STA 2500 Regulus Simultaneous Thermal Analysis

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STA 2500 Regulus Simultaneous Thermal Analysis Technique, Instrument, Applications

Technique Simultaneous thermal analysis refers to the simultaneous application of two or more thermoanalytical methods to the same sample in one instrument. This term, however, is in most cases used for simultaneous measurement of the mass changes and caloric effects on a sample under thermal treatment. The benefits of such a system are obvious: Often, the material available for testing is expensive or difficult to produce. The transformation energetics and mass change are obtained on one sample in one run; the time necessary for the tests is cut in half. Influences of the measurement conditions and/or sample preparation can be eliminated. Comparability of characteristic temperatures of the mass changes and caloric effects is ensured. Problems resulting from differences in the sample composition for the two simultaneous measurements are removed for inhomogeneous materials. Caloric Effects Phase transition temperatures Melting/crystallization behavior Phase diagrams Reactivity Modification changes Thermogravimetric Effects Mass changes Temperature stability Oxidation/reduction behavior Decomposition Corrosion studies Compositional analysis Thermokinetics exo TG m 1 m Δm (%) DTA T 1 T 2 m 2 T 3 μv/mg Δm/t (%/min) DTG Temperature Measured signals in a TGA-DTA 2

Key Features at a Glance Top-Loading and Unique Differential Balance Arrangement The natural gas flow in the top-loading system guarantees automatic protection of the balance against condensation and contamination. The tailormade differential balance system cancels out buoyancy and convection influences over a broad temperature range. This provides easy operation without the need for time-consuming baseline runs. Various Atmospheres Available Measurements can be performed in inert and oxidizing atmospheres but also under vacuum. The atmosphere can be dynamic or static. The built-in mass flow controllers (MFCs) are software-controlled and allow gas changes at any time during the test. Ideal for Evolved Gas Analysis Excellent Cost Performance The STA 2500 Regulus features a highly reliable, fully equipped instrument package for simultaneous measurements up to 1600 C at an attractive price. The top-loading design of the STA allows for convenient coupling to gas analysis systems such as FT-IR (Fourier Transform Infrared) spectrometer, MS (mass spectrometer), or GC-MS (gas chromatograph mass spectrometer). During thermal treatment, the gases evolved can be simultaneously analyzed. 3

Standard Solution with Trendsetting Technology Advantages of the Unique Top-Loading Differential Balance Arrangement The STA 2500 Regulus is equipped with a tailor-made ultra-micro balance with a resolution of 0.03 μg. The self-compensating differential balance operates with two symmetric balance arms, connected to the reference and sample rod in the furnace. The compensation system (coil magnets) is controlled by a highresolution optical sensor. This avoids rod movements resulting in a stable, high-resolution balance with a weighing range of ± 250 mg. The differential balance set-up compensates for buoyancy effects, even during changes in gas flow. Reference Reference rod Sample Sample rod Furnace Coil magnets Sub-fulcrum section Main fulcrum section Optical sensor Schematic design of the top-loading differential balance of the STA 2500 Regulus 4

STA 2500 Regulus Design Top-loading, vertical & differential balance Furnace data Temperature range Heating rate Temperature precision (repeatability) Motorized furnace hoist Balance and Sensor Data Design Weighing range Thermogravimetric resolution Thermocouple Atmosphere Vacuum-tight Gas atmospheres Gas control RT to 1100 C/1600 C (2 easily exchangeable furnaces) 0.001 to 100 K/min (depending on the furnace) 0.3 K Single hoist Differential balance system ± 250 mg, max. sample load 1 g 0.03 μg Type S 10-4 mbar (10-2 Pa), depending on the evacuation system Inert, oxidizing, vacuum Built-in mass flow controllers Gypsum Waste STA measurement on an aged gypsum board (8.32 mg) in air atmosphere (80 ml/ min) at a heating rate of 40 K/min in open alumina crucibles. Here, the DTA signal is converted in mw/mg (DSC). Gypsum boards are specifically designed where high fire protection is required. Water is incorporated into its structure which in the presence of fire, vaporizes. It is fully recyclable and, as a consequence, it is one of the few construction materials for which closed loop recycling is possible. Here, gypsum waste powder was measured between RT and 700 C under air atmosphere for the simulation of both its behavior under fire exposure and the recycling process. Up to 250 C the endothermic dehydration of gypsum (red curve) can be observed with a mass loss of approximately 18% (black curve). This is followed by the exothermal burn-up of organics which might overlap the phase transition from Anhydrite III in II. Above 600 C, nearly constant mass is achieved. 5

Excellent Reproducibility Initial sample mass: 27.709 mg 32.133 mg 30.104 mg Three rubber samples from the same batch after changing the atmosphere from nitrogen to air. Heating rate 20 K/min, Pt crucibles The carbon black content of rubber materials is of essential importance and very often underlies a quality control process. In this example, three different rubber mixtures of the same batch were investigated specifically for their carbon black content. After monitoring the decomposition behavior under inert atmosphere, the atmosphere was switched to air and the mass change determined to 0.282 ±0.006% which proves the outstanding reliability and reproducibility of the STA 2500 Regulus. Phase Transitions of Iron STA measurement of pure iron at a heating rate of 20 K/min. The phase transitions (blue curve) occurred without mass loss which indicates a high purity of iron and no oxidation due to the vacuum-tight design of the instrument. The DTA sensitivity of the STA 2500 Regulus allows for the detection of even weaker phase transitions. In addition, pure atmosphere can be achieved by using the AutoVac option for automatic evacuation and refilling of the system. Shown is the STA measurement of an iron sample between RT and 1600 C. The caloric effect at 744 C indicates a change in the magnetic properties of the material (blue curve). At peak temperatures of 908 C and 1389 C, two further changes in the crystal structure occurred. The endothermic peak at 1533 C (extrapolated onset) is due to the melting [1]. No mass loss could be detected in the TGA signal, indicating the vacuum-tightness of the system and high purity of the sample. [1] Das Techniker Handbuch, Grundlagen und Anwendungen der Maschinenbau- Technik, 15. Auflage, Herausgeber Alfred Böge, Vieweg Verlag, 1999 6

Sublimation of an OEL Layer Multilayered organic structures can have unusual optical and physical properties which offer new possibilities for optoelectronic devices, including e.g., organic light emitting diodes (OLEDs). In organic multilayers, α-npd is a hole transporting material. The vacuum-tight STA 2500 Regulus allows for measurements under reduced pressure. Here α-npd was measured under reduced pressure which resulted in a decrease of the sublimation temperature from 380 C at atmospheric pressure (blue curve) to 240 C at reduced pressure (red curve). α-npd under atmospheric and reduced pressure Capsule in Tobacco Filter Recently, the tobacco industry has introduced cigarettes with a new technology which makes cigarettes more attractive as it offers a capsule filled with a flavoring solution, embedded in the cigarette filter. The capsule can alter, for example, the taste of tobacco or keep it moist. This plot shows the TGA-MS measurement on a water-immersed capsule between room temperature and 500 C. The release of water associated with several mass-loss steps (TGA curve black and DTGA curve dotted red), is confirmed by the MS signal for mass number 18. A fast stabilization of the balance before the start of the measurement allows for the detection of the evaporation of free water prior to the release of the bound water. Release of free water TG-MS measurement on a capsule Release of bound water M/z=18 STA 2500 Regulus WIDE VARIETY OF APPLICATIONS 7

Proteus Software Highly Efficient and User-Friendly The STA 2500 Regulus runs on a Windows operating system and includes everything you need to carry out a measurement and evaluate the resulting data. User-friendly menus combined with automated routines make Proteus very easy to use while providing sophisticated analyses. Key Features of the General Software Software produced by iso-certified company NETZSCH for Windows 7/8.1 operating systems Simultaneous measurement and evaluation Operation of different instruments with one computer Combined analysis: Comparison and/or evaluation of STA, DSC, TGA, DIL, TMA and DMA measurements in a single presentation Input and free placement of text elements Calculation of 1 st and 2 nd derivative Selectable colors and line types Storage and restoration of analyses Context-sensitive help system Results by e-mail Automatic detection of instrument settings (e.g., furnace, sensor, etc.) Data export in Excel -compatible CSV-format Calibration and correction routines for temperature, sensitivity, baseline Picture-in-picture presentation (PIP/FLIP) Snapshot for online evaluation of a measurement in progress 8 8

User interface of the Proteus software during evaluation STA-Specific Features TGA curves in absolute mass change (mg) or relative mass (%) Automatic evaluation of mass change steps and characteristic temperatures Extrapolated onset and endset Peak temperatures and values of the 1st and 2 nd derivatives TGA stability check for early termination of the measurement Rate-controlled mass loss DTA curves in absolute (µv) or relative (µv/mg) units Determination of onset, peak, inflection and end temperatures Automatic peak search Exothermal presentation in accordance with DIN or ASTM (selectable) Calculation for conversion of DTA in DSC signal Advanced Software (optional) Peak Separation for accurate separation and evaluation of overlapping transitions NETZSCH Thermokinetics for advanced characterization of reactions and kinetic parameters also provides predictions of the process 9

ACCESSORIES Sample Pans, Crucibles and Plates A variety of crucibles made of alumina, platinum, aluminum and quartz are available in different shapes and sizes. The STA 2500 Regulus is delivered with slip-on plates which allow for nearly all kinds of sample pans (see table below). The large-volume crucible requires the large slip-on plate. Slip-on plate Standard Large volume Slip-on plate types Corrosion-protected Crucible Types for Various Applications Material (Purity) Diameter/Height Volume Maximum Temperature Al (99.5) Ø 5.2/2.6 mm 45 μl 600 C Al (99.5) Ø 5.2/5.1 mm 95 μl 600 C Al 2 O 3 (99.7) Ø 5.2/2.6 mm 40 μl 1700 C Al 2 O 3 (99.7) Ø 5.2/5.1 mm 80 μl 1700 C Pt/Rh (90/10) Ø 5.2/2.6 mm 45 μl 1600 C Pt/Rh (90/10) Ø 5.2/5.1 mm 95 μl 1600 C Fused silica Ø 5.0/2.6 mm 25 μl 1000 C Fused silica Ø 5.0/5.1 mm 55 μl 1000 C Large volume Al 2 O 3 (99.7)* Ø 8.0/10.0 mm 400 μl 1700 C * Available only with large slip-on plate 10

Coupling to Evolved Gas Analysis (EGA) By coupling the STA 2500 Regulus to a gas analysis system such as FT-IR (Fourier Transform Infrared) spectrometer, QMS (quadrupole mass spectrometer), or GC-MS (gas chromatograph mass spectrometer), information on the type of gases evolved as a function of time or temperature can be obtained. This yields detailed information on the material to be tested and may provide fingerprint of the analyzed material. Connection to an FT-IR via transfer line Connection to a QMS via capillary Coupling to a GC-MS via transfer line Coupling of STA 2500 Regulus and GC-MS 11

The NETZSCH Group is a mid-sized, family-owned German company engaging in the manufacture of machinery and instrumentation with worldwide production, sales, and service branches. The three Business Units Analyzing & Testing, Grinding & Dispersing and Pumps & Systems provide tailored solutions for highest-level needs. Over 3,400 employees at 210 sales and production centers in 35 countries across the globe guarantee that expert service is never far from our customers. When it comes to Thermal Analysis, Calorimetry (adiabatic & reaction) and the determination of Thermophysical Properties, NETZSCH has it covered. Our 50 years of applications experience, broad state-of-the-art product line and comprehensive service offerings ensure that our solutions will not only meet your every requirement but also exceed your every expectation. NETZSCH-Gerätebau GmbH Wittelsbacherstraße 42 95100 Selb Germany Tel.: +49 9287 881-0 Fax: +49 9287 881 505 at@netzsch.com NSI STA 2500 Regulus EN 0217 NWS Technical specifications are subject to change.