4 years ago

Origin of the synthetic circuits and the Brownian motion in stretchable crystal violet doped and biocompatible composite hydrogels

Origin of the synthetic circuits and the Brownian motion in stretchable crystal violet doped and biocompatible composite hydrogels
Crystal violet dye doped hydrogels as real materials with varying doses have been prepared for smart synthetic circuits in flexible electronic devices by using the polymerization technique. The electric modulus-based Cole-Cole diagrams and their adopted to Smith-Chart, frequency evolution of the dielectric properties, and correlation effects in a viscoelastic (Maxwell) system were analyzed by using the impedance spectroscopy at room temperature. The synthetic electric circuits, the Brownian motion, the viscoelastic/relaxation behavior, the fluctuation feature of the concentrations and the total polarization effects are observed for the crystal violet doped biocompatible hydrogels. The observed circuit and Brownian motion in Maxwell system originated from the interaction between dye ions and hydrogels, coulomb interaction between crystal violet dye molecules and oxygen groups, and the ion-migration in the composite hydrogels channels.

Publisher URL: www.sciencedirect.com/science

DOI: S0167732217335201

You might also like
Discover & Discuss Important Research

Keeping up-to-date with research can feel impossible, with papers being published faster than you'll ever be able to read them. That's where Researcher comes in: we're simplifying discovery and making important discussions happen. With over 19,000 sources, including peer-reviewed journals, preprints, blogs, universities, podcasts and Live events across 10 research areas, you'll never miss what's important to you. It's like social media, but better. Oh, and we should mention - it's free.

  • Download from Google Play
  • Download from App Store
  • Download from AppInChina

Researcher displays publicly available abstracts and doesn’t host any full article content. If the content is open access, we will direct clicks from the abstracts to the publisher website and display the PDF copy on our platform. Clicks to view the full text will be directed to the publisher website, where only users with subscriptions or access through their institution are able to view the full article.