Lu, Xiaoxin published the artcileNumerical modeling and experimental characterization of the AC conductivity and dielectric properties of CNT/polymer nanocomposites, Application In Synthesis of 1761-71-3, the publication is Composites Science and Technology (2020), 108150, database is CAplus.
In this work, we proposed a multiscale numerical model to estimate the elec. conductivity and dielec. constants of the CNT/polymer nanocomposites, taking into account the tunneling effect between neighboring CNTs separated at nanoscale and the frequency-dependent dielec. properties of each components. Finite element method was employed to solve the formulations, and the CNTs were modeled by highly conductive line segments in order to avoid the mesh problems. Experiments have been carried out in carbon nanotubes/epoxy nanocomposites in order to compare to the simulation results. The numerical estimations of the elec. conductivity are in good agreement with the exptl. measurement by network analyzers. Moreover, the calculated dielec. permittivity agrees with the exptl. data for the nanocomposites whose CNT content is beyond percolation threshold. Below percolation threshold, the proposed model also works well in the prediction of dielec. constants when the frequency is over 103Hz.
Composites Science and Technology 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, Application In Synthesis of 1761-71-3.
Referemce:
https://en.wikipedia.org/wiki/Quinuclidine,
Quinuclidine | C7H13N | ChemSpider