Walter Cruttenden,
Lost Star of Myth and Time
(St. Lynn's Press, Pittsburgh) 2005
Paperback, xxii+340 pages
ISBN 0-9767631-1-7
Andy Lloyd
The Dark Star
(Timeless Voyager, Santa Barbara) 2005
Paperback, xiv+304 pages
ISBN 1-892264-18-8
Critiqued by Frederic Jueneman
Here is a pair of scenarios, very old ones in many respects, to be sure, but motifs that take the reader on multidisciplinary journeys through space and time, of history and cosmology, and of culture and tradition. Regular readers of such literature will find that all of these groups plow pretty much in the same celestial fields. Notwithstanding, in a somewhat eclectic exposition one author (Cruttenden) come uncomfortably close to what this reviewer regards as new age occultism. But then, don't we all take a lot of things on faith and hope.
Cruttenden himself is a nonprofessional archeo-astronomer who builds and relies on earlier authors, both contemporary and historical, as well as assembling his own cache of mythic material to fortify his case that our Sun is part of a double-star system which orbits one another in approximately the same period as the Precession of the Equinox--a polar retrograde wobble of Earth currently figured at 25,770 years. Moreover, as the most original concept in the book, the author argues that the binary motions and gravitational influence of the two-star system cause the precession itself.
In like manner, science writer Andy Lloyd takes inspiration from Zecharia Sitchin's ancient Babylonian interpretations although with marked reservations, while also delving into myth and alternative science. Yet he generally tends to follow es¬tablishment guidelines in giving credence to his argument for a solar binary system. His major theme is based on the cliff-like Edgeworth-Kuiper Belt of asteroidal objects and comets that drops off rather precipitously beyond some 45 astronomical units (AU) from the Sun--one AU being the Earth-Sun distance--a gap that ostensibly extends several hundred AU to the inner boundary of the the¬oretical comet-filled Oort Cloud beyond.
The Edgeworth-Kuiper Belt was initially proposed in 1943 by the British researcher Kenneth Edgeworth and later resurrected by American as¬tronomer Gerard Kuiper in 1951. This gap is argumentatively considered by Lloyd to be swept out by what might eventually be found to be a so-called brown dwarf star and its retinue of planetesimals, which have yet to be observed.
Such brown dwarfs were first theoretically described by radioastronomer Jill Tartar in 1975 as small, very dense and dim planet-like stars, which are radiating mainly in the infrared. They were called "brown" to differentiate them from the already designated black, red, and white dwarfs, although brown dwarfs were ultimately found to glow magenta to reddish.
Cruttenden's book, on the one hand, despite being replete with physical phenomena and apocalyptic mythology, also attempts to reinforce his earlier mercantile DVD exposé with additional detail from mythic and mystic lore by enumerating and expanding on the four stages of the Yuga ages: The primeval Kali Yuga, typifying the dark age of iron from which we have just emerged in the endless Hindu cycles of time, and our now having recently entered into the Dwapara Yuga, or bronze age, with the increasingly enlightening Treta and Satya Yugas, of the respective silver and golden ages, still some thousands of years ahead in the distant future. Our increased enlighten¬ment is apparently predicated on this approaching Lost Star, which endows mankind with field-induced expanded mental capacity. There are ascending and descending phases of these ages, the divya or half-yugas that comprise something over 12,000 years each, delineating the half-cycles of the equinoctial precession: The rise and fall of mankind's intellectual proclivities.
The Lost Star spends an inordinate number of pages on the significance of these ages on human culture, where a high point in human capacity and competence was reached some 11,500 years ago, and has gone downhill ever since, or at least until the end of the medieval period just a few centuries ago. According to Cruttenden, the lowest point--the Kali Yuga--was from about 700 BCE to around 500 CE; however, no allowance was made for the global renaissance of the 6th century BCE, where religious, philosophical, and intelletual thought burgeoned throughout the civilized world; a flourishing which gave rise to the received wisdom of India. Egypt, Mesopotamia, and Greece. This may have been an aberration according to his scenario, but the excep¬tion does test the rule.
This is where the two authors differ, in that Lloyd is less enthusiastic than Cruttenden about the mysticism surrounding recorded events in human history. However, both authors do pay tribute to Giorgio de Santillana and Hertha von Dechend, who themselves had furrowed their pioneering groundwork of mythic lore by highlighting the Precession of the Equinoxes, and who also complained, "It goes without saying that the still more modern habit of replacing `culture' with `society' has blocked the last narrow path to understanding history. Our ignorance not only remained vast, but became pretentious as well."
Both of our authors under review bemoan the fact that astronomical ardor doesn't include many who, either through ignorance or hubris, even bother to consider an otherwise "unknown" or "unseen" massive companion to our solar system in the light of mounting evidence, other than minuscule icy worlds such as the recently discovered Quaoar, Sedna and Varuna, inter alia. But, as we all know, tradition is a very viscous medium.
Late 19th and early 20th century cosmologists, who had studied the perturbations on Uranus and relatively newly discovered Neptune (1846), determined that beyond these planets there was another massive body disturbing their motions; but, the discovery of tiny Pluto in 1930 by Clyde Tombaugh didn't account for the expected discrepancy, although Voyager 2 in 1969 supposedly settled the cosmological question by assigning Neptune a greater mass than was previously reported.
Only Lloyd referred to the earlier research of the late Hughes Aircraft mathematician John P. Bagby, assisted by his wife Loretta L. Bagby, who were intrigued by planetary perturbations that seemed to indicate what they termed a Massive Solar Companion (MSC), situated out of the plane of the ecliptic in the direction of Sagittarius. Bagby, who was well known to this reviewer, initially and tentatively proposed this MSC back in 1972 but only formally and obliquely published his results some years later in a study related to earthquake periodicity. However, his investigation seemed to indicate that such an MSC, or perhaps a distributed mass in Lagrangian orbits, might be also located in the direction of Sirius. Bagby postulated Lagrange distributions for several of the orbital parameters, which much like the Trojans in Jupiter's orbit may either lead or lag the gas giant by 60°.
Sagittarius, however, would turn out to be a "star-crossed" option since it is well within our most abundant view of the Milky Way galaxy, which leaves astronomers looking into the headlights of millions of stars that would make finding a dim body among such stellar traffic toilsome at best. The latest IRAS (InfraRed Astronomical Survey) satellite exploration of the heavens showed an excess of 200,000 dim suns within relatively short telescopic range that are available for study. So, where do those who want to look decide to seek such a candidate star? In the other direction, of course, where there isn't quite so much glare. The comparatively open celestial sectors of Orion or Canis Major will do nicely.
Interestingly, one of Bagby's major postulated orbits had a period of 1467.6 years, which is uncannily close to the so-called Egyptian Sothic period of some 1460 years, which makes an enticingly roundabout connection with Sirius. This reviewer had corresponded at length with Bagby over this observation, and subsequently copies of his summary were distributed to his colleagues.
Sirius, in Canis Major, visible in winter months just to the left (east) of Orion in the celestial sphere, turns out to be a candidate "lost" star for Cruttenden's argument, despite its 8.6 lightyear distance and -1.43 magnitude brilliance, making it the brightest nighttime star in the heavens. It is Cruttenden's nominee for a root cause of Earth's precession, because of some residual resonant effect, as well as Sirius' own unique proper motion. It is this singular proper motion, which remarkably is in the direction of our own locale in the galaxy that keeps it almost stationary over the centuries in its annual heliacal rising despite its gradual transit across the constellations.
Sirius has risen heliacally on almost the same Julian date for the past 4000 years, and is currently moving out of Canis Major. Here, however, Cruttenden makes an oblique reference to the calendar reform of Julius Caesar, whereas the Julian calendar used in the astronomical community was devised by Joseph Justus Scaliger (1540-1609), whose own calendar reform was published in 1583, one year after the Gregorian amendment devised by the Jesuit astronomer Christopher Clavius was instituted by Pope Gregory XIII. Scaliger's formula, however, using days instead of years, is called the Julian Day Count--a practice still in use by astronomers today and named after his father, Julius Caesar Scaliger.
Both authors had scrutinized ancient literature, which claimed that in ancient times this star was red in color, which Sirius currently is definitely not.
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