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1. This planet appears to be lying on its side. A. Jupiter B. Saturn C. Neptune D. Uranus E. none of these 2. This planet is the hottest on the solar system. This is due to the swirling clouds pf sulfur and sulfuric acid that obscure its surface making its atmosphere heavy and dense. A. Mercury B. Venus C. Earth D. Mars E. none of these 3. The only asteroid known to have a satellite. A. Ceres B. Eris C. Makemake D. Ida E. none of these 4. It is an anticyclonic storm on Jupiter that has been existing for 180 years and it is expected to last for another 345 years. A. GDS B. GBS C. GSS D. SSS E. none of these 5. It is the second largest planet and it has spectacular rings that can be seen on Earth by telescope. A. Jupiter B. Saturn C. Neptune D. Uranus E. none of these 6. It divides the planets into Inner Planets and Outer Planets. A. Kuiper Belt B. Asteroid Belt C. Oort Cloud D. heliopause E. none of these 7. Pluto is now considered a ____. A. Giant Planet B. Dwarf Planet C. Elf Planet D. Little Solar System E. none of these 8. It is made up of many small comets orbiting around the sun. It is the area wherein scientists believed Pluto to be a part of. A. Kuiper Belt B. Asteroid Belt C. Oort Cloud D. heliopause E. none of these 9. The belt in number 8 was discovered by ___. A. Nicolaus Copernicus B. Galileo Galilei C. Gerard Kuiper D. Ptolemy E. none of these 10. One of the definitions of a planet is that it should be in orbit around the sun and that it should have no other planet coinciding with its ___. A. surface B. atmosphere C. satellite D. orbit E. none of these 11. Majority of the planets have a counterclockwise direction. This is called ___ motion. A. prograde B. retrograde C. stationary D. constant E. none of these 12. Only Venus among the 8 planets has a ___ motion. It is a clockwise motion. A. prograde B. retrograde C. stationary D. constant E. none of these 13. The ____ planets are made up of mostly gas. A. Rocky Planets B. Inner Planets C. Outer Planets D. Giant Planets E. none of these 14. The only planet where there is life. A. Mercury B. Venus C. Earth D. Mars E. none of these 15. It is a heavily-cratered planet and is fastest in revolving around the sun. A. Mercury B. Venus C. Earth D. Mars E. none of these 16. An anticyclonic storm on Neptune similar to that of Jupiter’s; only it lasts for a shorter period of time. A. GDS B. GBS C. GSS D. SSS E. none of these 17. The fifth planet from the sun and it is the largest planet from the solar system. A. Jupiter B. Saturn C. Neptune D. Uranus E. none of these 18. The nearest star to the Earth. A. Sun B. Proxima Centauri C. Alpha Centauri D. Rigel E. none of these 19. Pluto’s satellite and is now believed to be its twin planet. A. Ceres B. Eris C. Makemake D. Charon E. none of these 20. It is the first known asteroid and it is now considered as a dwarf planet like Pluto. A. Ceres B. Eris C. Makemake D. Ida E. none of these.

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Astronomical Distances
The Act of Measurement I: Astronomical Distances B. F. Riley The act of measurement causes astronomical distances to adopt discrete values. When measured, the distance to the object corresponds through an inverse 5/2 power law – the Quantum/Classical connection – to a sub-Planckian mass scale on a level or sub-level of one or both of two geometric sequences, of common ratio 1/π and 1/e, that descend from the Planck mass and may derive from the geometry of a higher-dimensional spacetime. The distances themselves lie on the levels and sub-levels of two sequences, of common ratio π and e, that ascend from the Planck length. Analyses have been performed of stellar distances, the semi-major axes of the planets and planetary satellites of the Solar System and the distances measured to quasars, galaxies and gamma-ray bursts. 1 Introduction Using Planck units the Quantum/Classical connection, characterised by the equation (1) maps astronomical distances R – in previous papers only the radii of astronomical bodies [1, 2] – onto sub-Planckian mass scales m on the mass levels and sub-levels1 of two geometric sequences that descend from the Planck mass: Sequence 1 of common ratio 1/π and Sequence 3 of common ratio 1/e.2 The sequences may derive from the geometry of a higher-dimensional spacetime [3]. First, we show that several distances associated with the Alpha Centauri system correspond through (1) to the mass scales of principal levels3 in Sequences 1 and 3. We then show that the mass scales corresponding through (1) to the distances from both Alpha Centauri and the Sun to the other stars lie on the levels and sub-levels of Sequences 1 and 3.
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David J. Armstrong –
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