Sakakibara, Keita published the artcilePerformance improvement of epoxy polymer monolith films by reinforcing with cellulose fibers, Product Details of C13H26N2, the publication is Nettowaku Porima Ronbunshu (2020), 41(6), 245-251, database is CAplus.
In this article, we demonstrate the preparation of epoxy polymer monolith composite films with cellulose fibers for improving the mech. property, where the monolith is a porous material with a co-continuous skeletal structure. The preparation includes lamination process or simple hanging process for cellulose-fiber nonwoven sheet impregnated with monolith precursor mixtures, followed by polymerization induced phase separation based on spinodal decomposition The resulting monolith composite films were surface skin-less, exhibiting the pore sizes from 200 nm to 1.5μm. The tensile Young’s modulus and strength were higher than those of the neat monolith film and the previously-reported cellulose nanofiber-reinforced monolith films. The ionic conductivity of the composite films with lithium-ion electrolyte was comparable to that of com.-available polyolefin porous membranes. The epoxy polymer monolith composite film is expected to have a great potential as a promising separator for next-generation lithium ion batteries by taking advantage of its high heat resistance and winding channel structure.
Nettowaku Porima Ronbunshu published new progress about 1761-71-3. 1761-71-3 belongs to quinuclidine, auxiliary class Ploymers, name is 4,4-Diaminodicyclohexyl methane, and the molecular formula is C13H26N2, Product Details of C13H26N2.
Referemce:
https://en.wikipedia.org/wiki/Quinuclidine,
Quinuclidine | C7H13N | ChemSpider