To enhance its mechanical strength, pressure resistance, and flexibility, PTFE tubing is often reinforced with braiding materials, such as stainless steel, polyester, fiberglass, aramid fiber, nylon, etc. These materials serve as a support layer, helping the tubing withstand higher internal pressures and resist kinking or deformation under dynamic conditions. In this article, we will explore […]

Shrinking PTFE tubing requires specific heat sources due to its high shrink temperature – typically between 320°C and 360°C (608°F to 680°F). Selecting the correct heat source ensures consistent results, prevents damage to components, and maximizes product lifespan. Why Heat Source Matters for PTFE Shrinking Tubing? PTFE heat shrinking tubing is not like polyolefin or

PTFE heat shrink tubing is a high-performance solution used in industries ranging from aerospace and automotive to electronics and medical devices. One of the key properties of this tubing that determines its suitability for specific applications is its shrink ratio. Understanding the shrink ratio helps engineers and manufacturers ensure a proper fit, effective insulation, and optimal

In mechanical systems, bushings play a critical role in reducing friction, absorbing shocks, and enhancing the longevity of moving components. Among the many types of bushings available, PTFE bushings and traditional metal bushings stand out due to their distinct material properties and application suitability. In this article, we will explore the key differences between PTFE

Heat shrink tubing is an essential component in electrical, aerospace, medical, and automotive applications, providing insulation, strain relief, and protection from chemicals, abrasion, and environmental factors. Among the most popular fluoropolymer-based heat shrink materials are PTFE (polytetrafluoroethylene), FEP (fluorinated ethylene propylene), and PVDF (polyvinylidene fluoride). In this article, we will explore their properties, advantages, limitations,

PTFE is a fluoropolymer that does not melt in the traditional sense. Unlike conventional thermoplastics that are melted and forced through a die, PTFE cannot be melt-processed due to its extremely high melting point (~327°C) and its tendency to degrade before it flows. As a result, PTFE extrusion uses a technique called paste extrusion for

PTFE bushings, also referred to as PTFE sleeves, are widely used in mechanical, automotive, chemical, and industrial systems where lubrication-free operation, reduced wear, and high temperature resistance are crucial. PTFE bushings come in various types, primarily categorized by materials and design. In this article, we’ll explore the most common types of PTFE bushings based on

PTFE tubing is used for transporting corrosive chemicals, high-purity liquids, gases, and even solids in various industrial settings. It comes in different sizes, wall thicknesses, and forms (smooth bore, convoluted, heat shrinkable), and can be either natural or color-coded. Our PTFE tubing is available in both natural (unpigmented) and colored variants, and while their base

PTFE tubing is available in two primary forms: flexible and rigid, each tailored to specific application needs. This article explores the key differences between flexible and rigid PTFE tubing, examines their respective strengths and limitations, and offers guidance on selecting the most suitable type for your project. 1. Defining Flexible and Rigid PTFE Tubing Flexible

PTFE tubing is a versatile and widely used material known for its exceptional chemical resistance, high temperature tolerance, low friction, and non-stick properties. However, one critical aspect that often causes confusion for engineers and procurement teams is tubing sizing standards, specifically, metric and imperial sizing systems. In this article, we’ll break down the differences between