High-precision Thermal Expansion Measurement for Ceramics & Solids AZA1269

The AZA1269 High-Performance Dilatometer is an advanced thermal analysis instrument engineered for precise measurement of linear thermal expansion and contraction of solid materials at temperatures up to 1400 °C. Designed for demanding laboratory and industrial environments, the system delivers high accuracy, repeatability, and long-term thermal stability, making it ideal for material characterization, research, and quality assurance.

This instrument is widely used in ceramics, refractories, advanced composites, polymers, and sintered materials, where understanding dimensional change under heat is critical to product performance and safety.

SKU: AZA -1269 Category:
Description

Description

Purpose of Linear Thermal Expansion Testing

Thermal expansion analysis is essential for evaluating how materials behave when exposed to elevated temperatures. Improper expansion characteristics can lead to cracking, warping, loss of mechanical integrity, or system failure in real-world applications.

The AZA1269 enables accurate determination of:

  • Linear thermal expansion coefficient

  • Expansion and contraction behavior over temperature

  • Phase transitions and structural changes

  • Material suitability for high-temperature applications


High-Temperature Furnace System

At the core of the AZA1269 is a robust silicon carbide heating furnace (I Squared R, USA), capable of continuous operation at 1400 °C. The furnace is mounted on a guided rail movement system, allowing smooth, controlled travel for easy specimen loading and unloading while maintaining precise alignment during measurement.

Furnace Design Highlights

  • Silicon carbide heating elements for uniform heat distribution

  • Continuous operation at maximum temperature

  • Guided rail mechanism for smooth and safe furnace travel

  • High thermal stability for repeatable test cycles


High-Precision Expansion Measurement

Linear displacement is measured using a high-sensitivity LVDT system (German make – MASSETRON), providing 1 micron resolution. This enables sub-micron detection of dimensional changes, even in materials with very low expansion coefficients.

Measurement System Features

  • LVDT-based displacement measurement

  • Measuring range: 0 to 2000 microns

  • High signal stability at elevated temperatures

  • Recrystallized alumina probe and tube for thermal compatibility


Advanced Control & Software Integration

The AZA1269 is supplied with LabVIEW-based custom software, offering full digital control, automation, and data logging. The intuitive interface allows users to define heating profiles, monitor expansion curves in real time, and export data for analysis and reporting.

Control & Software Capabilities

  • Closed-loop PID temperature control

  • Real-time expansion vs temperature graphing

  • Automated test sequencing

  • Digital data storage and export

  • USB PC interface

A dedicated PC with inkjet printer is included for complete standalone operation and report generation.


Industrial-Grade Safety & Temperature Regulation

Safety and reliability are integral to the AZA1269 design. The system incorporates industrial-grade electrical and thermal protection components to ensure safe long-term operation at high temperatures.

Safety & Control System

  • TAIE make PID programmable digital temperature controller

  • B-type thermocouple for high-temperature accuracy

  • Temperature accuracy: ±1 °C

  • Non-indicating safety controller with air-break magnetic contactor

  • Phase-angle controlled thyristor system with isolation transformer

  • Digital ammeter for power monitoring


Applications

  • Linear expansion analysis of ceramics and refractories

  • High-temperature material qualification in R&D and manufacturing

  • Quality assurance testing of thermal insulators, electrodes, and sintered parts

  • Educational use in material science and engineering laboratories

  • Development and validation of advanced materials


Key Advantages

  • High-temperature capability up to 1400 °C

  • 1 micron resolution for precise expansion measurement

  • LVDT system from German make (MASSETRON)

  • Smooth, aligned furnace movement on guided rails

  • LabVIEW-based automation and data logging

  • Industrial-grade safety and temperature regulation

  • Suitable for continuous, long-duration testing


Technical Specifications

General Specifications

Feature Specification
Model AZA1269
Measurement Method LVDT-based (German make – MASSETRON)
Measuring Accuracy 1 micron
Measuring Range 0 – 2000 microns
Maximum Temperature 1400 °C
Continuous Operating Temperature 1400 °C
Heating Element Silicon Carbide (I Squared R, USA)
Furnace Movement Guided rail system
Specimen Size 10 × 10 × 45 mm ±2 mm
Probe & Tube Recrystallized alumina
Output Digital + PC interface
Software LabVIEW-based custom software
Power Supply 15A / 230V / AC

Control System Specifications

Feature Specification
Temperature Controller TAIE make PID programmable controller
Thermocouple B-type
Temperature Accuracy ±1 °C
Safety Control Non-indicating controller with air-break magnetic contactor
Thyristor System Phase-angle controlled with isolation transformer
Indicators Digital Ammeter

Standards Compliance

  • ASTM E228 – Linear thermal expansion of solid materials

  • ISO 11359 – Plastics and materials thermal expansion testing


What’s Included

  • 1 × AZA1269 Dilatometer Unit

  • 1 × LabVIEW-compatible software with USB interface

  • 1 × Dedicated PC with inkjet printer

  • 1 × Sample holder and jig set

  • 1 × Power cable

  • 1 × Calibration certificates (including LVDT calibration)

  • Compliance documentation

Optional: Extended temperature ranges, vacuum or controlled atmosphere compatibility

The AZA1269 High-Performance Dilatometer is a reliable, accurate, and industry-ready solution for linear thermal expansion measurement up to 1400 °C. With its precision LVDT system, advanced software control, and robust furnace design, it is an essential instrument for laboratories and industries where thermal behavior defines material performance.