The first chamber is responsible for:

• Rapid and uniform glass heating
• Initial temperature ramp-up
• Overcoming coating reflectivity (Low-E glass)

This chamber is optimized for heat input efficiency, using either:

• Advanced convection heating
• Hybrid convection-radiation systems

Its role is to bring the glass close to its softening point quickly and uniformly.

Chamber 2 – Soaking & Thermal Stabilization Zone

The second chamber focuses on:

• Temperature equalization
• Stress homogenization through glass thickness
• Edge-to-center thermal balance

This chamber ensures the glass reaches a thermally stable state before quenching, which is critical for:

• Optical quality
• Stress uniformity
• Reduced breakage

This separation is the key to high-quality, high-speed tempering.

Heavy-Duty Dual Chamber Frame

The furnace body uses:

• Reinforced structural steel
• Thermal expansion compensation design
• Independent chamber insulation zones

This ensures:

• Mechanical rigidity
• Long-term alignment stability
• Minimal heat loss between chambers

Structural integrity is essential when operating two thermal environments simultaneously.

Advanced Insulation & Thermal Isolation

Each chamber is insulated independently using multi-layer high-temperature insulation, preventing thermal interference. Benefits include:

• Stable temperature control
• Reduced energy waste
• Improved heating accuracy

Thermal isolation allows each chamber to operate at its ideal thermal profile.

Independent Heating Zones

Both chambers are divided into multiple independently controlled zones, enabling:

• Local temperature correction
• Edge compensation
• Thickness-specific tuning

Zone independence allows operators to process mixed glass sizes and thicknesses without sacrificing quality.

Advanced Airflow & Heat Transfer

In convection-based designs, Wings Logic uses:

• High-efficiency blowers
• Optimized air duct geometry
• Precision nozzle arrays

Airflow is modeled to ensure:

• Uniform heat penetration
• Minimal turbulence imbalance
• Consistent surface heating

This level of airflow engineering is the result of continuous R&D and field validation.

Precision Ceramic Roller System

Glass moves through both chambers on high-precision ceramic rollers, engineered for:

• Dimensional stability
• Smooth rotation at high temperature
• Minimal surface marking

Roller alignment and speed synchronization are critical to avoid:

• Roller wave
• Optical distortion
• Edge stress variation

Chamber-to-Chamber Transfer Control

The transition between chambers is digitally synchronized to ensure:

• No temperature shock
• No speed mismatch
• No glass instability

This seamless transfer is what enables continuous high-speed production.

High-Performance Quench Engineering

After exiting the second chamber, glass enters the quench section, where:

• Surface compression is induced
• Internal tensile stress is controlled

Wings Logic quench systems feature:

• Independent top & bottom air pressure control
• Uniform nozzle distribution
• Adjustable quench intensity

This ensures:

• Consistent fragmentation pattern
• High mechanical strength
• Excellent optical quality

Double chamber furnaces excel in producing optically superior tempered glass because:

• Glass reaches thermal equilibrium before quenching
• Stress gradients are minimized
• Surface distortion is reduced

Wings Logic systems minimize:

• Anisotropy
• Roller wave
• Edge deformation

This makes them ideal for architectural and façade glass.

Recipe-Based Dual Chamber Control

The control system allows:

• Independent recipes for each chamber
• Thickness-specific heating curves
• Automatic synchronization with quench settings

This provides:

• Repeatable production
• Fast changeover
• Reduced operator dependency

Real-Time Monitoring & Adaptive Correction

Sensors continuously monitor:

• Zone temperatures
• Glass speed
• Chamber stability

The system dynamically adjusts parameters, maintaining process stability under high load.

Despite higher output, Wings Logic double chamber furnaces are optimized for:

• Efficient energy usage
• Reduced heat loss
• Stable power consumption

Energy efficiency is achieved through:

• Advanced insulation
• Optimized heating cycles
• Intelligent power management

This delivers lower cost per square meter of tempered glass.