Flexible carbon‐based fluoropolymer composites for effective EMI shielding and heat dissipation

Contemporary applications require protection against overheating and electromagnetic radiation interference, preferably with reduced mass and enhanced basic performance, such as flammability or chemical or UV resistance and often also low or non‐electrically conductive. Materials exhibiting all thes...

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Veröffentlicht in:Polymer composites 2024-04, Vol.45 (5), p.4319-4337
Hauptverfasser: Łapińska, Anna, Grochowska, Natalia, Filak, Karolina, Dużyńska, Anna, Polański, Marek, Wyrębska, Iwona, Jóźwik, Paweł, Gołofit, Tomasz, Dydek, Kamil, Michalski, Przemysław P., Plichta, Andrzej
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container_end_page 4337
container_issue 5
container_start_page 4319
container_title Polymer composites
container_volume 45
creator Łapińska, Anna
Grochowska, Natalia
Filak, Karolina
Dużyńska, Anna
Polański, Marek
Wyrębska, Iwona
Jóźwik, Paweł
Gołofit, Tomasz
Dydek, Kamil
Michalski, Przemysław P.
Plichta, Andrzej
description Contemporary applications require protection against overheating and electromagnetic radiation interference, preferably with reduced mass and enhanced basic performance, such as flammability or chemical or UV resistance and often also low or non‐electrically conductive. Materials exhibiting all these functions can be designed, but there is usually not just one but several different materials with advanced processing requirements; therefore, a simple manufacturing method providing percolation path formation involving powder mixing and hot pressing of providing excellent flexibility terpolymer comprising tetrafluoroethylene, hexafluoropropylene, and vinylidene fluoride monomeric units (THV)‐based nanocomposites is presented here. The addition of the graphene nanoplatelets (GNPs) and multiwalled carbon nanotubes (MWCNTs) significantly improves the EMI shielding effectiveness, up to SETOT = 23 dB for the GNP filler, SETOT = 17 dB for the MWCNT/GNP filler per 1 mm samples thickness and enhances almost 900% the thermal conductivity to almost 2 W/mK per GNP filler. Besides this improvement, the electrical conductivity remains at a low level, not surpassing 1.5 S/cm, which is, as mentioned above, beneficial in many applications, especially thermal management. Moreover, the proposed material is an excellent alternative to flexible foam or sponges. Highlights Structural, electrical, EMI shielding, and thermal properties of flexible THV/GNP, THV/MWCNT, and THV/MWCNT/GNP nanocomposites are shown here. The oriented, long as over 1 mm filler paths are observed. The GNP filler provides the best thermal conductivity enhancement of over 800% compared to bare polymer. The EMI shielding effectiveness is dominated by absorption for all THV‐based nanocomposites. The electrical conductivity follows the power law, reaching σ = 1.49 S/cm for GNP‐filled nanocomposites. (Left upper corner) Photo of manufactured flexible, fluorocarbon composite, (right upper corner) SEM photo of percolation paths of representative sample, (down) summary of most prominent features (including thermal conductivity, EMI shielding effectiveness and electrical conductivity) of THV/GNP series.
doi_str_mv 10.1002/pc.28061
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Besides this improvement, the electrical conductivity remains at a low level, not surpassing 1.5 S/cm, which is, as mentioned above, beneficial in many applications, especially thermal management. Moreover, the proposed material is an excellent alternative to flexible foam or sponges. Highlights Structural, electrical, EMI shielding, and thermal properties of flexible THV/GNP, THV/MWCNT, and THV/MWCNT/GNP nanocomposites are shown here. The oriented, long as over 1 mm filler paths are observed. The GNP filler provides the best thermal conductivity enhancement of over 800% compared to bare polymer. The EMI shielding effectiveness is dominated by absorption for all THV‐based nanocomposites. The electrical conductivity follows the power law, reaching σ = 1.49 S/cm for GNP‐filled nanocomposites. 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Besides this improvement, the electrical conductivity remains at a low level, not surpassing 1.5 S/cm, which is, as mentioned above, beneficial in many applications, especially thermal management. Moreover, the proposed material is an excellent alternative to flexible foam or sponges. Highlights Structural, electrical, EMI shielding, and thermal properties of flexible THV/GNP, THV/MWCNT, and THV/MWCNT/GNP nanocomposites are shown here. The oriented, long as over 1 mm filler paths are observed. The GNP filler provides the best thermal conductivity enhancement of over 800% compared to bare polymer. The EMI shielding effectiveness is dominated by absorption for all THV‐based nanocomposites. The electrical conductivity follows the power law, reaching σ = 1.49 S/cm for GNP‐filled nanocomposites. 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Materials exhibiting all these functions can be designed, but there is usually not just one but several different materials with advanced processing requirements; therefore, a simple manufacturing method providing percolation path formation involving powder mixing and hot pressing of providing excellent flexibility terpolymer comprising tetrafluoroethylene, hexafluoropropylene, and vinylidene fluoride monomeric units (THV)‐based nanocomposites is presented here. The addition of the graphene nanoplatelets (GNPs) and multiwalled carbon nanotubes (MWCNTs) significantly improves the EMI shielding effectiveness, up to SETOT = 23 dB for the GNP filler, SETOT = 17 dB for the MWCNT/GNP filler per 1 mm samples thickness and enhances almost 900% the thermal conductivity to almost 2 W/mK per GNP filler. Besides this improvement, the electrical conductivity remains at a low level, not surpassing 1.5 S/cm, which is, as mentioned above, beneficial in many applications, especially thermal management. Moreover, the proposed material is an excellent alternative to flexible foam or sponges. Highlights Structural, electrical, EMI shielding, and thermal properties of flexible THV/GNP, THV/MWCNT, and THV/MWCNT/GNP nanocomposites are shown here. The oriented, long as over 1 mm filler paths are observed. The GNP filler provides the best thermal conductivity enhancement of over 800% compared to bare polymer. The EMI shielding effectiveness is dominated by absorption for all THV‐based nanocomposites. The electrical conductivity follows the power law, reaching σ = 1.49 S/cm for GNP‐filled nanocomposites. (Left upper corner) Photo of manufactured flexible, fluorocarbon composite, (right upper corner) SEM photo of percolation paths of representative sample, (down) summary of most prominent features (including thermal conductivity, EMI shielding effectiveness and electrical conductivity) of THV/GNP series.</abstract><cop>Hoboken, USA</cop><pub>John Wiley &amp; Sons, Inc</pub><doi>10.1002/pc.28061</doi><tpages>19</tpages><orcidid>https://orcid.org/0000-0002-7005-9273</orcidid></addata></record>
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source Wiley Journals
subjects Effectiveness
electrical conductivity
Electrical resistivity
Electromagnetic interference
Electromagnetic radiation
Electromagnetic shielding
EMI shielding
Fillers
Flammability
flexible
Fluoropolymers
Graphene
Heat conductivity
Heat transfer
Hot pressing
Low level
Multi wall carbon nanotubes
multifunctional
multiwalled carbon nanotubes
Nanocomposites
Overheating
Percolation
polymer nanocomposites
Production methods
Terpolymers
Thermal conductivity
Thermal management
Thermodynamic properties
Vinylidene
Vinylidene fluoride
title Flexible carbon‐based fluoropolymer composites for effective EMI shielding and heat dissipation
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