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11. The Mayas feared Venus. I guess she dominated time too much for comfort. It is extraordinary how her behaviour evidently is ruling events.

"After five complete cycles totaling 2,920 days, the movement of Venus fill eight idealized years of 365 days each and come within hours of spanning 99 lunations" (Popol Vuh)

8 * 365 = 5 * 584 = 2920 days, and 99 * 29.5 = 2920½.

Thus 5 Venus cycles are joined to 8 Earth years in a way similar to how 7 'Sun flames' are joined to 6 'Moon flames'.

And 99 Moon cycles are also joined to 5 Venus cycles (and to 8 Earth years):

5 Venus cycles

8 years

99 lunar months

2920 nights

The Mayas must have manipulated the data of their factual observations of Venus in order to accomplish a coordination in their calendar between the morning star period (263 nights) and 8 lunar months (236 nights):

 phase

observed periods

periods in the Mayan 'map'

difference

evening star

263

250

- 13

black

8

8

0

morning star

263

236

- 27

black

50

90

+ 40

sum

584

584

0

"The Maya and later the Central Mexicans divided the motion of Venus into four intervals. They assigned an 8-day period to the disappearance at inferior conjunction [when Venus is between sun and Earth], which is close to that observed today. But, peculiarly, Maya manuscripts recorded a disappearance interval of 90 days at superior conjunction [when Venus is behind the sun], nearly double the true value. Furthermore, they assigned unequal values to the intervals as morning and evening star: 250 and 236 days, respectively. [This must be an error as 250 days refers to evening star and 236 refers to morning star.] In fact, the true intervals are equivalent at approximately 263 days. These curious intervals betray a lunar origin: the latter three are whole or half multiples of the lunar synodic month: 

236 = 8.0 lunar synodic months - 0.24

90 = 3.0 lunar synodic months + 1.41

250 = 8.5 lunar synodic months - 1.25

In practice this means that if, for example, a first-quarter moon was visible at a morning heliacal [first appearance after having been invisible due to being close to, behind of or in front of the sun] rise of Venus, then the moon's phase, on average, would be the same on the last day that morning star Venus was seen in the east. When Venus reappeared as the evening star in the west, the moon would appear in the opposite phase (last quarter)." (Skywatchers)

From this we can in G and glyph number 236 recognize the last day of 'the morning star' ('the front side'):

Gb1-1 Gb1-2 Gb1-3 Gb1-4 Gb1-5

Gb1-6 (236)

Gb1-7 Gb1-8 Gb1-9 Gb1-10 Gb1-11 Gb1-12

8 'feathers' at left and 8 at right will together be 16 and 16 * 29.5 = twice 236.

If we assume a 'manipulation' also in the calendar of G, then 584 - 236 - 8 = 340 = 236 + 104 is a possibility, because 104 is documented in the text:

104 = 8 * 13 258
Ga4-21 (105) Gb5-10 (364)
260 = 10 * 26
364 = 14 * 26

And we suddenly can realize a possible meaning in 5 * 10 = 50 at vaha kai, the last day of the year. It ought to allude to the black 50-night period between Venus as morning star and Venus as evening star. Day number 364 is similar to the last day of the front side, because Sun is disappearing. We can count 363 + 50 = 413 = 14 * 29.5:

Gb7-1 Gb7-2 (413) Gb7-3

Let us end this exposé by summarizing a possible Venus calendar:

 phase

observed periods

periods in the G text

difference

evening star

263

290

+ 27

black

8

8

-

morning star

263

236

- 27

black

50

50

-

sum

584

584

-