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Showing 1–6 of 6 results
Advanced filters: Author: Ingo Pinnau Clear advanced filters
  • Conventional separations account for a large share of global energy consumption. Efficient membrane technologies have the potential to substantially reduce energy use, costs and CO2 emissions — particularly through ultramicroporous polymers, a key class of materials advancing membrane-based gas separations first reported by Budd and McKeown in 2004.

    • Ingo Pinnau
    • Yingge Wang
    News & Views
    Nature Chemical Engineering
    Volume: 3, P: 20-21
  • As part of the first anniversary issue of Nature Chemical Engineering, we present a collection of opinions from 40 researchers within the field on what they think are the most exciting opportunities that lie ahead for their respective topics.

    • Claire S. Adjiman
    • Panagiota Angeli
    • Yushan Yan
    Special Features
    Nature Chemical Engineering
    Volume: 2, P: 19-25
  • Ethylene separation from ethane is the most energy-intensive separation in the chemical process industry, but so far membranes have not exceeded an ethylene/ethane selectivity of >20 in mixed gases. Here a carbon molecular sieve with an ethylene selectivity of ~100 and long-term stability under high-pressure gas is reported.

    • Khalid Hazazi
    • Yingge Wang
    • Ingo Pinnau
    Research
    Nature Materials
    Volume: 22, P: 1218-1226
  • Carbon nanomaterials such as graphene show intriguing molecular transport properties, but to achieve regular channels over a large area requires perfect sheet alignment. Here, a large-area two-dimensional conjugated-polymer-framework is grown with regular pore distribution, enabling 99.5% salt rejection by forward osmosis.

    • Jie Shen
    • Yichen Cai
    • Yu Han
    Research
    Nature Materials
    Volume: 21, P: 1183-1190
  • Radioactive molecular iodine (I2) and methyl iodide (CH3I) coexist in the off-gas stream of nuclear power plants at low concentrations and only few adsorbents can effectively adsorb low-concentration I2 and CH3I simultaneously. Here, the authors demonstrate simultaneous capture of I2 and CH3I at low concentrations by exploiting different adsorptive sites in a covalent organic framework.

    • Yaqiang Xie
    • Tingting Pan
    • Yu Han
    ResearchOpen Access
    Nature Communications
    Volume: 13, P: 1-10