What is he best known for?
The fields of study he is best known for:
- Thermodynamics
- Polymer
- Optics
Thomas G. Mason mainly focuses on Viscoelasticity, Classical mechanics, Volume fraction, Shear modulus and Colloid.
The Viscoelasticity study combines topics in areas such as Molecular physics, Strain rate, Diffusing-wave spectroscopy and Complex fluid.
Thomas G. Mason works mostly in the field of Complex fluid, limiting it down to concerns involving Thermal fluctuations and, occasionally, Shear stress, Mean squared displacement, Fluid mechanics and Einstein.
His research investigates the connection between Classical mechanics and topics such as Hard spheres that intersect with issues in Glass transition and Component.
His research integrates issues of Shear flow, Elasticity and Random close pack in his study of Volume fraction.
His Colloid research incorporates elements of Self-assembly, Nanotechnology, Chemical physics and Microscale chemistry.
His most cited work include:
- Optical measurements of frequency-dependent linear viscoelastic moduli of complex fluids. (1045 citations)
- Optical measurements of frequency-dependent linear viscoelastic moduli of complex fluids. (1045 citations)
- Particle Tracking Microrheology of Complex Fluids (574 citations)
What are the main themes of his work throughout his whole career to date?
His primary scientific interests are in Nanotechnology, Colloid, Classical mechanics, Chemical physics and Volume fraction.
His work investigates the relationship between Nanotechnology and topics such as Emulsion that intersect with problems in Composite material.
Thomas G. Mason combines subjects such as Nanoparticle, Electrophoresis and Molecular physics with his study of Colloid.
Thomas G. Mason combines subjects such as Mechanics, Shear stress, Viscoelasticity, Mean squared displacement and Shear modulus with his study of Classical mechanics.
His research in Viscoelasticity tackles topics such as Complex fluid which are related to areas like Thermal fluctuations.
In his research on the topic of Volume fraction, Glass transition and Amorphous solid is strongly related with Condensed matter physics.
He most often published in these fields:
- Nanotechnology (17.17%)
- Colloid (18.18%)
- Classical mechanics (18.69%)
What were the highlights of his more recent work (between 2014-2021)?
- Chemical physics (15.15%)
- Colloid (18.18%)
- Nanotechnology (17.17%)
In recent papers he was focusing on the following fields of study:
Thomas G. Mason spends much of his time researching Chemical physics, Colloid, Nanotechnology, Condensed matter physics and Volume fraction.
His research integrates issues of Polystyrene, Electrophoresis, Gel electrophoresis and Agarose in his study of Colloid.
The concepts of his Nanotechnology study are interwoven with issues in Microemulsion, Equation of state, Soft matter and Lithography.
The Condensed matter physics study combines topics in areas such as Amorphous solid, Mean free path, Scattering and Rheometry.
His research investigates the connection with Mean free path and areas like Structure factor which intersect with concerns in Viscoelasticity.
Thomas G. Mason studied Volume fraction and Glass transition that intersect with Stress, Laplace pressure, Phase transition and Flow.
Between 2014 and 2021, his most popular works were:
- The physical origins of transit time measurements for rapid, single cell mechanotyping. (40 citations)
- Advances and challenges in the rheology of concentrated emulsions and nanoemulsions. (31 citations)
- Assembly of colloidal particles in solution. (26 citations)
In his most recent research, the most cited papers focused on:
- Thermodynamics
- Polymer
- Organic chemistry
Thomas G. Mason spends much of his time researching Condensed matter physics, Nanotechnology, Chemical physics, Glass transition and Soft matter.
The various areas that Thomas G. Mason examines in his Condensed matter physics study include Volume fraction, Amorphous solid and Crystallization.
His work on Monolayer as part of general Nanotechnology study is frequently connected to Vertex, therefore bridging the gap between diverse disciplines of science and establishing a new relationship between them.
His Chemical physics research incorporates elements of Shear, Amplitude, Dynamic light scattering, Colloid and Attenuation.
His Soft matter study integrates concerns from other disciplines, such as Microfluidics, Lithography, Viscoelasticity and Colloidal particle.
His studies deal with areas such as Mean free path, Structure factor and Diffusing-wave spectroscopy as well as Viscoelasticity.
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