
AJUNTAMENT D'ALCOI
Website

Generalitat Valenciana
Website

Ayuntamiento de Valencia
Website

Cicloplast
Website

Ayuntamiento de Onil
Website

Anarpla
Website

Ayuntamiento de Mislata
Website

nlWA, North London Waste Authority
Website

Ayuntamiento de Salinas
Website

Zicla
Website

Fondazione Ecosistemi
Website

PEFC
Website

ALQUIENVAS
Website

DIPUTACI� DE VAL�NCIA
Website

AYUNTAMIENTO DE REQUENA
Website

UNIVERSIDAD DE ZARAGOZA
Website

OBSERVATORIO CONTRATACIÓN PÚBLICA
Website

AYUNTAMIENTO DE PAIPORTA
Website

AYUNTAMIENTO DE CUENCA
Website

BERL� S.A.
Website

CM PLASTIK
Website

TRANSFORMADORES INDUSTRIALES ECOL�GICOS

INDUSTRIAS AGAPITO
Website

RUBI KANGURO
Website
If you want to support our LIFE project as a STAKEHOLDER, please contact with us: life-future-project@aimplas.es
In this section, you can access to the latest technical information related to the FUTURE project topic.
Thermally conductive 2D filler orientation control in polymer using thermophoresis
To achieve efficient heat dissipation using polymer composites, it is important to optimize the heat conduction pathway. Therefore, manipulating the orientation of thermally conductive and anisotropic fillers in composites represents a judicious strategy. So far, external fields have been applied to align fillers within the matrix. However, these processes are energy-intensive and require stimuli-responsive fillers through surface modification, further complicating the process and deteriorating filler thermal conductivity. Herein, to these ends, a facile method for manufacturing composite with an orientation-controlled model anisotropic filler, hexagonal boron nitride (h-BN), was proposed by harnessing thermophoresis. Thermophoresis causes movement and/or rotation of solid particles in a fluid with a steady temperature gradient. A suspension of UV-curable monomer with well-dispersed h-BN was subjected to a temperature gradient, inducing filler rotation via thermophoresis. A subsequent photo-curing yielded a solid composite with the frozen h-BN aligned in a direction agreed with expected for thermophoresis, as indicated by the anisotropic thermal conductivity measurement and cross-sectional scanning electron microscopy (SEM) observation. Additionally, the theoretically estimated Peclet number, induced by thermophoresis, was higher than the experimentally determined value required to align suspended h-BN. To our best knowledge, the current study is the first experimental demonstration of controlling anisotropic filler orientation using thermophoresis.

» Author: Seong-Bae Min, Mingeun Kim, Kyu Hyun, Cheol-Woo Ahn, Chae Bin Kim
» Publication Date: 01/01/2023
C/ Gustave Eiffel, 4
(València Parc Tecnològic) - 46980
PATERNA (Valencia) - SPAIN
(+34) 96 136 60 40
Project Management department - Sustainability and Industrial Recovery
life-future-project@aimplas.es
