Micromeritics AccuPore Capillary Flow Porometer
Micromeritics AccuPore enables high resolution, low noise pressure-flow curves for highly detailed through-pore size distributions that reflect physical pore architecture.
Manufacturer | Micromeritics |
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Product Series | Micromeritics AutoPore |
Measurement principle | Capillary Flow Porometry ASTM F316 |
Application | Density, pore size and volume, Surface Area & Porosity |
Pore size range | 0.013 µm to 500 µm |
Max Pressure (Ramp/ Step) | 500 psi / 35 bar |
BP100 Bubble Pressure Tensiometer
BP100 Bubble Pressure Tensiometer analyses the mobility of surfactants based on dynamic surface tension to optimise formulations used in spraying, coating, printing, or cleaning processes.
Manufacturer | KRUSS |
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Product Series | KRUSS Tensiometer |
Measurement principle | Dynamic surface tension (SFT) |
Application | Surface Tension - Contact Angle |
Temperature range | -10 to 130 °C |
Range (surface tension) | 10 to 100 mN/m (resolution 0.01 mN/m) |
BPT Mobile bubble pressure tensiometer
BPT Mobile Bubble Pressure Tensiometer provides a one-click check of the surfactant content in baths and monitors surface tension changes while dosing.
Manufacturer | KRUSS |
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Product Series | KRUSS Tensiometer |
Measurement principle | Dynamic surface tension using the Laplace pressure of a gas bubble at a capillary in a liquid |
Application | Surface Tension - Contact Angle |
Temperature range | 0 to 100 °C |
Min. recommended sample volume | 15 mL |
SDT Spinning Drop Tensiometer
SDT Spinning Drop Tensiometer is ideal for the measurement of interfacial tension over a wide range using image analysis for optimising emulsions and micro emulsions accurately.
Manufacturer | KRUSS |
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Product Series | KRUSS Tensiometer |
Measurement principle | Interfacial tension (IFT) calculated by image analysis |
Application | Surface Tension - Contact Angle |
Temperature control | -10 to 120 °C |
Range (interfacial tension) | 10-6 to 2000 mN/m (resolution 10-6 mN/m) |
K6 Force Tensiometer
K6 force tensiometer is a manual tensiometer for reliable basic measurement of surface and interfacial tension using the ring tear-off method.
Manufacturer | KRUSS |
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Product Series | KRUSS Tensiometer |
Measurement principle | Surface and interfacial tension |
Application | Surface Tension - Contact Angle |
Du Nouy ring range | 1 to 90 mN/m |
Resolution | 0.5 mN/m |
K20 Force Tensiometer
K20 Force Tensiometer is a stand-alone, semi-automatic instrument for all routine quality control tasks involving surface tension and interfacial tension.
Manufacturer | KRUSS |
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Product Series | KRUSS Tensiometer |
Measurement principle | Surface tension and interfacial tension and density |
Application | Surface Tension - Contact Angle |
Temperature range | ‑10 and 130 °C |
Tensiio Force Tensiometer
Tensíío is a modular tensiometer that enables the analysis of surface and interfacial tension, wettability and many other properties of solids and liquids.
Manufacturer | KRUSS |
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Product Series | KRUSS Tensiometer |
Measurement principle | Surface tension and interfacial tension using the ring, plate, and rod method |
Application | Surface Tension - Contact Angle |
Temperature control | -15 and 300 °C |
Range | 1 to 2000 mN/m |
DFA 100 Dynamic Foam Analyser
DFA
Manufacturer | KRUSS |
---|---|
Product Series | KRUSS Foam Analyser |
Measurement principle | Tensiometry - Force & Optical |
Application | Surface Tension - Contact Angle |
Illumination | LED |
Wavelength | 469 nm (optional IR: 850 nm); 633 nm FSM model |
Ayriis 3D Contact Angle
Ayríís uses novel 3D Contact Angle technology to quickly evaluate the wettability of pretreated, cleaned, or coated surfaces.
Manufacturer | KRUSS |
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Product Series | KRUSS Drop Shape Analyser |
Measurement principle | 3D contact angle |
Application | Surface Tension - Contact Angle |
Illumination | 90 high power LEDs + 2 lasers |
Dosing system | water single pressure dosing, 0.1 μL resolution |
MSA Mobile Surface Analyser
The MSA is a fast, easy-to-use hand-held unit for measuring surface free energy (SFE) with one click for wettability analysis in quality control.
Manufacturer | KRUSS |
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Product Series | KRUSS Drop Shape Analyser |
Measurement principle | Contact angle and SFE according to Owens-Wendt- Rabel-Kaelble, Wu, Zisman, and Fowkes |
Application | Surface Tension - Contact Angle |
Illumination | high power LED, adjustable |
Dosing system | Liquid needle, 0.1 μL resolution |
Customer Installations
UWS, Advanced Materials Characterisation Facility (AMCF) have installed their new bench-top Phenom XL Scanning Electron Microscope (SEM).
Phenom XL Desktop SEM
The UWS through collaboration with Phenom-World BV, and ATA Scientific has been able to secure a 2 year placement of the bench-top Scanning Electron Microscope (Phenom SEM)
Phenom GSR SEM
UNSW, School of Chemical Engineering has installed their new KSV NIMA Langmuir-Blodgett Trough
Biolin-KSV NIMA LB Trough
LaTrobe University, School of Molecular Sciences, have installed their new NTA system to investigate extracellular vesicles (exosomes, microvesicles)
Malvern NanoSight NS300
Material Science
Material science is the study of all materials, from those we see and use every day, to those used in aerospace and medicine. It involves the synthesis, processing, structure, properties and performance of materials, and investigates the relationship between the structure of materials at atomic or molecular scales and their macroscopic properties.
By understanding how materials work, we can create new materials for new applications, as well as develop existing materials to improve performance. Material science equipment can control the structure of a material from an atomic level up, so its properties can be tailored to suit a particular application.
Material science provides major benefits for many industries and societal challenges, including:
- Healthcare
- Biotechnology
- Communication and information technology
- Aerospace and transport
- Advanced manufacturing
- Renewable and sustainable energy
- The environment and climate change
- Materials efficiency
Sub-fields of material science
A number of subfields of material science have developed over time, including:
Nanotechnology
Everything on Earth is made up of atoms – the food we eat, the clothes we wear, and the houses we live in. As a sub-field of material science, nanotechnology studies these atoms by analysing materials at a nanoscale, from around one micron (one-millionth of a metre) to one nanometre in size (one billionth of a metre). It involves imaging, measuring, modelling and manipulating matter, including atoms and molecules, at this scale. Due to the size of the materials and particles at this level, the reactivity effects are stronger and can be used to generate entirely new, thinner materials. This includes soft electronics, plasmonic superlattices (ultrathin nanomaterials that interact with light), gold, silver, polymer nanoparticles and nanowires, as well as tiny capsules like liposomes used to deliver targeted therapeutic drugs.
Crystallography
Crystals can be found everywhere in nature, from salt to snowflakes and gemstones. Crystallography is the study of the structure and properties of these crystals, including how atoms fill space in solids and the defects associated with crystal structures. Crystallographers use the properties and inner structures of crystals to determine the arrangement of atoms and generate knowledge that can be used by chemists, physicists and biologists. As a science, crystallography has produced 28 Nobel Prizes.
Materials characterisation
An important aspect of materials science is the characterisation of the materials we study. There is a range of techniques that enable this characterisation, including scanning electron microscopy (SEM), energy dispersive spectroscopy (EDS), and transmission electron microscopy (TEM).
Biomaterials
Biomaterials is the study of materials derived from or used with biological systems. Biomaterials may be polymers, metals, ceramics or living cells. They play an integral role in medicine today, restoring function and facilitating healing for people after injury or disease.
Surface science
Surface science is the study of the physical and chemical phenomena that occur at the interface of two phases, including solid-solid, solid-liquid and solid-gas interfaces. It includes surface chemistry and surface physics. The traditional measurement of surface tension is the du Noüy ring method, which involves pulling an object with a well-defined geometry off the surface of liquids and measuring the pull force.
Rheology
Rheology is the study of the physical properties of matter that flows, either in liquid form or as soft solids. Methods of rheology testing can measure the deformation of matter under the influence of imposed stress by analysing the internal response of materials to forces.
Material science equipment
ATA Scientific provides the instruments and on-going support you need to achieve reliable material science measurement. Analytical equipment we support that can be used for material science research and applications include:
- Malvern Zetasizer Ultra
- Malvern Omnisec – Advanced Multi-Detection SEC/GPC
- Phenom XL Desktop SEM
- Micromeritics TriStar
- Micromeritics 3 Flex
- KRUSS Tensiio Force tensiometer
- KRUSS DSA100 Drop Shape Analyser
- KRUSS DFA Dynamic Foam Anlayser
- KRUSS BP100 Bubble Pressure Tensiometer
Need help finding the right analytical equipment for your application? Call us now on 02 9541 3500 or request a free consultation.
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