In the segregated network theory of electrical percolation the structure of the conducting network dictates the volume of filler required to reach percolation. 2000 thousand years ago Appollonius of Perga showed that successively smaller circles would fill the interstices of larger circles. In the early 20th century Furnas described how by using a bimodal particle system it was possible for particles to pack in the same way as described by Appollonius and so create materials with a high density and low void fractions. By applying this theory to CNT-Latex composites, it has been possible to force CNTs to fill this reduced void space and so form a connected network at a much lower volume of filler and hence produce films with very low percola...
Composite materials are disclosed having low filler percolation thresholds for filler materials into...
In several technological applications, carbon nanotubes (CNT) are added to a polymer matrix in order...
The article of record as published may be found at https://doi.org/10.3390/nano9040491It is well est...
In the segregated network theory of electrical percolation the structure of the conducting network d...
The latex-based technique to introduce carbon nanotubes (CNTs) into polymers has shown to be highly ...
A significant reduction in the electrical percolation threshold is achieved by locking carbon nanotu...
The concept of "double percolation", i.e., conductive fillers are selectively located in one phase o...
In this project, the phenomenon of ultra-low percolation threshold for electrical conduction in carb...
Herein, investigation on synergistic effect during network formation for conductive network construc...
Carbon nanotube reinforced polymeric composites can have favourable electrical properties, which mak...
Morphological control of conductive networks involves the construction of segregated or double-perco...
The results presented in this paper reveal the first evidence that two types of percolation threshol...
Novel nanosized crystals of aquocyanophthalocyaninatocobalt (III) (Phthalcon 11) were used as a cond...
The electrical percolation of polymer-matrix composites (PMCs) containing hybrid fillers of carbon n...
We apply continuum connectedness percolation theory to realistic carbon nanotube systems and predict...
Composite materials are disclosed having low filler percolation thresholds for filler materials into...
In several technological applications, carbon nanotubes (CNT) are added to a polymer matrix in order...
The article of record as published may be found at https://doi.org/10.3390/nano9040491It is well est...
In the segregated network theory of electrical percolation the structure of the conducting network d...
The latex-based technique to introduce carbon nanotubes (CNTs) into polymers has shown to be highly ...
A significant reduction in the electrical percolation threshold is achieved by locking carbon nanotu...
The concept of "double percolation", i.e., conductive fillers are selectively located in one phase o...
In this project, the phenomenon of ultra-low percolation threshold for electrical conduction in carb...
Herein, investigation on synergistic effect during network formation for conductive network construc...
Carbon nanotube reinforced polymeric composites can have favourable electrical properties, which mak...
Morphological control of conductive networks involves the construction of segregated or double-perco...
The results presented in this paper reveal the first evidence that two types of percolation threshol...
Novel nanosized crystals of aquocyanophthalocyaninatocobalt (III) (Phthalcon 11) were used as a cond...
The electrical percolation of polymer-matrix composites (PMCs) containing hybrid fillers of carbon n...
We apply continuum connectedness percolation theory to realistic carbon nanotube systems and predict...
Composite materials are disclosed having low filler percolation thresholds for filler materials into...
In several technological applications, carbon nanotubes (CNT) are added to a polymer matrix in order...
The article of record as published may be found at https://doi.org/10.3390/nano9040491It is well est...