solar Wind

V. K. Jagarlamudi et al. (2022) Investigation of Alpha-Proton Drift Speeds in the Solar Wind: WIND and HELIOS Observations

S. Lange (Dissertation 2012) Turbulenz und Teilchentransport in der Heliosphäre

R. Marino, L. Sorriso-Valvo (2022) Scaling laws for the energy transfer in space plasma turbulence

E. Marsch (2001) Kinetic Physics of the Solar Corona and Solar Wind - III

E. Marsch (2006) Kinetic Physics of the Solar Corona and Solar Wind

E. Marsch (2013) Electron Kinetic Processes in the Solar Wind

E. Marsch (2018) Solar wind and kinetic heliophysics

C. J. Owen et al. (2022) Solar Orbiter SWA Observations of Electron Strahl Properties Inside 1 AU

G. K. Parks (2004) Why space physics need to go beyond the MHD box

W. Ruan et al. (2016) Kinetic Simulation of Slow Magnetosonic Waves and Quasi-periodic Upflows in the Solar Corona

D. Verscharen et al. (2012) Kinetic cascade beyond magnetohydrodynamics of solar wind turbulence in two-dimensional hybrid simulations 

 

Kapitel 5 Parker Solar Probe und Solar Orbiter

5.1 Neue Epoche in der Erforschung der inneren Heliosphäre

Parker Solar Probe und Solar Orbiter: Der Sonne zum Greifen nahnah

5.2 Wissenschaftliche Ziele und Instrumente von Parker Solar Probe

Amazing achievements from the Parker Solar Probe

Die Parker Solar Probe Mission – Die Sonne zum Greifen nah

Mitten durchs Sonnenfeuer

Parker Solar Probe - A Mission to Touch the Sun

Parker Solar Probe kommt der Sonne immer näher

Parker Solar Probe - Status Update

The Mission

The Parker Solar Probe mission - Steps Away from Solving Mysteries of the Corona and the Inner Heliosphere

5.3 Wissenschaftliche Ziele und Instrumente von Solar Orbiter

ESA (2011) Solar Orbiter - Exploring the Sun-heliosphere connection

ESA (2020) Solar Orbiter Instruments

Solar Orbiter

Solar Orbiter - Ein einzigartiger Blick auf das Sonnenfeuer

The Solar Orbiter mission - Science overview

5.4 Neueste Ergebnisse der Missionen

Parker Solar Probe

C. R. Braga (2022) Coronal mass ejection deformation at 0.1 au observed by WISPR

J. Huang et al. (2023) The Structure and Origin of Switchbacks: Parker Solar Probe Observations

S. - Y. Jeong et al. (2022) The Stability of the Electron Strahl against the Oblique Fast-magnetosonic/Whistler Instability in the Inner HeliosphereInstability in the Inner Heliosphere

JHUAPL (2023) Parker Scientists May Have Solved Decades-old Mysteries About the Origins of the Solar Wind

H. Liang et al. (2021) Assessing the Role of Interchange Reconnection in Forming Switchbacks

Y. D. Liu et al. (2023) On the Generation and Evolution of Switchbacks and the Morphology of Alfv´enic Transition: Low Mach-number Boundary Layers

N. E. Raouafi (2022) A journey to touch the Sun

N. E. Raouafi et al. (2023) Parker Solar Probe: Four Years of Discoveries at Solar Cycle Minimum

C. Schwanitz et al. (2021) Probing Upflowing Regions in the Quiet Sun and Coronal Holes

N. Shankarappa, K. G. Klein, M. M. Martinović (2023) Estimation of turbulent proton and electron heating rates via Landau damping constrained by Parker Solar Probe observations

G. Toth, M. Velli, B. van der Holst (2021) Formation of Magnetic Switchbacks Observed by Parker Solar Probe

J. Zhao et al. (2022) Broadband Electrostatic Waves near the Lower-hybrid Frequency in the Near-Sun Solar Wind Observed by the Parker Solar Probe

Solar Orbiter

D. Berghmans et al. (2023) First Perihelion of EUI on the Solar Orbiter mission

S. Mandal etr al. (2022) Signatures of dynamic fibrils at the coronal base: Observations from Solar Orbiter/EUI

N. K. Panesar et al. (2022) Solar Orbiter and SDO Observations, and Bifrost MHD Simulations of Small-scale Coronal Jets

S. F. Tigik et al.  (2022) Parker Solar Probe Observations of Near-fCe Harmonic Emissions in the Near-Sun Solar Wind and Their Dependence on the Magnetic Field Direction

Parker Solar Probe/Solar Orbiter

N. E. Raouafi, D. Müller (2022) HLL Extreme Exploration: Parker Solar Probe and Solar Orbiter

D. Telloni et al. (2021) Exploring the Solar Wind from Its Source on the Corona into the Inner Heliosphere during the First Solar Orbiter-Parker Solar Probe Quadrature

D. Verscharen (2021) Die ersten Ergebnisse von Solar Orbiter

 

Kapitel 6 Hindernisse im Sonnenwind

6.1 Bugstoßwellen vor magnetischen Hindernissen

6.2 Magnetosphären und Ionosphären der Planeten und Monde als Hindernisse

6.3 Asteroiden und Kometen als Hindernisse

Dušan Marčeta (2023) Synthetic Population of Interstellar Objects in the Solar System

6.4 Teilchen als Hindernisse

R. Kayser (2021) Interstellarer Komet mit ungewöhnlichen Eigenschaften (welt der physik)

BR wissen (2019) ´Oumuamua´, Besucher aus den Tiefen des Alls

 

Kapitel 7 Kometen und Ihre Schweife

J. Blum, D. Bischoff, B. Gundlach (2022) Formation of Comets

ESO  A Brief History of Comets I (until 1950)

ESO  A Brief History of Comets II (1950 -1993)

Q. Ye, P. Jenniskens (2022) Comets and meteor showers

7.1 Ausbildung der Kometenkoma

C. Gotz et al. (2022) Solar wind interaction with a comet: evolution, variability, and implication  

7.2 Kometenschweife in großer Sonnennähe

F. J. Pozuelos et al. (2014) Dust environment and dynamical history of a sample of short-period cometsust environment and dynamical history of a sample of short-period comets

F. J. Pozuelos et al. (2014) Dust environment and dynamical history of a sample of short-period comets II. 81P/Wild 2 and 103P/Hartley 2

7.3 Fragmentation des Kometenkerns und Schweifabrisse

E. Behar, P. Henri (2023) Interaction between the turbulent solar wind and a planetary magnetosphere: a 2D comet example

D. Jewitt et al. (2023) Disintegration of Long-Period Comet C/2021 A1 (Leonard)

T. A. Kuchar et al. (2008) Observations of a comet tail disruption induced by the passage of a CME

Space Math NASA(2007) The Comet Encke Tail Disruption Event

7.4 Aktivitäten im Kometenkern

N. Attree et al. (2023) Activity distribution of comet 67P/Churyumov-Gerasimenko from combined measurements of non-gravitational forces and torques

G. Filacchione et al. (2022) Comet nuclei composition and evolution

H. Alfvén (1957) On the Theory of Comet Tails

A. Bähr (2017) Der grausame Komet - Himmelszeichen und Weltgeschehen im Dreißigjährigen Krieg. Rowohlt Verlag GmbH, Hamburg

L. Biermann (1952) Über den Schweif des Kometen Halley im Jahre 1910

J. C. Brandt, R. D. Chapman (1994) Rendezvous im Weltraum - Die Erforschung der Kometen. Birkhäuser Verlag, Bern Boston Berlin

V. Goldschmidt (1910) Über Kometenschweife

H. Hornung (MPG, 2013) Gefrorene Schmutzbälle 

S. Z. Khalaf (2017) Study of Comet Tail Interactions with Solar Wind Using MHD Based Model

M. G. Kivelson, F. Bagenal (2007) Planetary Magnetospheres

B. Krummheuer, X. Shi, H. Sierks (MPS, 2018) Rosetta unravels formation of sunrise jets

Y. Moulane et al. (2023) Activity and composition of the hyperactive comet 46P/Wirtanen during its close approach in 2018

M. Scholz (2009) Kleines Lehrbuch der Astronomie und Astrophysik - Band 8: Kometen

N. Thomas (2020) An Introduction to Comets - Post-Rosetta Perspectives Perspectives. Springer

R. A. Treumann, C. H. Jarioschek (2008) Planetary Bow Shocks

M. R. Voelzke (2002) Disconnection Events Processes in Cometary Tails

67P/Churyumov–Gerasimenko Wikipedia

C/2012 S1 (ISON) Wikipedia

Comet Wikipedia

Comet tail Wikipedia

Komet Wikipedia

Komet Hyakutake C/1996 B2

 

Kapitel 8 Planetare Magneto-, Ionosphären und die Polarlichter

T. Dambeck (2014) Schutzschilde im Sonnensystem

8.1 Historisches

8.2 Die Planeten mit dynamogenerierten Magnetosphären

H. Cao et al. (2023) Saturn's Magnetic Field at Unprecedented Detail Achieved by Cassini's Close Encounters

K. - H. Glassmeier, D. Heyner (2021) Planetary Magnetic Fields

S. Hamouda (2021) Study of Planetary Magnetic Fields

K. Hori, A. Nilsson, S. M. Tobias (2022) Waves in planetary dynamos

R. Kaushik1, A. K. Thakur (2021) Magnetic Field in the Solar System - a Brief Review

M. Laneuville et al. (2020) Magnetic Fields on Rocky Planets

LASP (2007) The Outer Planets: Giant Planets: Magnetospheres

J. Lazio (2019) Planetary Magnetic Fields: Planetary Interiors and Habitability

MPS (2008) Die Magnetfelder der Planeten

Z. Nemeth (2023) Closed field line vortices in planetary magnetospheres

von N. F. Ness (1994) Intrinsic magnetic fields of the planets: Mercury to Neptune

E. H. Levy (1976) Generation of planetary magnetic fields

F. Pizzi et al. (2023) Numerical and theoretical framework for the DRESDYN precession dynamo experiment

C. T. Russell, M. K. Dougherty (2010) Magnetic Fields of the Outer Planets

R. K. Yadav, H. Cao, J. Bloxham (2002) A global simulation of the dynamo, zonal jets and vortices on Saturn

T. Zhang (2019) A Space Charging Model for the Origin of Planets’ Magnetic Fields

Ganymed 

M. T. Bland, A. P. Showman, G. Tobie (2008) The Production of Ganymede's Magnetic Field

S. Duling et al. (2022) Ganymede MHD Model: Magnetospheric Context for Juno’s PJ34 Flyby

8.3 Die Erde im Sonnenwind

A. J. D. Dessler (1968) Solar Wind Interactions and the Magnetosphere

K. - H. Glaßmeier, R. Leonhardt (2022) Das Magnetfeld der Erde: Gestern, heute und morgen

S. R. N. Gupta (2020) Review of Aurora borealis spectacular manifestations of solar wind and atmosphere

H. Hasegawa et al. (2004) Transport of solar wind into Earth’s magnetosphere through rolled-up Kelvin–Helmholtz vortices

M. C. Kelley (2003) Earth Magnetosphere

S. D. Korolkov, V. V. Izmodenov (2022) Stabilization of the astropause by periodic fluctuations of the stellar wind

Mike Lockwood (2013) Reconstruction and Prediction of Variations in the Open Solar Magnetic Flux and Interplanetary Conditions

S. Milan (2016) Earth’s magnetosphere and its interaction with the solar wind (as seen in auroras, convection, and currents)

T. Obara (2002) The Magnetosphere - Formation of the Magnetosphere and Magnetospheric Plasma RegimeMagnetospheric Plasma Regime

C.T. Russell (2001) The solar wind interaction with the Earth's magnetosphere:

K. Schegel, J. Woch (2005) Die Magnetosphäre der Erde

The Royal Society (2011) Cluster: Aurora Explorer

University College London (2022) How magnetic waves interact with Earth's bubble

J. Varela et al. (2022) MHD study of planetary magnetospheric response during extreme solar wind conditions: Earth and exoplanet magnetospheres applications

Su Zhou et al. (2018) The Detached Auroras Induced by the Solar Wind Pressure Enhancement in Both Hemispheres From Imaging and In Situ Particle Observations

Q. Zong (2022) Magnetospheric response to solar wind forcing: ultra-low-frequency wave–particle interaction perspective

8.4 Magnetfeldeigenschaften anderer Planeten und des Erdmondes

N. J. Chanover et al. (2022) Giant Planet Observations in NASA’s Planetary Data System

EuroPlanet Society (2023) BepiColombo and Solar Orbiter compare notes at Venus

Lawrence Livermore National Laboratory (2018) Lab researchers find magnetic fields impact atmospheric circulation of gas giant planets

C. K. Louis et al. (2022) Effect of a magnetosphere compression on Jovian radio emissions: in situ case study using Juno dataemissions: in situ case study using Juno data

R. Lundin, H. Lammer, I. Ribas (2007) Planetary Magnetic Fields and Solar Forcing: Implications for Atmospheric Evolution

8.5 Strahlungsgürtel und Polarlichter anderer Planeten

J. B. Biersteker et al. (2022) Revealing the interior structure of icy moons with a Bayesian approach to magnetic induction measurements

8.6 Bedeutung der Erforschung planetarer Magnetosphären und Ionosphären

 

Planetare Magnetosphären

Planetare Magnetosphären (dogplayer.org)

 M. Blanc, R. Kallenbach, N. V. Erkaev (2005) Solar System Magnetospheres

M. G. Kivelson, F. Bagenal (2007) Planetary Magnetospheres

A. Kopp (2007) Magnetosphären der äußeren Planeten (SuW-Special: Unsere Sonne - Motor des Weltraumwetters))

R. Maggiolo u. a. (Hrsg., 2021) Space Physics and Aeronomy: Volume 2: Magnetospheres in the Solar System (WILEY)

MPS (2021) Erforschung der Plasmaumgebung der Planeten

M. Paech (2021) Planetare Magnetosphären (Spektrum.de Scilogs)

R. A. Treumann, C. H. Jarioschek (2008) Planetary Bow Shocks

V. M. Vasyliūnas (2009) Fundamentals of planetary magnetospheres 

Erdmagnetosphäre

K. Schlegel, J. Woch (MPS, 2005) Die Magnetosphäre der Erde 

Erdionosphäre

V. Bothmer, J. Büchner (2011) The Ionosphere

L. Frasier, L. Tran, NASA 10 (2019) Things to Know About the Ionosphere

S. Heise, FU Berlin Die Ionosphäre und Plasmasphäre der Erde

K. Schlegel, MPAE (1998) Ionenforschung

ScienceDiect Earth Ionosphere - An Overview

 

Kapitel 9 Erforschung des Weltraumwetters

DLR Sonne, Weltraumwetter, Erde

C. Heibel (2017, Masterarbeit) Das Weltraumwetter im Physikunterricht

S. Krauss, B. Süsser-Rechberger Weltraumwetter – Gefahr für die Erde

SpaceWeather.com What´s up in space

SpaceWeatherLive

SpaceWeatherNews.com

9.1 Weltraumwetter in der Heliosphäre und Umgebung der Erde

T. Baratashvili et al. (2022) Improving CME evolution and arrival predictions with AMR and grid stretching in Icarus

N. Buzulukova, B. Tsurutani (2022) Space Weather: From Solar Origins to Risks and Hazards Evolving in Time

X. Chen, J. Giacalone, F. Guo (2022) Solar Energetic Particle Acceleration at a Spherical Shock with the Shock Normal Angle θBn Evolving in Space and Time

N. Gopalswamy (2022) The Sun and Space Weather

P. Judge et al. (2022) Measuring the Magnetic Origins of Solar Flares, Coronal Mass Ejections, and Space Weather

E. Kilpua, H. E. J. Koskinen, T. I. Pulkkinen (2017) Coronal mass ejections and their sheath regions in interplanetary space

G. J. Koehn et al. (2022) Successive interacting coronal mass ejections: How to create a perfect storm?

M. Lockwood (2013) Reconstruction and Prediction of Variations in the Open Solar Magnetic Flux and Interplanetary Conditions

W. Mishra, L. Teriaca (2022) Propagation of Coronal Mass Ejections from the Sun to Earth

S. Nitti et al. (2022) Geomagnetic storm forecasting from solar coronal holes

E. Palmerio et al. (2022) CME Evolution in the Structured Heliosphere and Effects at Earth and Mars During Solar Minimum

B. D. Patel et al. (2022) Near-Earth Interplanetary Coronal Mass Ejections and their association with DH type II Radio Bursts during Solar Cycles 23 and 24

N. Poirier, A. Rouillard, P. - L. Blelly  (2022) Confined plasma transition from the solar atmosphere to the interplanetary mediuminterplanetary medium

T. Pulkkinen (2007) Space Weather: Terrestrial Perspective

F. Regnault et al. (2022) Eruption and propagation of twisted flux ropes from the base of the solar corona to 1 au

D. V. Reames (2022) How Do Shock Waves Define the Space-Time Structure of Gradual Solar Energetic Particle Events?

L. Rodríguez-García et al. (2022) Solar activity relations in energetic electron events measured by the MESSENGER mission

DLR_School_Lab (2021) Sonne, Erde, Weltraumwetter - Kompendium zum SOFIE-Projekt

R. Schwenn (2006) Space Weather: The Solar Perspective

C. P. Sonett (1965) Solar Wind and Its Interaction With the Magnetosphere

M. Temmer (2021) Space weather: the solar perspective - An update to Schwenn (2006)

J. K. Thalmann et al. (2022) Tracking magnetic flux and helicity from Sun to Earth Multi-spacecraft analysis of a magnetic cloud and its solar source

J. Watermann et al. (2009) The State of Space Weather Scientific Modeling - An Introduction

9.2 Vorstellung exemplarischer Weltraumwetterereignisse

K. Mursula et al.(2022) Magnetic storms during the space age: Occurrence and relation to varying solar activity

Y. Wang et al. (2022) The Effects of Space Weather on Flight Delays

9.3 Weltraumwetter und Erdmagnetosphäre

D. N. Baker, M. I. Panasyuk (2017) Discovering Earth’s radiation belts

M. Omerbashich (2023) Sun resonant forcing of Mars, Moon, and Earth seismicity

9.4 Auswirkungen des Weltraumwetters

V. S. Airapetian et al. (2019) Impact of space weather on climate and habitability of terrestrial-type exoplanets

F. Carbone et al. (2022) Modulation of Solar Wind Impact on the Earth’sMagnetosphere during the Solar Cycle

J. C. Castellanos et al. (2022) Solar storms and submarine internet cables

ESA (2022) Flight control, space weather and debris: What an astronaut needs to know

9.5 Über die Aufgaben und konkreten Arbeiten der Weltraumwetter-Vorhersagezentren

M. Aktukmak et al. (2022) Incorporating Polar Field Data for Improved Solar Flare Prediction

D. B. Dhuri (2002) Deep learning reconstruction of sunspot vector magnetic fields for forecasting solar storms

K. Jain et al. (2022) Seismic Monitoring of the Sun’s Far Hemisphere: A Crucial Component in Future Space Weather Forecasting

G. Jungmeier, A. Veronig, W. Pötzi (2014) Sonnenforschung auf der Kanzelhöhe

P. K. Manoharan (2022) Regular Solar Radio Imaging at Arecibo: Space Weather Perspective of Evolution of Active Regions

U. v. Kusserow (2019) Raumsonden erforschen das heliosphärische Weltraumwetter im Sonnenwind (Teil 1)

U. v. Kusserow (2021) Raumsonden erforschen das heliosphärische Weltraumwetter im Sonnenwind (Teil 2)

Phys Org (2023) Earlier geomagnetic storm prediction wins us time to prepare

Skolkovo Institute of Science and Technology (2023) Earlier geomagnetic storm prediction wins us time to prepare

9.6 Bemannte Raumfahrt und die Auswirkungen des Weltraumwetters auf Mond und Mars

J. L. Green et al. (2022) Space Weather Observations, Modeling, and Alerts in Support of Human Exploration of Mars

K. Nagaraja, S. C. Chakravarty (2022) The impacts of solar wind on the Martian upper atmosphere

9.7 Heliobiologie - Über den möglichen Einfluss des Weltraumwetters auf die menschliche Gesundheit

V. Bothmer, J. Büchner (2011) Physikalische Grundlagen des Weltraumwetters - Die Heliosphäre

K. Schlegel, MPAE (1998) Das Weltraumwetter und seine Auswirkungen

K. Scherrer u. a. (2001) Die Heliosphäre – Schutzschild für die Erde

Kosmische Strahlung

H. Völkle (2010) Die kosmische Strahlung

Polarlichter

U. Killian (2002) Polarlichter – Atomphysik am Himmel

M. Kosch, H. Schlegel (1999) Polarlichter

K. Schlegel (2013) Das Polarlicht

Raumfahrtmissionen zum Mond und Mars

DLR-Schulheft (2017) Mit Astronauten ins All

K. Hannemann (2009) Wieviel g kann ein Mensch aushalten?

D. Manzey (2000) Langzeitmissionen zu Mond und Mars: Psychologische Aspekte

L. W. Townsend (2020) Space Weather on the Moon

Einfluss aufs Erdklima

M.- B. Kallenrode (2007) Sonnenpartikel Von der Höhenstrahlung zur Heliophysik

K. Scherrer, H. Fichtner (2007) Das Klima aus dem All

D. Schmitt, M. Schüssler, S. K. Solanki (2009) Der Einfluss der Sonne auf das Erdklima

U. von Kusserow (2010) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 5)

U. von Kusserow (2013) Im Bann der Sonne - Der Einfluss der Sonnnenaktivität auf die Erde

 

Kapitel 10 Mögliche Auswirkungen des Weltraumwetters auf das Erdklima 

10.1 Treibhauseffekt und der Klimawandel

Klimamodellierung

I. Guendelman, Y. Kasp (2022) The Key Factors Controlling the Seasonality of Planetary Climate

D. R. Legates (2002) Limitations of Climate Models as Predictors of Climate Change

A. Lupo, W. Kininmonth (2013) Global Climate Models and Their Limitations

Report by the U.S. Climate Change Science Program and the Subcommittee on Global Change Research (2008) Climate Models - An Assessment of Strengths and Limitations

10.2 Temperaturschwankungen im Rhythmus der Milankovitch Zyklen

F. Lopes et al. (2022) On the Slow Drift of Solstices: Milankovic Cycles and Mean Global Temperature

10.3 Sonne und Erde im Strahlungsgleichgewicht

10.4 Über die Vielfalt der Klimafaktoren

M. Omerbashich (2023) Earth as a time crystal: macroscopic nature of a quantum-scale phenomenon from transformative moderation of geomagnetic polarity, topography, and climate by precession resonance due to many-body entrainment

V. Penza et al. (2022) Total Solar Irradiance during the Last Five Centuries

10.5 Kosmische Klimaeinflussfaktoren

S. C. Chapman et al. (2021) The Sun's Magnetic (Hale) Cycle and 27 Day Recurrences in the aa Geomagnetic Index

R. Connolly et al. (2020) How much has the Sun unfluenced Northern Hemisphere temeperature trends? An ongoing debate.

W. Courtillot et al. (2007) Are there connections between the Earth´s magnetic field and climate?

E. E. Davies et al. (2022) Characterizing ICME-related Forbush Decreases at Mercury using MESSENGER Observations: Identification of a One or Two-Step Structure

G. Feulner, S. Rahmstorf (2010) On the effect of a new grand minimum of solar activity on the future climate on Earthon the future climate on Earth

J. D. Haigh (2007) The Sun and the Earth’s Climate

U, von Kusserow (1998) Aerosol- und Wolkeneinfluß auf das Erdklima

U. von Kusserow (2008) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 1)

U. von Kusserow (2008) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 2)

U. von Kusserow (2009) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 3)

U. von Kusserow (2010) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 4)

U. von Kusserow (2010) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 5)

U. von Kusserow (2011) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 6)

U. von Kusserow (2012) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 7)

U. von Kusserow (2013) Die Sonne, das Erdklima und das Leben auf unserem Planeten (Teil 8)

M. Lockwood et al. (2017) Space Climate and Space Weather over the past 400 years: 1. The Power input to the Magnetosphere

M. Lockwood et al. (2018) Space Climate and Space Weather over the past 400 years: 2. Proxy indicators of Geomagnetic Storm and Substorm Occurrence

H. Matsumoto, H. Svensmark, M. B. Enghoff (2022) Effects of Forbush decreases on clouds determined from PATMOS-x

M. S. Potgieter (2013) Solar Modulation of Cosmic Rays

promet (2008) Die Nordatlantische Oszillation (NAO)

N. Scafetta, A. Bianchini (2022) The planetary theory of solar activity variability: a review

A. Seppälä et al (2014) What is the solar influence on Climate? Overview of activities during CAWSES-II

M. Sørensen, H. Svensmark, U. G. Jørgensen (2022) Near-Earth supernova activity during the past 35 Myr

F. Stefani (2021) Solar and Anthropogenic Influences on Climate: Regression Analysis and Tentative Predictions

F. Stefani (2021) Multiple regression analysis of anthropogenic and heliogenic climate drivers, and some cautious forecasts

J. Svensmark et al. (2020) The Ion and Charged Aerosol Growth Enhancement (ION-CAGE) code: a numerical model for the growth of charged and neutral aerosolsmodel for the growth of charged and neutral aerosols

J. Svensmark (2022) Atmospheric ionization rates during a geomagnetic reversal

H. Svensmark et al. (2017) Increased ionization supports growth of aerosols into cloud condensation nuclei

H. Svensmark (2019) Force Majeure - The Sun's Role In Climate Change

H. Svensmark et al. (2021) Atmospheric ionization and cloud radiative forcing

M. Tomicic, M. B. Enghoff, H. Svensmark (2018) Experimental study of H2SO4 aerosol nucleation at high ionization levels

 V. Vashishth (2022) Modelling the occurrence of grand minima in sun-like stars using a dynamo model

 

Kapitel 11 Entstehung des magnetischen Sonnensystems

 H. J. Völkel (Hrsg., 1982) Ursprung des Sonnensystems

 

Epilog

C. Garraffo et al. (2022) Revisiting the space weather environment of Proxima Centauri b

M. M. Katsovaa, B. A. Nizamova, A. A. Shlyapnikov (2022) Activity of Selected Solar Twins

M. Leitzinger, P. Odert (2022) Stellar Coronal Mass Ejections

K. Namekata et al. (2022) Hunting for stellar coronal mass ejections

S. Owocki (2022) Winds and magnetospheres from stars and planets: similarities and differencesplanets: similarities and differences

Historisches

R. Kane (2006) The idea of Space Weather – A historical perspective

U. von Kusserow (2019) Historisches über Kosmische Magnetfelder

V. N. Obridko, O. L. Vaisberg (2017) On the history of the solar wind discovery

Solar Storms (2003) Space Weather History

C. Vita-Finzi (2022) Sunspot periodicity

 

Ulrich v. Kusserow

Besselstraße 32 - 34
D 28203 Bremen

E-Mail: Diese E-Mail-Adresse ist vor Spambots geschützt! Zur Anzeige muss JavaScript eingeschaltet sein!