The table below shows the most common keywords used by the author. The letters in brackets after some keywords denote if the keyword corresponds to Solar Physics (S) or Heliospheric Physics (H).
| Keyword
| Occurrences
|
|---|
| Astrophysics
| 25
|
| TURBULENCE
| 13
|
| Gravitation Theory
| 7
|
| High Energy Physics - Phenomenology
| 7
|
| Cosmology
| 6
|
| Relativity
| 6
|
| CONVECTION
| 5
|
| Neutron Stars
| 5
|
| Astrophysics - Astrophysics Of Galaxies
| 5
|
| Gravitational Constant
| 4
|
| Astronomical Models
| 4
|
| Atomic Clocks
| 4
|
| 97.60.Jd
| 3
|
| Physics (General)
| 3
|
| Equivalence
| 3
|
| STARS: NEUTRON
| 3
|
| STARS: INTERIORS
| 3
|
| Stellar Models
| 3
|
| Supernovae
| 3
|
| GRAVITATION
| 3
|
| Neutrinos
| 3
|
| Binary Stars
| 3
|
| Astrophysics - Solar And Stellar Astrophysics [S]
| 3
|
| Astrophysics - High Energy Astrophysical Phenomena [S]
| 3
|
| Field Theory (Physics)
| 3
|
| Accretion Disks
| 3
|
| Physics - Fluid Dynamics
| 3
|
| Quantum Electrodynamics
| 2
|
| Turbulence Models
| 2
|
| Solar System
| 2
|
| Pulsars
| 2
|
| X Ray Spectra
| 2
|
| Viscosity
| 2
|
| Theoretical Physics
| 2
|
| Time Measurement
| 2
|
| Baryons
| 2
|
| Stellar Gravitation
| 2
|
| Viking Mars Program
| 2
|
| Planetary Orbits
| 2
|
| Planetary Systems
| 2
|
| Stellar Mass
| 2
|
| Emission Spectra
| 2
|
| Astronomy
| 2
|
| Flux Density
| 2
|
| Stellar Orbits
| 2
|
| Astrometry
| 2
|
| Fluid Mechanics And Heat Transfer
| 2
|
| Gravitational Effects
| 2
|
| Convective Flow
| 2
|
| Stellar Evolution
| 2
|
| Space-Time Functions
| 2
|
| Mixing Length Flow Theory
| 2
|
| Stellar Envelopes
| 2
|
| Radiation Mechanisms: General
| 1
|
| Radar Range
| 1
|
| Radar Astronomy
| 1
|
| Quadratic Equations
| 1
|
| Pulsars: Individual (PSR B0950+08)-turbulence-ism
| 1
|
| Pulsars: General
| 1
|
| Proximity
| 1
|
| Pressure
| 1
|
| Planetary Temperature
| 1
|
| Planetary Mass
| 1
|
| Plane Waves
| 1
|
| Perturbation Theory
| 1
|
| Periodic Variations
| 1
|
| Particle Theory
| 1
|
| Particle Density (Concentration)
| 1
|
| Orbital Elements
| 1
|
| Nuclear Theory
| 1
|
| Nuclear Fusion
| 1
|
| Newton Theory
| 1
|
| Neutron Stars:Models
| 1
|
| Neutron Stars: Stability
| 1
|
| Neutrino Physics
| 1
|
| Metric Space
| 1
|
| Mercury (Planet)
| 1
|
| Mathematical Models
| 1
|
| Mass
| 1
|
| Mars (Planet)
| 1
|
| Magnetohydrodynamic Turbulence
| 1
|
| Magnetic Moments
| 1
|
| MAGNETIC FIELDS
| 1
|
| Lunar And Planetary Exploration
| 1
|
| Longitudinal Waves
| 1
|
| Leptons
| 1
|
| Kolmogoroff Theory
| 1
|
| Kinetic Energy
| 1
|
| K-Epsilon Turbulence Model
| 1
|
| ISM: Structure
| 1
|
| ISM: Kinematics And Dynamics
| 1
|
| ISM: Abundances
| 1
|
| ISM
| 1
|
| Interstellar Medium
| 1
|
| Interstellar Magnetic Fields
| 1
|
| Intergalactic Medium
| 1
|
| Intergalactic Media
| 1
|
| Inflating
| 1
|
| High Energy Physics - Experiment
| 1
|
| Gravitational Constant:Variations
| 1
|
| Globular Clusters
| 1
|
| Geodetic Surveys
| 1
|
| Gas Viscosity
| 1
|
| Gas Pressure
| 1
|
| Galaxy: Centre
| 1
|
| Galaxies: ISM
| 1
|
| GALAXIES: INTERGALACTIC MEDIUM
| 1
|
| GALAXIES: CLUSTERING
| 1
|
| Galaxies: Active
| 1
|
| Galaxies
| 1
|
| Galactic Clusters
| 1
|
| Fundamental Problems And General Formalism
| 1
|
| Field Strength
| 1
|
| Extremum Values
| 1
|
| Extrasolar Planets
| 1
|
| Exact Solutions
| 1
|
| Error Analysis
| 1
|
| Equilibrium Equations
| 1
|
| Equations Of Motion
| 1
|
| Energy Spectra
| 1
|
| Energy Distribution
| 1
|
| Energetic Particles
| 1
|
| ELEMENTARY PARTICLES
| 1
|
| Electron Scattering
| 1
|
| Eccentric Orbits
| 1
|
| Earth (Planet)
| 1
|
| Dipoles
| 1
|
| Determination Of Fundamental Constants
| 1
|
| Density Distribution
| 1
|
| Density (Number/Volume)
| 1
|
| Density (Mass/Volume)
| 1
|
| Data Processing
| 1
|
| Data Acquisition
| 1
|
| COSMOLOGY: THEORY
| 1
|
| Computational Fluid Dynamics
| 1
|
| Computational Astrophysics
| 1
|
| Comparison
| 1
|
| Closure Law
| 1
|
| Classical Theories Of Gravity
| 1
|
| Circular Orbits
| 1
|
| Celestial Mechanics
| 1
|
| Bohr Magneton
| 1
|
| Black Holes (Astronomy)
| 1
|
| Black Holes
| 1
|
| Astrophysics - Cosmology And Nongalactic Astrophysics
| 1
|
| Astronomical Spectroscopy
| 1
|
| Asteroids
| 1
|
| Approximation
| 1
|
| ACCRETION
| 1
|
| 98.60.Pr
| 1
|
| 97.60.Lf
| 1
|
| 04.20.Cv
| 1
|
| X-ray Surveys
| 1
|
| Vortices
| 1
|
| Viking Lander Spacecraft
| 1
|
| Venus (Planet)
| 1
|
| Velocity Distribution
| 1
|
| Variable Stars
| 1
|
| Universe
| 1
|
| Turbulent Flow
| 1
|
| Turbulence Effects
| 1
|
| Turbulence - Methods: Analytical - Galaxies: Evolution
| 1
|
| Transverse Waves
| 1
|
| Tides
| 1
|
| Tidepower
| 1
|
| Thickness
| 1
|
| Temperature Distribution
| 1
|
| Systems Stability
| 1
|
| Synchronism
| 1
|
| Supernova 1987a
| 1
|
| Supergiant Stars
| 1
|
| Super Shells
| 1
|
| Sun: Photosphere [S]
| 1
|
| Sun: Magnetic Fields
| 1
|
| SUN: INTERIOR [S]
| 1
|
| Stellar Rotation
| 1
|
| Stellar Mass Accretion
| 1
|
| Static Stability
| 1
|
| STARS: SUPERNOVAE: GENERAL
| 1
|
| STARS: ROTATION
| 1
|
| STARS: PULSARS: INDIVIDUAL ALPHANUMERIC: PSR 1913+16
| 1
|
| STARS: PULSARS: INDIVIDUAL ALPHANUMERIC: PSR 0655+64
| 1
|
| STARS: PULSARS: INDIVIDUAL ALPHANUMERIC: PSR 0655
| 1
|
| STARS: PULSARS: GENERAL
| 1
|
| STARS: INDIVIDUAL NAME: GLIESE 586A
| 1
|
| STARS: EVOLUTION
| 1
|
| STARS: BINARIES: SPECTROSCOPIC
| 1
|
| STARS: BINARIES: CLOSE
| 1
|
| STARS: BINARIES
| 1
|
| Spectroscopy
| 1
|
| Space Radiation
| 1
|
| SOLAR SYSTEM: GENERAL
| 1
|
| Solar Orbits
| 1
|
| Solar Neutrinos
| 1
|
| SMC
| 1
|
| Shock Waves
| 1
|
| Scale Effect
| 1
|
| Relativity And Gravitation
| 1
|
| Relativistic Theory
| 1
|
| Red Shift
| 1
|
| Rangefinding
| 1
|
| Radiation Sources
| 1
|
| Radiation Pressure
| 1
|
| RADIATION MECHANISMS: GRAVITATIONAL
| 1
|
| 97.60.Bw
| 1
|
| 95.30.Sf
| 1
|
| 95.10.Ce
| 1
|
| 47.25.-c
| 1
|
| 14.80.Pb
| 1
|
| 14.60.Gh
| 1
|
| 06.20.Jr
| 1
|
| 04.80.+z
| 1
|
| 04.20.Jb
| 1
|
| Zenodo Community Xrayvision
| 1
|