
Thermal Analysis Excellence TMA/SDTA 2+ STARe System Innovative Technology Versatile Modularity Swiss Quality Thermomechanical Analysis for All Requirements
Open the catalog to page 1Outstanding Measurement PerformanceThanks to Swiss Precision Mechanics Thermomechanical analysis (TMA) is used to measure dimensional changes of a material as a function of temperature. Thermal expansion and effects such as softening, crystallization and solid-solid transitions determine the properties of a material and provide important information about its potential application range. Viscoelastic behavior and curing can be studied by varying the applied force (DLTMA mode). Features and benefits of the METTLER TOLEDO TMA/SDTA 2+: • Wide temperature range - from -150 to 1600 °C • SDTA - for...
Open the catalog to page 2The TMA/SDTA 2+ incorporates Swiss precision mechanics and is available in four versions with furnace systems optimized for measurements between –150 and 1600 °C. www.mt.com/ta-tma 3
Open the catalog to page 3SDTA SensorOutstanding Temperature Accuracy The TMA/SDTA 2+ is the only instrument on the market that measures the sample temperature very close to the sample in all operating modes, enabling temperature adjustment to be carried out using reference substances (e.g. the melting points of pure metals). SDTA sensor DLTMA n_n_AAA OneClick™ The SDTA signal is the difference between the measured sample temperature and the reference temperature calculated using a model (US Patent 6146013). This means that besides the length change, the simultaneously measured SDTA signal is also available as a measurement...
Open the catalog to page 4The METTLER TOLEDO TMA models have two thermocouples: One measuring the furnace temperature that controls the programed temperature of the experiment, and another that is located next to the sample and measures the temperature of the sample. www.mt.com/ta-calibration 5
Open the catalog to page 5Versatile Modularity Rapid ResultsInnovative Solutions The sampling area is freely accessible for installing the sample holder and measuring probe. These operations can be performed quickly and easily. An indentation ensures that the sample holder can only be installed in one position. The measuring probe is securely attached to the length sensor (LVDT) by means of a magnet and can easily be changed. Different sample holders and measuring probes are available for each measuring mode. This allows you to choose the best configuration for each application. Patented sample holders for TMA automation...
Open the catalog to page 6Unlock the true potential of the TMA/SDTA 2+ with innovative sample robot. This is incredibly versatile and powerful, with 20 sample positions for a wide range of applications.
Open the catalog to page 7Configurations Fits Every Need, Even if They Change The TMA/SDTA 2+ is available is four versions with different temperature ranges. There is an instrument that will fit every possible need. Cooling options include an Intracooler or liquid nitrogen, providing the possibility to test samples at subzero temperatures. The high temperature version can reach 1600 °C, which is perfect for measurements of metals and ceramics. Conversion from one TMA version to another is always possible. An IntraCooler version that operates from –80 to 600 °C. The IntraCooler is the most effective cooling option on...
Open the catalog to page 8The TMA/SDTA 2+ HT/1600 incorporates Swiss precision ceramics and is optimized for measurements between room temperature and 1600 °C.
Open the catalog to page 9Swiss Quality Sample HoldersSimple, Ingenious and TimesavingThe TMA/SDTA 2+ offers various accessories that enable you to measure samples in different deformation modes. The most suitable mode for your particular application depends on the nature and properties of the sample.Dilatometric mode This is the mode most commonly used in thermomechanical analysis. The expansion coefficient is determined as a function of temperature. A typical feature of this mode is that the probe exerts only a very small force on the sample. Compression mode In this mode, the sample is subjected to a large force. 3-point...
Open the catalog to page 10Easy sample insertion The sampling area is freely accessible for installing the sample holder and measuring probe. These operations can be performed quickly and easily. An indentation ensures that the sample holder can only be installed in one position. www.mt.com/ta-sampleprep 11
Open the catalog to page 11Swiss Quality Reliable. First-Class PerformanceOver the Entire Measurement Range Types of sample holder Defined furnace atmosphere, programmable gas flow and gas switching. The furnace chamber can be purged with a defined gas. This process is software controlled, which makes it very easy to switch from an inert atmosphere to reactive conditions. The standard gas controler can be upgraded to a GC 302 or GC 402 for improved functionality and atmosphere control.
Open the catalog to page 127. Thermostatted measuring cell 10. Sample temperature sensor 11. Water-cooled furnace jacket 2. Parallel guidance with bending bearings Extremely precise mechanical system based on internationally acclaimed METTLER TOLEDO balance technology. Thanks to this development, the measuring probe can move up and down perfectly free from any frictional forces. The force applied is therefore extremely accurate.
Open the catalog to page 13Wide Variety of Applications Thermomechanical AnalysisFor All Kinds of Materials The TMA/SDTA 2+ can be used for a wide range of applications due it its broad temperature range and the wide choice of force parameters in compression and tension modes. As a result, the TMA/SDTA 2+ quickly provides characteristic information on numerous types of samples, for example very thin layers, large sample cylinders, fine fibers, films, plates, soft or hard polymers and single crystals. TMA is the ideal addition to DSC. Besides the measurement of expansions coefficients, TMA is also an excellent technique...
Open the catalog to page 14Thermomechanical analysis (TMA) is used to measure the dimensional changes of a material as a function of temperature. TMA allows you to determine expansion coefficients and softening temperatures, as well as measure relaxation effects that are often not detected by other thermal analysis techniques. www.mt.com/ta-applications 15
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