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Consists of an infrared laser (808 nm, power P=1.6 W), and a thermal imaging camera (Flir, USA) capable of taking temperature measurements every 0.0625 s with high resolution.
Consists of It consist of a double four-turn coil made of copper, and an AC current generator. A magnetic field is generated as the result of an alternating passing through the coil, which is made of copper tube for circulating water from a thermostated bath, used as a cooling system.
The capacitor bank allows to select frequencies in the range 100-300 kHz, and the inductance of the coil can also be varied.
The NANORO M supports a range of objective lenses, from low resolution (10x) to super resolution (SMAL) .
Its microsphere lenses allow the NANORO M to image beyond the diffraction limit whilst maintaining colour information.
This very flexible Modular Advanced Rheometer System (MARS) provides easy handling, accuracy, and a number of application-oriented solutions for complete material characterization. The New Connect Assist functionality permits easy, error-free exchange of measuring geometries and temperature modules to accelerate the workflow. The flexibility of the HAAKE™ MARS™ suits the rapidly changing testing needs.
One-piece frame with enhanced force balance and stability and Nano torque performance for sensitive samples.
Controlled test chamber (-150 °C to +600 °C).
Open system architecture accepts a wide range of temperature and measuring geometries to improve accuracy and measuring abilities
The fastest one-hand coupling and decoupling of measuring geometries in just one second – even at extreme temperatures (-160 °C to 1000 °C).
Precisely measure even low-viscosity samples with our entry-budget model: Higher sensitivity (from 7.5 nNm to 2 nNm).
Stable results even for long-term measurements with low torque.
Trimming mirror for a 360° view of the sample with no blind spots.
Detection of any sample behavior change even at the shortest time scales: Reproducible duration of each measuring point down to 1 ms.
Zetasizer is used to measure the particle size of dispersed systems from sub-nanometer to several micrometers in diameter, using the technique of Dynamic Light Scattering (DLS). Zetasizer systems are also used to analyze particle mobility and charge (Zeta potential) using the technique of Electrophoretic Light Scattering (ELS), and the molecular weight of particles in solution using Static Light Scattering (SLS).
This high-speed centrifuge allows centrifugal fields of more than 70,000 x g for microliter tubes. In addition, the high-speed centrifuge offers a powerful cooling system. Depending on the rotor and speed, centrifugation can be performed at temperatures below 0°C. Vessel capacities range from 0.2 mL to 94 mL on the angle rotor or 0.2 mL to 100 mL on the swing-bucket rotor. Microtiter plate and DeepWell type centrifugation is also possible.
Beam Type: Double
Bandwidth: 4.0nm
Minimum wavelength: 190nm
Maximum wavelength: 1100nm Wavelength Accuracy: ±1.0nm
The AcoustoSizer IIs provides thorough characterization of concentrated colloidal dispersions. Directly measuring particle size, zeta potential, pH, conductivity, and temperature, it furnishes the most comprehensive analysis available in a single, turnkey instrument. Based on a flow-through sensor design, the AcoustoSizer IIs can be used in a laboratory batch analysis mode or connected directly to a process slipstream. Built-in syringe pumps provide automated potentiometric and volumetric titration capabilities for accurate isoelectric point and surfactant addition determination.
Concentration 1.0 to 40% volume
Particle Size from 0.02 to 10 microns
The Mastersizer 3000 uses the technique of laser diffraction to measure the particle size and particle size distribution of materials. It does this by measuring the intensity of light scattered as a laser beam passes through a dispersed particulate sample. This data is then analyzed to calculate the size of the particles that created the scattering pattern.
Mastersizer 3000 delivers measurements from 10 nm to 3.5 mm using a single optical measurement path, making it suitable for an extremely wide range of applications.