This framework provides TDC with a sustainability-driven approach to effectively and comprehensively design, review and optimize customers’ products, improving their sustainable footprint. The model emphasizes the early integration of sustainability in the design process to ensure it is embedded at every key stage of a product's lifecycle.
- Material selection, emphasizes choosing eco-friendly, recyclable, mass-balanced or biodegradable materials to minimize environmental impact.
- Resin manufacturing, an integral part of production, evaluating raw materials for material production and prioritizing low-emission processes and the use of renewable resources to reduce carbon footprints.
- In component design and manufacturing, energy-efficient methods and durable designs are key to extending product lifespan and minimizing waste.
- Lastly, assembly methods, product use, and end-of-life strategies focus on optimizing energy consumption during use and ensuring responsible disposal or recycling, making the model essential for creating sustainable products throughout their lifecycle.
These different areas complement each other, enabling TDC to assess every aspect of a product's environmental impact.
As previously emphasized, Nolato aims to be involved early in the product development phase, and this very much applies with regard to sustainability as well. By supporting customers during this phase, the TDC team can make a significant impact on improving sustainability while ensuring the functionality and robustness of the product, as opposed to working with products already on the market.
Furthermore, sustainability presents a favorable opportunity from a cost standpoint. In fact, eco-design and cost-efficient production are closely aligned. Efficient design choices, such as selecting durable/effective/low-footprint materials, optimizing part design, or minimizing waste, can deliver significant environmental and financial benefits. Done right, there is often a correlation between production efficiency and sustainability, as both aim to reduce resource consumption and waste. Strategies like using less material, designing for energy-efficient production, and adopting mono-material design principles are not only cost-efficient from a manufacturing perspective but also align with sustainability aims of reducing the overall environmental impact of a product.
TDC has long been a trusted provider of sustainability expertise, offering guidance and innovative ideas to help Nolato’s customers place sustainability at the core of their product development.
Collaborating closely with customers and suppliers – MELITEK A/S case
For decades, TDC has partnered up with customers with the aim of fostering mutual learning and advancements in product design and technologies. One of TDC’s focus areas when working with customers is understanding and using resources in an optimal manner for which advanced analytical tools are applied to study the interlinks between the functions of a product and the design of its respective components.
As an example of a recent customer-supplier collaboration, Nolato and MELITEK A/S worked together to explore material substitutions for improved sustainability without compromising engineering performance. MELITEK A/S is a privately owned Danish company specializing in elastomer and polymer compounds based on 30 years of experience servicing the healthcare market. The project focused on replacing a conventional polycarbonate/acrylonitrile butadiene styrene (PC/ABS) blend with a customized polypropylene (PP) compound for a medical device component, specifically modified to replicate the mechanical properties of PC/ABS while ensuring compatibility with existing production equipment.
Nolato’s TDC conducted an initial technical study to assess the feasibility of this material transition, with a primary focus on determining whether the modified PP compound could meet dimensional requirements without requiring mold modifications. The study evaluated critical factors such as shrinkage behavior, warpage, and dimensional stability. While the results indicated some challenges in achieving all dimensional requirements, the modified PP compound demonstrated good potential for successful integration with further optimization of material formulation or processing parameters. Additionally, TDC examined the material’s processability in the current injection molding setup, assessing flow behavior and necessary process adjustments to maintain part consistency.
The material substitution could lead to significant reductions in energy consumption, raw material usage, and overall carbon footprint. The reduction in raw material usage is primarily due to PP’s lower density compared to PC/ABS, enabling a lower material mass per part while maintaining structural integrity.