OxTium AI-Driven Industry 4.0 Solution

AI-Driven Bio-Fermentation
Intelligent Solutions

Powered by online spectral sensing, multimodal foundation models, and reinforcement learning—building a production-side digital twin factory. Achieve minute-level soft sensing of core parameters, adaptive feeding decisions, and early anomaly warnings to help biomanufacturers precisely reproduce golden batches.

+33%
Product concentration increase
<1 min
Real-time monitoring latency
-18.4%
Unit production cost reduction
-10%
Byproduct concentration reduction
Technical Whitepaper
Fermentation Tank
Running Batch: BCP-20260601Running
Cell Density (OD)
92.4
Peptide Yield
+12.5%
Est. Harvest Time
4.5h
DIGITAL TWIN COCKPIT

Integrated Bio-Fermentation Digital Twin Cockpit

Transform complex biochemical processes into transparent, predictable digital metrics—enabling full-process visibility from strain preparation to harvest and discharge.

1. Global Visibility: Environment & Equipment Integration

Aggregate environmental monitoring (temperature, humidity, dissolved oxygen, pH, etc.) and fermentation tank/instrument status on a single screen. Real-time dashboards help managers quickly locate anomalies.

2. Real-Time Monitoring & Process Optimization Loop

Continuously monitor stirring speed, aeration, feeding rate, and other key parameters based on online sensors and batch data streams. Built-in process models automatically analyze deviations and provide optimization recommendations.

3. Core Parameter Soft Sensing

Online estimation of cell density and potency from easily measured variables (DO, off-gas composition, fermentation time, etc.)—replacing traditional offline sampling with minute-level feedback for precise feeding and harvest decisions.

Digital Cockpit Live View
Integrated Bio-Fermentation Digital Twin Cockpit
DATA FUSION PLATFORM

Unified Multi-Source Fermentation Data Integration

Break data silos by fusing automated collection, manual entry, and historical offline data to build a comprehensive AI analysis closed loop.

Automated Data Collection

Automatically collect real-time fermentation equipment data via DCS, online sensors, and process intervention—including temperature, pH, dissolved oxygen, and other key process parameters.

DCS IntegrationSecond-level CollectionOnline Sensors

Manual Non-Automated Data Entry

Support manual entry of offline test data (total sugar, total nitrogen, residual sugar, viable cell count, etc.), process adjustment records, pre-harvest parameters, and seed fermentation data.

Offline TestingData ValidationLog Traceability

Historical & External Data Import

Support batch import of historical fermentation data, OCR scanning of paper batch records, Excel files, and other external data sources—connecting the full lifecycle of enterprise fermentation data.

Paper Batch OCRBatch ImportCross-System Integration

Precision Fermentation Equipment & Sensor Monitoring

Full-cycle real-time monitoring of all fermentation tank groups and sensor health in the workshop—rapid anomaly alerts and complete closed-loop management from production to equipment maintenance.

Full-cycle batch monitoring: track remaining duration and start/end times
Sensor detail traceability: 24-hour trends, calibration history, and maintenance records
Automatic anomaly alerts: auto-locate abnormal sensor data and troubleshoot faults
Running
Current Temperature
37.2 ℃
pH Value
6.85 pH
Dissolved Oxygen (DO)
42.3 %
Stirring Speed
350 rpm
Fermentation Cycle ProgressRunning 18h / 4.5h remaining
AI-DRIVEN INTELLIGENCE

AI-Driven Fermentation Process Intelligence

Integrating deep learning and reinforcement learning for precise prediction, autonomous feeding, and process decision-making.

RL-Based Closed-Loop Adaptive Feeding

Traditional feeding relies on empirical curves and struggles with raw material batch variation and environmental interference. OxTium builds PPO-based policy models that capture real-time states and automatically adjust feeding rate and type for true process autonomy.

Policy Algorithm
PPO (Reinforcement Learning)
Decision Response
Millisecond closed loop
State Perception: online measurements, offline assays, and external environment jointly input.
Intelligent Action: adaptive control of feeding timing, volume, and rate.
Reward Mechanism: maximize product potency, substrate utilization, and production efficiency.
PPO Feeding Control Agent (OxTium-Agent)
Step: 124
Residual Sugar (State)
15.4 g/L
pH State
6.85
Dissolved Oxygen (State)
42.5 %
Current Recommended ActionExecuting
Maintain current process parameters
Instant Reward Score: 0.94Data sync latency: < 50ms
SUCCESS CASE STUDIES

AI-Assisted Peptide Fermentation: Process Optimization Case

BCP peptides are highly active and structurally refined, demanding extremely precise fermentation control. OxTium AI algorithms deeply intervene in the three-stage scale-up system for remarkable yield improvement and cost reduction.

E. coli Expression System Three-Stage Scale-Up

Peptide production uses E. coli expression through shake flask → 150L seed tank → 2000L main fermenter scale-up. Inducer is added when cell density reaches set values; cells are harvested by centrifugation after induction.

1
Shake Flask
2
150L Seed Tank
3
2000L Main Tank
4
Centrifugation
Overall Performance
Average 2 fewer batch failures per month

Significantly mitigating E. coli autolysis and peptide degradation risks with highly stable quality.

STAGE 110% wait time reduction

Seed Maturity Assessment & Timing Control

Fusing multi-dimensional inputs (OD, turbidity, gas consumption) with microscopy image analysis to automatically determine log-phase late stage, with optimal transfer timing controlled within ±5%.

STAGE 28% peptide yield increase

Intelligent Feeding Stage Recommendations

AI predicts substrate consumption rate and cell requirements, automatically recommending optimal feeding timing and speed—avoiding C/N imbalance and reducing acetate byproduct accumulation by 30%.

STAGE 315% expression level increase

Optimal Induction Window Prediction

E. coli peptide induction expression model trained on growth stage (OD, DO slope) and metabolic heat rate—induction timing prediction accuracy improved to 92%.

STAGE 4Precise endpoint control

First-Derivative Fermentation Endpoint

Target peptide yield prediction model combined with real-time first-derivative analysis to detect yield plateau—precise endpoint control preventing cell autolysis and degradation.

DIGITAL TWIN FACTORY

Physical Factory 1:1 Virtual Replica: Digital Twin

During industrial fermentation, build a 1:1 virtual replica of the physical fermentation factory—deeply optimizing fermentation processes through real-time monitoring and algorithmic feedback.

Dynamic Environment Simulation

Real-time simulation of how raw materials, temperature, and pressure affect growth and product synthesis—supporting advance decision-making.

Core Parameter Soft Sensing

Real-time, high-precision estimation of cell density, potency, and other core variables in the digital twin via deep neural networks.

Metabolic Bottleneck & Fault Detection

Visual monitoring of enzyme utilization to clear production bottlenecks, with early contamination warnings to avoid batch loss.

Precise Golden Batch Reproduction

Based on simulation results, use reinforcement learning to adaptively adjust feeding and stirring to reproduce the highest-yield control curve.

PHYSICAL VS VIRTUAL
Physical Factory
Fermenter Fleet
<=>
Twin Model
1:1 Virtual Replica
Dynamic Feedback Control Loop
Sensor real-time data -> Twin model simulation -> AI decision output -> DCS-linked actuator adaptive adjustment
IMPLEMENTATION PROCESS

OxTium Solution Implementation & Deployment Path

From data collection and model training to secure on-premise appliance deployment—providing comprehensive compliance and high-privacy implementation assurance.

1

Data Collection & Preprocessing

Enterprises only need to provide 10-20 batches of historical fermentation data (including offline assays, external environment, etc.) to establish data standards.

2

Model Building & Optimization

Pre-train dedicated time-series prediction and decision models on sample data, with simulation validation and hyperparameter optimization.

3

On-Premise Deployment & Integration

Integrated hardware-software deployment on enterprise intranet (appliance/local server)—data never leaves the intranet, meeting strict privacy compliance.

4

Foundation Model Instruction Fine-Tuning

Introduce on-site process expert annotations via RLHF and other methods to strengthen automatic draw and seed judgment capabilities.

5

Go-Live & Continuous Optimization

System enters trial operation, continuously collecting field feedback for seamless online OTA algorithm upgrades and rolling optimization.

On-Premise Privacy Security Commitment

Data Never Leaves Intranet, Physical Security Isolation

OxTium deeply understands that biological assets and process formulas are core enterprise secrets. We provide full hardware-software appliance on-premise deployment, integrating with intranet DCS systems and database policies—no public internet connection required for physical-level data protection.

Supported Deployment Modes
On-Premise Appliance Deployment
On-Premise Server Privatization

Start Your AI Bio-Fermentation Intelligence Journey

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