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CVD Tube Furnace Systems

CVD tube furnace systems defined around precursor delivery, process-tube geometry, heated zones, pressure control, exhaust treatment, automation and.

CVD tube furnace system with gas delivery cabinet, process tube and computer control

Configuration overview

Application fit
Laboratory and development-scale chemical vapor deposition processes requiring coordinated thermal, gas-delivery, pressure and exhaust subsystems.
Temperature / cycle
Defined by the selected configuration and required working cycle. Working and maximum values must be confirmed separately.
Geometry
Process-tube material and diameter, substrate zone, heated length, flange interfaces and equipment footprint are project-specific.
Atmosphere boundary
Precursor and carrier gases, flow ranges, pressure objective, pumping path, exhaust handling and purge sequence must be reviewed together.
Heating / connection
Zone count, heated length, temperature measurement and control architecture are coordinated with substrate position and the intended deposition process.

CVD equipment is a coordinated process system

A CVD tube furnace combines a heated reaction zone with gas delivery, process-tube seals, pressure measurement or pumping, exhaust handling and controls. A useful specification starts with the chemistry and substrate rather than selecting a furnace body and adding gas components later.

Process chemistryPrecursor, carrier, purge and reactive gases with available safety information.
Reaction zoneTube material, substrate position, heated length, zones and profile objective.
Pressure pathOperating pressure, pump, measurement, valves, seals and leak-control expectations.
Exhaust boundaryOutlet routing, process by-products and treatment responsibility.

Define gas delivery before hardware selection

List every process and purge gas, the expected flow-control method and the sequence in which gases enter and leave the tube. Precursor delivery may require additional temperature control, containment or cleaning provisions. Materials compatibility and safety must be reviewed before the gas train is confirmed.

Place the substrate inside a defined thermal zone

Tube diameter alone does not define usable deposition space. State substrate geometry, holder, loading method and required position relative to each heated zone. If gradients or multiple regions matter, describe the intended profile so furnace length, zones and sensor locations can be reviewed together.

Controls and supply boundary

The requested automation can range from coordinated temperature and flow control to a sequence including purge, pressure, alarms and data recording. The proposal must identify which pumps, gas cabinets, precursor hardware, exhaust components and computer control are inside the supply boundary.

Send these project inputs

  • Target material or film-development objective
  • Substrate size, holder and process position
  • Tube material, diameter and usable length
  • Working temperature and zone/profile requirement
  • Every precursor, carrier and purge gas
  • Pressure, pump and exhaust-treatment boundary
  • Automation, data, power and destination requirements

When plasma assistance is required, compare PECVD Tube Furnace Systems.