Expert-written articles to support your growth and decisions.
Synthetic rubber is a family of petrochemical elastomers whose properties can be engineered for the needs of each industry. This guide covers the three most widely used types, SBR, NBR and EPDM, their key properties and applications, how they differ from natural rubber, and how to choose the right one for production.
Adipic acid is one of the most widely used industrial acids in the world and the main raw material for nylon 66 and many polyurethanes. Learn about its structure, how it is made, and its uses in textiles, automotive, plastics, coatings and food.
Stearic acid makes up only 1 to 2 phr of a rubber formula, yet sulfur vulcanization is incomplete without it. Learn how it works with zinc oxide, its role in PVC, how grades differ and how to choose and store it.
Natural rubber comes from a single tree, but it reaches the market in three forms, SMR, RSS and latex, each built for different industries. This article covers how they differ and how they are used in tires, automotive parts, conveyor belts, footwear, medical gloves, foam and adhesives.
C5 and C9 hydrocarbon resins share similar names but behave very differently in a formulation. This article covers how they differ, how they are used in adhesives, paints, and tires, and how to choose the right grade.
Introduction Two bags of granules sit side by side in the warehouse. One says PA6, the other PA66. They look almost identical, yet choosing the
Hamiico’s approach to raw material supply focuses on supply security, flexible sourcing, logistics risk management, inventory planning, financial support, and reliable quality to help industrial manufacturers maintain production continuity.
A practical guide to rubber vulcanization accelerators, covering major accelerator types, curing systems, crosslink structure, applications, and selection criteria.
Rubber products are not only subject to mechanical pressure and abrasion over their service life. Oxygen, ozone, heat, light, and mechanical stress gradually alter the
Rubber and plastic additives play a critical role in controlling processing conditions and improving the final properties of polymer products. This article examines four important additives: PVI, ULTRASIL, AZO, and DCP. PVI helps prevent premature vulcanization and improves processing safety; ULTRASIL, a precipitated silica, reinforces rubber and can improve abrasion resistance; AZO acts as a chemical blowing agent for producing lightweight cellular structures; and DCP creates crosslinks that can improve the thermal, chemical, mechanical, and dimensional properties of polymers. The article also reviews the main industrial applications of each additive and the key factors to consider when selecting additives for rubber and plastic formulations.
In this article, we examine the most common types of plastics worldwide. From Polyethylene (PE) and Polypropylene (PP) to advanced engineering plastics like PEEK, discover the properties, applications, benefits, and differences of these essential industrial polymers that power the modern world.
Discover the largest rubber consumers worldwide in this comprehensive industry analysis. While the automotive sector dominates, mining, construction, oil & gas, and healthcare also drive massive global demand. Explore the top 10 sectors, key applications, and current market statistics.
An in-depth look at whether natural rubber resources are running out, the key threats to global production, and the leading alternative materials that could shape the future of the tire and rubber industry.
What are the steps involved in importing chemicals from East Asia to the Middle East? This comprehensive guide covers the complete process from supplier selection and shipment preparation to international transportation, customs clearance, and final delivery, including technical and regulatory requirements.
Natural rubber is one of the most important raw materials in modern industry hundreds products. Despite the expansion of synthetic rubber production, many industries still rely heavily on natural rubber. But the key question is this: where does most of the world’s natural rubber come from?
Rubber products and tires are continuously exposed to oxygen, heat, ozone, ultraviolet radiation, and mechanical stress, all of which accelerate aging and degradation. Rubber antioxidants play a critical role in protecting polymer chains from oxidative damage, preserving mechanical properties, and significantly extending product service life. This article explores the mechanisms of rubber aging, antioxidant technologies, and their impact on tire and rubber durability.
