
Polymer Processing Course
Master every major polymer processing technology — from extrusion and injection molding to blow molding, compounding, and advanced simulation. This course gives engineers and technologists the technical depth to optimize processes, troubleshoot defects, and drive production quality. Build the skills that manufacturing operations demand, backed by rigorous polymer science and rheology fundamentals.
What you will learn:
You will develop a thorough understanding of polymer structure, thermal behavior, and rheology and learn how those fundamentals directly control processing outcomes. The course covers single-screw and twin-screw extrusion, injection molding cycle optimization, blow molding, thermoforming, calendering, and reactive compounding. You will apply design-of-experiments methods and statistical process control to real production challenges. Mold design, tooling maintenance, sustainability practices, and Industry 4.0 digitalization are also addressed. By the end, you will be equipped to make confident, data-driven decisions across the full polymer processing operation.
How you study in practice Polymer Processing Course
How you practice Polymer Processing Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFundamentals of Polymer Science
Fundamentals of Polymer Science
Lesson 1 • Polymer Additives and Compounding
Surveys stabilizers, plasticizers, fillers, and colorants used in commercial formulations. Prepares students to read and modify compound recipes.
Lesson 2 • Polymer Structure and Classification
Covers chain architecture, monomer types, and polymer families. Establishes vocabulary and classification logic used throughout all processing chapters.
Lesson 3 • Thermal Transitions in Polymers
Identifies glass transition, melting, and degradation temperatures. Connects thermal transitions to processing window selection.
Lesson 4 • Molecular Weight and Distribution
Explains number-average and weight-average molecular weight and their measurement. Links molecular weight distribution to melt viscosity and processability.
Chapter 2HideHide detailsSee detailsRheology for Polymer Processing
Rheology for Polymer Processing
Lesson 1 • Rheological Measurement Techniques
Covers capillary, rotational, and oscillatory rheometry for polymer characterization. Students select appropriate instruments for specific processing problems.
Lesson 2 • Temperature and Pressure Effects on Viscosity
Quantifies how temperature and pressure shift viscosity using WLF and Arrhenius models. Enables accurate process temperature selection.
Lesson 3 • Viscoelastic Behavior of Melts
Explains elastic recovery, die swell, and melt fracture as viscoelastic phenomena. Connects these behaviors to defect prevention in processing.
Lesson 4 • Flow in Processing Geometries
Analyzes flow through dies, runners, and channels using power-law and Carreau models. Directly supports die design and injection mold filling analysis.
Lesson 5 • Fundamentals of Viscous Flow
Introduces shear stress, shear rate, and viscosity concepts for polymer melts. Provides the mechanical framework for all subsequent flow analysis.
Chapter 3HideHide detailsSee detailsExtrusion: Principles and Equipment
Extrusion: Principles and Equipment
Lesson 1 • Extrusion Process Control and Troubleshooting
Identifies key process variables and common defects such as surging, gels, and melt fracture. Equips students to diagnose and correct extrusion instabilities.
Lesson 2 • Single-Screw Extruder Design
Describes feed, compression, and metering zones and their functional roles. Establishes the baseline machine configuration for all extrusion-based processes.
Lesson 3 • Twin-Screw Extruder Configurations
Compares co-rotating and counter-rotating intermeshing designs and their mixing characteristics. Guides selection between single- and twin-screw systems for compounding tasks.
Lesson 4 • Die Design and Pressure Generation
Covers breaker plates, screen packs, and die land geometry for pressure buildup and flow uniformity. Directly enables students to design and troubleshoot extrusion dies.
Lesson 5 • Melting and Mixing in Extrusion
Analyzes conductive and viscous dissipation melting and distributive vs. dispersive mixing. Connects mixing quality to product homogeneity and defect rates.
Chapter 4HideHide detailsSee detailsInjection Molding: Process and Tooling
Injection Molding: Process and Tooling
Lesson 1 • Process Parameter Optimization
Applies design-of-experiments methods to injection molding parameter windows. Students identify optimal settings for dimensional accuracy and surface quality.
Lesson 2 • Injection Molding Machine Components
Identifies injection unit, clamping unit, and control system functions. Provides the machine literacy needed to set and interpret all process parameters.
Lesson 3 • Injection Molding Cycle Stages
Breaks down plastication, injection, packing, cooling, and ejection phases. Connects each stage to part quality attributes such as sink marks and warpage.
Lesson 4 • Injection Molding Defects and Remedies
Catalogs short shots, flash, sink marks, weld lines, and jetting with root causes. Provides systematic troubleshooting logic applicable to production environments.
Lesson 5 • Mold Design Fundamentals
Covers runner systems, gate types, cooling channels, and venting. Enables students to evaluate and specify mold designs for quality and cycle efficiency.
Chapter 5HideHide detailsSee detailsBlow Molding and Thermoforming
Blow Molding and Thermoforming
Lesson 1 • Extrusion Blow Molding Fundamentals
Explains parison formation, mold closing, and blowing stages for hollow containers. Connects parison sag and wall thickness distribution to process settings.
Lesson 2 • Injection Stretch Blow Molding
Covers preform design, stretch rod mechanics, and biaxial orientation for PET bottles. Links orientation to barrier properties and mechanical performance.
Lesson 3 • Quality Control in Hollow Part Production
Identifies wall thickness variation, pinch-off quality, and top-load strength as key metrics. Establishes inspection and statistical control methods for production lines.
Lesson 4 • Material Selection for Blow and Thermoforming
Evaluates HDPE, PP, PET, and PS for blow molding and thermoforming suitability. Guides material choice based on barrier, clarity, and recyclability requirements.
Lesson 5 • Thermoforming Process Mechanics
Analyzes sheet heating, forming, and trimming for vacuum and pressure thermoforming. Connects material sag, draw ratio, and thickness distribution to part quality.
Chapter 6HideHide detailsSee detailsCalendering, Coating, and Film Processes
Calendering, Coating, and Film Processes
Lesson 1 • Extrusion Coating and Lamination
Explains curtain and extrusion coating onto substrates for packaging and barrier applications. Connects adhesion, neck-in, and draw-down to coating quality.
Lesson 2 • Calendering Process and Equipment
Describes roll stack configurations, nip pressure, and bank temperature for PVC and rubber calendering. Connects roll geometry to gauge uniformity and surface finish.
Lesson 3 • Film and Sheet Quality Metrics
Defines gauge variation, tensile properties, optical properties, and seal strength as film quality standards. Prepares students to specify and audit film production quality.
Lesson 4 • Cast Film Extrusion
Covers slot die design, chill roll quenching, and edge pinning for cast film production. Links die lip adjustment to gauge profile and optical clarity.
Lesson 5 • Blown Film Extrusion
Analyzes bubble stability, blow-up ratio, and frost line height for blown film. Connects process variables to film orientation, strength, and gauge uniformity.
Chapter 7HideHide detailsSee detailsReactive Processing and Compounding
Reactive Processing and Compounding
Lesson 1 • Nanocomposite Processing
Explains intercalation and exfoliation of nanoclays and graphene in polymer matrices. Connects processing conditions to nanoparticle dispersion and barrier or mechanical enhancement.
Lesson 2 • Polymer Blend Morphology and Processing
Analyzes droplet breakup, coalescence, and co-continuous morphology formation during melt blending. Links interfacial tension and viscosity ratio to final blend morphology.
Lesson 3 • Filler and Fiber Compounding
Addresses dispersion of mineral fillers, glass fibers, and carbon fibers in twin-screw compounders. Connects fiber length retention and filler dispersion to composite mechanical properties.
Lesson 4 • Reactive Extrusion Fundamentals
Covers grafting, chain extension, and controlled degradation reactions conducted in extruders. Connects residence time distribution and mixing intensity to reaction conversion.
Lesson 5 • Compounding Line Design and Scale-Up
Covers feeder selection, side-stuffer design, strand pelletizing, and underwater pelletizing for compounding lines. Prepares students to specify and commission production compounding systems.
Chapter 8HideHide detailsSee detailsAdvanced Processing and Process Optimization
Advanced Processing and Process Optimization
Lesson 1 • Statistical Process Control in Polymer Processing
Applies control charts, capability indices, and measurement system analysis to processing lines. Enables students to maintain process stability and meet dimensional tolerances.
Lesson 2 • Energy Efficiency in Processing Operations
Quantifies specific energy consumption for extrusion, injection molding, and compounding. Identifies drive, heating, and cooling system improvements to reduce energy use.
Lesson 3 • Mold Filling and Process Simulation
Uses flow simulation software to predict fill patterns, weld lines, and cooling for injection molding. Connects simulation outputs to mold design revisions and cycle time reduction.
Lesson 4 • Digitalization and Industry 4.0 in Processing
Introduces sensor integration, real-time data acquisition, and machine learning for process monitoring. Prepares students to implement smart manufacturing concepts on polymer processing lines.
Lesson 5 • Design of Experiments for Process Optimization
Applies full factorial, fractional factorial, and response surface designs to polymer processing. Students identify critical process parameters and build predictive process models.
Your valid completion certificate
This course is for you:
Process Engineer: wants deeper command of polymer manufacturing variables.
Materials Science Graduate: ready to bridge academic knowledge with industrial practice.
Quality Technician: needs to connect defect patterns to root processing causes.
Mechanical Engineer: transitioning into plastics manufacturing from a different industry.
Product Development Specialist: designing parts and needing to understand production constraints.
Plant Supervisor: seeking technical grounding to lead polymer operations more confidently.
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