To offer a drop-in solution to overcome the PA66 shortage, we developed an alternative material: The Akulon® IG series is a portfolio of material grades made by combining the strength of PA6 and PA46 – two materials that are fully independent of the Adiponitrile/hexamethyldiamine supply.
What if... the automotive industry didn’t have engineering plastics?
Engineering plastics have transformed the automotive industry and will continue to have a tremendous impact on the cars of the future. In the 1950s, plastics accounted for 1% of the value of a car. Today, they represent nearly 35%. That number is expected to grow to 50% by 2030, as designers find more applications in powertrains, interiors, exteriors, engine systems and beyond, where they can convert from metal to plastics for weight savings of 40 to 50%. While the weight savings may be small at the level of the individual part, the cumulative effect is substantial. To help you imagine a world where plastics are not used in cars at all, let’s look at an example calculation of the cumulative impact of vehicles that weigh less.
Nearly 40,000 swimming pools of fuel
The average mid-sized vehicle weighs 1.5 metric tonnes. By weight, modern cars are composed of 10 to 12% plastic. Let’s assume the vehicle is composed of 12% plastic, achieving a 45% weight reduction in the parts manufactured from plastic. Engineering plastics enable this mid-sized vehicle to save 150kg of weight, reducing fuel consumption by 0.75L/100km, and reducing CO2 emissions by approximately 15g/km. Now let’s extend that weight savings across the 1 billion passenger cars on the road around the globe. The combined weight/fuel savings plastics have enabled for those vehicles, with an average travel distance per vehicle of 13,000km per year, results in a collective fuel savings of 97.5 billion liters per year – that’s enough to fill nearly 40,000 Olympic-sized swimming pools.
A forest twice the size of California
The reduction in CO2 emissions is substantial too. This collective fuel savings results in a CO2 reduction of 195 billion kilograms per year. That’s the same quantity of CO2 emissions that results from the annual electricity used in 29.2 million homes. Without plastics in automotive, it would take a forest of 0.93 million square kilometres to sequester the additional CO2 created from fuel emissions – a forest measuring twice the size of California, three times the size of Italy, or nine times the size of South Korea.
Safety and performance
Beyond the significant contribution engineering plastics have made to lowering vehicle weight and fuel consumption, they have also helped us to improve vehicle safety through new safety features, reduction in part failure, and improved electrical performance as we move closer to the age of fully electronic and fully autonomous vehicles.
Further weight reduction
At DSM, our portfolio includes a full range of material grades engineered for the specific conditions across a wide variety of automotive applications. Used in applications including chain tensioners, MTD parts, gears, charge air cooler end caps, turbo ducts, front end modules, fire walls and pedals, our materials help designers achieve significant weight savings while also withstanding the sometimes extreme conditions of use. This includes resistance to high temperatures, humidity, and chemicals, without losing performance at the material level. Our next-generation solutions will contribute to further vehicle weight reductions, as OEMs strive to meet the average 200kg reduction in vehicle weight needed to meet 2025 emission targets. These solutions include Arnitel® HT for air ducts, Stanyl® an Akulon® Diablo for turbo components, Akulon® Fuellock® for CNG/H2 tanks, Xytron® HR PPS for cooling pump impellers, Akulon® PA6 for oil sumps, and Arnitel, ForTii®, Xytron or EcoPaXX® for crankshaft covers.
Learn more about how our portfolio of materials can meet the extreme automotive challenges of the future on www.dsm.com/automotive.
Two-wheeler technical know-how: DSM’s materials provide the strength and durability that electric scooters need
A number of e-scooter components require specialized materials to ensure safe and reliable performance. DSM’s portfolio includes materials designed to meet the specific needs of these applications.
How to survive the structural PA66 shortage
Under current market conditions, the supply chain for polyamide 66 (PA66) is under pressure. With the surge in demand for developing lightweight vehicles and pushing the connectivity revolution forward, supply is too concentrated to reliably meet global demand.