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PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

PIP® has taken our innovative platform to the next level, we use recycled P.E.T. water bottles – shredded and extruded as a fiber creating a comfortable and cool material as well as recycled polyester yarns used to create yarns for gloves and apparel.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.