SYSTEM INTEGRATION SERVICES

Break the Black Box.

Don't buy a closed-source million-euro tool. Let us turn your existing vacuum chambers and legacy deposition hardware into a programmable, autonomous laboratory.

DEPOSITION_SYS: RETROFITTED CHAMBER_STATUS: VACUUM_OK
THE LEGACY TRAP

The Proprietary Trap

Legacy hardware OEMs build exceptional vacuum components but trap you in rigid, proprietary PLC (Programmable Logic Controller) architectures. They are designed for human operators to run static recipes, not for dynamic AI orchestration. If you cannot programmatically command your mass flow controllers or read real-time metrology via an open API, you cannot run active learning loops.

THE OPEN PARADIGM

The Open-Architecture Imperative

Solbion champions an open-hardware ecosystem. We bypass proprietary software limitations by retrofitting your existing PVD, ALD, or Spark Ablation tools with custom mechatronics. We expose every valve, sensor, and motor to a unified, Python-based middleware layer, bridging the physical world with modern computational materials science.

ORCHESTRATION LAYER

Building the Digital Twin

1. Physical Hardware

LAYER_01

The raw synthesis and characterization layer. We utilize commoditized or existing facility hardware to minimize CapEx.

UHV Chamber Mass Flow Controllers (MFCs) In-Vacuum Stepper Motors (Mask/Substrate positioning) Inline Metrology (e.g., SMPS, Ellipsometry)

2. Edge Control & Mechatronics

LAYER_02

We replace or parallel-wire proprietary PLCs with high-frequency, open-source edge controllers that act as translators for physical signals.

Open-Source Microcontrollers (Arduino/Teensy) Analog-to-Digital Converters (ADCs) Solenoid Valve Relays

3. The Solbion Middleware

LAYER_03

A centralized daemon that creates a 'Digital Twin' of the hardware. It synchronizes substrate movement with precise gas dosing and logs every environmental variable.

Python-based Equipment APIs REST/gRPC communication protocols Unified Telemetry Database (SQLite/PostgreSQL)

4. Active Learning Engine

LAYER_04

The 'Brain'. It reads the metrology data from Layer 3, predicts the optimal next experiment, and commands the Middleware to execute the run autonomously.

Bayesian Optimization Algorithms Cloud Compute / ML Models
SIMULATED TELEMETRY
LAYER_01: PHYSICAL HARDWARE
> Initializing digital twin feedback...
> Reading inline metrology sensors: NOMINAL
> Mass Flow Controllers: 150 sccm [Ar]
> Substrate positioning: X=45.2, Y=12.8
> Chamber pressure: 1.2e-3 mbar
ORCHESTRATOR STATUS READY TO DISCOVER
DEPLOYMENT

How We Upgrade Your Lab

Phase 1: Hardware & API Audit

We assess your existing tools (or spec used equipment for procurement). We map out the required I/O interfaces, UHV stepper motor integration for combinatorial masks, and metrology feedback loops.

Phase 2: Mechatronic Retrofit

Our engineering team installs the edge control layer, bypassing rigid PLCs and bringing all mass flow controllers, power supplies, and sensors into a unified digital network.

Phase 3: Middleware Deployment

We deploy the Solbion Python orchestrator locally. Your machine is now a node on a network, addressable via simple code commands.

Phase 4: Handoff & ML Integration

We hand over the API documentation. Your computational scientists can immediately begin running continuous, closed-loop discovery campaigns using their preferred ML frameworks.

INITIATE INTEGRATION BRIEFING

Take command of your hardware.

Stop adapting your R&D to the limitations of proprietary software. Let us build the middleware that sets your discovery loops free.

Request an Integration Audit