Interactive testing environment for cellular agriculture and cultured meat production
This simulator provides a comprehensive testing environment for cellular agriculture systems, allowing you to experiment with cell cultivation parameters, bioreactor controls, and production protocols.
Track and manage stem cell lines, iPSCs, and immortalized cells with complete genealogy, passage history, and characterization data.
Monitor and control pH (6.8-7.4), temperature (37Β°C), dissolved oxygen (20-40%), and nutrient concentrations in real-time.
Implement food safety testing including microbiological screening, allergen testing, and nutritional profiling.
Design edible scaffolds using plant proteins, hydrogels, or biodegradable polymers for tissue structure development.
Track production costs per kilogram including media ($50-200), growth factors ($100-500), and operational expenses.
Ensure compliance with FDA Novel Food regulations, EFSA guidelines, and international food safety standards.
1. Cell Source Acquisition
ββ Animal biopsy (muscle satellite cells)
ββ Cell line establishment
ββ Characterization & validation
2. Cell Expansion (Proliferation Phase)
ββ Seed bioreactor with starter culture
ββ Monitor: pH, DO, temperature, glucose
ββ Add growth factors: FGF, EGF, IGF-1
ββ Target: 10^6 to 10^9 cells/mL
3. Differentiation Phase
ββ Switch to differentiation medium
ββ Add: insulin, transferrin, selenium
ββ Reduce serum concentration
ββ Duration: 7-14 days
4. Tissue Maturation
ββ Seed cells onto scaffold
ββ Apply mechanical/electrical stimulation
ββ Develop tissue structure
ββ Duration: 14-21 days
5. Harvest & Processing
ββ Remove from bioreactor
ββ Quality testing
ββ Food safety validation
ββ Packaging for distribution
Configure your cellular agriculture production parameters
Test WIA-AGRI-019 API endpoints for lab-grown food production systems
POST /api/v1/cultures
Content-Type: application/json
{
"cellLine": "bovine-satellite-v2",
"batchId": "BATCH-2025-001",
"bioreactorId": "BR-A1",
"initialDensity": 5e5,
"targetDensity": 1e7,
"parameters": {
"pH": 7.2,
"temperature": 37.0,
"dissolvedOxygen": 30,
"glucose": 4.5
}
}
GET /api/v1/cultures/{batchId}/status
Response:
{
"batchId": "BATCH-2025-001",
"status": "proliferation",
"cellDensity": 8.5e6,
"viability": 95.2,
"pH": 7.18,
"temperature": 37.1,
"dissolvedOxygen": 28.5,
"glucose": 2.3,
"timeElapsed": 72
}
POST /api/v1/quality/test
Content-Type: application/json
{
"batchId": "BATCH-2025-001",
"tests": [
"microbiological",
"nutritional",
"allergen",
"sensory"
]
}
Materials:
- Bovine muscle biopsy (5-10g)
- Dulbecco's Modified Eagle Medium (DMEM)
- Fetal Bovine Serum (FBS) 10% v/v
- Penicillin/Streptomycin (1% v/v)
- Growth factors: FGF-2 (5ng/mL), EGF (10ng/mL)
Procedure:
1. Dissect muscle tissue, remove connective tissue
2. Mince tissue into 1-2mm pieces
3. Enzymatic digestion: 0.2% collagenase, 37Β°C, 2h
4. Filter through 70ΞΌm cell strainer
5. Centrifuge 300g, 5min
6. Resuspend in growth medium
7. Seed at 5Γ10β΄ cells/cmΒ²
8. Incubate 37Β°C, 5% COβ
9. Monitor daily, passage at 80% confluence
Bioreactor Setup:
- Type: Stirred-tank bioreactor (5L working volume)
- Agitation: 60-80 RPM
- Aeration: 0.1-0.2 vvm
- Temperature: 37.0 Β± 0.5Β°C
- pH: 7.2 Β± 0.1 (controlled with COβ/NaOH)
- DO: 30 Β± 5% (controlled with Oβ/Nβ)
Process:
1. Inoculate with 5Γ10β΅ cells/mL
2. Monitor cell density every 24h
3. Feed with glucose when <2g/L
4. Add glutamine when <1mM
5. Harvest at 1Γ10β· cells/mL
6. Cell viability must be >90%
Differentiation Medium:
- DMEM with 2% horse serum
- Insulin (10ΞΌg/mL)
- Transferrin (5.5ΞΌg/mL)
- Selenium (5ng/mL)
- Dexamethasone (0.4ΞΌM)
Scaffold Integration:
1. Prepare plant protein scaffold (soy/pea blend)
2. Sterilize with 70% ethanol, rinse PBS
3. Seed cells at 2Γ10βΆ cells/cmΒ³
4. Apply mechanical stimulation: 1Hz, 10% strain
5. Culture for 14 days with medium change every 2 days
6. Monitor tissue formation via microscopy
Quality Tests:
1. Microbiological Testing
- Total viable count: <10β΄ CFU/g
- E. coli: Not detected
- Salmonella: Not detected
- Listeria: Not detected
2. Nutritional Analysis
- Protein content: >15g/100g
- Fat content: <10g/100g
- Amino acid profile
- Vitamin B12, Iron levels
3. Safety Testing
- Heavy metals (Pb, Cd, Hg, As)
- Allergen screening
- Mycotoxin analysis
- Antibiotic residues
4. Sensory Evaluation
- Color, texture, odor assessment
- Trained panel evaluation
- Consumer acceptance testing
import { LabGrownFoodAPI, CellCultureConfig, BioreactorControl } from '@wia/agri-019';
// Initialize API client
const client = new LabGrownFoodAPI({
apiKey: process.env.WIA_API_KEY,
endpoint: 'https://api.wia.org/v1'
});
// Configure cell culture
const config: CellCultureConfig = {
cellLine: 'bovine-satellite-v2',
batchId: 'BATCH-2025-001',
bioreactorId: 'BR-A1',
parameters: {
pH: 7.2,
temperature: 37.0,
dissolvedOxygen: 30,
glucose: 4.5,
glutamine: 4.0
},
growthFactors: ['FGF-2', 'EGF', 'IGF-1']
};
// Start culture
const batch = await client.cultures.create(config);
console.log(`Culture started: ${batch.id}`);
// Monitor in real-time
const monitor = client.cultures.monitor(batch.id);
monitor.on('data', (data) => {
console.log(`Cell density: ${data.cellDensity}`);
console.log(`Viability: ${data.viability}%`);
// Auto-adjust parameters
if (data.glucose < 2.0) {
client.bioreactor.feedGlucose(batch.id, 2.0);
}
if (data.pH < 7.1) {
client.bioreactor.adjustPH(batch.id, 7.2);
}
});
// Quality control
const qcResults = await client.quality.runTests(batch.id, [
'microbiological',
'nutritional',
'allergen',
'sensory'
]);
if (qcResults.passed) {
await client.batch.approve(batch.id);
console.log('Batch approved for processing');
}
from wia_agri_019 import LabGrownFoodClient, CellCulture
# Initialize client
client = LabGrownFoodClient(api_key="your-api-key")
# Create culture batch
culture = CellCulture(
cell_line="bovine-satellite-v2",
batch_id="BATCH-2025-001",
bioreactor_id="BR-A1",
parameters={
"pH": 7.2,
"temperature": 37.0,
"dissolved_oxygen": 30,
"glucose": 4.5
}
)
# Start cultivation
batch = client.start_culture(culture)
# Monitor progress
for status in client.monitor_culture(batch.id):
print(f"Day {status.day}: {status.cell_density:.2e} cells/mL")
# Automated feeding
if status.glucose < 2.0:
client.feed_nutrient(batch.id, "glucose", 2.0)
# Check for completion
if status.cell_density >= 1e7:
break
# Run quality tests
qc = client.quality_control(batch.id)
print(f"Protein content: {qc.protein}g/100g")
print(f"Microbiological: {qc.microbiology.status}")
// Arduino/ESP32 bioreactor sensor integration
#include <WiFi.h>
#include <HTTPClient.h>
#include <ArduinoJson.h>
const char* WIA_ENDPOINT = "https://api.wia.org/v1/bioreactor/telemetry";
const char* API_KEY = "your-api-key";
void sendTelemetry() {
HTTPClient http;
StaticJsonDocument<512> doc;
// Read sensors
float pH = readpHSensor();
float temp = readTempSensor();
float DO = readDOSensor();
// Build JSON payload
doc["bioreactorId"] = "BR-A1";
doc["batchId"] = "BATCH-2025-001";
doc["timestamp"] = millis();
doc["pH"] = pH;
doc["temperature"] = temp;
doc["dissolvedOxygen"] = DO;
String payload;
serializeJson(doc, payload);
// Send to WIA
http.begin(WIA_ENDPOINT);
http.addHeader("Content-Type", "application/json");
http.addHeader("X-API-Key", API_KEY);
int httpCode = http.POST(payload);
if (httpCode == 200) {
// Check for control commands
String response = http.getString();
parseControlCommands(response);
}
http.end();
}