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The tropical year was divided in 365. 2423 days starting from the fall equinox. The names of the Celtic Zodiac were identical to those of the lunar months. The calendar found in Coligny, France, is strictly an astronomical device. Dr. Garret Olmstead who also studied the Coligny Calendar uncovered in 1897, discovered that, although made in the first century BCE, was using astronomical calculations going back to 1100 BCE!
The following is a description and critical comment on the various models given or proposed by the various interpreters and Reconstructionists for a working zodiac labelled as 'Celtic astrology'. Many attempts have been made at restoring or reconstructing ancient Celtic Astrology, these models are for the most part, fabricated, when not, completely re-invented. Not surprisingly, these tree zodiacs bear very little resemblance to both Western and Eastern Astrology. This being that most of the Reconstructionists have worked from false indications given by Robert Graves who seems to have confused Almanac with Zodiac.
Synopsis Two thousand years ago, a bronze sheet about 1½ metres by 1 metre and 5 millimetres thickness was broken into small pieces, placed in an earthenware jar and buried at a site near Coligny, Ain Province, France. It was rediscovered when unearthed in 1897 AD. The bronze pieces have now been re-assembled in the manner of a jigsaw puzzle, mounted on a r board they revealed a yearly twelve-month lunar calendar, its cycles repeated five times. Named the Coligny Plaque, it is inscribed with words in capital letter Latin characters, not Roman names but purely Celtic core words with added terminations. Considered a most important ancient artefact, it portrays a comprehensive Moon calendar, twelve months a year, five day weeks, six weeks a thirty-day month. Every other month lost one day of the fourth week to maintain a fifty-nine day bi-monthly lunar cycle. The twelve month names are Samonios, Dumannios, Rivros, Anagantios, Ogronios, Cvtios, Giamonios, Simivisonnios, Eqvos, Elembivios, Edrinios and Cantlos. The Plaque is a record of the native Gallic Celtic language at that time, half the month names are early Welsh Brythoneg and half early Irish Gaelic, demonstrating Celtic Gallic links with the Brythonic and Gaelic languages. I translated the names as the first month SUMMER, SECOND month, THIRD month, HOARD month, OGRE month, SHELTER month, WINTER month, BUDSWELL month, LAMBING month, SPRING month, BETWEEN month and lastly FULL CIRCLE month. Archaeologists suggest the Coligny Plaque was manufactured between 200 BC and AD 50. Having regard to the known and deduced features, I consider its actual date of manufacture could be considerably earlier. Its suggested manufacture date is not really important, what far exceeds other considerations is the message offered by the Bronze Age Plaque. A skilfully made bronze article should properly be of Bronze Age provenance well before 200 BC. The Coligny Plaque has identical Moon calendar features to the Irish Loughcrew and Knowth petroglyphs c.3500 BC, also to Stonehenge about 2500 BC. It demonstrates a fully comprehensive lunar calendar endured long before Julius Caesar decreed observance of the Julian calendar throughout the Roman Empire two thousand years ago. My translation of the Moon calendar months’ twelve Gallic names was facilitated by concordance between the Moon calendar and Sun calendar seasons and events; twelve months, six weeks of five days each month, 354 days a year. A lunar calendar of north-west European origin is historically important.
Etudes Celtiques, 2016
Dans cet article, l'auteur analyse comment les mois du calendrier de Coligny suivent de très près les lunaisons pendant les 62 mois des 5 années figurant sur la plaque de bronze, et, ce faisant, met en évidence la précision extraordinaire, au jour près, à chaque 'extrémité' de la lunaison moyenne. Cela signifie que chaque mois du calendrier lunaire commence toujours au même point de la phase de la lune, et que ce calendrier peut rester synchronisé avec la lune indéfiniment. La forme globale du calendrier est déterminée ensuite par l'attribution de 29 jours au premier mois intercalaire, ce qui fait du calendrier un calendrier métonique tout au long de 4 cycles successifs de 5 ans; cela montre aussi que, dans cet ensemble de 5 années, nous avons une partie complète, la seule nécessaire, du calendrier entier. Ce calendrier métonique pouvait aussi être intégré à une période de 30 ans, constituée de 6 cycles successifs de 5 ans, sans qu'il soit nécessaire de redéfinir le cycle de 5 ans. This paper examines how closely the lunar calendar months of the Coligny calendar track the individual lunations over the 62 months of the 5-year bronze plaque, and in doing so, discovers an extraordinary precision to within a day either side of the average lunation. This means that each calendar month always starts at the same point in the lunar phase and the calendar can remain in sync with the moon indefinitely. The question of the overall shape of the calendar is further defined by assigning 29 days to Intercalary One, which then shows the calendar to be a Metonic calendar through four successive cycles of the 5-year base, and that in the one 5-year plaque we have the complete and only needed part of the entire calendar. This Metonic calendar could also be embedded as part of a larger 30-year age of 6 successive cycles of the 5-year base, again without the necessity of reshaping the 5-year base cycle.
This page looks at some published dimensions of buildings and courtyards at Tiwanaku and analyses them in terms of "Egyptian" and "Sumerian" cubits. Part two describes the original calendar of Tiwanaku. In any city of a great antiquity it is not unusual to find different systems of measurements. The famous archaeologist Artur Posnansky looked for a system of measurements in Tiwanaku and came to the conclusion that there was a unit he called a " loka " which was 175 cm. What a pity that none of the archaeologists carried a tape measure set in ancient units of measurements, because three of the " lokas " of Posnansky are neither more nor less than 10 Egyptian cubits of 525 mm. The Egyptians used two types of cubits, one of 20.625 inches (523.875 mm) as found in the base of the Great Pyramid of Cheops which measures 440 of these cubits per side. The other, which we can find marked on a ruler in the British Museum in London was of 525 mm. This cubit was a " royal cubit " of 28 fingers, also there existed a cubit of 450 mm (24 fingers) and a foot of 300 mm (16 fingers). Above, Egyptian royal cubit rule of 525mm (20.67 inches) divided into 28 fingers
Software: Practice and Experience, 1993
Algorithmic presentations are given for three calendars of historical interest, the Mayan, French Revolutionary, and Old Hindu.
Studies on the Ancient Exact Sciences in Honor of Lis Brack-Bernsen, 2017
In this investigation, I sketch the way in which Babylonian astronomers may have derived the basic parameters of their lunar theory. I propose that the lunar velocity period of 6247 synodic months which underlies the construction of functions Φ and F of system A is derived by fitting a multiple of the Saros period of 223 synodic months within an integer number of solar years using the -year Sirius period relation. I further suggest that the lunar velocity period of 251 synodic months used to construct function F of system B is a direct derivative of the -month period. I also briefly discuss the origin of the periods of the solar velocity function B (of system A) and of the solar longitude function A (of system B) suggesting that the periods of these functions may have been derived from a refined version of the -year Sirius period. I finally discuss the timeframe of the possible stepwise development of these early lunar and solar functions.
2007
The Postclassic Maya Dresden Codex contains extensive astronomical records in the form of calendrical and chronological intervals concerning multiple cycles of the sun, the moon, and several visible planets. Hermann Beyer (1943) first demonstrated that a sequence of unusually long intervals of time found within the Dresden Codex describe specific dates separated by intervals of over 30,000 years. Beyer first named this sequence the Serpent Series because its component numerals are written within the coils of undulating serpents. This dissertation project examines the Serpent Series in detail, beginning with a new interpretation of the initial repeated distance number on pages 61 and 69. This unique interval of more than 15,000 years is almost exactly a whole multiple of the sidereal year, returning the sun to precisely the same position against the background of stars, while the position in the tropical year shifts dramatically. Such an accurate calculation suggests that the Maya were observing and recording the precession of the equinoxes. Because it takes approximately seventy-one years for the annual sidereal position of the sun to shift by one day of precession, an accurate calculation of precession requires hundreds of years of recorded observations. The remainder of the dates in the Serpent Series strongly support this proposal, demonstrating not only repeating sidereal positions of the sun over tens of thousands of years, but also an extensive knowledge of lunar motion, eclipse cycles, and planetary cycles of Mars, Saturn, and Venus that are comparable to current measurements. Furthermore, the data contained within the Serpent Series can be used to reconstruct the means used by the Maya to calculate precession. Namely, Maya astronomers recorded their observations of the sidereal position of total lunar eclipses at fixed points within the tropical year. These observations can be compared to those of Hipparchus, who first recorded the precession of the equinoxes in ancient Greece. However, the values calculated for precession within the Serpent Series are far more accurate than those of their contemporaries, surpassed only by Tycho Brahe and Johannes Kepler in the late sixteenth century.
In 1900, a Greek diver named Elias Stadiatos discovered fragments of an unusual mechanical device in an ancient Greek shipwreck near the island of Antikythera. Known ever since as the Antikythera Mechanism, it has revolutionised our thinking of the sophistication of the ancient Greek astronomers. Nick Kollerstrom investigates the latest findings.
ABSTRACT Palenque's Temple XIX platform inscriptions are revisited basis the JDN 584282½ or 82½ GMT correlation constant, with an elapsed time perspective and day's-ending alignments that changes concatenation and date subtraction arithmetical rules. Definitive proof of an ancient calendric science is emerging with astro-calendric designs embedded in Palenque's inscriptions reconstituted, revealing a computationally derived mythological cosmological framework supportive of a rulership authority. Palenque inscription references corroborating reconstituted astro-calendric computations are presented, showing how a Eurocentric Greenwich current time perspective distorts original intent in the astro-calendric alignments. Palenque's Temple XIX inscriptions embed calendric proper fractions distilled from modulo arithmetic practices, which reveals the identities of Triad Progenitor Muwan Mat, Jaguar lunar deity, Triad deity G-I, K'awil and Itzamna, rooted in a Time of Creation sidereal zodiac and precession shift computations. Matwil's location and Lakamha' spring are revealed as a cosmological setting, creating an alternative " K'awil taking " authority for Palenque's Rulers.
Mayan calendar analysis is quite impressive and greatly exceeds what many scholars and professors alike currently believe. I am particularly impressed with the alternative numerical relations, and he clearly appreciates the importance of the 364d sidereal ecliptic partitioning". Abstract This document first introduces the Mayan calendar and then explains new ideas about the Mayan calendar that may have appeared in a missing codex. These ideas are influenced by a similar calendar used in central Asia and obtained through the oral tradition of Kazakh nomads. This calendar which uses a 273-day cycle instead of a 260-day cycle is explained in detail. This gives rise to the idea that the Mayan calendar had a 364-day cycle and this idea is explored in detail. In particular the idea that the Mayan long count used multiples of 364 days instead of 360 days is explored with respect to astronomical events. In particular, the author codifies the Mayan calendar with the help of "amal", consisting of 9.1 days (for Kazakhs) and 18.2 days (for Maya), which are divided into 273 and 364 days without a remainder. From the set of equations given in this document, one can see the close relationship of the Mayan calendar with the sidereal and synodic rotations of the planet of the solar system, the eclipses of the Moon and the Sun, and also the coverings (occultation) of the Pleiades by the Moon. Personal introduction I do not speak or write in English. This is my main flaw. There was a little doubt that the translators accurately translated my words and thoughts first from Kazakh into Russian, and then into English. Therefore, I apologize in advance to the readers for the incorrectly translated expressions, as well as for ambiguous words, which I wanted to express in another way. Nevertheless, I believe that the topic of the article is quite interesting and excites many people, especially those who are engaged in studying the Mayan calendar. I always expected that one of the world-renowned scientists would write on this topic as I had assumed about Mayan calendars. But, the years go one by one, but no one has written about it. But I forced myself to drop all fears aside and take a pen and write it myself. I write this article in the hope that at least someone will pay attention to it. Arguing about the mistakes made deep in the roots of the study of the Mayan calendar, which began more than a century ago, I think so: There is nothing so good that there were no mistakes in it. After all, without errors we will never know the truth... MODERN CODIFICATION OF THE MAYAN CALENDAR Quotation on the topic: The famous astrologer John Dee used an Aztec obsidian mirror to see into the future. We may look down our noses at his ideas, but one may be sure that in outlook he was far closer to a Maya priest astronomer than is an astronomer of our century. J. Eric S. Thompson [1] Mesoamerican civilization
DIVISION OF TIME
First the year was divided into two halves: a dark half, with long nights and short days, and a light half, with short nights and long days. This division of time was thus equinoctial. The dates were fixed in respect to the Full Moon following the equinox if this event did not coincide with the Full Moon. Logically, this lunar and solar system would have to include periodical corrections or embolismic (intercalary) months every now and then. Corrections would have had to be made every two and a half years, excepting the thirty years period (Celtic century). This adjustment was made closer to the equinoxes, in change of great season that could include up to six or seven lunations.
The Dark Half was called Giiemorotlio for "sprouting cycle". The year was made to start in fall around November, this was the Celtic month of Samonios. A pun could be made with the name of this lunar month. The Druids, much like the other Vedic Seers were pundit punsters! Samonios being the season for the fall of leaves and seeds, a play on words could be made with Samon and Semon for "seed". New Year's Eve was called Uegilia Samoni, and was an evening celebration commemorating the ancestral spirits and souls of the deceased. It survived in Christian lore as Halloween or All-Saints-Day. Much can be added on this time of preparations for the winter season of sleep and rest, but let us move on to the "Light Season".
Semorotlio the Light season, was for the "cycle of seeding". This is the season for renewal after winter's end. Spring being the period that started the warm and light part of the year. The Celtic sidereal 24 sign system was called Prinnios from the Gaulish term Prennes for "trees". It was quite different from the Greek system (tropical) just featuring animals. The Greek Zodiac was a simplified 12 sign solar version of an ancient Vedic model involving the beasts as the fast moving Sun (active), catching up to the slower Planets as it moves through the forest of constellations (trees = passive).
The Moon draws sap up the trees, ordering life, while the Sun activates the animalistic inner fires. In this celestial forest resided godly beings. These gods who dwelt in the stars, had birds carry their thoughts from the astral forest domains, down to Earth. So far for most of the Ancients, the Sky was seen as an inverted bowl and the Earth as a plate floating in a bowl of water. The Druids knew that the Earth was spherical and had even reached a close estimate of its size: for them, the sky was thus not just one bowl but two inverted spheres being seamed together at the equator. Sonnocinxs was the Sun-path seen as the ecliptic line traced alternatively in above and below the two hemispheres. Now, to complete this, the two half-year seasons were broken down into two more halves, giving us the four seasons or "fourths" (please consult appendix for zodiacal tables).
1. Cengiamos was for fall, it stood for Cen (before) and Giamos (winter).
2. Giamorotio was for winter, it stood for Giiemorotlio, the Old Celtic name for winter. It evolved into Giamos, which is close to the Latin Hiems and Greek Kheimon.
3. Uesara was for spring, related to the Latin Uer and not that closely related to the Gaelic word Earrach (from Uesracos).
4. Samorotio, with the shorter Samos, was for summer, yielding the Gaelic word Samhradh, the Welsh Haf and Breton Hanv.
In Monthly Time
There were two ways of measuring the Moon's revolutions, one was the synodic month, and the other the sidereal month. "The Synodic month is the interval of time between two consecutive new Moons, or two consecutive Full Moons. It lasts for 29.53 days -or to be exact, 29 days, 12 hours, 44 minutes, and 2.78 seconds. Astronomers base this definition on an alignment of the Sun, Earth, and Moon, or rather, the interval between two such successive alignments. The synodic month is also known as the lunar month. The sidereal month is the period of time elapsed between two consecutive times that the Earth and the Moon are in line with the same fixed star. The sidereal month, or star month, is shorter than the synodic month. Its period is 27.32 days, or 27 days, 7 hours 43 minutes, and 11.47 seconds. The synodic month is longer because as the Moon goes around the Earth, the Earth continues to revolve around the Sun. The Moon must travel a little further before the three bodies are in line again." It is in this manner, that we should view the complex and intricate workings of the dual systems, both lunar and solar. The Celtic week was of 15 to 14 days. The week of 7 days was not in use in the Celtic lands before its introduction by the Romans. This Semitic concept, probably of Egyptian origin, was ignored by the Celtic peoples before it was imposed through christianising (J. Monard 1994). Nevertheless, it is also possible that the Druids divided the half-month, as did the Romans, with the 6 first days of the month qualified as Uegiliai, a novena, Noiolatis, of nine days, and the 14 or 15 other days qualified as Atenouxtio. Therefore, the month was divided into two halves (Full Moon New Moon), in turn divided into periods of six, nine, and fourteen or fifteen days. This is good for the almanacal synodic month of 29.53 days which should not be confused with the astrological sidereal month of 27.32 days. The division of days from 6 to 9 periods in a month of 30/29 days follows the ancient Italo-Celtic liturgical calendar. In short, the month starts with the Calendae (from calare, 'to call') or Uegilia in Celtic (Ueilia in Gaulish, Féil in Irish, Gwyl in Welsh, Goel in Breton and Gaule/Goule in Old French, cognates of the Latin Vigilia), the Nonae, Noiolates, follows with the month ending with the Atenouxtio, or period of 'renewal', the waxing period. The ninth day (Nundinae in Latin and Nametolatis in Celtic) was a day of rest and meeting time for family and friends. Other days of rest were the inauspicious Anmata days. The Anmata, "Non-even", days were not necessarily considered as a sign of bad omen. Each day was given a runic or oghamic letter of the Bobileth or Beth-Luis-Nion. If one is to follow the Germanic calendar, one will discover an old I.E. procedure used by the Vedic Brahmans and Celtic Druids, that is, a reckoning of the Moon phases to tabulate dates that would otherwise be approximate. This of course is to prevent major shifts in the Lunar-solar time clocks. The Teutonic month (Maenopiz) was also divided into 30 or 29 parts. But unlike the Celtic system which comprised of six 30 day's months and five 29 day's months, the runic day's months were more at random with only one floating 29 or 30 day's month. It seems that adjustments were performed on the advent of the Full Moon. Much like the Celtic Moon calendar, it also had two embolismic months: Lida and the coupling of Yul. These were planned according to the number of Full Moons between solstices making it possible for them to be inserted at some time of the year other than the usual Celtic order of Ciallobuis Sonnocingos and the doubling of Samonios or MIDX (J. Monard 1994). Tabulation of the monthly days was performed with the aid of the runic and Coelbreni alphabets. Each day in the Teutonic month was represented by a matching rune to the number of 29 to 30 for the entire month. The Celtic order comprised of 14 to 15 signs in all and repeated for Atenoux New Moon starting on the New Moon. The origins of this system which are lost somewhere in the mist of time point out in the direction of the Danubian Culture ca 5000-3800 BCE.
The recording of the lunar events of the year was called Amserolenmen in Old-Celtic, and Allmonaxta in Old-Germanic. The luminaries, Sun and Moon in their monthly progression, cross the many constellations of the Zodiac. These were likened to a forest of trees called Prinnioi (pl.) or Prinnios, the word for "wood", "divining" and "destiny". It should be clear by now, that the Almanac or Amserolenmen was the catalogue of lunar events and that the Zodiac or Prinnios was the recording of solar events. The lunar year was called Blidnis by the old Druids, and it was based on 12 lunations called Reuia. There is an easy bardic pun to be made with this term and the word Reuesia, for open clearing or cleared unwooded area. The Old Celtic vocabulary pertaining to the Moon is very rich and diversified. The Moon had many names; Diuon and Reui for the luminary, and according to the inscriptions found on the Coligny Calendar; Luxsna, which is much like the Latin name Lûna. Leucara means the "lighteous" and later evolved into Lugra, or the Welsh name Lloer, and Loer in Breton. As for the Gaelic terms, rich in periphrases, we have Eidsciia for the phases (pl. neuter), whence the Gaelic masculine form Easca (J. Monard 1994).
Indexing cycles
Difficulty arises as one tries to combine the lunar cycles with the solar year. In fact, the average Moon year of twelve months is of 354. 3669 days compared to the average 365. 2422 days of the solar cycle. The task was to combine these two years into one synchronous year and still keeping tract with seasonal changes. The solution was found in the intercalary month and year, which introduces every third year a thirteenth month called Santarana (Santaros\-a\-on = aside). This technique of inserting an extra month is qualified as «embolistic» for «clotting» or leap month. Apart from the use of an additional leap month there was the possibly of adding an extra day in July thus complicating things further. The first leap month was called Ciallosbuis Sonnocingos which means, «check-up of the Sun's course», returns every five years and the second, Mens in Dueixtionu, inserted between October and November also runs every five years at the beginning of each lustrum. Mens in Dueixtionu means «month in duplication», and is found abridged as MIDX in the Coligny Calendar.
The Coligny Calendar, photo, public domain.
THE COLIGNY CALENDAR
Latioi Leta-Brigas, the Heroes of the Half-Hill Fort
For each day (Lates) of the month's first half, one finds a corresponding hero (Latios), and his corresponding opponent in the second cycle. In this case, the heroes of course are none other than Fionn's Fianna. The letter "A" thus becomes great monthly Moon adjuster. "A" is for Abarta (Andabata), the performer of feats, and who is also known as Giolla Deacair (the Hard Servant). Abarta sought to become Fionn Mac Cumhail's servant and came to him with an ugly grey horse which made trouble with the horses of the Fianna. Conan Maol tried to calm the horse by mounting it but it stood still. The other warriors sought to weigh it down thinking Conan wasn't heavy enough but the horse still managed to jump about. Abarta in turn mounted it as it managed to gallop away with fifteen of the Fianna with Liagan, running behind and holding on to its tail. Unable to hold the horse, the Fianna were carried off with Abarta to the Otherworld. Then, Fionn sought the aid of Faruach so he could make him a magic ship, and Foltor, the best tracker in Ireland. Together with the rest of the band they were able to track Abarta to the Otherworld. Abarta, who was quite a prankster, jokingly agreed to release the men. But Conan was not pleased and demanded reparation by asking that fourteen of Abarta's servants join them back to the land of the living while Abarta ran behind holding the grey horse's tail. This second 14 days cycle corresponds to the New Moon when the Moon is waxing (Loudextio), while the waning period after the full is Lagiato. If one is to place "A" before "B", Abarta would then correspond to the two Moons (Full/New). But if the order is to follow the Beth-Luis-Nion, then Abarta comes three days before the Moons.
The uneven cycles of 14 days are to be considered sinister or uneven (anmata), thus having 14 of Abarta's servants as heroes.
For those toying around with the possibility of giving names to the days of the lunar month here is an example of such a word game using the letters of the Ogham tree alphabet: B, Beth < Betua "Birtch;" Betis "rout, road, way;" Bitu "world (of the living);" Bitus "life". L, Luis <Lusis "rowan;" Lugos "brilliance," "splendor;" Louxsnos "light." N, Nuin, Nion <Onna "ash;" Ninatis, Ninnatis> Nenadis "nettles;" Nentios <Nantios "injury (of war)." F <V <U, Fearn <Uernos "alder;" Uernos "good;" Uiriona "sincerity;" Uira "truth." S, Saille <Salicos / Salixs "willow;" Suligu "harmony;" Sauelios "sun;" Sulis "eye;" Sulisma "look, mien." H <Sq / Sp < Sc, Huath, Uath <Squiats "Hawthorn;" Squertos "thicket;" scetlon / squetlon "story, narrative history." D, Daur <Daruos / Deruos "oak ;" Deruos / Derbos "Sure, certain, outcome." T, Tinne <Tennos "holly;" Tepnia> Tennia "bonfire (wood fire)." C, Coll <Coslos "Coudrier;" Cailos "good, favorable, auspicious." Q, Quert < Qerta "apple ;" Qarios "cauldron;" Qartis "part." A, Ailm < Alamios "pine ;" Alamos "livestocck, cattle, richesses,» "possessions." O, Ohn < Ocstino / Acstino "gorse;" Acunos "spice." U, Ur < Uroica / Broica "Bryer, heather;" Ur Uron "fire." E, Eadha/Eodha < Idato "Ash;" Edemnos "heed, need;" Iduna "wisdom." I, Ioho, Idho < Iuos "yew" || Iubhar < Iburos / Eburos "yew;" Iuos "good, auspicious, strong, able;" Eburos "(old, solitary) boar." M, Muin, Min <Muinia "bramble vine;" Muinos / Moinos "treasure;" Muinon "benefit." G, Gort, Gart <Gortia "ivy, thorny shrub;" Gorton"garden;" Gorta "famine." Ng < Nc, Ngetal <Ingaitalis < Caitalis "reed;" Ancouo> Ancu "death (personified);" Anacantios "disastrous."
St (Sd), Straif < Sdragenos < Dragenos "thorn;" Draco "chief, lord;" Drangos "fanthom, ghost." R, Ruis < Ruscia "elderberry;" Roudios "red, ruin." Ch <X <K <C, Choad <Coiton / Caiton "thicket;" Caitos "woodland," "bush;" Coitos "common." Ea, Eashadh || < Esados / Elto, Eltos "poplar (white);" Esa "cascade." Th < T, Tharan < Taranos "oak;" Tarannos "thunder;" Tarandos "Reindeer;" Thesmerion "Hibiscus." Oi, Oir, Feorusoir <Uorosorios "charcoal;" Uorricé "willow;" Uoros "wise;" Uornoctos "stripped, naked." P, Peith, Pethbol < Petios / Quetios "opulus;" Uillean || <Uillo "honeysuckle." U, Uillos "horse;" Uilia "will, honesty." Ph < B, < Phogos <Bagos "beech"; Bagios "boar"; Bagacos "fighter, bellicose." Sp / Ia, < Fea, Iphin || <Spiðna "gooseberry (mackerel);" Spina / Sparna "thorn." Xs, Xi Mor < Xi maros, "big x," 'xslemos < uxslemos "mountain ash;" 'xon < uxon (quintessence) aether." Ae, Amancholl < Uanocoslos "white ash, mountain ash."
Gallic Months
Month
How to find the Festival dates on the Full Moon
The Fire-Festivals were truly a Celtic innovation for they are not solsticial and equinoctial but more of a lunar nature. To find these dates, one must keep track of all the adjustments of the lunar year to the solar year that means, the two leap-months and the flexing of the month of Equos (one extra day). Remember that the months always start on the Full Moon and that the half-period, the Atenoux, always falls on the New Moon. That is, the month starts with the Full Moon as it wanes towards the New Moon (dark period), then waxes and brightens into the Full Moon again (light period). Many have confused the dark period as being before and after the New Moon and the light period being around the Full Moon picking up on Pliny's statement that months began mid-time between New Moon and Full Moon (HN, XVI, 251). Pliny of course was speaking in terms of Roman time reckoning from the Julian calendar. In fact, Pliny generalized from a misunderstood information concerning a punctual event displaced by the lag between the variable luni-solar Gaulish and the near solar 'Julian' Roman calendars. This division just can't make sense in terms of a druidical half-month since it would have entailed an internal month cut-off as tortured as the one shown on the Roman model. The druidical model seen on the Coligny plate shows a very well balanced system of half-months of 15 + 15 (mat) or 15 + 14 (anmat) days. Beginning months at the Full Moon was a general practice among the I.E. peoples, not only with the Vedic calendar but with the Germanic one as well. This was for legal purposes in hope of preventing racketeering since everyone could see when the Moon was full. Again, the Romans of the Republic had turned their backs on the old Indo-European customs. Whence priceless scheming by the pontiffs to advance and postpone payment dates during the dark fortnight. In fact, Strabo (III, 4, 16) not only confirms this, but linguistic data from the Coligny calendar itself clearly shows this also (see month chart). Concerning the Celtiberians and their northern neighbours the Gauls, Strabo writes: " " for: "that at full moons they gather during the night by entire households before city-gates and feast throughout the overnight". Caesar's commentary could not be clearer: Accordingly they measure periods of time not by days but by nights; and in celebrating anniversaries, the first of each month, and the New Year, they follow the rule that night precedes day. 18,5) This clearly shows that feasting was held on the Full Moon as it is corroborated in the Irish lore of Féil Samhain, "Feast of Samhain". Every Gaulish month also beginning at "Diuertomu" (= Moon's acme) for Full Moon. The term is derived from Diuo-uertomu, diuo(s) being "lighteous" and Diuon being one of the principal names for the Moon with -uertomu, the feminine dative case of the neutral uertamon for "summum", "acme", also adjective uertamos/-a/-on = "supreme", "maximum". This period lasted six days from the Full Moon to the Novena period starting on the seventh day.
The Main (known) Lunar Festivals
These major Druidical festivals falsely called "fire festivals" fall on the Full Moon of lates I Samoni, I Anaganti, I Giamoni and I Elembiui.
With three festivities properly Druidical, and named for Celtic divinities: -Please note that the solar events, solstices and equinoxes, were not liturgical observations since they were of a solar nature. These were astronomical daytime events. The remaining lunar events can only be guessed at since they were not recorded by the Christian copyists.
The Monthly chart:
REUIA (Lunation) UEGILIA (Vigil, understood as Calendae days) DIUOUERTOMU (Full Moon: the Moon's acme); LAGIATO (Waning of Moon); SANTERDEUON (Half Moon); NOIOLATIS (Novena), Nametolatis (Nundinae: ninth day, day of rest); ATENOUXTIO (New Moon: "Renewal", waxing moon half-lunation); LOUDEXTIO (Waxing of Moon); SANTERDEUON (Half Moon); AMBO ("Both" luminaries, noted when Moon is observed before sunset i.e. overlapping two dates ahead of FM); IUOS ("Clear", very distinct, noted before and around FM).
THE LUNAR MANSIONS
The lunar mansions were most readily used by Druidical astrologers to plot chart and make quick predictions, even more so than the zodiacal signs.
In Greek Astrology, the Lunar Mansions were divided into 28 parts into which the Moon's monthly course through the heavens was divided. The Vedic plot divides into 27 nakshatras while Dru-Uidic mansions are divided into 6 with 27 or 28 Diriones (Star clusters). These sidereal periods should not be confused with the Lates, monthly calendar days which are synodic. In the Irish scheme (such as the Red Branch), one Là is from Latis (overnight then daytime = nycthemer) and hero punning with Lettos, mansion, castle. The Celtic lunar month which began from the Full Moon overlapped the zodiacal months with a certain discrepancy. The lunar mansions correspond to the sidereal month, or star month, which is shorter than the synodic month. The synodic month is the interval of time between two consecutive full Moons having a period of 29.53 days (29 day, 12 hours), while the sidereal month is of 27. 32 days (27 days, 7 hours. 43 minutes and 11 seconds). Therefore, every three years an extra Dirio or Star is added to balance the cycle.
Queen Medba and king Aillil owned a marvellous palace. The arching of the house, which was of oak, supported a high-vaulted roof made of three stripes of bronze with a covering of shingles. The plan was made of seven circles and seven compartments from fire to partition. It had oaken rafters with apartments partitioned with red yew and inlaid copper. Most of the walls were made of oak. It had twelve windows with glass in the openings. The couch of Aillil and Medba, with silver frontings and stripes of bronze round it, was in the centre of the house in the royal apartments. In Aillil's own office, a long silver rod reaching the ceiling leaned against one wall by the partition facing him. This was the wand of authority by which he kept his domain under control. From 27 glass windows, Aillil could observe each of the star-maidens in their daily pastimes. The Ulster heroes went round from one door of the palace to the other, and the musicians played while the guests were being prepared for. Such was the spaciousness of the house that it had room for the hosts of valiant heroes of the whole province in the retinue of Conchobar. This zodiacal palace could have been termed as the Qataira Alpilleios ac Meduas, the palace of Aillil and Medba which Berresford Ellis compares to the 27 Nakshatras of Hindu astrology.
To each lunar mansion, Lettos or rath in Irish, its ruler or patron for the first half, and a matron for the second half.
In another version there are two 9 period mansions and two four or five period mansions in the zodiacal sidereal month for luni-solar adjustments. In the Irish sagas there were three main halls, the first Craobh Ruadh, contained nine rooms. This is where the king and his heroes feasted and slept. It is described as made of yew with walls of bronze, grouped around the king's room which had a ceiling of silver supported by bronze pillars decorated with gold. The second hall called Craobh Derg, was the treasure house containing war trophies. The third hall was called the Teite Brecc, and where the weapons of the heroes were kept, for it was ruled that no one should enter the feasting halls armed. Last, was the hostel called Bron-Bherg, or DaDerga's Hostel, the house of cure, in which the wounded warriors were nursed? Bruden Brondas 1 is a euphemism for the Moon Goddess's white breasts.
To the North-east we find the Teite Brecc, "the speckled house" another of the great halls of Emain Macha. It is a storehouse for the warrior's weapons. This House is ruled by Saturn. This is a place of magic and transformation and many word plays can be made with Briccos, Brictos for "speckled", Briccos, Brictillos for "trout mackerel" and Bricta, Bricstia, for "magic". Past Bouenda's fortress, to the South-east, we have Da Derga's Hostel or Caer Feddwid 2 . This House is ruled by Mars and is often referred to as "the House of Doom". Set apart from the Moon grid are the two lunar nodes, Lestos Ambios 3 and Pennos Ambios 4 . These are two other of Magosia's halls (Halls of Emain Macha), the two Red Branches, Roudos Canca or Craob Ruadh (Cauda) and Dergos Canca or Craobh Derg (Caput).
The following is from indications found in the Irish and Gaulish data bases.
THE LUNAR MANSIONS QATAIRAI EMNION MAGOSIAS, the Halls of Emain Macha
I-QATAIRA ROUDOS CROBIOS (Red Tree Mansion) 9 Diriones: 1 Bron from Bronda (= breast). 2 Cataira Mescuetonos = Fortress of drunkenness and Curmitegos Dergodeui (Curmitegos = tavern). 3 Cauda Draconis in Latin, Kethu in Sanskrit. 4 Caput Draconis in Latin, Rahu in Sanskrit.