.svg)
.png){kind=small}
Nanocellulose is transforming composites in aerospace, automotive, and marine industries with its unmatched strength, lightweight properties, and sustainability. This renewable material enhances durability, thermal stability, and fuel efficiency, meeting the unique demands of each market. Discover how nanocellulose is elevating performance across the transportation sector.
Interlaminar shear strength (ILSS) is vital for preventing delamination and allowing composites to endure high loads. Optimizing ILSS can be challenging, as it requires balancing material compatibility, resin modifications, and manufacturing processes. Seabind-coated fibers enhance surface area and roughness, significantly improving load transfer between fiber and resin for stronger, more durable parts. This improvement reduces the need for additional layers, resulting in lighter, more cost-efficient composites.
Interlaminar shear strength (ILSS) is vital for preventing delamination and allowing composites to endure high loads. Optimizing ILSS can be challenging, as it requires balancing material compatibility, resin modifications, and manufacturing processes. Seabind-coated fibers enhance surface area and roughness, significantly improving load transfer between fiber and resin for stronger, more durable parts. This improvement reduces the need for additional layers, resulting in lighter, more cost-efficient composites.
The aerospace industry is continually striving to enhance strength while reducing weight in manufactured components. Seabind-coated carbon fibers significantly improve the strength, stiffness, and durability of final parts without adding excessive weight or cost. This innovation enables lighter, more cost-effective components by optimizing material efficiency, requiring less fiber and resin to meet performance specifications.
The marine industry constantly battles the harsh conditions of cold saltwater, requiring boat manufacturers to use high-strength, corrosion-resistant fiberglass composites. Seabind-coated glass fibers enhance fiber-to-resin adhesion, resulting in lighter, stronger, and more cost-effective boats. By improving material efficiency, Seabind reduces material and labor costs while enhancing durability, ultimately leading to lighter, more fuel-efficient vessels.
The automotive industry is undergoing a major transition to electric vehicles (EVs), driving the need for lighter, more energy-efficient designs. Integrating Seabind into thermoplastic components enables automakers to reduce vehicle weight while enhancing strength, allowing for the production of stronger, more efficient, and sustainable vehicles.
Composite parts are utilized in structural components, flooring, interior panels, and sidewalls. They improve fuel efficiency, reduce weight, and enhance impact resistance for passenger safety and durability.
Blades are constructed using lightweight composites like fiberglass or carbon fiber. Stronger materials improve energy efficiency by enabling longer, more durable blades, reducing maintenance and maximizing power output.
Composites are used in truck bodies, chassis, fuel tanks, and aerodynamic panels. Stronger parts reduce vehicle weight, enhancing fuel efficiency, payload capacity, and structural integrity, while withstanding long-distance stress.
The aerospace industry is continually striving to enhance strength while reducing weight in manufactured components. Seabind-coated carbon fibers significantly improve the strength, stiffness, and durability of final parts without adding excessive weight or cost. This innovation enables lighter, more cost-effective components by optimizing material efficiency, requiring less fiber and resin to meet performance specifications.
The marine industry constantly battles the harsh conditions of cold saltwater, requiring boat manufacturers to use high-strength, corrosion-resistant fiberglass composites. Seabind-coated glass fibers enhance fiber-to-resin adhesion, resulting in lighter, stronger, and more cost-effective boats. By improving material efficiency, Seabind reduces material and labor costs while enhancing durability, ultimately leading to lighter, more fuel-efficient vessels.
The automotive industry is undergoing a major transition to electric vehicles (EVs), driving the need for lighter, more energy-efficient designs. Integrating Seabind into thermoplastic components enables automakers to reduce vehicle weight while enhancing strength, allowing for the production of stronger, more efficient, and sustainable vehicles.
Composite parts are utilized in structural components, flooring, interior panels, and sidewalls. They improve fuel efficiency, reduce weight, and enhance impact resistance for passenger safety and durability.
Blades are constructed using lightweight composites like fiberglass or carbon fiber. Stronger materials improve energy efficiency by enabling longer, more durable blades, reducing maintenance and maximizing power output.
Composites are used in truck bodies, chassis, fuel tanks, and aerodynamic panels. Stronger parts reduce vehicle weight, enhancing fuel efficiency, payload capacity, and structural integrity, while withstanding long-distance stress.
The aerospace industry is continually striving to enhance strength while reducing weight in manufactured components. Seabind-coated carbon fibers significantly improve the strength, stiffness, and durability of final parts without adding excessive weight or cost. This innovation enables lighter, more cost-effective components by optimizing material efficiency, requiring less fiber and resin to meet performance specifications.
The marine industry constantly battles the harsh conditions of cold saltwater, requiring boat manufacturers to use high-strength, corrosion-resistant fiberglass composites. Seabind-coated glass fibers enhance fiber-to-resin adhesion, resulting in lighter, stronger, and more cost-effective boats. By improving material efficiency, Seabind reduces material and labor costs while enhancing durability, ultimately leading to lighter, more fuel-efficient vessels.
The automotive industry is undergoing a major transition to electric vehicles (EVs), driving the need for lighter, more energy-efficient designs. Integrating Seabind into thermoplastic components enables automakers to reduce vehicle weight while enhancing strength, allowing for the production of stronger, more efficient, and sustainable vehicles.
Composite parts are utilized in structural components, flooring, interior panels, and sidewalls. They improve fuel efficiency, reduce weight, and enhance impact resistance for passenger safety and durability.
Blades are constructed using lightweight composites like fiberglass or carbon fiber. Stronger materials improve energy efficiency by enabling longer, more durable blades, reducing maintenance and maximizing power output.
Composites are used in truck bodies, chassis, fuel tanks, and aerodynamic panels. Stronger parts reduce vehicle weight, enhancing fuel efficiency, payload capacity, and structural integrity, while withstanding long-distance stress.
Seabind™ (nanocellulose) significantly improves the strength-to-weight ratio of composites, enabling the production of lightweight components without compromising structural integrity. This is critical for fuel efficiency in aerospace, automotive, and marine applications.
Seabind™ (nanocellulose) has a high surface area enabling it to form hydrogen bonds enhance adhesion between fibers and the resin matrix, resulting in composites with superior mechanical properties and durability.
Seabind™ (nanocellulose) adds damping properties to composites, reducing vibrations and noise, which is especially valuable in automotive and aerospace interiors for improved passenger comfort.
As a renewable, biodegradable material, Seabind™ (nanocellulose) reduces reliance on petrochemicals, aligns with sustainability goals, and minimizes the environmental footprint of composite manufacturing.
Seabind™ is a great natural thickening agent for paints, inks, and concretes. Although natural binders like Xanthan Gum or Guar Gum are available, they have high water retention leading to longer drying times and tend to have limitation in the control of viscosity.
Seabind™ gives access to paints & inks being applied to surfaces to form continuous films that effectively suspend and hold the pigments and various particles together - providing adhesion to a wide range of substrates.
Seabind™ serves as a natural binding system that allows particles to adhere to various surfaces including walls, paper, and textiles without the usage of formaldehyde or solvent based adhesives.
Seabind™ acts as a safer and more efficient binding agent compared to traditional toxic binders. Unlike incumbents Seabind™ can be dosed at concentrations less than 1% to effectively disperse pigments and particles uniformly, ensuring their stability and adherence to a variety of substrates,including paper, fabric, and walls
By improving thermal resistance, Seabind™ (nanocellulose) reinforces composite materials in high-temperature environments, while its ability to integrate with flame-retardant additives enhances safety in transportation applications.
Seabind™ (nanocellulose) enables the reduction of resin and fiber usage in composite production by improving overall material performance. Its reinforcement properties allow for thinner, lighter components, which lower material and production costs.
Seabind™ (nanocellulose) improves the fatigue resistance of composites, enabling them to withstand repeated mechanical stresses over time. This is particularly beneficial for transportation applications where components face constant dynamic loads, such as in aircraft wings, automotive suspension systems, and marine hulls.
By improving thermal resistance, Seabind™ (nanocellulose) reinforces composite materials in high-temperature environments, while its ability to integrate with flame-retardant additives enhances safety in transportation applications.
Seabind™ (nanocellulose) enables the reduction of resin and fiber usage in composite production by improving overall material performance. Its reinforcement properties allow for thinner, lighter components, which lower material and production costs.
Seabind™ (nanocellulose) improves the fatigue resistance of composites, enabling them to withstand repeated mechanical stresses over time. This is particularly beneficial for transportation applications where components face constant dynamic loads, such as in aircraft wings, automotive suspension systems, and marine hulls.
The nanoceramics embedded in Searamic™ are skin safe natural lubricants, that are already widely utilized within the cosmetic industry.
The nanoceramics in Searamic™ enable organizations to precisely control the texture and overall feel of colorants on various surfaces.
Because Searamic™ naturally has a white base, dispersing pigments within the system allows organizations to achieve a wide range of color tones, from soft, muted pastels to bold, vibrant shades.
.png)
.png)
.png)