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Predicting graphene production with population balance modelling
Diego T. Perez-Alvarez
*
, Sofia Marchesini
, Keith R. Paton
, Jack Sykes
, Dawid Hampel
, Jennifer Burt
, Konstantinos Despotelis
, Diogo Fernandes
,
Philip Davies
,
Christopher Windows-Yule
,
Tzany Kokalova Wheldon
, Andrew J. Pollard
,
Jason Stafford
*
*
Corresponding author for this work
Mechanical Engineering
Physics and Astronomy
Civil Engineering
Chemical Engineering
Research output
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Contribution to journal
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Article
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peer-review
85
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Keyphrases
Population Balance Model
100%
Graphene Production
100%
Two Dimensional Materials
50%
Exfoliation Process
50%
Tracer Particles
25%
Fluid Dynamics
25%
Particle Size
25%
Concentration of Measure
25%
Dynamic Process
25%
Effective Solutions
25%
Operating Conditions
25%
Nuclear Magnetic Resonance
25%
Positron Emission Particle Tracking
25%
Particle Tracking
25%
Monitoring Change
25%
Radioactively Labeled
25%
Process Conditions
25%
Relaxation Measurements
25%
Feasible Solution
25%
Glass Beads
25%
Future Production
25%
Graphite Particles
25%
Proton Relaxation
25%
Graphene
25%
Ergodic
25%
Lagrangian Particle Tracking
25%
Laser Diffraction
25%
Mechanism Dynamics
25%
Graphite Flakes
25%
Graphene Nanoplatelets
25%
Area Scaling
25%
Sustainable Production
25%
Breakage Mechanism
25%
Material Production
25%
Quantity of Interest
25%
Material Distribution
25%
Exfoliating
25%
Few-layer Graphene
25%
Graphene Nanosheets
25%
Liquid-phase Exfoliation
25%
Optimized Synthesis
25%
Statistical Population
25%
Yield Production
25%
Industrial Adoption
25%
Material Science
Graphene
100%
Population Balance Modeling
100%
Two-Dimensional Material
50%
Fluid Dynamics
25%
Density
25%
Positron Emission Particle Tracking
25%
Proton Nuclear Magnetic Resonance
25%
Nanosheet
25%
Few-Layer Graphene
25%
Chemical Engineering
Graphene
100%
Population Balance
100%
Nanosheet
20%
Process Synthesis
20%