GLASFORMS™ ELECTRICAL COMPONENTS Composite Materials for Power Transmission and Distribution Products APPLICATION & PRODUCT SELECTION GUIDE KEY CHARACTERISTICS Extend the service life of electrical transmission and distribution products with Glasforms composite technologies. Performance advantages: • Non-conductive: formulations engineered to optimize composite dielectric properties • Lightweight: up to 80% lighter than porcelain, reducing installation time and cost • High strength: high tensile, compressive, flexural and inter-laminar shear strength to support various design configurations and line loads • Flexible: deflect and return to original shape for load dampening to minimize damages and outages • Durable and shatter resistant vs. ceramic and glass, and UV and corrosion resistant for long service life INSULATORS AND ARRESTERS OVERHEAD SWITCH RODS CROSSARMS AND BRACES COMPOSITE POLES GUY INSULATORS Electrical Transmission & Distribution Applications  COMPONENT DESCRIPTION SIZES Insulators for transmission and distribution Suspension insulators Epoxy/corrosion resistant glass rods .625" to 1.25" diameter Line post and station post insulators Epoxy/glass fiber rods 1.50" to 4.74" diameter Arresters Cage type Polyester or vinyl ester/glass fiber rods .125" to .50" diameter Custom tubular Polyester, vinyl ester or epoxy/ glass fiber custom shapes 2.0" to 6.0" envelope size Pole line construction Conductor standoff and equipment support arms Polyester/glass fiber rods 1.50" to 2.00" diameter Guy strain insulators Polyester/glass fiber rods 0.50" to .812" diameter Cross arms Tangent and deadend, support braces Polyester/glass fiber rectangular tubes 3.62" x 4.62" and 4.0" x 6.0" rectangular Utility poles Composite poles Polyester/glass fiber hollow custom tubes 10" to 14" diameter, typical lengths 40' to 110' Pole line construction, cross arms, rods, and utility poles feature an integral fabric surfacing veil for long-term weather resistance and retention of properties. Processing conditions can cause material properties to shift from the values stated in the information.

Smart Materials™ Advanced Composites eBook Material Continuous fiber-reinforced composites in standard and custom shapes & sizes

Traditional materials such as aluminum provide excellent thermal conductivity, but there is a tradeoff – aluminum is heavier, isn't easily formed into complex shapes, and inhibits part consolidation. Injection moldable material enables design freedom and easier processing for more complex shapes Heat Sink Material for LED

Some of these packaging options have several disadvantages due to their shape and material which do not make them user friendly, such as handling, storage, opening, pouring and resealing. KEY CHARACTERISTICS • Design for shelf life, ergonomics and differentiation • Lighter weight bottles • Lower system cost vs. other rigid packaging TARGET MARKET AND APPLICATIONS UHT Dairy Packaging TECHNOLOGY BENEFITS • 100% visible light blocking for monolayer containers • Recyclable with general PET waste stream, even though additive is also present • Lower system cost • Offers shape differentiation for containers • Enables container designs that increase ease of pouring • Useful for re-sealable containers • Useful for containers that can be stored flat after opening • Offers light-weighting for PET bottle without reducing light blocking performance www.avient.com Copyright © 2020, Avient Corporation. Processing conditions can cause material properties to shift from the values stated in the information.

Custom shapes and sizes Consistent, uniform quality and material properties Marine Application Material Solutions

The shape of the mineral particle can be long and needle-like, spherical, flat and flaky, or broad. It’s one of these shapes that influences what kind of enhancement the particle can bring.   Carbon nanotubes are carbon atoms linked in a cylindrical shape with diameters as small as 1 nanometer and lengths up to several centimeters.5 They have the highest strength-to-weight ratio of any known material.

The shape of the mineral particle can be long and needle-like, spherical, flat and flaky, or broad. It’s one of these shapes that influences what kind of enhancement the particle can bring.   Carbon nanotubes are carbon atoms linked in a cylindrical shape with diameters as small as 1 nanometer and lengths up to several centimeters.5 They have the highest strength-to-weight ratio of any known material.

The shape of the mineral particle can be long and needle-like, spherical, flat and flaky, or broad. It’s one of these shapes that influences what kind of enhancement the particle can bring.   Carbon nanotubes are carbon atoms linked in a cylindrical shape with diameters as small as 1 nanometer and lengths up to several centimeters.5 They have the highest strength-to-weight ratio of any known material.

The shape of the mineral particle can be long and needle-like, spherical, flat and flaky, or broad. It’s one of these shapes that influences what kind of enhancement the particle can bring.   Carbon nanotubes are carbon atoms linked in a cylindrical shape with diameters as small as 1 nanometer and lengths up to several centimeters.5 They have the highest strength-to-weight ratio of any known material.

The shape of the mineral particle can be long and needle-like, spherical, flat and flaky, or broad. It’s one of these shapes that influences what kind of enhancement the particle can bring.   Carbon nanotubes are carbon atoms linked in a cylindrical shape with diameters as small as 1 nanometer and lengths up to several centimeters.5 They have the highest strength-to-weight ratio of any known material.