View from the Far Side

How the Timewave Was Made

From the King Wen sequence to the wave — the derivation, step by step

Abstract

The Timewave was not drawn freehand. It was constructed, in eight moves, from a single ancient object: the order in which the 64 hexagrams of the I Ching are traditionally arranged. This page walks the construction exactly as McKenna published it — and pauses, honestly, at the one step nobody could ever justify.

Every figure below is generated live from the published record: the hexagram transitions match the table in Watkins’s critique, and the 384 wave values are McKenna’s own Table 2. Nothing is redrawn from memory — you are looking at the actual numbers.


I

The raw material

The I Ching contains 64 hexagrams — every possible stack of six lines, each line either solid (yang) or broken (yin). The oldest known ordering of these 64 figures is the King Wen sequence, and it has a strange internal discipline: the hexagrams come in pairs, where the second of each pair is the first turned upside down. Eight hexagrams look the same upside down; those are instead paired with their opposite — every line flipped.

McKenna’s starting intuition was that this sequence is not decorative. If the ancient arrangers encoded something deliberate in the ordering, then the transitions between hexagrams — how much changes from one to the next — might carry information. That question is the seed of everything that follows.


II

The first order of difference

Walk the sequence and count, at each step, how many of the six lines change to turn each hexagram into the next (the sequence wraps: hexagram 64 steps back to hexagram 1). The result is a series of 64 small integers — the first order of difference. Graphed, it looks random. It is not.

Figure 1. First order of difference, King Wen sequence
Figure 1. First order of difference, King Wen sequenceThe number of lines that change at each of the 64 transitions of the King Wen sequence, from 1 to 6. Odd values, shown in red, occur only between pairs of hexagrams. 48 transitions are even and 16 are odd; none has the value five.02468162432404856transition (hexagram n → n+1) →lines changed
PlotLines changed at each of the 64 transitions. Odd-valued transitions are marked in red — they only ever occur between pairs, never inside one.

The properties McKenna found here convinced him the sequence was engineered:

48:16
Even to odd — exactly 3:1
0
Transitions of value five
1 in 3,770
Random sequences with all three properties

In his words, these regularities are not coincidences but the artifacts of conscious intent — the fingerprints, he believed, of the sequence’s ancient designers.


III

Closure — the double wave

Now the first strange move. Take the graph of Figure 1, rotate a copy of it 180° in the plane, and lay it back over the original. McKenna found that the two curves touch at both ends — they close, like a sealed vessel — and that hexagrams facing each other across the closed figure always have position numbers summing to 64.

Figure 2. The double sequence — closure at both ends
Figure 2. The double sequence — closure at both endsThe first order of difference of the King Wen sequence (blue) superimposed with its own 180-degree rotation (grey). The two curves meet at both ends of the sequence, which are circled in red.0369forwardbackward (rotated 180°)closure pointtransition 1transition 64 → 1
PlotThe forward-running difference graph (blue) superimposed with its own 180° rotation (grey). The curves meet at the conventional beginning and end of the sequence — circled. The closed figure contains 64 hexagrams × 6 lines = 384 yao, running forward and backward at once.

This closed, bi-directional figure — 384 lines of change — is the object everything else is built from. McKenna treated it the way the I Ching treats a single line: as a unit that can itself be stacked and scaled.


IV

The tri-level wave

A hexagram is six lines — but it is also two trigrams, and it is also one whole figure. McKenna rebuilt that anatomy out of his double wave: six copies end-to-end at the line scale, two copies (each three times larger) at the trigram scale, and one copy (six times larger) spanning the whole. All share one origin and one end point.

Figure 3. The complex wave — three nested scales
Figure 3. The complex wave — three nested scalesThe closed double wave of Figure 2 repeated at three scales sharing one origin and one end point: six copies end to end at the line scale, two copies at the trigram scale with values tripled, and one copy at the hexagram scale with values multiplied by six.LINEAR×6 · one copy per lineTRIGRAMMATIC×2 · values ×3HEXAGRAMMATIC×1 · values ×6↑ one originone end point ↑
DiagramThe double sequence of Figure 2 repeated at three scales: linear (×6), trigrammatic (×2, values tripled), hexagrammatic (×1, values sixfold). McKenna likened the result to a tesseract — the same elements as the King Wen sequence, with more dimensions.

He also noticed the arithmetic of the object rhymed with the sky: 384 subunits is almost exactly 13 lunar months (29.53 × 13 = 383.89 days) — suggesting, to him, that the figure had once been a lunar calendar.


V

Quantification — the 384 values

To turn geometry into numbers, every feature of the tri-level wave was scored: the skew of each line segment (thirteen discrete types, signed by direction), the divergence between the forward and backward curves (seven types of gap and overlap), and the scale of the level it sits on (trigram values ×3, hexagram values ×6). Collapsing all of it into a single line of numbers yields the data set at the heart of the theory: 384 integer values.

Figure 4. The 384 values of the complex wave
Figure 4. The 384 values of the complex waveLine chart of the 384 integer values in McKenna’s Table 2, plotted from position 383 on the left down to position 0 on the right. Values range from 0 to 79; the final three positions are zero.020406080320256192128640three terminal zeros ↑position (counting down to zero) →wave value
PlotMcKenna’s Table 2, plotted. The three terminal segments quantify to zero (marked in red) — the “singularity” at the end of every cycle.

The half-twist

Between the geometry and the published numbers there is one more operation — and it appears nowhere in The Invisible Landscape. It surfaces only in a footnote of the TimeExplorer software manual, where, midway through the algorithm, the sign of half the values is silently flipped:

for 1 ≤ j ≤ 32:
    angle_lin[j] = −angle_lin[j]      // footnote 22: the "half twist"

The manual’s own footnote concedes the reason for this step is “not well understood at present and is a question which awaits further research.”

In 1996 the mathematician Matthew Watkins condensed the whole construction into a single formula and put his finger exactly here: remove the half-twist and the 384 values change — and with them the entire wave, and every historical “fit” claimed for it. Confronted at Palenque, McKenna could not reconstruct a justification. John Sheliak later published a re-derivation defending a corrected wave; Watkins maintained the objection stands. The full exchange is kept in this node’s archive.

§4.4 — “Autopsy for a Mathematical Hallucination” · the critique, response, and defence →

VI

Fractal expansion

The 384 values describe one cycle — but the construction doesn’t stop at one scale. Each of the 64 segments of the wave contains a complete copy of the whole wave, 64 times compressed, its values combined with its parent’s. And the whole wave is itself one segment of a wave 64 times larger. The result is an infinitely nested, self-similar object: a fractal, years before the word was common currency.

Figure 5. Self-similarity — one segment, magnified
Figure 5. Self-similarity — one segment, magnifiedTop: the full 384-value wave divided into 64 segments, with segment 32 highlighted in red. Bottom: that segment magnified 64 times, containing a complete copy of the whole wave.the full wave · 64 segmentssegment 32 selectedmagnified ×64segment 32 of 64, magnified ×64 — a complete copy of the wave
SchematicTop: the full wave, with one of its 64 segments selected. Bottom: that segment magnified — containing a complete copy of the wave. Every segment holds the same copy. (In the full construction the copy’s values are superimposed with its parent’s; the shape recursion is what matters here.)

Because every scale contains every other, distant eras can occupy the same position on their respective cycles. McKenna called this temporal resonance — his explanation for why history seems to rhyme. The durations ladder up by the sequence’s own numbers:

Duration Multiplier Yields Astronomical echo
64 days × 6 lines per hexagram 384 days 13 lunations
384 days × 64 hexagrams 67.3 solar years 6 minor sunspot cycles
67.3 years × 64 4,306+ years 2 zodiacal ages
4,306 years × 6 25,836 years 1 precession of the equinoxes

VII

From wave to history

One thing remains to make the object a map: pinning it to the calendar. The wave’s mathematics fix its shape but not its position — some date must be chosen as the zero point where the final cycle ends, and every other date follows from it. McKenna screened the wave against history and chose the fit he found most convincing: a 67.3-year cycle beginning at Hiroshima lands in mid-November 2012, which he then nudged to 21 December 2012 to meet the end of the Maya Long Count.

That is the honest shape of the final step: the endpoint was selected, not derived — a best fit, chosen by eye, on a wave whose own numbers rest on the half-twist. The finished object is the one you can drag through on the node page: novelty rising as the wave falls, all the way down to a chosen zero.

Novelty Theory & Timewave Zero

The finished wave, live – Figure 1, mapped onto 1945 – 2012

Sources. Terence McKenna, Derivation of the Timewave from the King Wen Sequence of Hexagrams; Peter Meyer, TimeExplorer software manual (footnote 22); Matthew Watkins, Autopsy for a Mathematical Hallucination? (with McKenna’s introduction and response); John Sheliak, A Mathematical and Philosophical Re-Examination of the Foundations of TimeWave Zero. Figure data on this page is computed from the published hexagram transitions and McKenna’s Table 2, verified against Watkins’s h[k] table. Presented as part of McKenna Academy’s record — the construction shown faithfully, the objection kept beside it.

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