Reliable automation – high sample throughput with result assessment dramatically improves efficiency
Integrated database – guarantees highest level of data security
STARe Software
Thermal analysis is a well-established analytical method that is widely used in many different fields. It provides laboratories with valuable results and new information in quality assurance and control, process and product development, and research. Many problems can be solved by using a combination of different thermal analysis techniques.
STARe is the most complete and comprehensive thermal analysis software on the market and provides unrivalled flexibility and unlimited evaluation possibilities.
Simple operation
Thanks to its amazing functionality and Ribbon style toolbar, the STAR Thermal Analysis Software is extremely intuitive and easy to use. Many of its features such as OneClick™, multiple curve handling, and specific options like Quality Control or Reference Library simplify routine work.
Automation for enhanced productivity
In routine operation, you can automate everything from the measurement to the evaluation and final result assessment.
Modular concept
The STARe Thermal Analysis Software consists of the Base software and a large number of application-specific software options. This concept makes it very flexible. It allows you to satisfy your current needs and meet any future requirements.
Benchmark for flexible evaluation
A complete software package and expert evaluation possibilities are the basis for the correct interpretation of measurement results. The STARe evaluation software combines application-specific evaluation tools optimized for thermal analysis users with the flexibility of a superior layout program whose functionality sets no limits to individual creativity.
The powerful and versatile STARe software offers unique flexibility and unlimited evaluation possibilities. The STARe software is the result of constant development aimed at enhancing performance to satisfy worldwide customer requirements.
Reliable automation – high sample throughput with result assessment dramatically improves efficiency
Integrated database – guarantees highest level of data security
Free STARe Evaluation Software
The Free STARe Evaluation Software enables the evaluation of all kind of Thermal Analysis measurement data. Evaluations performed are exchangeable between the licensed STARe Software and the Free STARe Evaluation Software. The Free STARe Evaluation Software can be downloaded for free
Register now to download the Free STARe Evaluation software and win a Thermal Analysis Handbook
A complete software package and expert evaluation possibilities are the basis for the correct interpretation of measurement results. The STARe thermal analysis software combines application-specific evaluation tools optimized for thermal analysis users with the flexibility of a superior layout program whose functionality sets no limits to individual creativity.
Reliable automation –
high sample throughput with result assessment dramatically improves efficiency
Integrated database
The integrated relational database helps you easily maintain a clear overview even with very large amounts of data. Data is stored within the secure database by sample name, date and time. The Base software allows other data filter parameters to be assigned, simplifying data searches.
21 CFR Part 11 compliance
The CFR operating mode incorporates additional security features stipulated by the FDA in the 21 CFR Part 11 regulations (electronic signature and audit trail). This means that signed electronic records are stored in the database. The 21 CFR 11 software option allows you to manage user levels and define user rights and user roles.
Modular concept
The STARe Thermal Analysis Software consists of the Base software and a large number of application-specific software options. This concept makes it very flexible. It allows you to satisfy your current needs and meet any future requirements.
Easy and intuitive operation
Thanks to its amazing functionality and Ribbon style toolbar, the STAR software is extremely intuitive and easy to use. Many of its features such as OneClick™ , multiple curve handling, and specific options like Quality Control or Reference Library simplify routine work.
In general, the mechanical properties of materials depend on frequency. A good understanding of the influence of frequency on a material is therefore...
This new software option allows thermal effects that occur simultaneously to be separated from one another. A typical IsoStep™ temperature program con...
Advanced Model Free Kinetics (Advanced MFK) is a powerful software program that helps you to optimize a process or investigate a reaction. It also all...
This evaluation option offers you a number of useful routines that can be applied to all curves. Besides the purely mathematical functions such as int...
The kinetic models included with this option are suitable for the analysis and simulation of chemical reactions. On the basis of one or more measureme...
This software option is the right tool for all cases where the experimental time has to be kept as short as possible. It enables you to terminate a me...
TMDSC methods allow both temperature-dependent and time-dependent processes to be separated. The basic idea of TOPEM® is to overlay the isothermal or...
The reference library option allows you to organize and store any type of sample information – be it your own past measurements or information acquir...
The Quality Control software option allows the user to easily control and track the quality of their product. It starts with the measurement; this ca...
The LIMS Interface software option makes it possible to access the STARe software database and to control some features of the STARe System. This is d...
Thermal analysis is a well-established analytical method that is widely used in many different fields. It provides laboratories with valuable results...
The U.S. Federal Food and Drug Administration (FDA) has issued regulations that provide criteria for acceptance by the FDA, under certain circumstance...
When selecting parameters for a TGA or TMA experiment, the user often has to choose between two conflicting goals (shortest possible experimental time...
This software option provides you with a number of DSC-specific evaluation tools for both quality control and research and development purposes. The e...
Measuring specific heat capacity. Platinum crucibles in thermogravimetry. Model Free Kinetic analysis of thermal decomposition of ammonium perchlora...
How to determine the optimum experimental parameters for DMA measurement? Evaluation and interpretation of peak temperatures of DSC curves. Part 1: B...
Thermal analysis is a well-established analytical method that is widely used in many different fields. It provides laboratories with valuable results...
Thermal Analysis comprises a group of techniques that measure the physical or chemical properties of a sample as a function of temperature or time whi...
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We support and service your measurement equipment through its entire lifecycle, from installation to preventive maintenance and calibration to equipment repair.
DMA measurements can be performed under very different conditions to characterize the mechanical properties of materials. A great deal of information about a sample is obtained when the temperature, frequency or displacement amplitude is varied. The mechanical properties of composites or anisotropic materials can only be fully described by varying the direction of the deformation measurement or by using other measurement modes. This article discusses a number of typical examples.
The glass transition of semicrystalline polymers is often weak and difficult to measure by DSC. In this article, we show how a glass transition step of less than 0.1 J/g·K can be reproducibly determined using the DSC. The sample investigated was isotactic polypropylene (iPP) with a degree of crystallinity of 50%.
The TGA-GC/MS system can be used to investigate the composition of unknown samples. This is done by installing the IST16 storage interface between the TGA and the GC/MS. The interface allows up to 16 evolved gas samples to be stored at different furnace temperatures during the TGA measurement. The gas samples are analyzed and identified by GC/MS when the TGA analysis is finished. This article describes how a black polymer granule was characterized using this technique.
Kinetic calculations based on TGA measurements of PA 6.6 compounds were performed to assess the influence of additives on the course of thermal decomposition.
The mechanical properties of polymer-metal adhesive joints were studied as a function of the thickness of the adhesive layer using DMA. The glass transition temperature and the effective crosslinking density were evaluated from the shear modulus measurement curves. The results show that both quantities are strongly dependent on the thickness of the polymer layer. This is due to the formation of an interphase in the contact region of polymer and metal. The properties of the interphase depend on the metal used.
DMA measurements provide many different possibilities for characterizing materials. This article shows how DMA in combination with other thermal analysis techniques can be used to comprehensively characterize materials using different polymers as examples.measurement modes. This article discusses a number of typical examples.
Safety is an important aspect in process development in the chemical industry. This article, describes how reaction calorimetry and DSC can be used to quickly assess the thermal hazard potential of chemicals and chemical reactions.
In many applications, such as in cables or seals, rubber blends must possess both excellent mechanical properties and good flame-resistant properties. This article shows how flame resistance can be easily determined by TGA measurements and how the combination of mechanical and thermogravimetric measurements can be employed to optimize properties.
Photopolymerization is nowadays a widely used process. Systems are used for medical applications, for example in dentistry, for adhesive applications, in coating technology, and quite recently for 3D printing [1]. This article describes how the curing behavior of a two-component UV-curing sample can be investigated.
Many different sorts of lipstick and mascara are nowadays available. The most important characteristics of these products are that the effect lasts a long time, that the products are easy to apply and easy to remove, and that they are physically and chemically stable and do not irritate the skin. The waxes and oils in lipstick are responsible for ease of application; carbon black is often used as pigment in mascara. Thermal analysis techniques allow the quality of these types of cosmetic products to be easily checked.
Tricalcium phosphate (TCP) is one of the main constituents of bone replacement materials which find wide use in medical and dental applications for bone grafting and for implants. This article shows how TGA/DSC and TMA can be used to investigate the synthesis of tricalcium phosphate and to determine the transition temperatures of different TCP polymorphs.
When polymeric binders are used in paints with hydrophilic pigments such as titanium oxide, the pigments must be treated beforehand with polymers that are compatible with the binder. Otherwise, large agglomerates can form due to poor adhesion between the binder and the particles. This can lead to brittle films and fractures in the paint coating. This article shows how TGA and DSC can be used to determine important properties of the coating using titanium dioxide as an example.
For many practical applications, it is important to be able to quickly and reliably identify polymers. This article describes how semicrystalline polymers can be identified by measuring their melting points using DSC.
A thermobalance coupled to a suitable Evolved Gas Analysis (EGA) system allows qualitative information to be obtained about the gaseous reaction or decomposition products formed in a TGA experiment in addition to purely quantitative information about mass changes. This new series of articles discusses the various measurement techniques that METTLER TOLEDO offers for such analyses.
The fluid bath DMA 1 option allows the influence of swelling on the dynamic mechanical properties of a sample to be measured in the temperature range 0 to 200 °C. This means that deformation conditions of components that are in direct contact with fluids can be simulated (for example drive or timing belts that permanently run in motor oil).
Crystalline pharmaceutical substances often decompose immediately before or during melting. To determine the glass transition temperature, the substance must be melted and then cooled as rapidly as possible so that decomposition and crystallization do not occur. In many cases, the heating and cooling rates of conventional DSCs are not high enough for this purpose. The METTLER TOLEDO Flash DSC however offers new possibilities. This is illustrated in this article using prednisolone as an example.
The interpretation and quantitative evaluation of thermal analysis measurement curves is difficult when several effects take place simultaneously. A number of methods are available that can be used to separate overlapping effects and analyze them individually afterward. Using suitable examples, we discuss strategies for DSC curves. A second article to be published in the next UserCom will cover TGA applications.
The shelf life of a packaged product, for example in the food sector, is often strongly influenced by the properties of the product packaging. An important factor here is the permeability of the product packaging toward water vapor. The ProUmid SPS and Vsorp sorption test systems in combination with special sample holders allow the transmission rate of water vapor through the packaging and the sorption rate of the packaged products to be determined experimentally.
TGA experiments in combination with a suitable evolved gas analysis (EGA) technique not only provide quantitative information about the change in mass of a sample but also qualitative information about the gaseous reaction or decomposition products that are evolved. In this series of articles, we will discuss the possibilities that METTLER TOLEDO offer.
DSC measurements can be performed up to about 700 °C using conventional DSC instruments. If higher temperatures are required, DSC curves can be measured up to 1600 °C using the TGA/DSC. This article compares DSC and TGA/DSC measurements and discusses how quantitative calorimetric measurements are possible in the high temperature region.
The first measurements of the thermal conductivity of powders [1] showed that powders can be an interesting alternative to vacuum systems for achieving good thermal insulation. Currently powders of different materials (ceramics or polymers) are used in packaging or for building insulation. On the other hand, the low thermal conductivity of powders entails serious risks in the production and manipulation of energetic powders intended for pyrotechnics or explosives. Knowledge of the thermal conductivity of powders is therefore crucial to avoid spontaneous ignition.
High demands are nowadays put on packaging materials. For example, depending on the application field, the materials must provide optimum barrier properties toward water vapor, oxygen or odorants. In addition, there are requirements regarding tear resistance, transparency and compatibility with the contents of the packaging. In this article, we show how the water vapor transmission rate of materials can be determined using a sorption test system.
The interpretation and evaluation of thermal analysis measurement curves is difficult when several effects take place simultaneously. A number of methods are available that can be used to separate overlapping effects and analyze them individually afterward. In this article, we discuss strategies for TGA curves using suitable examples.
Knowledge of the polymorphic forms of an active substance is very important, especially in the pharmaceutical industry. In this article, we show how previously unknown polymorphs of menthol can be identified and characterized by Flash DSC.
The composition of unknown polymer samples can be quickly characterized by means of combined TGA/DSC-FTIR measurements. This article describes a typical example.
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