Dark Fluid DNA

Dark matter fluid dynamics explains covalent bond forces between atoms, and affects how amino acids bond to form protein chains.

There are 61 codons that are used to assemble the 20 different types of amino acids. Research focuses on the the amino acids in the protein chains. Despite the fact that it’s been demonstrated that β€œsynonymous codons” cannot be simply replaced, not much research has gone into whether the codon might influence how the amino acid bonds. The theory is that the codon influences the speed of assembly and that influences how the protein folds.

Unlike the traditional theory of covalent bonds though, orbital signatures have angular momentum that will be conserved. The signature of this angular momentum waveform has information, history.

With dark fluid dynamics, I’ll show how the codon’s orbital signature is transferred to the amino acid using the tRNA. This magnetic fluid attraction affects how the amino acid bonds with both others and RNA nucleotides.

The Evidence

This is an evolving discovery, a part time project but see what I’ve found in a short time:

It appears that cellular dynamics are not based on chaos and entropy but instead programmed by fluid flow attraction and repulsion patterns coded into proteins and rRNA.

If you don’t believe me, try mapping out a few sequences yourself?

By National Human Genome Research Institute

By Madprime

How does this work? Since dark matter fluid is the force behind magnetism, let’s use that analogy. Did you know that a stronger magnet realigns a weaker one without losing energy itself?

With that lens, opposite base pairs in DNA are recharging each other’s orbital signatures all the time while holding each other in place. Opposite pairs form a covalent bond from the opposite signatures they create and maintain. They recycle figure-8 dark fluid, aligning energy to minimize turbulence, and then feed off each other’s improved alignment.

Remember that these orbital systems will be frictionlessly spinning for billions of years. By exchanging figure 8 fluid flow, they keep each other’s signatures aligned, as opposites, at a lower energy state with less turbulence. The molecule will have a dark orbital signature on it’s boundary layer. It’s this boundary layer signature that will affect how it bonds to others. Think of this signature as a waveform created from the nucleotide’s mountain pattern.

And just like magnets the orbital signature boundary can be re-programmed. The waveform holds state and this state affects the bonding pattern.

Transcription - Step 1: mRNA

To build a protein, first mRNA is transcribed from a section of DNA. Opposite nucleotides are bonded into a string from the anti-sense strand in the DNA.

By Sulai - National Human Genome Research Institute

Using the magnetic metaphor again, the DNA codon transfers this harmonized orbital signature to the mRNA at the first step of transcription. Since this transcoding happens with the anti-sense pair of the codon, the DNA’s oppposite pattern, the resulting mRNA has the same orbital signature as the DNA’s sense codon.

The result is an mRNA strand, essentially with the same pattern that feeds into the Ribosome.

Here’s a fantastic animation that shows it in action - notice the protein growing out of the top:

Animation of Ribosome - by Bensaccount

Thank you wikipedia! Search for mRNA

tRNA - the mRNAs Dance Partner and Codon Amplifier

To make the protein, the Ribosome needs one tRNA with an opposite matching anti-sense codon for each mRNA codon.

The tRNA molecules exist in a fluid state for each type of amino acid and with each codon pair. A tRNA gets paired with a compatible amino acid for it’s codon along with an ATP - the energy source that makes it all happen.

ATP has more dark fluid angular momentum and this energy is released into the amino-acid tRNA pair. It spins with more dark orbital system energy. Importantly, because the orbital signature boundary layer is now spinning faster, it will act like a stronger magnet.

Let’s look at this process in more detail since this is where the codon’s signature is transferred to the amino acid.

When the ATP, amino acid and tRNA bond, the new wave form of the orbital boundary signature moves from that single strand at the top - those four nucleotides: A C C A. It splits into two waves at the G * C stem junction. Now waves of energy flow over each of the arms of the T-shaped RNA. The left flow goes through some harmonizing nucleotides on the D loop, passing by 33 nucleotides in all until it reaches the anti-codon. The right flow has more harmonic tuning nucleotides and also has a cross cutting bond. This stream breaks into two parts on the right arm of the T. The shorter stream flows through 33 nucleotides. The longer one 36.

Now these two waves meet at the bottom, slightly adjusted. From the shape, it looks like the waves meet as opposites, and cancel right at the anti-codon. The original molecule’s orbital signature is smoothed out. This smooth wave passes over the codon, a pure signature transfer across the whole molecule, including the amino acid. So now the codon’s unique mountain-wave form flows across the whole molecule.

The tRNA is ready to meet its opposite. In fact, it’s state of highly charged fluid energy will draw it into the Ribosome, attracted by it’s opposite at the mRNA site. The mRNA’s attraction signature will be amplified by the shape of the Ribosome - it’s at the mouth of a fluid flow canyon. So the tRNA is draw in by fluid flow, not chaos/entropy.

So now that we see how orbital systems signatures can be programmed - the same force we know as β€œcovalent bond” energy - this explains why we see such high affinity between patterns of the genes in Ribosomal proteins and the rRNA of the ribosome. Why these patterns match so well to protein bonding sites.

Ribosome - Protein Assembly Organelle

The Ribsome is the main protein factory and is itself built from an rRNA skeleton and in E Coli 29 Ribosomal proteins that tie the skeleton together.

Here’s a high level view of how it works:

  • First EFG brings in a new tRNA at just the right time into the A site.
  • Then another tRNA pushes the first to the P site
  • A third tRNA moves those two along so the first goes to the E site.

At the P site, the amino acid is detached from the tRNA and bonded to the forming protein chain. That unfolds through the top of the large subunit and emerges as a folded protein.

Here are some fantastic images from the Noller lab that show how tRNA goes through the three phases of assembly, by Jenner et al., 2010, Zhou et al., 2014:

Noller Lab - Positions of the mRNA and tRNAs - Two Steps,

Noller Lab - Top down view with rRNA positions labelled

Noller Lab - Electron density map of Three tRNA and EFG

Go to this awesome page: https://rna.ucsc.edu/rnacenter/noller_lab.html

The Codon Taxonomy - A Fun Stake in the Ground

Do codon’s have personalities based on their mountain pattern? Does it make sense to use Emojis to help with pattern matching? I’m not sure of the science but it’s definitely more fun :)

This is an early part of this investigation that started June 22, 2025. Please help complete the story!

I don’t have all of the answers but know this will add a layer onto what we already know for people who know more than me.

The mountain signatures are a great metaphor because they reflect the shapes of the nucleotides and it’s that energy that controls the orbital signatures.

The Mountain Landscape Of Nucleotides

Following this pattern, there’s a natural correlation between shape of the nucleotide and a pattern it would create in the fluid flow. Since the rule is β€œopposites attract”, once you see the pattern, it leads to a fairly natural codon mapping table. I used emojis as a visual way to see patterns, nicknames as a first attempt to capture their nature.

G = BIG
A = big
T = small
C = valley

Nucleotide Shapes

πŸ”οΈ Mountain Peaks (Purines A , G ):

  • Double-ring structures create prominent binding surfaces

πŸ•οΈ Valley Hills (Pyrimidines C , T ):

  • Single-ring structures create complementary binding grooves

Computing Orbital Signature Bond Strength

As a stake in the ground, a complete opposite pattern counts for: +3 - maximum attraction TAT and ATA, the same pattern -3 (TAT and TAT).

For weak opposites: TAT and GCG = 1.5.

For others, looking for opposite codons: +1, same codons -1. Weak opposites: 0.5, weak sames: -0.5.

AAA to ATA, TTT to TGT, CCC to CTC, etc. have weak oppositional attraction (0.5) even though the scoring above would say: -1. This is because the waveform will be different enough.

Understanding Bonding Patterns

The two codons coding a pair of amino acids interacts with their shape to create different types of bonds. Here’s an attempt to diagram how the bonding forces and shape work together for some common pairs that illustrate this dynamic:

Lock and Key

Since opposite patterns create figure 8 and attracting currents, TTC’s Phenylalaline and CCT’s Proline have opposite figure 8 flows that align with their natural geometry, you have a lock-and-key bonding pair. The nose of Proline fits into the ring of phenylalaline and the figure 8 currents hold it in place.

Not Synonyms

But a CCC coded Proline and a TTT coded Phenylalaline will be much less likely to bond, even with the same shape because their orbital signature patterns are too similar.

Flowing Bond or Gate

A Serine Amino Acid coded with TCC and a Threonine coded with ACC have the T to A attraction, the CC to CC repulsion and a flowing balance in the amino acid shape to create a bond that acts like a gate with one side taking the impact. These types of bonds create opening and closing tubes, ports etc.

C Harmonic Lock-and-Key

Although GCG and CGC also have an opposite pattern, the shapes of the amino acids they pair with are also opposites. This makes their nature more of a harmonic resonance bond, a breathing, flexing bond energy.

High Energy Repulsion

Two codons GAA and GAG both code for the same amino acid but with opposite patterns and opposite orbital signature energy. This is the ultimate high-energy repulsion.

Flowing Bend

GTT and TTG code Valine and Leucine - both bottom heavy shapes bonded with a loose attraction creates a bending bond.

Another Lock and Key

TAT and ATA - opposite signatures and isoleucine’s knob fits into tyrosine’s ring.

Taxonomy Built From These Patterns

Using the mountain dynamics, and fluid flow metaphors, I created this taxonomy to try and understand patterns, start a dialog on how best to understand these important pieces to the puzzle.

β—‡ Pattern 3

All codons containing digit 3 - Basic coordination and assembly.

🌸 Pattern 5

All codons containing digit 5 - Flow optimization and bonding networks.

β—† Pattern 20

Advanced geometric programming through mountain-on-mountain collision dynamics. Creativity, and two stop codons.

Pattern 20x

Special assembly patterns.

πŸŒ€ 201 - Spiral Threaders (φ¹ Harmonics)

Spiral growth, 201+1 to 201+5: ready, set, grow, grow-on, grow-strong.

Codons: AAG, AAC, AGA, AGC, GGG

Mountain Crash Dynamics: Synchronized major mountain collisions create helical pressure waves that spiral around the amino acid impact zone. The angular momentum from double and triple purine crashes programs rotational coordinates like a cosmic drill bit.

Geometric Programming:

  • Helical threading with φ¹ spiral ratios (1.618…)
  • DNA double helix coordination instructions
  • Protein alpha-helix assembly protocols
  • Logarithmic spiral growth patterns

Biological Examples: DNA helical structure, protein secondary structure, spiral galaxy formation patterns

⬟ 202 - Pentagon Ricochets (φ² Harmonics)

Spiral dynamics: nudging, threading, poking, spiralling, spiral hammer (The BIG Boss Hammer).

Codons: AGG, GAA, GAG, GGA, GGC

Biological Examples: Flower petal arrangements, starfish development, viral capsid assembly, pentagon-based molecular structures

🐚 203 - Fibonacci Pilers (φ³ Harmonics)

These codon’s are used to coordinate growth: grow start, grow on, grow strong, swirl, nautilus.

  • CAA: Gentle baseline swirl (like stirring coffee once)
  • CAG: Double energy swirl (stirring twice as hard)
  • CGA: Triple power (building momentum)
  • CCA: Five-fold intensity (serious spiral action)
  • CGG: Eight-fold BIG BOSS energy (cosmic hurricane!)

This leads to:

  • Fibonacci sequence accumulation (1+1=2, 1+2=3, 2+3=5…)
  • Golden ratio growth spirals (φ³ = 4.236…)

Biological Examples: Nautilus shell growth, sunflower seed spirals, pine cone patterns, plant phyllotaxis arrangements

🎡 204 - Golden Harmonic Resonators (φ⁴ Harmonics)

Codons: GAC, GCA, GCG, GCC, CGC

Mountain Crash Dynamics: G-C mountain-valley pairs create perfect 3:1 hydrogen bonding ratios that naturally resonate at Ο†-frequencies. Symmetrical patterns (GCG, CGC) generate harmonic standing waves with sacred geometric proportions.

Geometric Programming:

  • Golden ratio proportions (φ⁴ = 6.854…)
  • Geometry coordinates (temple ratios, human body proportions)
  • Harmonic frequency tuning
  • Molecular resonance patterns

Biological Examples: Human body proportions, temple architecture ratios, molecular harmonic vibrations, optimal structural proportions

πŸ’Ž 20Ο† - Geometric Controllers (3 Special Codons)

Three special controllers: AAA, CCC, TTT. If GGG wasn’t such an important step in 201 construction, it could go here.

Mountain Crash Dynamics: Triple identical peaks create pure harmonic frequencies with no interference patterns. These represent the fundamental geometric coordinators that unify all other Ο†-based programming.

Geometric Programming:

  • AAA: Spiral Coordinator (triple major mountain = ultimate helical force)
  • CCC: Pentagon-Fibonacci Bridge (triple valley coordination between systems)
  • TTT: Harmonic Unifier (triple valley resonance = system-wide Ο†-coordination)

(honorary member GGG*)

Biological Examples: Controlling developmental switches, system-wide coordination protocols, fundamental architectural controllers

The Amino Acids

This is a table of the amino acids, shown with a wrench icon in the table.

The Builders (Structural):

  • Glycine πŸͺΆ - The Minimalist (smallest, fits anywhere)
  • Alanine 🧱 - The Foundation (simple methyl group)
  • Proline πŸ‘ƒ - The Nose (plugs into Phenylalanine for 3+7 to 3+8 lock-and-key bonds)

The Charged Citizens:

  • Lysine πŸ’¦ - The Positive (basic, likes water)
  • Arginine πŸ“’ - The Thunder (super positive)
  • Aspartate βš–οΈ - The Negative (acidic)
  • Glutamate β›ˆοΈ - The Storm (longer acidic)

The Social Butterflies (Polar):

  • Serine πŸ’§ - The Helper/The Pitcher (hydroxyl group, loves H-bonds)
  • Threonine 🀝 - The Connector/The Catcher (methyl + hydroxyl)
  • Asparagine πŸ’ - The Gift (amide group)
  • Glutamine πŸ€— - The Embracer (longer amide)

The Loners (Hydrophobic):

  • Valine πŸ„ - The Brancher (branched chain)
  • Leucine 🌲 - The Tree (bigger branched)
  • Isoleucine 🌿 - The Twig (asymmetric branch)
  • Phenylalanine πŸ’ - The Ring Bearer (benzene ring)

The Specialists:

  • Tyrosine β­• - The Noble (phenol ring)
  • Tryptophan πŸ¦‹ - The Butterfly (indole ring, biggest)
  • Cysteine πŸ”— - The Linker (forms disulfide bridges)
  • Methionine πŸƒ - The Starter (start codon, sulfur)
  • Histidine 🎭 - The Actor (changes charge with pH)

The Signature Rhythm Table

β—‡ Pattern 3 (Structure) - Perfect Lock-and-Key Pairs (8 Codons)

These are triangle symmetry, tetrahedral truss construction, 3 sided trampolines.

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
β—‡πŸ—οΈ TTA 🌲 3+1 The Mountain Lock Big-big-small 8.71
β—‡πŸ”’ AAT πŸ’ 3+2 The Valley Key Small-small-big 18.43
β—‡πŸ”‘ ATA 🌿 3+3 The Valley Lock Small-big-small 8.08
β—‡πŸ” TAT β­• 3+4 The Ridge Key Small-big-small 12.1
β—‡πŸ›‘ TAA πŸ›‘ 3+5 The STOP Key Big-small-small 0.44
β—‡πŸ° ATT 🌿 3+6 The Castle Lock Small-small-big 16.48
β—‡πŸ’΅ TTC πŸ’ 3+7 The Cash Big-big-BIG: open ring, wallet 17.48
β—‡πŸ›οΈ CCT πŸ‘ƒ 3+8 The Bank BIG-BIG-big: insert nose, deposit 19.31

🌸 Pattern 5 (Flow) - Diversity = 2 (8 Codons)

These are five symmetry, pentagonal, horeshoe shapes, opening/closing port patters, pentagonal dome parts. No stop codons of course - it’s flow!

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
🌸πŸ₯ TCT πŸ’§ 5+1 The Beat Flow with anchor stability 16.93
🌸🎯 TGT πŸ”— 5+2 The Aim Flow with mild coordination 10.40
πŸŒΈπŸ§— TTG 🌲 5+3 The Climb Flow with growth 13.44
πŸŒΈβ›·οΈ GTT πŸ„ 5+4 The Slope Flow with speed 11.74
πŸŒΈπŸš€ TGG πŸ¦‹ 5+5 The Launch Small-valley-valley 11.60
🌸🌊 GTC πŸ„ 5+6 The Wave Mountain-valley-cliff flow 13.44
πŸŒΈπŸ’‹ TCC πŸ’§ 5+7 The Kiss Small mountain, double valley flow 17.32
πŸŒΈπŸ‘Š ACC 🀝 5+8 The Hit Big mountain, double valley flow 17.85

β—† Pattern 20 - Diversity = 3 (25 Codons)

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
β—†βš“ CTG 🌲 20+1 The Stabilizer Basic complex with anchor 36.10
β—†πŸ—οΈ CAT 🎭 20+2 The Builder Basic complex with structure 11.83
β—†πŸŽ― ACT 🀝 20+3 The Flow Director Basic complex with flow assist 14.26
β—†πŸ”§ GCT 🧱 20+4 The Adjuster Basic complex with flow optimization 18.99
β—†πŸš€ ATG πŸƒ 20+5 The Bouncer Complex mountain-valley-peak 21.53
β—†πŸŽͺ ATC 🌿 20+6 The Performer Complex mountain-valley-cliff 18.67
β—†πŸ›‘ TAG πŸ›‘ 20+7 The Cliff Stop Complex valley-mountain-peak 0.35
β—†β›΅ TAC β­• 20+8 The Sailor Complex valley-mountain-cliff 13.49
β—†πŸŒ€ TCA πŸ’§ 20+9 The Spiral Controller Complex valley-cliff-mountain 14.14
β—†πŸŽ¨ TCG πŸ’§ 20+10 The Artist Complex valley-cliff-peak 4.03
β—†πŸš§ TGA πŸ›‘ 20+11 The Terrain Stop Complex valley-peak-mountain 0.79
β—†πŸŒ‹ TGC πŸ”— 20+12 The Volcano Complex valley-peak-cliff 10.81
β—†πŸͺ¨ CAC 🎭 20+13 The Sandwich Complex cliff-mountain-cliff 14.65
◆⛰️ CCG πŸ‘ƒ 20+14 The Cliff Climber Complex double cliff-peak 6.22
β—†πŸ”„ CTC 🌲 20+15 The Recycler Complex cliff-valley-cliff 17.81
β—†πŸ”¬ CGT πŸ“’ 20+16 The Scientist Complex cliff-peak-valley 4.55
β—†πŸŽ’ CTA 🌲 20+17 The Roller Coaster Complex cliff-valley-mountain 7.44
β—†πŸ”€ CTT 🌲 20+18 The Switch Complex cliff-double valley 14.08
β—†πŸŽ­ ACA 🀝 20+19 The Shape-Shifter Complex mountain-cliff-mountain 16.52
β—†πŸ€Έ ACG 🀝 20+20 The Acrobat Complex mountain-cliff-peak 5.59
β—†βš‘ AGT πŸ’§ 20+21 The Lightening Rod Complex mountain-peak-valley 14.05
β—†πŸ—» GTA πŸ„ 20+22 The Valley Crosser Complex peak-valley-mountain 7.66
β—†πŸŒŠ GTG πŸ„ 20+23 The Wave Rider Complex peak-valley-peak 25.87
β—†πŸ”₯ GAT βš–οΈ 20+24 The Fire Starter Complex peak-mountain-valley 24.03
β—†πŸ”οΈ GGT πŸͺΆ 20+25 The Plateau Valley-valley-big 10.83

201 - Spiral Threaders (φ¹ Harmonics)

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
πŸŒ€πŸŒͺ️ AAG πŸ’¦ 201+1 The Nudger Spiral threading 31.77
πŸŒ€πŸ§¬ AAC πŸ’ 201+2 The Threader Spiral threading 18.30
πŸŒ€πŸŽ― AGA πŸ“’ 201+3 The Poker Spiral threading 13.28
πŸŒ€βš‘ AGC πŸ’§ 201+4 The Electric Spiral Spiral threading 19.69
πŸŒ€πŸ‘‘ GGG πŸͺΆ 201+5 The BIG Boss Hammer Spiral threading, controller variant 15.35

202 - Pentagon Ricochets (φ² Harmonics)

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
β¬ŸπŸ“ AGG πŸ“’ 202+1 The Gentle Ricochet Pentagon ricochet, light 12.13
β¬ŸπŸ”„ GAA βš–οΈ 202+2 Circular Flow Pentagon ricochet, medium 33.65
⬟⭐ GAG β›ˆοΈ 202+3 The Star Maker Pentagon ricochet, strong 39.67
⬟πŸŽͺ GGA πŸͺΆ 202+4 Dynamic Flow Pentagon ricochet, dynamic 17.12
β¬ŸπŸ’« GGC πŸͺΆ 202+5 The Geometry Maker Pentagon ricochet, controller geometry variant 19.79

203 - Fibonacci Pilers (φ³ Harmonics)

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
🐚🌱 CAA πŸ€— 203+1 Grow Start Fibonacci piler 14.06
🐚🌿 CAG πŸ€— 203+2 Grow On Fibonacci piler 35.53
🐚🌲 CGA πŸ“’ 203+3 Grow Strong Fibonacci piler 6.42
πŸšπŸŒ€ CCA πŸ‘ƒ 203+4 Swirl Fibonacci piler 18.92
πŸšπŸ‘‘ CGG πŸ“’ 203+5 The Nautilus Maker Fibonacci piler 10.79

204 - Golden Harmonic Resonators (φ⁴ Harmonics)

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
🎡🎼 GAC βš–οΈ 204+1 Light Frequency Harmonic resonator, gentle tones 24.27
🎡🎯 GCA 🧱 204+2 The Tuner Harmonic resonator, medium tuning variant 17.04
🎡πŸ”₯ GCG 🧱 204+3 The Crescendo Harmonic resonator, strong symmetry variant 5.91
πŸŽ΅πŸ’« GCC 🧱 204+4 The Vibrato Harmonic resonator, dynamic resonance variant 25.84
πŸŽ΅πŸ‘‘ CGC πŸ“’ 204+5 The Golden Ruler Harmonic resonator, controller Ο†-ratio variant 8.71

205 - Geometric Controllers (Ο†βˆž Harmonics)

Codon Landscape Opposite πŸ”§ Var Nickname Description Per k
πŸ’ŽπŸŒ€ AAA πŸ’¦ 205+1 The Helical Boss Controller, spiral coordinator 27.48
πŸ’ŽπŸŒ‰ CCC πŸ‘ƒ 205+2 The Connector Controller, pentagon-fibonacci bridge 19.11
πŸ’ŽπŸŽ΅ TTT πŸ’ 205+3 The Conductor Controller, harmonic unifier 17.14

Pattern Summary

  • 8 Structural imprints (lock-and-key pairs)
  • 8 Flow imprints (smooth landscapes)
  • 25 Complex imprints (challenging terrain = 5Β²)
  • 23 Advanced Geometric imprints (fibonacci architecture)

STOP Codons Distribution

  • Pattern 3 (Structure): TAA (0.44) - β€œSTOP with stable lock-and-key structure”
  • Pattern 20 (Complex): TAG (0.35), TGA (0.79) - β€œSTOP with complex terrain navigation”
  • Pattern 5 (Flow): NONE! - Flow never stops! It keeps flowing!

TAA, TAG, TGA - β€œThe Three Full Stops”:

  • TAA = Valley-mountain-mountain = Structural termination with anchoring
  • TAG = Valley-mountain-peak = Complex termination requiring coordination
  • TGA = Valley-peak-mountain = Complex termination with energy management

The significance:

  • Flow patterns (5) never terminate - flow is eternal, continuous
  • Structure patterns (3) provide clean endings - stable termination
  • Complex patterns (20) handle difficult shutdowns - coordinated stops

The Most Common Patterns

Ordered by their prevalence in the h. sapiens genome thanks to the amazing Cocoputs database. Notice that each nucleotide pattern matches to a specific real-world pattern, coded into the amino acid, as a pattern that can match an opposite one.

Combinations match reality, the likelihood of these being in your DNA, per 1000, match reality. Instinct, intuition. Do you see reality here?

Pattern 3 - Structural/Anchoring

Imagine building triangles out of shapes. In that lense, the three most common codons in H. Sapiens are shallow down right, steep down right, ease down right.

Position:    1    2    3  
Nucleotide:  C    C    T

Landscape: 

Size:       BIG-BIG-big
Pattern:    CCT (3+8) The Nose (19.31) (pairs with The Ring)
Nucleotide:  A    A    T

Landscape: 

Size:       small small Big
Pattern:    AAT (3+2) The Valley Key (18.43) (pairs with The Castle Lock)
Nucleotide:  T    T    C

Landscape: 

Size:       small  small  valley
Pattern:    TTC (3+7) The Ring (17.48) (pairs with The Nose)
Nucleotide:  A    T    T

Landscape: 

Size:       small small big
Pattern:    ATT (3+6) The Castle Lock (16.48) (pairs with The Valley Key)
Nucleotide:  T    A    T

Landscape: 

Size:       small  big  small
Pattern:    TAT (3+4) The Ridge Key (12.1)

Pattern 5 - Flow/Bonding

The two most common flow patterns are Hit and Kiss, hit slightly more than kiss, the cosmic back off:

Nucleotide:  A    C    C

DNA Landscape: 

Size:       big  valley  valley
Pattern:    ACC (5+8) - The Hit (17.85) (pairs with The Kiss)
Nucleotide:  T    C    C

Landscape: 

Size:       small  valley  valley
Pattern:    TCC (5+7) - The Kiss (17.32) (pairs with The Hit)

The Kiss and The Hit form flowing bonds where the Amino Acid for The Hit has a protruding carbon that hovers inside the recession for The Kiss. The figure 8 patterns of the mountain/valley combination on the ends hold it in place while the small to big mountain:

Serine Hand:     πŸ–οΈβšΎ β†’ ∞ ← πŸ₯Ž Threonine Mitt
                        ↕
                     PIVOT POINT!
Nucleotide:  T    C    T

Landscape: 

Size:       big  BIG  big
Pattern:    TCT (5+1) The Beat (16.93)
Nucleotide:  T    T    G

Landscape: 

Size:       small  small  BIG
Pattern:    (5+3) The Slope (13.44)
Nucleotide:  G    T    C

Landscape: 

Size:       valley  big  BIG
Pattern:    (5+6) The Wave (13.44)
Nucleotide:  G    T    T

Landscape: 

Size:       valley big big
Pattern:    (5+4) The Climb (11.74)
Nucleotide:  T    G    G

Landscape: 

Size:       small  valley valley
Pattern:    (5+5) The Launch (11.60)
Nucleotide:  T    G    T

Landscape: 

Size:       big  valley  big
Pattern:    (5+2) The Aim (10.40)

Pattern 20 - Creativity

The dramatic mountain-valley-mountain creates complex coordination sites - like puzzle pieces with multiple connection points. The purine-pyrimidine-purine sequence (big-small-big) enables sophisticated multi-directional binding.

Note that the most common pattern overall - Rise up and rock!

Second: Flip up, over, roll!

Nucleotide:  G    A    G

Landscape: 

Size:       valley small small
Pattern:    (202+3) The Star Maker (39.67)
Nucleotide:  C    T    G

Landscape: 

Size:       valley small BIG
Pattern:    (20+1) The Stabilizer (36.10)
Nucleotide:  C    A    G

Landscape: 

Size:       BIG small valley
Pattern:    (203+2) Grow On (35.53)  Fibonacci piler

B. The Geometry of Genetic Information

The Mathematical Poetry of Life’s Code

The genetic code reveals mathematical relationships that encode the universe’s coordination principles:

The Base-4 Foundation: A, T, G, C

  • 4 fundamental building blocks = Minimum complexity for universal encoding
  • Complementary pairs (A-T, G-C) = Perfect figure-8 recognition systems
  • Purine-Pyrimidine balance = Mountain-valley landscape diversity

The Codon-64 Expansion: 4Β³ = 64 possible combinations

  • 64 unique landscapes = Complete molecular geography library
  • Redundancy with precision = Multiple pathways to same destinations
  • Error correction built-in = Robust information transmission

The Amino-20 Convergence: 64 codons β†’ 20 amino acids

  • 20 distinct personalities = Optimal functional diversity
  • 3.2:1 coding ratio = Perfect balance of specificity and flexibility
  • Universal protein alphabet = Same across all life forms

The Universal Coordination Language

This rhythm-based system explains why:

  1. All life uses the same genetic code = Universal coordination language
  2. Proteins fold predictably = Landscape patterns create consistent shapes
  3. Evolution preserves function = Rhythm patterns maintain coordination
  4. Mutations have predictable effects = Landscape changes alter recognition
  5. Gene families cluster by function = Similar rhythms create similar capabilities

The Profound Implications

DNA isn’t just storing information - it’s encoding coordination rhythms!

Every gene contains:

  • Structural anchors (Pattern 3) for stability
  • Flow channels (Pattern 5) for communication, flexibility
  • Assembly complexes (Pattern 20) for sophisticated function

The 3-5-20x rhythm ratios in each gene determine its cosmic personality:

  • High Pattern 5: Optimized for bonding and coordination (like E-Cadherin at 55.7%)
  • High Pattern 20: Optimized for complex assembly (like development genes)
  • Balanced ratios: Optimized for specific functional requirements

Top 100 H. Sapiens Couplets

Before and after friends

Frequency per 200K

Common Before Codon Common After
β—†βš“ (0.78), ⬟⭐ (0.76), 🐚🌿 (0.65) β—†βš“ ⬟⭐ (0.91), β—†βš“ (0.78), 🐚🌿 (0.75)
πŸŒ€βš‘ (0.22), 🎡🎼 (0.21), β¬ŸπŸ”„ (0.21) β—†βš‘ β¬ŸπŸ”„ (0.30), ⬟⭐ (0.27), 🎡🎼 (0.25)
β¬ŸπŸ’« (0.20), 🎡🎼 (0.19), β—†πŸ”„ (0.19) β—†β›΅ β—†βš“ (0.28), 🐚🌿 (0.24), πŸŒ€πŸŒͺ️ (0.22)
🌸πŸ₯ (0.18), πŸ’ŽπŸŒ€ (0.16), πŸŒΈπŸ’‹ (0.16) β—†πŸŒ€ β¬ŸπŸ”„ (0.31), ⬟⭐ (0.28), β—†πŸ”₯ (0.23)
β—†βš“ (0.52), ⬟⭐ (0.44), β—†πŸŒŠ (0.42) β—†πŸŒŠ ⬟⭐ (0.57), β—†βš“ (0.44), πŸŽ΅πŸ’« (0.42)
πŸŽ΅πŸ’« (0.18), β¬ŸπŸ’« (0.17), β—†πŸ”„ (0.16) β—†πŸŒ‹ β—†βš“ (0.21), 🐚🌿 (0.21), πŸŒ€πŸŒͺ️ (0.16)
β—†πŸŽ’ β¬ŸπŸ”„ (0.17), 🐚🌿 (0.16), ⬟⭐ (0.14)
πŸŽ΅πŸ’« (0.36), 🎡🎼 (0.33), πŸŒΈπŸ‘Š (0.29) β—†πŸŽͺ β—†βš“ (0.36), 🐚🌿 (0.35), πŸŒ€πŸŒͺ️ (0.29)
β¬ŸπŸ”„ (0.25), πŸ’ŽπŸŒ€ (0.23), πŸŽ΅πŸ’« (0.22) β—†πŸŽ­ β¬ŸπŸ”„ (0.35), ⬟⭐ (0.31), β—†πŸ”₯ (0.25)
β¬ŸπŸ”„ (0.20), πŸ’ŽπŸŒ€ (0.18), πŸŽ΅πŸ’« (0.17) β—†πŸŽ― β¬ŸπŸ”„ (0.26), β—†πŸŒŠ (0.24), ⬟⭐ (0.23)
β—†πŸ”₯ (0.20), β¬ŸπŸ”„ (0.17), β—‡πŸ›οΈ (0.16) β—†πŸ”οΈ β¬ŸπŸ”„ (0.18), β¬ŸπŸ’« (0.17), β—†πŸŒŠ (0.17)
🐚🌿 (0.17), β¬ŸπŸ”„ (0.15), β—‡πŸ° (0.15) β—†πŸ—οΈ β¬ŸπŸ”„ (0.22), 🐚🌿 (0.19), ⬟⭐ (0.18)
🐚🌿 (0.22), β¬ŸπŸ”„ (0.21), πŸ’ŽπŸŒ€ (0.18) β—†πŸ”€ 🐚🌿 (0.27), β—†βš“ (0.21), β¬ŸπŸ”„ (0.21)
β—†βš“ (0.32), 🐚🌿 (0.32), ⬟⭐ (0.30) β—†πŸ”„ β—†βš“ (0.37), 🐚🌿 (0.31), β—‡πŸ’΅ (0.30)
β¬ŸπŸ”„ (0.57), β—†πŸ”₯ (0.47), πŸ’ŽπŸŒ€ (0.38) β—†πŸ”₯ β¬ŸπŸ”„ (0.59), ⬟⭐ (0.51), β—†πŸ”₯ (0.47)
β—†πŸ”§ (0.31), β—†βš“ (0.31), β¬ŸπŸ”„ (0.30) β—†πŸ”§ ⬟⭐ (0.40), β—†πŸŒŠ (0.38), πŸŽ΅πŸ’« (0.37)
β¬ŸπŸ”„ (0.16) β—†πŸ—» β¬ŸπŸ”„ (0.17)
⬟⭐ (0.35), πŸŽ΅πŸ’« (0.33), 🐚🌿 (0.31) β—†πŸš€ ⬟⭐ (0.43), β¬ŸπŸ”„ (0.34), πŸŒ€πŸŒͺ️ (0.34)
β—†πŸ€Έ β—†βš“ (0.15)
β—†βš“ (0.27), 🐚🌿 (0.25), ⬟⭐ (0.22) β—†πŸͺ¨ β—†βš“ (0.30), 🐚🌿 (0.26), πŸŒ€βš‘ (0.21)
β—‡πŸ›οΈ (0.28), 🐚🌿 (0.26), πŸšπŸŒ€ (0.24) β—‡πŸ›οΈ ⬟⭐ (0.39), β¬ŸπŸ”„ (0.30), β—†πŸŒŠ (0.30)
β¬ŸπŸ”„ (0.29), πŸ’ŽπŸŒ€ (0.23), 🎡🎼 (0.22) β—‡πŸ° β¬ŸπŸ”„ (0.32), ⬟⭐ (0.24), β—†πŸ”₯ (0.24)
πŸŽ΅πŸ’« (0.32), β—†πŸ”„ (0.30), 🎡🎼 (0.28) β—‡πŸ’΅ β—†βš“ (0.39), 🐚🌿 (0.34), β—†πŸŽͺ (0.24)
β¬ŸπŸ”„ (0.20), πŸ’ŽπŸŒ€ (0.17), 🐚🌿 (0.16) β—‡πŸ” β¬ŸπŸ”„ (0.31), ⬟⭐ (0.24), β—†πŸ”₯ (0.20)
β¬ŸπŸ”„ (0.20), πŸ’ŽπŸŒ€ (0.16) β—‡πŸ”‘ β¬ŸπŸ”„ (0.19), πŸ’ŽπŸŒ€ (0.14)
β¬ŸπŸ”„ (0.44), ⬟⭐ (0.27), πŸ’ŽπŸŒ€ (0.26) β—‡πŸ”’ β¬ŸπŸ”„ (0.44), ⬟⭐ (0.33), β—†πŸ”₯ (0.27)
β¬ŸπŸ”„ (0.14) β—‡πŸ—οΈ β¬ŸπŸ”„ (0.21), πŸ’ŽπŸŒ€ (0.16)
⬟⭐ (1.13), β—†βš“ (0.91), β¬ŸπŸ”„ (0.70) ⬟⭐ ⬟⭐ (1.13), πŸŒ€πŸŒͺ️ (0.82), β—†βš“ (0.76)
β¬ŸπŸ”„ (0.30), β—†πŸ”₯ (0.29), πŸ’ŽπŸŒ€ (0.26) ⬟πŸŽͺ ⬟⭐ (0.35), β¬ŸπŸ”„ (0.35), πŸ’ŽπŸŒ€ (0.26)
β—†βš“ (0.43), ⬟⭐ (0.31), β—†πŸ”₯ (0.28) β¬ŸπŸ’« β—†βš“ (0.36), πŸŒ€βš‘ (0.32), 🐚🌿 (0.30)
🐚🌿 (0.25), ⬟⭐ (0.24), πŸŒ€πŸŒͺ️ (0.21) β¬ŸπŸ“ πŸŒ€πŸŒͺ️ (0.26), πŸ’ŽπŸŒ€ (0.22), ⬟⭐ (0.20)
β¬ŸπŸ”„ (0.91), πŸ’ŽπŸŒ€ (0.63), ⬟⭐ (0.61) β¬ŸπŸ”„ β¬ŸπŸ”„ (0.91), ⬟⭐ (0.70), β—†πŸ”₯ (0.57)
πŸŒ€βš‘ (0.40), πŸ’ŽπŸŒ‰ (0.34), 🎡🎼 (0.33) πŸŒ€βš‘ πŸŒ€βš‘ (0.40), β—†βš“ (0.35), 🐚🌿 (0.34)
⬟⭐ (0.82), πŸŒ€πŸŒͺ️ (0.70), 🐚🌿 (0.53) πŸŒ€πŸŒͺ️ πŸŒ€πŸŒͺ️ (0.70), ⬟⭐ (0.64), πŸ’ŽπŸŒ€ (0.59)
β¬ŸπŸ”„ (0.25), 🐚🌿 (0.23), ⬟⭐ (0.22) πŸŒ€πŸŽ― β¬ŸπŸ”„ (0.26), πŸ’ŽπŸŒ€ (0.22), ⬟⭐ (0.21)
β—†βš“ (0.26), β—‡πŸ›οΈ (0.24), β—†πŸ”₯ (0.24) πŸŒ€πŸ‘‘ ⬟⭐ (0.33), πŸŒ€πŸŒͺ️ (0.29), β—†βš“ (0.26)
⬟⭐ (0.34), β¬ŸπŸ”„ (0.29), πŸŒ€πŸŒͺ️ (0.28) πŸŒ€πŸ§¬ β—†βš“ (0.33), πŸŒ€πŸŒͺ️ (0.30), 🐚🌿 (0.29)
β—†πŸ”₯ (0.22), β¬ŸπŸ”„ (0.22), πŸ’ŽπŸŒ€ (0.18) πŸŒΈβ›·οΈ β¬ŸπŸ”„ (0.18), 🐚🌿 (0.16), β—†πŸ”₯ (0.14)
β—†πŸŒŠ (0.22), β—†πŸ”₯ (0.21), β—†βš“ (0.20) 🌸🌊 β—†πŸŽͺ (0.26), β—†βš“ (0.26), πŸŒΈπŸ‘Š (0.22)
β¬ŸπŸ”„ (0.24), πŸ’ŽπŸŒ€ (0.17), ⬟⭐ (0.16) 🌸🎯 β¬ŸπŸ”„ (0.21), ⬟⭐ (0.21), πŸŒ€πŸ‘‘ (0.18)
πŸŽ΅πŸ’« (0.33), ⬟⭐ (0.29), πŸŒΈπŸ‘Š (0.27) πŸŒΈπŸ‘Š πŸŒ€πŸŒͺ️ (0.32), β—†βš“ (0.31), β—†πŸŽͺ (0.29)
πŸŽ΅πŸ’« (0.27), β¬ŸπŸ’« (0.26), πŸŒΈπŸ’‹ (0.24) πŸŒΈπŸ’‹ β—†βš“ (0.31), 🐚🌿 (0.30), πŸŒ€βš‘ (0.26)
πŸŽ΅πŸ’« (0.18), 🎡🎼 (0.18), 🐚🌿 (0.18) πŸŒΈπŸš€ β—†βš“ (0.20), ⬟⭐ (0.19), πŸŒ€πŸŒͺ️ (0.18)
β—†πŸ”₯ (0.19), 🌸πŸ₯ (0.19), πŸŽ΅πŸ’« (0.19) 🌸πŸ₯ β¬ŸπŸ”„ (0.30), ⬟⭐ (0.29), β—†πŸŒŠ (0.26)
πŸŽ΅πŸ’« (0.20), 🎡🎼 (0.18), β—†πŸ”₯ (0.16) πŸŒΈπŸ§— β¬ŸπŸ”„ (0.29), ⬟⭐ (0.27), β—†πŸ”₯ (0.21)
β¬ŸπŸ”„ (0.29), πŸ’ŽπŸŒ€ (0.26), β—†βš“ (0.25) 🎡🎯 ⬟⭐ (0.39), β¬ŸπŸ”„ (0.35), πŸŽ΅πŸ’« (0.31)
⬟⭐ (0.50), β—†βš“ (0.48), β—†πŸ”₯ (0.40) 🎡🎼 β—†βš“ (0.48), πŸŒ€πŸŒͺ️ (0.37), πŸŒ€βš‘ (0.33)
β—†βš“ (0.18), ⬟⭐ (0.16), β¬ŸπŸ’« (0.14) πŸŽ΅πŸ‘‘ β—†βš“ (0.21), 🐚🌿 (0.15), β—‡πŸ’΅ (0.14)
β—†βš“ (0.57), ⬟⭐ (0.49), β—†πŸŒŠ (0.42) πŸŽ΅πŸ’« β—†βš“ (0.54), 🐚🌿 (0.51), πŸŒ€πŸŒͺ️ (0.49)
β—†βš“ (0.14) 🎡πŸ”₯ β—†βš“ (0.17), πŸŽ΅πŸ’« (0.16), ⬟⭐ (0.15)
β—‡πŸ›οΈ (0.28), 🐚🌿 (0.27), πŸšπŸŒ€ (0.25) πŸšπŸŒ€ ⬟⭐ (0.37), β¬ŸπŸ”„ (0.35), πŸŽ΅πŸ’« (0.29)
🐚🌿 (0.26), β¬ŸπŸ”„ (0.23), πŸ’ŽπŸŒ€ (0.20) 🐚🌱 β¬ŸπŸ”„ (0.35), ⬟⭐ (0.26), β—†πŸ”₯ (0.21)
🐚🌿 (0.77), β—†βš“ (0.75), ⬟⭐ (0.61) 🐚🌿 🐚🌿 (0.77), ⬟⭐ (0.68), β—†βš“ (0.65)
β—†βš“ (0.25), ⬟⭐ (0.21), πŸŽ΅πŸ’« (0.19) πŸšπŸ‘‘ ⬟⭐ (0.27), β—†βš“ (0.24), 🐚🌿 (0.20)
πŸŒ€πŸŒͺ️ (0.59), ⬟⭐ (0.57), β¬ŸπŸ”„ (0.50) πŸ’ŽπŸŒ€ β¬ŸπŸ”„ (0.63), ⬟⭐ (0.41), β—†πŸ”₯ (0.38)
β—†βš“ (0.37), 🐚🌿 (0.33), ⬟⭐ (0.32) πŸ’ŽπŸŒ‰ 🐚🌿 (0.34), πŸŒ€βš‘ (0.34), πŸŒ€πŸŒͺ️ (0.32)
β¬ŸπŸ”„ (0.23), 🐚🌿 (0.22), 🎡🎼 (0.22) πŸ’ŽπŸŽ΅ β¬ŸπŸ”„ (0.36), ⬟⭐ (0.31), β—†πŸ”₯ (0.29)

The Big Picture Patterns:

🌟 The Social Butterflies:

  • 🐚🌿 (Grow On) - appears in ~80% of relationships! It’s the β€œand” of DNA!
  • β—†βš“ (Stabilizer) - the cosmic comma, connecting everything
  • ⬟⭐ (Star Maker) - the coordination hub that everything flows toward

⚑ The Self-Reinforcing Loops:

  • ⬟⭐ β†’ ⬟⭐ (1.13) - Star Makers create more Star Makers!
  • β¬ŸπŸ”„ β†’ β¬ŸπŸ”„ (0.91) - Circular Flow perpetuates itself
  • πŸŒ€πŸŒͺ️ β†’ πŸŒ€πŸŒͺ️ (0.70) - Nudgers keep nudging

The Grammar Rules Emerging:

  • Starters: Several codons ONLY appear in β€œafter” columns - they’re sentence beginnings!
  • Connectors: 🐚🌿 and β—†βš“ bridge everything - the cosmic conjunctions!
  • Amplifiers: High self-reinforcement ratios show growth patterns!

Of course after sailing, you need to anchor and the top after β—†β›΅ is: β—†βš“(0.28).

It’s not uncommon to need more than one punch: πŸŒΈπŸ‘Š (0.27)πŸŒΈπŸ‘Š

or kiss: πŸŒΈπŸ’‹ (0.24)πŸŒΈπŸ’‹

Of course this makes sense too: πŸŒΈπŸš€. - then β—†βš“ (0.20)

🌸 Emotional Cascade: πŸŒΈπŸ’‹ β†’ πŸŒΈπŸ‘Š β†’ πŸŒΈπŸš€ (Kissβ†’Hitβ†’Launch). Gentle touch, forceful action, explosive results.

πŸŽ΅πŸ’« β†’ 🎡🎼 β†’ 🎡πŸ”₯ (Vibratoβ†’Light Frequencyβ†’Crescendo)

πŸŒΈβ›·οΈ maintains itself through skiing flows

See more in the gene pool