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Flash DSC1

Flash DSC1
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Flash DSC1

Product catalog summary
Introduction to Flash DSC 1
The Flash Differential Scanning Calorimetry (DSC) 1 is an advanced instrument for thermal analysis, crucial in research and development. It measures heat flow related to temperature or time, enabling the quantitative analysis of physical transitions and chemical reactions.
Key Features and Benefits
  • Ultra-high Cooling and Heating Rates: Facilitates material preparation with specific structural properties and reduces measurement duration.
  • Fast Response Sensor: Suitable for studying rapid reactions or crystallization processes.
  • High Sensitivity: Effective at low heating rates, compatible with conventional DSC scan rates.
  • Wide Temperature Range: Operates from -95 to 450 °C.
  • User-friendly Design: Eases sample preparation and operation.
MEMS-Based DSC Sensor Technology
The device uses a MEMS-based chip sensor for exceptional heating and cooling rates, enhancing measurement accuracy by minimizing noise.
Complete Thermal Analysis System
Integrates techniques like TGA, TMA, and DMA for comprehensive analysis, with a large touchscreen for easy operation.
Ergonomics and Support
Ergonomic sample preparation with precise positioning using a microscope. METTLER TOLEDO provides extensive support services.
Innovative Measurement Principles
High heating and cooling rates allow analysis of various sample structures in one experiment, optimizing thermal contact.
Optimized Evaluation Software
STARe software facilitates efficient evaluation of complex programs and large datasets.
Application Possibilities
Ideal for characterizing modern materials, optimizing production processes, and analyzing rapid crystallization and reaction kinetics.
Conclusion
The Flash DSC 1 is a significant advancement in thermal analysis technology, offering unmatched performance and versatility.
Isothermal Crystallization of iPP
Discusses the isothermal crystallization of isotactic polypropylene (iPP), with crystallization temperatures between 110°C and -20°C at 2000 K/s. Crystallization is measured isothermally, with exothermic peaks between 0.05 s and 10 s, peaking at around 20°C.
Nanofillers in PA
Explores the enhancement of polyamide 11 (PA 11) properties with nanoparticles. At low cooling rates, crystallization enthalpy remains constant up to 50 K/s but decreases at higher rates. Nanoparticles accelerate crystallization at high cooling rates.
Melting and Decomposition of Organic Substances
Highlights challenges in determining melting behavior when decomposition occurs within the melting range. High heating rates shift decomposition to higher temperatures, allowing separation of melting and decomposition effects.
Flash DSC 1 Specifications
Features a temperature range from room temperature +5 K to 500°C, with various cooling and heating rates. It uses a ceramic sensor with 16 thermocouples and supports sample sizes from 10 ng to 1 µg.
Quality and Environmental Management
Development, production, and testing adhere to ISO 9001 standards, with an environmental management system according to ISO 14001.
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Catalog excerpts

Flash DSC1-1

Thermal Analysis Excellence Flash DSC 1 STARe System Innovative Technology Versatile Modularity Swiss Quality Flash Differential Scanning Calorimetry for Research and Development

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Flash DSC1-2

A Quantum Leap in Innovation Opens up New Frontiers Differential Scanning Calorimetry, DSC, is the most important method in thermal analysis. It measures the heat flow to or from a sample as a function of temperature or time and thereby allows physical transitions and chemical reactions to be quantitatively measured. The Flash DSC  revolutionizes rapid-scanning DSC. The instrument can analyze reorganization processes that 1 were previously impossible to measure. The Flash DSC  is the ideal complement to conventional DSC. Heating 1 rates now cover a range of more than 7 decades. Features and benefits...

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Flash DSC1-3

MEMS-Based DSC Sensor Technology Unsurpassed Heating and Cooling Rates In conventional DSC instruments, the sample is measured in a crucible in order to protect the sensor. The heat capacity and thermal conductivity of the crucible however have a significant influence on the measurement. In the Flash DSC 1, the sample is placed directly onto the MultiSTAR chip sensor. The patented dynamic power compensation control circuit allows measurements to be performed with minimum noise level at high heating and cooling rates. MultiSTAR UFS 1 Sensor The Full Range UFS 1 sensor has 16 thermocouples and...

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Flash DSC1-4

Swiss Quality Flash DSC the Fastest 1 from METTLER TOLEDO Commercial DSC Sensor environment The sensor support is heatable. In the low-temperature operation, the sensor support can be brought to room temperature before the sensor is inserted. This prevents the gold contact pins from icing over. Terminal The large easy-to-read color touchscreen terminal at the front of the Flash DSC 1 indicates the status of the instrument. If the instrument is not next to your PC, — you can enter individual sequences and queries directly via the terminal. f'osh DSC l STAR* SystOT Complete thermal analysis system...

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Flash DSC1-5

Ergonomic Perfection Is What Customers Value Perfect ergonomics The preparation and insertion of a sample is performed sitting comfortably in front of the instrument. The sample is first cut to size on a small glass microscope slide placed over the sensor. A suitable sample specimen is then transferred directly to the sensor and positioned using a hair. AGC Thermal Analysis Book 20% Cyan Sample preparation Sample preparation is carried out using a microscope. The microscope is also used to accurately position the very small sample specimen on the sensor. Application Handbook Thermal Analysis...

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Flash DSC1-6

Unbelievable Performance Leads to New Results Measurement principle High heating or cooling rates are only possible when the sample is sufficiently small and is in good thermal contact with the sensor. In the first heating run, the sample melts. Thermal contact with the sensor is thereby greatly improved. Defined sample structures can then be produced by varying the cooling rate over a wide range. Sample preparation Formation of sample structure Melting of the sample optimizes thermal contact. Different cooling rates allow defined sample structures to be formed. High heating rates suppress the...

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Flash DSC1-7

Optimized Evaluation Software Brings Efficiency into the Laboratory Software support In a typical Flash DSC experiment, the measurement results are analyzed as a function of the heating or cooling rate or the isothermal time. The experiment is usually performed very quickly. Sample preparation needs somewhat more time. Evaluation and interpretation takes longest but is at the same time the most interesting part of the work. The STARe software has been expanded to include new requirements. For example, complex measurement programs are set up within a few minutes and large numbers of curves can...

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Flash DSC1-8

Modularity and Expansion Many Options Microscope options You can adapt the microscope attachment according to your needs. There are two options: 1. Not modular, but excellent value 2. Modular, with adjustable viewing angle, different illumination possibilities, and cameras. Video module Filter slide housing Video/photo tube Video/photo tube Light housing Temperature range and cooling options The IntraCooler is an electrical cooling device with a closed-loop cooling system. The vaporized coolant is liquefied by means of compressors and heat exchangers. Three temperature ranges are available: Air...

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Flash DSC1-9

Chip sensor box Since the chip sensors can only be used for one sample, it is a good idea to store them safely just in case you want to make more measurements afterward with the same sample. This avoids having to use a new sensor. Up to ten chip sensors with adhering sample material can be stored in the sensor box for experiments later on. Standard accessories The following tools needed to prepare thin layers are supplied with the instrument as standard equipment: • knife with spare blades • lancet-shaped needle • tweezers • leather cloth • grinding stone • brush • hair holder • glass support...

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Flash DSC1-10

Application Power New Materials for the Future Flash DSC Has the Answers The Flash DSC  is the ideal addition for characterizing modern materials and optimizing 1 production processes by thermal analysis. Polymers, polymorphic substances, and many composites and blends have metastable structures that depend on the cooling conditions used in their production. On heating, reorganization processes such as the melting and recrystallization of unstable crystallites or the separation of phases may occur. The influence of reorganization on the heating curve can be analyzed by varying the heating rate....

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Flash DSC1-11

Melting of indium at different heating rates The melting of indium (1 pg) was measured at different heating rates between 0.05 K/s and 10 000 K/s. As in conventional DSC, the conduction of heat between the sensor and the sample (thermal lag) influences the measured onset temperature, Ton. Without correction, Ton increases linearly with the heating rate. The same is true for the Flash DSC 1. To accommodate the large heating rate range, the abscissa is displayed logarithmically in the diagram. For this reason, the linear function appears as a curve (blue). Crystallization of isotactic polypropylene...

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*Prices are pre-tax. They exclude delivery charges and customs duties and do not include additional charges for installation or activation options. Prices are indicative only and may vary by country, with changes to the cost of raw materials and exchange rates.