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SETSYS Evolution: High Performance Thermal Analyzers (ambient to 2400°C): DTA, DSC, TGA, simultaneous TGA-DTA/DSC, TMA, coupling to gas analyzers
Widest temperature range (ambient / 2400°C) on the market
Modularity: the different modules DTA, DSC, TGA, TMA can be adapted interchangeably around the same structure
Measurement performance: satisfy unique resolution, precision and sensitivity criteria
SETSYS Evolution is today the state-of-the-art in research-grade thermal analyzers.
It includes:
-SETSYS Evolution DTA (up to 2400°C), DSC (up to 1600°C)
-SETSYS Evolution TGA
-SETSYS Evolution simultaneous TGA-DTA/DSC-EGA
-SETSYS Evolution TMA
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STA 449 F1 Jupiter® – Simultaneous TG-DSC
Fascinating Flexibility in Thermal Analysis
The new STA 449 F1 Jupiter® combines unlimited configuration flexibility and unmatched performance in just one instruments.
● Thermal stability, decomposition behavior, composition, phase transitions, melting processes to be analyzed comprehensively and quickly
● Easily to use top-loading system with exceptionally precise balance resolution (25 ng resolution at a weighing range of 5g) and highest long-term stability
● Interchangeable sensors for DSC measurements with highest sensitivity and best reproducibility for reaction/transition temperatures and enthalpies as well as for measurements of specific heat
● A variety of optional system enhancements for ideal system adaption to user-defined applications
● Various furnaces, easily interchangeable by the user, available (optional a swiveling double hoisting device for two furnaces)
● Pluggable sample carriers (TG, TG-DSC, TG-DTA, etc.)
● Automatic Sample Changer (ASC) for up to 20 samples
● Automatic evacuation and refilling (Autovac)
● Plenty of accessories, e.g. sample crucibles in the most varied of forms and materials
● Unique for STA: temperature-modulated DSC (TM-DSC)
By supplementary MS-and/or FTIR-coupling even more comprehensive analyzes are possible.
All these features make the new developed STA 449 F1 Jupiter® to the ideal tool for thermal analysis of materials in the fields of research, developments and quality assurance. |
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Fascinating Flexibility in Thermal Analysis
DSC 404 F3 Pegasus® - High-Temperature DSC
The new DSC 404 F3 Pegasus® offers a high flexibility for all DSC and DTA applications in quality control and product development. Furnaces and DSC/DTA sensors are available for a broad temperature range (-150...2000°C). Numerous upgrade possibilities allow adaption of this cost-effective system to sophisticated applications.
The DSC 404 F3 Pegasus® is part of the economical NETZSCH F3-product line, which is specially tailored to the requirements of comparative material characterization and quality control.
The DSC 404 F3 Pegasus® can be operated from -150°C to 2000°C with various DTA and DSC sensors that are easily exchangeable by the user and various furnace types.
The sample chamber can be purged with inert or oxidizing gases in order to remove gases evolved from the sample.
The measuring system is vacuum tight (10-2mbar). |
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The new GHP 456 Titan™ is the ideal tool for researchers and scientists in the field of insulation testing. Based on the well-known, standardized guarded hot plate technique (e.g. ISO 8302, ASTM C 177 or DIN EN 12667), the system features unrivalled performance over an unmatched temperature range.
Combining state-of-the-art technology with the highest quality standards, NETZSCH has designed a robust and easy-to-operate instrument, featuring unparalleled reliability and optimum accuracy over a broad temperature range.
The GHP 456 Titan™ works with sheeted individually calibrated PT100 resistance temperature sensors (resolution 1 mK, accuracy in the range of a few 10 mK). Due to special sheeting, the sensors can be used up to 700°C (+ more than 100 K safety range).
The NETZSCH GHP 456 Titan™ is the new benchmark in Guarded Hot Plate measurements. |
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TCT 426 - Thermal Conductivity Tester: furnace/hot-wire method
The TCT 426 works according to the hot wire method and is especially designed for the investigation of refractory rock. The measuring cross, parallel wire, and T(R) methods can be used in the instrument. The TCT 426 is indispensable for the efficient use of energy in industrial kiln engineering with refractories.
The hot-wire method is an absolute method for direct determination of the thermal conductivity, based on the measurement of the temperature increase of a linear heat source/hot wire (cross-wire technique) or at a specific distance from a linear heat source (parallel-wire technique).
The hot wire and thermocouple are embedded between two test pieces, which make up the actual test assembly. The time-dependent temperature increase after the heating current is switched on is a measure of the thermal conductivity of the material being tested.
Another variation, the so-called "Platinum Resistance Thermometer Technique" or "T(R) Technique", is described in ASTM-C 1113. Here an integral temperature measurement is carried out over the entire length of the hot wire; i.e. the hot wire is both heat source and temperature sensor at the same time.
The TCT 426 thermal conductivity tester enables the use of all three of the methods described in easily interchangeable, pre-wired measuring frames. |
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Fascinating Flexibility in Thermal Analysis
DSC 404 F3 Pegasus® - High-Temperature DSC
The new DSC 404 F3 Pegasus® offers a high flexibility for all DSC and DTA applications in quality control and product development. Furnaces and DSC/DTA sensors are available for a broad temperature range (-150...2000°C). Numerous upgrade possibilities allow adaption of this cost-effective system to sophisticated applications.
The DSC 404 F3 Pegasus® is part of the economical NETZSCH F3-product line, which is specially tailored to the requirements of comparative material characterization and quality control.
The DSC 404 F3 Pegasus® can be operated from -150°C to 2000°C with various DTA and DSC sensors that are easily exchangeable by the user and various furnace types.
The sample chamber can be purged with inert or oxidizing gases in order to remove gases evolved from the sample.
The measuring system is vacuum tight (10-2mbar). |
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The new GHP 456 Titan™ is the ideal tool for researchers and scientists in the field of insulation testing. Based on the well-known, standardized guarded hot plate technique (e.g. ISO 8302, ASTM C 177 or DIN EN 12667), the system features unrivalled performance over an unmatched temperature range.
Combining state-of-the-art technology with the highest quality standards, NETZSCH has designed a robust and easy-to-operate instrument, featuring unparalleled reliability and optimum accuracy over a broad temperature range.
The GHP 456 Titan™ works with sheeted individually calibrated PT100 resistance temperature sensors (resolution 1 mK, accuracy in the range of a few 10 mK). Due to special sheeting, the sensors can be used up to 700°C (+ more than 100 K safety range).
The NETZSCH GHP 456 Titan™ is the new benchmark in Guarded Hot Plate measurements. |
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TCT 426 - Thermal Conductivity Tester: furnace/hot-wire method
The TCT 426 works according to the hot wire method and is especially designed for the investigation of refractory rock. The measuring cross, parallel wire, and T(R) methods can be used in the instrument. The TCT 426 is indispensable for the efficient use of energy in industrial kiln engineering with refractories.
The hot-wire method is an absolute method for direct determination of the thermal conductivity, based on the measurement of the temperature increase of a linear heat source/hot wire (cross-wire technique) or at a specific distance from a linear heat source (parallel-wire technique).
The hot wire and thermocouple are embedded between two test pieces, which make up the actual test assembly. The time-dependent temperature increase after the heating current is switched on is a measure of the thermal conductivity of the material being tested.
Another variation, the so-called "Platinum Resistance Thermometer Technique" or "T(R) Technique", is described in ASTM-C 1113. Here an integral temperature measurement is carried out over the entire length of the hot wire; i.e. the hot wire is both heat source and temperature sensor at the same time.
The TCT 426 thermal conductivity tester enables the use of all three of the methods described in easily interchangeable, pre-wired measuring frames. |
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"Highly recommended" by Cadalyst Magazine, thinkdesign® streamlines product development for small to mid-sized manufacturers (SMMs). Unlike other MCAD products, thinkdesign has been designed from the ground up. Working closely with our customers we've developed%u2014in a single package%u2014the efficiency of 2D AND the power and precision of 3D. With think3 technology users can easily switch to 3D, without losing even one hour of work! Compare our features and benefits. thinkdesign capabilities include:
2D/3D transparency in a single design environment. Unsurpassed interoperability between the two eliminates costly interfaces
thinkPLM foundation. Seamless integration with thinkPLM, our scalable, ready-to-use PLM solution
Advanced AutoCAD compatibility. Users can import 2D AutoCAD drawings into thinkdesign, modify and reuse those drawings as if they were native
Robust part modeling, advanced design tools and UI. Users can design any conceivable part in a single, easy-to-use design environment. Drawings can be created automatically from 3D models
Design flexibility for manufacturable sheet metal parts. Sheet Metal parts can be created from scratch or from existing parts, including IGES and STEP
Smart objects. Store engineering knowledge into the system, for faster adoption and higher quality in 3D modeling
Advanced large assembly capabilities. Users quickly navigate with Light Representations of components and Visual Bookmarks; Symbolic References enable any replacement of components, preserving assembly integrity
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DEFORM™-HT is a powerful stand-alone finite element modeling system for simulating heat treatment processes. The system predicts thermal, mechanical and metallurgical responses of parts during heat treatment. Heat treat distortion, quench cracking and residual stresses can be predicted. The system can also provide information on phase transformation and phase volume fraction.
A variety of materials ranging from carbon steel and aluminum to titanium and nickel
based alloys can be modeled. Typical heat treatment processes include:
- normalizing
- austenizing
- carburizing
- solution treatments
- quenching
- tempering
- aging
- stress relieving |
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Problems involving any combination of conduction, convection,
and radiation are solved easily with the Heat Transfer Module.
It finds extensive use in systems that involve the
generation and flow of heat in any form.
A variety of specialized modeling interfaces
are available for different formulations
and applications such as
surface-to-surface radiation,
nonisothermal flow, heat transfer
in structures made of thin layers
and shells, and heat transfer in
biological tissue.
The Heat Transfer Module allows for arbitrary couplings to other application modes in COMSOL Multiphysics and its modules for multiphysics modeling. This is particularly relevant to applications such as thermal management in the electronics industry, thermal processing and manufacturing, and medical technology and bioengineering.
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The state-of-the art IRBIS® 3 software package designed by InfraTec represents the ideal tool for fast analysis of thermographic image data and for comfortably drafting WORD reports. Packages of several levels are available with application specifi c expansion modules. IRBIS® 3 is compatible with all thermographic cameras of the InfraTec product range.
The revolutionary operating concept and intuitive menu navigation provides easy access to even untrained users. In combination with comprehensive analysis and processing functions, IRBIS® 3 guarantees highest efficiency in thermographic image evaluation and report generation. |
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