LyondellBasell Partnered With exoIQ on Exoskeleton
The company supplied specialized materials to support the production of the new B900 active back exoskeleton.
Updated on Oct. 8, 2026 in Materials Science
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LyondellBasell has partnered with exoIQ to provide advanced material solutions for the B900 active back exoskeleton. The collaborative project focuses on creating a wearable device that supports workers during physically demanding labor tasks.
Why it matters
The integration of advanced polymers aims to balance structural strength with the lightweight requirements necessary for wearable technology. This partnership directly addresses the design and performance needs for equipment used in heavy-lifting and forward-leaning industrial tasks.
The materials used include glass fiber-reinforced polyamide, polypropylene, and masterbatch solutions. These components were selected to satisfy specific structural durability and weight metrics required for the B900 active back support system.
The players
LyondellBasell
A multinational chemical company headquartered in the United States that specializes in plastic production and refining.
exoIQ
A developer of industrial wearable technology focused on ergonomic solutions for the workforce.
The details
LyondellBasell leveraged expertise from its Advanced Polymer Solutions and Olefins and Polyolefins businesses to supply the specialized materials. The B900 device provides physical assistance for workers engaged in repetitive lifting, carrying, and bending motions.
Timeline
October 8, 2026: The partnership announcement was formally published.
The Big Picture
The development of the B900 active back exoskeleton represents a shift toward material science-driven ergonomic support in industrial environments. This collaboration marks a paradigm shift in how chemical suppliers are integrated into the design phases of wearable robotic hardware.
The use of these advanced polypropylenes and fiber-reinforced plastics could lead to more durable and lightweight industrial safety equipment. Over time, such materials may make wearable assistive devices more affordable and common across various labor-intensive sectors.
The takeaway
The use of specialized polymers allows wearable tech to move beyond bulky designs toward more ergonomic industrial applications. Readers should watch for how these material advancements influence the accessibility of workplace safety tools in future industrial settings.
Further reading
For additional context on advancements in the field, read more about Materials Science.
Source note: This article includes information reported by Fibre2fashion.
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