Semiconductors and Sustainability

By John Howater

Materials Engineering, Purdue University, West Lafayette, IN

Published on

Bio

John Howarter John Howarter is an Associate Professor of Materials Engineering and Environmental and Ecological Engineering at Purdue University. He earned his PhD in Materials Engineering from Purdue in 2008. Prior to joining the faculty at Purdue he held a NRC Postdoctoral Fellowship in the Polymers Division at the National Institute of Standards and Technology (NIST). His research interests are centered around reducing the operational energy footprint of polymer membranes through material design. This includes a focus on material improvements of polyamide membranes used in desalination and functional composite membranes for targeted separation of industrial wastewater.

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Researchers should cite this work as follows:

  • John Howater (2024), "Semiconductors and Sustainability," https://nanohub.org/resources/38306.

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Semiconductors and Sustainability
  • Semiconductors and Sustainability 1. Semiconductors and Sustainabil… 0
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  • John Howarter – Sustainable Materials and Manufacturing 2. John Howarter – Sustainable … 37.837837837837839
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  • Research Needs: Sustainability Engineering 3. Research Needs: Sustainability… 359.12579245912582
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  • Interventions and other mechanisms that influence the flows in the material life cycle 4. Interventions and other mechan… 458.12479145812483
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  • Sankey diagram for the flow of aluminum through the economy 5. Sankey diagram for the flow of… 694.66132799466141
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  • Stages of Technology 6. Stages of Technology 845.34534534534532
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  • Abundance of elements in earth's crust 7. Abundance of elements in earth… 964.63129796463136
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  • Sustainability in Complex Products 8. Sustainability in Complex Prod… 1010.7440774107441
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  • Measures contributing to material efficiency. 9. Measures contributing to mater… 1193.6603269936604
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  • The 1.7 kilogram microchip 10. The 1.7 kilogram microchip 1316.9502836169504
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  • Circularity measurement methodology 11. Circularity measurement method… 1488.4884884884887
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  • Manufacturing Example for Circularity 12. Manufacturing Example for Circ… 1609.5762429095762
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  • Silicon Crystal Growth 13. Silicon Crystal Growth 1701.1678345011678
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  • Wafer production 14. Wafer production 1789.3226559893228
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  • Stacked Chips 15. Stacked Chips 1837.2706039372706
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  • Die Stacking Technology 16. Die Stacking Technology 1902.9696363029698
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  • NAND gate (negative-AND) 17. NAND gate (negative-AND) 1971.0710710710712
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  • Characterization of Lead-Free Solders 18. Characterization of Lead-Free … 1994.2275608942277
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  • Composition of E-waste 19. Composition of E-waste 2062.6292959626294
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  • Urban mining 20. Urban mining "deposits" 2171.6716716716719
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  • Environmental Science and Technology, 2013 21. Environmental Science and Tech… 2239.2058725392058
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  • Currently ID'd Research Areas 22. Currently ID'd Research Areas 2365.765765765766
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  • Core Questions for Big Sustainability Challenges 23. Core Questions for Big Sustain… 2515.2819486152821
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  • Research Needs: Sustainability Engineering 24. Research Needs: Sustainability… 2540.6406406406409
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