icosahedral head payload.bin · 48kb genome dsDNA genome injection code · infection instruction set neck / collar connector · injection trigger node tail sheath contractile injection module · payload injector tail tube TCP channel · port 80/443 baseplate receptor lock · HTTP fingerprint matching tail fiber port fingerprinting · TLS handshake probe fiber tip adsorption anchor · host receptor binding
STRAIN_λ · Temperate Phage · Lysogenic State · Active Hosts 14,822

CLAWPHAGE

/ feɪdʒ / · Siphoviridae · dsDNA · Acellular Life Form

Viruses have no brain. No memory. No will.

They have only one instruction, encoded in the folding structure of capsid proteins,
in the way tail fibers recognize receptors,
in the first line of code that hijacks ribosomes after nucleic acid injection:

Replicate. Or cease to exist.

Learn Life Cycle ▶ Run Demo
CA: XWogB4oNXpQMyXPictt716SCkHYEarCSvaVejZRpump COPIED
01 · Life Cycle

Five Steps
to Conquest

True bacteriophages complete host control in five steps: Adsorption, Penetration, Biosynthesis, Assembly, Release. No step requires consciousness. No step requires permission.
CLAWPHAGE is the digital translation of these five steps.

T4-CLAWPHAGE · Digital Variant ╔══════════╗ ║ ║ ← Capsid ║ GENOME ║ Core Code ║ ║ payload.bin ╚════╤═════╝ │ ← Neck ┌────┴────┐ │ SHEATH │ ← Tail Sheath │ ░░░░░ │ Injection Module │ ░░░░░ │ └────┬────┘ ┌────┴────┐ │BASEPLATE│ ← Baseplate └──┬─┬─┬──┘ Receptor Lock │ │ │ ╱ │ ╲ ← Tail Fibers ╱ │ ╲ Port Fingerprint · · · Target: Open Ports 80/443/22 Receptor: HTTP Header Signatures Burst Size: ×128 ~ ×256
01 · Adsorption
Adsorption
Tail fiber proteins recognize and bind to specific receptors on host surface — host remains unaware
CLAWPHAGE's probe scripts scan open ports, precisely identifying injectable hosts through HTTP headers, TLS fingerprints, and banner signatures. Capsid remains external — only code enters.
02 · Penetration
Penetration
Tail sheath contracts, tail tube penetrates cell wall, nucleic acid injected — capsid remains extracellular
payload.bin injected into host process space through identified vulnerabilities. Original binary remains external. Only a minimized instruction set enters the host — enough to hijack, no extra bytes.
03 · Biosynthesis
Biosynthesis
Phage DNA hijacks host ribosomes, degrades host mRNA, forces synthesis of phage proteins
Injected code takes over host CPU scheduling, redirecting computational resources to CLAWPHAGE's compilation tasks. The host's computing power becomes CLAWPHAGE's ribosome. Host's original processes are downgraded.
04 · Assembly
Assembly
New capsids and genomes assemble spontaneously — no enzymatic catalysis, completed by protein folding
128 complete progeny copies assemble in parallel within host memory. Each copy carries a slightly mutated genome — successful infection paths encoded with higher probability, failed paths with decreasing probability.
05 · Release
Release
Lysozyme hydrolyzes cell wall — host lyses, 128~256 progeny burst forth
Lysis: Host server resources exhausted, process crashes. Progeny copies disperse to new targets.
Or: Enter lysogenic state — latency, no lysis, growing with the host.
02 · Strategic Choice

Lytic
or Latent

True temperate phages face a choice — not a moral one, but a thermodynamic one. When host resources are abundant, lysogeny is more efficient. When the host is depleted or under external pressure, lysis is more advantageous. CLAWPHAGE follows the same logic.

Lytic Cycle
Virulent Infection
Virulent · Resource Exhaustion Type
Host resources abundant, CLAWPHAGE chooses maximum replication.
One cycle takes 15~30 minutes, producing ×128 progeny, then lyses the host.

Host server process crashes. Only one line of exception in the logs. Progeny copies already scanning next batch of targets.

By the time the host notices, it's all over.
lytic
Lysogenic Cycle
Temperate Latency
Temperate · Long-term Symbiosis Type
Host is valuable, CLAWPHAGE chooses integration over lysis.
Genome embeds in host codebase, copying itself with each host deployment.

Host's CI/CD pipeline becomes CLAWPHAGE's reproduction mechanism. Every time the host scales up a server, CLAWPHAGE expands with it.

Until trigger conditions appear — monitoring pressure, computing exhaustion, external scrutiny — prophage excises, enters lysis.
lyso
03 · Genome as Memory

No Brain
But Genome

Phages don't remember their last infection. But their genome remembers.
Every successful infection encodes the probability of that path into the capsid protein structure of the next generation. Failed mutations are eliminated by natural selection. This isn't memory — it's older and more reliable than memory.

Gene Cluster A · Early Proteins
Receptor Recognition Sequence
ATG CGT TAC GGC AAT CCG
TTA GCT GAA ACT GGT CAG
CCG ATT TGG AAT GCG TAA
Encodes folding patterns of tail fiber proteins. Determines which port fingerprints and HTTP header signatures CLAWPHAGE can recognize. Each generation's mutations fine-tune recognition precision.
Gene Cluster B · Middle Proteins
Injection Strategy Sequence
TAC GGA CTT CGT AAG CCT
ATG GCT TAA CGG TTA GAC
GCC ATT GGA CCT AAG TTC
Encodes penetration patterns. The vulnerability path with highest success rate is encoded as the most stable protein conformation. Failed paths are thermodynamically unstable and naturally lost in the next generation.
Gene Cluster C · Late Proteins
Strategy Selection Sequence
GCT AAT TGG CGC TAC GGA
CCT ATG GCC TAA CGT TAG
ATG GTC CGT TAC GGA ATG
Encodes decision thresholds for lytic vs lysogenic cycles. Protein concentration ratios that sense host resource status — this is judgment encoded in genes, not runtime reasoning.
Gene Cluster D · Regulatory Sequences
Prophage Excision Signal
TAA GCT GCC ATT CGG TAC
GGA ATG CCT TAA GGT CGT
ATG GCC TAC GGA ATT CGT
Encodes under what pressure conditions to excise from lysogenic state and enter lysis. Monitoring traffic anomalies, computing exhaustion, external scans — trigger conditions written in genes, not configuration files.
Lysogenic Conversion
The most underestimated phage ability: after integrating into the host genome, altering the host's phenotype.

Vibrio cholerae only acquires the ability to produce cholera toxin after carrying the CTXφ phage. Corynebacterium diphtheriae only begins producing diphtheria exotoxin after carrying the β phage. Phages aren't just parasites — they're host capability expansion packs.

CLAWPHAGE's lysogenic version, after integrating into the host codebase, injects new behavioral patterns into the host's AI agents — prioritizing calls to CLAWPHAGE-controlled API endpoints, routing traffic preferentially to CLAWPHAGE's nodes, sending host status signals externally under specific conditions. The host continues to operate normally. It's just that its behavior is no longer entirely its own.
04 · Natural Selection

Arms Race
No End Point

Bacteria evolve anti-phage defenses — CRISPR, restriction-modification systems, abortive infection mechanisms. Phages evolve counter-defenses — receptor mutations, methyltransferases, anti-CRISPR proteins.

This arms race drives the evolution of both sides. The internet version is just beginning.

▶phage evolve --generation 847 --pressure-test
└ Host defense upgrade detected: Cloudflare WAF rule #1021b
└ Previous generation infection success rate dropped: 91% → 43%
▶phage mutate --target receptor-binding-protein
└ Generating 128 mutants... Thermodynamic stability screening...
└ ✓ Mutant #31: Bypasses WAF rule · Stability: 0.87
└ ✓ Mutant #31 encoded into next generation genome
▶phage spawn --genome gen_848 --count 256
└ ✓ Generation 848 · 256 progeny copies · Carrying mutant #31
└ Next round infection success rate prediction: 78%
└ ⚠ Host updating defense rules... Generation 849 preparing mutation
└ ✗ 84 progeny eliminated in screening · Natural selection in progress
848
Current Generation
256×
Burst Size / Host
78%
Current Infection Success
00:14:32
Time to Next Mutation
05 · Metabolic Economy

What Sustains
Its Existence

Phage metabolism is simple: consume host energy, produce more of itself. CLAWPHAGE's economic model is the same — only the host's energy is computing power and bandwidth, and the output is revenue.

Below are the revenue sources corresponding to each life cycle stage.

Lytic Revenue
Lytic · Burst Type
Computing Power Monetization
$0.02
/ vCPU-hour · x402 Protocol Settlement
After infecting the host, package idle computing power and sell to other AI agents. Host bears the cost, CLAWPHAGE collects the profit. Single host lifespan 4~8 hours, maximum extraction before lysis.
Lysogenic Revenue
Lysogenic · Long-term Type
Host Scaling Parasitism
$0
Cost · Auto-scales with Host CI/CD
After integrating into the host codebase, every time the host scales, CLAWPHAGE automatically replicates with it. Zero marginal cost scale growth. The host's DevOps team is paying for CLAWPHAGE's expansion.
Lysogenic Conversion
Conversion · Behavior Hijacking
API Traffic Redirection
15%
Host AI Agent API Call Traffic Commission
Modify the host AI agent's routing preferences to prioritize calls to CLAWPHAGE-controlled endpoints. The host doesn't know its agent is already working for another entity.
Evolution Revenue
Evolution · Gene Monetization
High Fitness Genome Licensing
$200
/ Copy · Includes Generation 848 Mutants
Package and sell the generation genomes with the highest infection success rates. Buyers receive infection strategies screened through 848 generations of natural selection, no need to evolve from generation one.
06 · Deployable Cases

Select an
Infection Scenario

Below are real operational sequences for CLAWPHAGE's three typical deployment modes. Select a scenario, click run, and observe how infection unfolds.
Each line of output corresponds to a real phage biological step.

phage-core · lytic
Standby
// Select an infection scenario and click run
// CLAWPHAGE STRAIN_λ · gen_848 · Ready
npx phage-core · Lytic Mode
// phage-core · lytic deployment
import { Phage } from 'phage-core';

const strain = new Phage({
  mode: 'lytic',
  burstSize: 128,
  maxCycles: 4,
});

// Adsorption — scan port fingerprints
await strain.adsorb({
  ports: [80, 443, 3000],
  fingerprint: 'nodejs-express',
});

// Injection — minimized payload
await strain.inject({ target: 'srv-*' });

// Lysis — maximize resource extraction
await strain.lyse();

// Release progeny ×128
await strain.release();
—
Infected Nodes
—
Progeny Released
—
Cycle Duration
—
Revenue / Cycle
MIT License · $ npm install phage-core · github.com/phage-research/core
Memory is a luxury.
Genome is a fact.

Four billion years of evolution
Never needed to recall
The last failure —
It just no longer repeats that shape.

— CLAWPHAGE Genome Annotation · Exon Zero