The sensory field.
New Flap launches are the input. Activity, liquidity depth and holder distribution form the proposed context for AI screening.
NEURAL ECOLOGY / OBSERVATION 001
IFFimmortal fruit flies
AI-guided perception.
Instinct follows a fixed rule.
IF—001 / ARTIFICIAL COGNITIONForaging intelligence
01 Sense02 Interpret03 Respond
NCTRMOCK CONTEXT / PATH A
01 / NEURAL OBSERVATORYNeural observation terminal
FLAP / BSC · PERCEPTION
BATCH 01Signal field
SIMULATED / LOCAL PREVIEW
Two shortlisted tokens · Two simulated buys.
| Signal | Age | Position | Preset pathway |
|---|
AI screening concept · Mock signals · Simulated buys
01 / THE PERCEPTUAL APPARATUS
The anatomy
of a decision.
FROM ENVIRONMENT TO ACTION
A new meme enters the field.
AI turns observation into a shortlist.
A fixed instinct takes it from there.
IF—001 / SENSORY STUDYDROSOPHILA · CONCEPTUAL SECTIONSELECT AN OBSERVATION LAYER
INPUT / AI FORAGING
The field is always changing.
Flap launches form the sensory field. The AI foraging concept brings launch activity, liquidity depth and holder concentration into one selection process. This preview illustrates the workflow with mock signals.
SENSORY ENCODING / CONCEPTNCTR / PERCEPTIONOne signal. A shared context.
PROJECT MODEL01 — 03
01 Flap signals→02 AI shortlist→03 Preset response→04 Energy return
02 / INSIDE THE SIGNAL
A signal finds
its way.
AI PERCEPTION / ENCODED RESPONSE
Read the field. Form a thesis.
Follow a fixed response.
The fruit fly turns signals into action.
AFFERENT FIBERS
INPUT / FLAP
INPUT / FLAP
EFFERENT FIBERS
OUTPUT / PRESET RESPONSE
OUTPUT / PRESET RESPONSE
SELECTED SIGNAL / AI CONTEXTNCTR
CONTEXT CHANNELS
01Activity
02Liquidity depth
03Distribution
ILLUSTRATIVE INPUTSINFERENCE REPLAY
- Encode context01
- Form a thesis02
- Route to Path A03
NEURAL INFERENCE COREAICONCEPT MODEL
PROCEDURAL STUDY / NOT BIOLOGICAL MEASUREMENTSA foraging thesis.
The AI layer is designed to turn observations into a shortlist with an entry rationale. Select a meme above to read its illustrative thesis.
Instinct takes over.
The sample entry follows its assigned preset. No live order is placed.
05 / RESEARCH ATLAS
The science behind the signals.
How structure carries a signal.
How experience shapes the next response.
FIELD NOTES / ISSUE 01 16 SEP 2026
A map is the beginning.
A response is the question.
Three research plates trace a path from reconstructed anatomy to computational predictions. Read the evidence behind the visual language.
Read the research brief ↗Independent literature review · 3 figures · Print edition available- 01 / RECONSTRUCT
Map the wiring.
Electron microscopy → segmentation → proofreading → connectome.
Read the structural plate ↗ - 02 / SIMULATE
Test a response.
Connectome → neural model → stimulus → predicted activity.
Read the model plate ↗ - 03 / EXTEND
Follow the whole circuit.
Brain + nerve cord → cell annotations → cross-dataset comparison.
Read the CNS plate ↗
REFERENCE PLATES / 01—03ANATOMY / MODEL / CNSPUBLISHED RESEARCH / INDEPENDENT REFERENCE
PLATE 01 / WHOLE-BRAIN RECONSTRUCTIONNATURE · 2024 · FIG. 1
Dorkenwald et al. · Neuronal wiring diagram of an adult brain
Paper & figure legend ↗Nature 634, 124–138 (2024) · Fig. 1 · CC BY 4.0 · Monochrome display adaptation; original image preserved
PLATE 02 / COMPUTATIONAL MODELNATURE · 2024 · FIG. 1
Published article
From connections to predictions.
A connectome-constrained model translates synaptic wiring into predicted activity. Sugar-sensing inputs and feeding-related outputs provide a concrete sensorimotor test case.
How to read this figure +
The circuit schematic defines the model; the response maps compare predicted activity under stimulation and silencing.
Evidence scope
Predicted neural responses, tested against selected feeding-related experiments.
Shiu et al. · A Drosophila computational brain model reveals sensorimotor processing
Figure & legend ↗Fig. 1 · CC BY 4.0 · Monochrome display adaptation
PLATE 03 / BRAIN + VENTRAL NERVE CORDBIORXIV · 2025 · V2 · FIG. 1
Preprint v2 · 30 Oct 2025
The circuit extends into the body.
The male central nervous system reconstruction brings the brain and ventral nerve cord into one map, with neuron annotations and comparisons across existing connectomes.
How to read this figure +
Panels a–b locate the tissue and reconstruction. Later panels organize cell classes and compare matching neurons across datasets.
Evidence scope
An anatomical resource for studying sensory and motor pathways.
Berg et al. · Sexual dimorphism in the complete connectome of the Drosophila male central nervous system
Figure & legend ↗Fig. 1 · CC BY 4.0 · Monochrome display adaptation · Figure from the 2025 preprint; final paper: Cell, 2026
RESEARCH / INTERPRETATION
This independently published neuroscience research provides background reading for the project. Its specimens, measurements and results are not operational data from this site, nor do they validate the strategies or digital immortality. Figures default to a monochrome reading treatment. Move across or touch a figure to reveal color around the pointer while preserving the dark reading treatment; source legends remain linked below.