1 / 21

BMS PowerPoint Template blue

anisa
Download Presentation

BMS PowerPoint Template blue

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript

    1.

    3. Bayers Climate Change Targets

    4. Bayer Recognised For Action On Climate Change

    5. Key Properties of Bayer MaterialScience PCS/TPU‘s Mike Stuart

    6. Bayer MaterialScience Plastics Materials

    7. PCS Business Unit: Main Fields of Application In the course of an industrial history spanning over half a century, polycarbonates – in particular Makrolon® – have kept on branching out into new markets and applications. Currently, the main fields of application are as follows: Automotive engineering (in particular the use of blends for vehicle interiors and exteriors, and automotive glazing) Construction (transparent polycarbonate sheet for roofing, conservatories, exhibition stands etc.) Electrical / electronics (optical data storage media such as CDs, DVDs etc., housing materials for notebooks, copiers and LCD TVs etc.) Sports and leisure (protective goggles, helmet visors etc.) Medical technology (dialysis filters, ampoules, injection systems, operating theater equipment etc.) Packaging industry (large water containers, bottles etc.) In the course of an industrial history spanning over half a century, polycarbonates – in particular Makrolon® – have kept on branching out into new markets and applications. Currently, the main fields of application are as follows: Automotive engineering (in particular the use of blends for vehicle interiors and exteriors, and automotive glazing) Construction (transparent polycarbonate sheet for roofing, conservatories, exhibition stands etc.) Electrical / electronics (optical data storage media such as CDs, DVDs etc., housing materials for notebooks, copiers and LCD TVs etc.) Sports and leisure (protective goggles, helmet visors etc.) Medical technology (dialysis filters, ampoules, injection systems, operating theater equipment etc.) Packaging industry (large water containers, bottles etc.)

    8. Makrolon / Apec auto lighting applications

    9. Makroblend applications - automotive

    10. Bayer MaterialScience Plastics Materials

    11. Makrofol – in-mould foiling examples

    12. Products of the TPU Business Unit: Main Fields of Application From the numerous fields of application for thermoplastic polyurethanes – including the automotive industry, electrical/electronics, mechanical engineering and packaging – the example of sports and leisure has been selected for a closer look, concentrating here on the sport of skiing. The photo illustrates the many different uses for TPUs in skiing: Shells for ski boots High-impact housings for ski bindings Flexible frames for ski goggles Lightfast and attractive surfaces for skis (and snowboards etc.) Breathable coated textiles. From the numerous fields of application for thermoplastic polyurethanes – including the automotive industry, electrical/electronics, mechanical engineering and packaging – the example of sports and leisure has been selected for a closer look, concentrating here on the sport of skiing. The photo illustrates the many different uses for TPUs in skiing: Shells for ski boots High-impact housings for ski bindings Flexible frames for ski goggles Lightfast and attractive surfaces for skis (and snowboards etc.) Breathable coated textiles.

    13. Desmopan examples

    15. 14 Rules of constructing with polymers 1.Wall thickness as thin as possible 2.Uniform wall thickness distribution 3.Design of ribs 4.Avoid flat surfaces 5.Suitable design for metal / plastic 6.Consider gate position during design 7.Design of parts to take processing into consideration 8.Avoid undercuts if possible 9.Avoid mass accumulation 10.Corner / edges design with radii 11.Provide sufficient draft angles 12.Design of holes and cutouts „plastic like“ 13.Suitable screw-design for each plastic material 14.Tolerances no smaller than necessary

    16. Materials Selection

    17. Basic’s Of Sustainability Full assessment of product lifecycle Where possible avoid mixing materials Increase in complexity for disassembly Avoid painting, adhesives, fixings where possible Maximise product life through careful selection of materials & good design Design for easy disassembly Consider possible re-use, before finally recycling

    18. Failure in plastics design/selection

    21. Snap Fit Design

More Related