
TMA PT 1000
Thermomechanical Analyzer TMA PT1000
Description
On point
The LINSEIS TMA PT1000 Thermomechanical Analyzer is meticulously designed to ensure the highest levels of precision, reproducibility, and accuracy. This versatile system is engineered to perform a wide range of thermomechanical experiments, accommodating various sample shapes and sizes. It covers a broad temperature range to meet the diverse needs of TMA applications. The system is capable of both static and dynamic measurements, thanks to the integration of a built-in force/frequency generator.

Key Features of the TMA PT1000:
– Materials Under Investigation: Typical materials studied include composite materials, glass, polymers, ceramics, and metals, reflecting the system’s versatility.
– Sample Geometries: The TMA PT1000 accommodates a variety of measuring systems, enabling the examination of sample geometries such as fibers, rods, films, and cylinders.
TMA and DTMA Features:
Low Constant Load:
– Linear thermal expansion evaluation
– Change of volume
– Phase transformation analysis
– Sinter process assessment
– Softening point determination
– Identification of transformation points
– Examination of swelling behavior
– Tension measurements
Increased Constant Load:
– Penetration studies
– Transition and comparison tests
– 3-point bending tests
Dynamic Load:
– Analysis of visco-elastic behavior
Additional Optional Features:
– Differential Thermal Analysis (DTA) evaluation
– Rate Controlled Sintering (RCS) software for comprehensive sintering analysis
The TMA PT1000 offers a versatile and comprehensive solution for a wide range of thermomechanical experiments, making it an invaluable tool for materials research and characterization across various industries and applications.

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Specifications
Model | TMA PT1000 |
---|---|
Temperature range: | RT up to 1000°C -150°C optional |
Price range: | $ |
Sample size: | 30 mm |
Force: | up to 1 or 5.7 N |
Frequency: | 1 Hz |
Resolution: | 0.125 nm |
Atmospheres: | red., inert, oxid., static/dyn. |
Electronics: | Integrated |
Interface: | USB |
Model | TMA PT 1000 EM |
---|---|
Temperature range: | -150 up to 1000°C -260 up to +220°C |
Price range: | $$ |
Sample size: | 30 mm |
Force: | up to 1 / 5.7 / 20 N |
Frequency: | – |
Resolution: | 0.125 nm |
Atmospheres: | red., inert, oxid., static/dyn. |
Electronics: | Integrated |
Interface: | USB |
Accessories

The system is complemented with various auxiliary components and options:
- Sample Preparation Devices: These devices are available to facilitate the preparation of samples for testing and analysis.
- Diverse Sample Holder Types: The system supports various designs and materials for sample holders, offering flexibility to accommodate different experimental requirements.
- Vernier Calipers for Online Sample Length Input: Vernier calipers are integrated, allowing for real-time input of sample length data during testing.
- Gas Boxes Selection (Up to 4 Gases): Users have the choice of gas boxes that can accommodate up to four different gases, providing versatility in controlling the experimental atmosphere.
- Low-Temperature LN2 Cooling Device (-150°C): The system includes a low-temperature cooling device utilizing liquid nitrogen (LN2), capable of reaching temperatures as low as -150°C for specialized cooling needs.
Software
All LINSEIS thermo-analytical instruments are seamlessly integrated with PC control, running exclusively on Microsoft® Windows® operating systems. The software package comprises three distinct modules: temperature control, data acquisition, and data evaluation. This 32-bit software embodies all the essential features required for comprehensive Thermogravimetric measurements. Thanks to the expertise of our specialists and application experts, LINSEIS has developed user-friendly application software that is both comprehensive and easy to understand.
TMA Features:
– Glass transition and softening point evaluation.
– Automatic software-controlled system shutdown upon softening point detection.
– Display of relative and absolute shrinkage or expansion curves.
– Presentation and calculation of technical and physical expansion coefficients.
– Inclusion of Rate Controlled Sintering (RCS) Software for thorough sintering process analysis.
– Semiautomatic evaluation functions to enhance efficiency.
– Several system correction features for precise results.
– Automatic zero-point adjustment for accurate measurements.
– Automated software-controlled sample pressure adjustment.
General Features:
– Program with text editing capabilities, enabling customization.
– Data security measures in case of power failure to protect your data.
– Thermocouple break protection to ensure measurement integrity.
– Streamlined repetition measurements with minimal parameter input.
– Easy evaluation of the current measurement.
– Capability to compare up to 32 curves for in-depth analysis.
– Storage and export options for evaluations, promoting data archiving.
– Support for data export and import in ASCII format.
– Seamless data export to MS Excel for further analysis and reporting.
– Multi-methods analysis, allowing various techniques such as DSC, TG, TMA, DIL, and more.
– Zoom function for detailed examination of measurement curves.
– First and second derivative calculations for in-depth data analysis.
– Programmable gas control for customized experimental conditions.
– Statistical evaluation package for deriving valuable insights from your data.
– Free scaling to adapt the software to your specific requirements.
This comprehensive software package, when coupled with LINSEIS thermo-analytical instruments, provides a user-friendly and feature-rich solution for precise and efficient thermal analysis.
Applications
Application example: Polycarbonate (PC)
In thermoplastic applications, a significant limiting factor is the glass transition point. Through an examination of various loads applied to molded polycarbonate parts, our TMA analysis has revealed that softening takes place well before the glass transition temperature is reached. During this investigation, a pushrod with two different forces (1cN and 2cN) was used to penetrate the material, resulting in varying depths of penetration. For both evaluations, a consistent heating rate of 5K/min was maintained.
