100 Specialized Terms and Phrases Used in Plastics Processing – Manufacturing & Production Technologies
Plastics Processing Glossary – 100 Key Terms Explained
Plastics processing is at the heart of modern manufacturing, enabling the production of everything from everyday consumer goods to advanced industrial components. Understanding the key terminology used in plastics processing is essential for engineers, production managers, machine operators, and anyone involved in polymer manufacturing.
This course provides a structured overview of 100 key terms related to plastics processing, covering raw materials, production technologies, mechanical and thermal properties, and quality control methods.
👉 Complete course details and registration link available here!
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Below, you’ll find a comprehensive glossary of specialized terms that will help you navigate key concepts in polymer processing, material properties, and advanced manufacturing techniques.
👉 Complete course details and registration link available here!
📌 51–75: Properties of Plastics and Their Impact on Processing
- Plastic density – The mass of a polymer per unit volume (g/cm³).
- Melt viscosity – Determines the flowability of molten polymer during processing.
- Melt Flow Index (MFI) – A parameter indicating the polymer’s flow characteristics.
- Elastic modulus (Young’s modulus) – Measures the stiffness of the material.
- Yield strength – The stress at which a material begins to deform permanently.
- Tensile strength – The resistance of a material to breaking under tension.
- Impact resistance (Charpy/Izod test) – Measures resistance to sudden mechanical impact.
- Abrasion resistance – The ability of plastic to withstand wear and surface friction.
- Hardness (Shore D, Rockwell test) – Measures resistance to surface deformation.
- Fatigue resistance – The material's ability to endure repeated loading cycles.
- Chemical resistance – The polymer’s tolerance to exposure to chemicals.
- Thermal stability – Resistance to degradation at high temperatures.
- Melting temperature (Tm) – The temperature at which a polymer transitions to a liquid state.
- Glass transition temperature (Tg) – The temperature at which a polymer changes from rigid to flexible.
- Thermal conductivity – A polymer’s ability to transfer heat.
- Shrinkage in processing – The change in material dimensions after molding or extrusion.
- Coefficient of thermal expansion (CTE) – The extent to which a polymer expands when heated.
- Degree of crystallinity – Affects mechanical strength and optical properties.
- Gas barrier properties – The ability to prevent gas permeation.
- Moisture barrier properties – Essential in protective packaging.
- Oxygen permeability – Critical in food and pharmaceutical packaging.
- UV resistance – The ability of plastics to withstand UV-induced degradation.
- Hydrolysis resistance – Important for polymers exposed to moisture.
- Printability – The ease of applying high-quality prints to plastic surfaces.
- Colorability – The ability of plastics to be evenly colored or dyed.
📌 76–100: Advanced Technologies, Quality Control, and Applications of Plastics
- Polymer nanocomposites – Plastics enhanced with nanoparticles to improve properties.
- Carbon fiber composites – Lightweight and strong composites used in aerospace and automotive industries.
- Glass fiber-reinforced plastics (GFRP) – Plastics reinforced with glass fibers.
- Biodegradable plastics – Polymers that decompose in natural environments.
- Compostable polymers – Materials that break down under composting conditions.
- Mechanical recycling of plastics – The process of grinding and reprocessing plastic waste.
- Chemical recycling of plastics – Breaking down polymers into their basic chemical components.
- Electrostatic separation of plastics – Technology for sorting different polymer types.
- Aging resistance tests – Evaluating the long-term durability of plastics.
- Mechanical property testing of polymers – Assessing tensile, impact, and fatigue resistance.
- FTIR spectroscopy – A method for identifying the chemical composition of plastics.
- Gas chromatography – Analyzing volatile compounds in polymers.
- Flammability testing – Determining the fire resistance of plastic materials.
- Engineering plastics – High-performance polymers used in technical applications.
- Superabsorbent polymers (SAPs) – Used in diapers and hygiene products.
- Self-healing polymers – Innovative materials capable of repairing micro-damage.
- Shape memory polymers (SMPs) – Plastics that return to their original shape when heated.
- Conductive polymers – Polymers capable of conducting electricity.
- Nanopolymers – Plastics enhanced with nanotechnology for improved properties.
- Biodegradable polymer composites – Combining eco-friendliness with durability.
- Liquid crystal polymers (LCPs) – Used in microelectronics due to their unique molecular structure.
- High-temperature polymers – Materials resistant to extreme temperatures, used in aerospace applications.
- Medical-grade polymers – Plastics used in implants and medical devices.
- Photoresponsive polymers – Materials that change properties when exposed to light.
- Next-generation plastics – Advanced polymers shaping the future of the industry.
👉 All these topics will be covered in detail in our course. Enroll today!
✅ During the training, each of these terms will be thoroughly explained, both theoretically and practically. Participants will see examples through images, videos, and animations and will hear detailed explanations from the instructor. This ensures that even complex technical terms become understandable and easy to apply in daily work.
👉 Complete course details and registration link available here!