MindMap Gallery Polymer Rheology
This is a mind map about polymer rheology, including the basic concepts of rheology, Rheological model of polymer fluid, etc.
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Polymer Rheology
Basic concepts of rheology
Basic concepts of rheology
Rheological definition
Rheology is the science that studies the mechanical properties of substances in a flowing state
Rheological research includes stress, strain, flow rate, viscosity and other parameters
Application areas of rheology
Applications of Rheology in Engineering
Applications of Rheology in Materials Science
Study the mechanical properties and deformation behavior of materials
Predict material service life and failure modes
Applications of Rheology in Chemical Engineering
Study fluid flow and mixing processes
Optimize the design and operation of reactors and separation equipment
Applications of Rheology in Biomedicine
Study the flow of blood and the deformation behavior of biological tissues
Provide theoretical support and guidance for medical diagnosis and treatment
Research methods of rheology
experimental method
Rheometer experiment
Measure parameters such as stress, strain, flow rate, etc.
Analyze the rheological properties of materials
computer simulation
Study the deformation and flow behavior of materials using computer simulation techniques
Predict material properties and failure modes
Theoretical methods
Continuum Mechanics Method
Build mathematical models describing material deformation and flow
Solve the model to obtain the rheological properties of the material
molecular dynamics methods
Study the deformation and flow behavior of materials from a microscopic perspective
Revealing the microscopic mechanisms of material rheological properties
The development history of rheology
Early development of rheology
In the early 19th century, rheology began to develop as an independent discipline
Early rheology mainly studied the flow characteristics of simple fluids
The development of modern rheology
In the early 20th century, rheology began to focus on the deformation and flow behavior of complex fluids.
Modern rheology is closely integrated with materials science, chemical engineering, biomedicine and other fields to become a comprehensive discipline;
Rheological model of polymer fluids
Definition and characteristics of polymer fluid
Composition and structure of polymer fluids
Structure and properties of polymer chains
Shape and size of polymer chains
Flexibility and Rigidity of Polymer Chains
Rheological properties of polymer fluids
Viscosity properties of polymer fluids
Elastic properties of polymer fluids
Yield stress characteristics of polymer fluids
Rheological model classification of polymer fluids
Newtonian fluid model
Basic assumptions of Newtonian fluid model
Application scope of Newtonian fluid model
Non-Newtonian fluid model
Classification of non-Newtonian fluid models
Basic assumptions of non-Newtonian fluid models
Application scope of non-Newtonian fluid model
Rheological model analysis of polymer fluids
Rheological model experimental methods of polymer fluids
Rotational rheometer experimental method
Experimental principle of rotational rheometer
Rotational rheometer experimental steps
Capillary Rheometer Experimental Methods
Capillary rheometer experimental principle
Capillary Rheometer Experimental Procedures
Theoretical Analysis of Rheological Model of Polymer Fluids
Theoretical basis of rheological model of polymer fluids
Theoretical assumptions of the rheological model of polymer fluids
Theoretical derivation of rheological model of polymer fluid
Numerical simulation of rheological model of polymer fluid
Numerical simulation method of rheological model of polymer fluid
Numerical simulation steps for rheological models of polymer fluids
Application of Rheological Model of Polymer Fluids
Application of rheological models of polymer fluids in materials science
Application of Rheological Model of Polymer Fluids in Polymer Processing
Application of rheological model of polymer fluid in polymer extrusion
Application of rheological model of polymer fluid in polymer injection molding
Application of rheological model of polymer fluid in polymer fiber spinning
Application of rheological model of polymer fluid in engineering
Application of rheological model of polymer fluid in petroleum engineering
Application of rheological model of polymer fluid in oil production
Application of rheological model of polymer fluid in petroleum transportation
Application of rheological models of polymer fluids in biomedicine
Application of rheological models of polymer fluids in biopharmaceuticals
Application of rheological models of polymer fluids in biomaterials;
Flow analysis of polymer fluids
Definition and characteristics of polymer fluids
Composition and structure of polymer fluids
Polymer segment of polymer fluid
Interactions between segments of polymer fluids
Rheological properties of polymer fluids
Viscosity of polymer fluid
The elasticity of polymer fluids
Yield stress of polymer fluid
Flow model of polymer fluid
Flow equation of polymer fluid
Continuity equation of polymer fluid
Momentum equation of polymer fluid
Energy equation of polymer fluid
Boundary conditions for polymer fluids
Wall boundary conditions for polymer fluids
Inlet and outlet boundary conditions for polymer fluids
Flow Experimental Methods of Polymer Fluids
Rheometer experiments on polymer fluids
Shear rheometer experiment of polymer fluids
Extensional rheometer experiments on polymer fluids
Flow field measurement experiment of polymer fluid
Laser Doppler Velocimetry Experiment of Polymer Fluid
Particle image velocimetry experiment of polymer fluids
Numerical simulation of polymer fluid flow
Finite element method for polymer fluids
Finite element meshing of polymer fluids
Solving finite element equations of polymer fluids
Lattice Boltzmann method for polymer fluids
Lattice Boltzmann meshing of polymer fluids
Solving the Lattice Boltzmann equation for polymer fluids
Flow applications of polymer fluids
Process optimization of polymer fluids
Optimization of extrusion molding process of polymer fluid
Injection molding process optimization of polymer fluids
Transport and storage of polymer fluids
Optimization of pipeline transportation of polymer fluids
Optimization of storage tank design for polymer fluids;
Factors affecting polymer fluid flow
fluid properties
Fluid viscosity
shear viscosity of fluid
extensional viscosity of fluid
density of fluid
surface tension of fluid
fluid compressibility
fluid flow state
laminar flow state
Reynolds number of fluid
fluid flow resistance
Turbulent state
Fluid turbulence intensity
fluid turbulence scale
fluid flow speed
Fluid flow velocity distribution
axial flow velocity of fluid
Radial flow velocity of fluid
fluid flow acceleration
direction of fluid flow
Fluid flow direction angle
Fluid flow direction angular distribution
fluid flow path
Fluid flow boundary conditions
Fluid inlet boundary conditions
fluid inlet velocity
Fluid inlet pressure
Fluid outlet boundary conditions
Fluid exit velocity
Fluid outlet pressure
Wall boundary conditions for fluids
Fluid wall shear stress
Fluid wall friction coefficient
fluid flow environment
fluid temperature
isothermal flow of fluid
non-isothermal flow of fluids
fluid pressure
fluid static pressure
fluid dynamic pressure
fluid humidity
Relative humidity of fluid
Absolute humidity of fluid
fluid flow control
Fluid flow control methods
Fluid flow control equipment
Fluid flow control strategies
Fluid flow control effects
Fluid flow resistance is reduced
Fluid flow speed increases
Improved fluid flow stability;
Basic principles and applications of rheometer
Introduction to Rheometer
Rheometer definition
A rheometer is an instrument that measures the flow properties of materials
How a rheometer works
A rheometer measures the relationship between deformation and stress of a material by applying external force.
Classification of rheometers
rotational rheometer
Oscillating rheometer
capillary rheometer
Rheometer Applications
Rheometer Applications in Materials Science
Study the rheological properties of materials
Optimize material processing technology
Predicting the service life of materials
Rheometer applications in the food industry
Study the rheological properties of foods
Optimize food processing technology
Predicting the shelf life of food
Applications of rheometers in biomedicine
Study the rheological properties of biological tissues
Optimizing processing of biomedical materials
Predicting growth and repair of biological tissues
Rheometer applications in other fields
Oil industry
Cosmetics industry
Building materials industry
The development trend of rheometer
Intelligent
Use artificial intelligence technology to realize automated operation and analysis of rheometers
miniaturization
Miniaturization and portability of rheometers through miniaturization technology
Multifunctional
Integrate multiple measurement functions to achieve multi-functionality of the rheometer
Networking
Utilize network technology to realize remote control and data sharing of rheometers.
Equations of motion of fluids and their applications