Influence of the Permittivity on Carbon Fiber Particulates Applied in  Radiation Absorbing Materials

Influence of the Permittivity on Carbon Fiber Particulates Applied in Radiation Absorbing Materials

Miguel Angelo Do Amaral Junior

Contact

Newton Adriano Do Santos Gomes

Contact

Simone de Souza Pinto

Contact

Mirabel Cerqueira Rezende

Contact

Jossano Saldanha Marcuzzo

Contact

Sandro Fonseca Quirino

Contact

Mauricio Ribeiro Baldan

Contact

Influence of the Permittivity on Carbon Fiber Particulates Applied in Radiation Absorbing Materials

Article Fingerprint

ReserarchID

G9XMY

Influence of the Permittivity on Carbon Fiber Particulates Applied in Radiation Absorbing Materials Banner

AI TAKEAWAY

Connecting with the Eternal Ground

Abstract

Carbonaceous materials are widely applied as materials that absorb electromagnetic radiation, whether in the form of carbon fibers, nanotubes and graphene. In this work the carbon fiber from raw material textile polyacrylonitrile was used in two distinct forms, felt and particulates. The carbon fiber felt samples showed real and imaginary permissiveness about four times higher than those in particulate form and also a reflection of up to 93% of the incident radiation. The study of the particulate fibers was carried out with particles of sizes smaller than 25um and 25-53um and embedded in an epoxy resin matrix in two concentrations of mass, 25% and 50% of carbon fiber. The best attenuation occurred for samples with particulate size 25-53um, where the concentration of 50% attenuated until 60% and the samples with 25% carbon fiber concentration until 75%.

References

32 Cites in Article

Reference Format

Rui Wang,Hui Yang,Jingling Wang,Fengxiu Li (2014). The electromagnetic interference shielding of silicone rubber filled with nickel coated carbon fiber.
Qinglei Liu,Jiajun Gu,Wang Zhang,Yoshinari Miyamoto,Zhixin Chen,Di Zhang (2012). Biomorphic porous graphitic carbon for electromagnetic interference shielding.
Heguang Liu,Jinsong Wu,Qiang Zhuang,Alei Dang,Tiehu Li,Tingkai Zhao (2016). Preparation and the electromagnetic interference shielding in the X-band of carbon foams with Ni-Zn ferrite additive.
Xiao Cao,Hao Ren,Hai Zhang (2015). Preparation and microwave shielding property of silver-coated carbonyl iron powder.
Viviane Soethe,Evandro Nohara,Luis Fontana,Mirabel Rezende (2011). Radar absorbing materials based on titanium thin film obtained by sputtering technique.
D Chung (2004). Electrical applications of carbon materials.
Wen Hong,Peng Xiao,Heng Luo,Zhuan Li (2015). Microwave axial dielectric properties of carbon fiber.
Xiao Cao,Hao Ren,Hai Zhang (2015). Preparation and microwave shielding property of silver-coated carbonyl iron powder.
L Hongfei,W Jianjiang,X Baocai,W Guoshun,H Yongshen,G Haitao,Y Weimin (2015). Effects of Mg or Sr Doping on the Intrinsic Characteristics and Absorption Properties of Micronano BaFe 12 O 19 Hollow Multiphase Ceramic Microspheres.
Yi Liu,Fa Luo,Jinbu Su,Wancheng Zhou,Dongmei Zhu (2014). Electromagnetic and microwave absorption properties of the Nickel/Ti3SiC2 hybrid powders in X-band.
Viviane Soethe,Evandro Nohara,Luis Fontana,Mirabel Rezende (2011). Radar absorbing materials based on titanium thin film obtained by sputtering technique.
A Paula (2010). Método para determinação da permissividade elétrica e permeabilidade magnética de materiais isotrópicos com suporte computacional (Doctoraldissertation, Dissertação De Mestrado.
D Chung (2004). Electrical applications of carbon materials.
Y Zang,S Xia,L Li,G Ren,Q Chen,H Quan,Q Wu (2015). Microwave absorption enhancement of rectangular activated carbon fibers screen composites.
Shaoxu Xia,Bin Yao,Qiping Chen,Xinhai Yu,Qilin Wu (2016). Composites with Koch fractal activated carbon fiber felt screens for strong microwave absorption.
Zhimin Dang,Yang Shen,Lizhen Fan,Ning Cai,Cewen Nan,Shujin Zhao (2003). Dielectric properties of carbon fiber filled low-density polyethylene.
Ying Liu,Zhongquan Zhang,Songtao Xiao,Chengwen Qiang,Liangliang Tian,Jincheng Xu (2011). Preparation and properties of cobalt oxides coated carbon fibers as microwave-absorbing materials.
Tianchun Zou,Naiqin Zhao,Chunsheng Shi,Jiajun Li (2011). Microwave absorbing properties of activated carbon fibre polymer composites.
Y Huang,H Zhang,G Zeng,Z Li,D Zhang,H Zhu,J Zhu (2016). The microwave absorption properties of carbon -encapsulated nickel nano particles / silicone resin flexible absorbing material.
S Venkatachalam,G Ducournau,J Lampin,D Hourlier (2017). Net-shaped pyramidal carbonbased ceramic materials designed for terahertz absorbers.
E Hashsish (2002). Design of Wideband Thin Layer Planar Absorber.
S Kim,S Jo,K Gueon,K Choi,J Kim,K Churn (1991). Complex permeability and permittivity and microwave absorption of ferrite-rubber composite at x-band frequencies.
Xianhua Chen,Juan Liu,Zhihua Zhang,Fusheng Pan (2012). Effect of heat treatment on electromagnetic shielding effectiveness of ZK60 magnesium alloy.
Y Zang,S Xia,L Li,G Ren,Q Chen,H Quan,Q Wu (2015). Microwave absorption enhancement of rectangular activated carbon fibers screen composites.
A Nicolson,G Ross (1970). Measurement of the Intrinsic Properties of Materials by Time-Domain Techniques.
L De Castro Folgueras,M Alves,M Rezende (2010). Dieletric properties of microwave absorbing sheets produced with silicone and polyaniline.
P Singh,V Babbar,A Razdan,R Puri,T Goel (2000). Complex permittivity, permeability, and xband microwave absorption of CaCoTi ferrite composites.
Valdirene Silva,Luiza Folgueras,Geraldo Cândido,Adriano Paula,Mirabel Rezende,Michelle Costa (2013). Nanostructured composites based on carbon nanotubes and epoxy resin for use as radar absorbing materials.
C Dartora,H Armando,F Thomazi,E Burkarter (2015). Caracterização experimental da permissividade dielétrica de materiais através da técnica de refletometria no domínio do tempo.
Z Dang,Y Shen,L Fan,N Cai,C Nan,S Zhao (2003). Dielectric properties of carbon fiber filled lowdensity polyethylene.
W Hong,P Xiao,H Luo,Z Li (2015). Microwave axial dielectric properties of carbon fiber.
Yingxin Huang (2016). The microwave absorption properties of carbon-encapsulated nickel nano particles / silicone resin flexible absorbing material.

Download References

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Miguel Angelo Do Amaral Junior. 2018. \u201cInfluence of the Permittivity on Carbon Fiber Particulates Applied in Radiation Absorbing Materials\u201d. Global Journal of Research in Engineering - F: Electrical & Electronic GJRE-F Volume 17 (GJRE Volume 17 Issue F8).

More Citation Formats

Select Citation Style:

Download Citation

GJRE Volume 17 Issue F8

Explore Journals Explore Volume Read This Issue

Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

Keywords

Not Found

Classification

GJRE-F Classification FOR Code: 290903

Submission ReceivedDecember 15, 2016
Peer Review Double Blind
Handling Editor
Accepted January 4, 2017
Published January 15, 2017

Version of record

v1.2

Issue date

January 29, 2018

Language

Experiance in AR

Explore published articles in an immersive Augmented Reality environment. Our platform converts research papers into interactive 3D books, allowing readers to view and interact with content using AR and VR compatible devices.

View in VR

Read in 3D

Your published article is automatically converted into a realistic 3D book. Flip through pages and read research papers in a more engaging and interactive format.

View in 3D

Article Matrices

Total Score: 107

Country: Brazil

Subject: Global Journal of Research in Engineering - F: Electrical & Electronic

Authors: Miguel Angelo Do Amaral Junior, Newton Adriano Do Santos Gomes, Simone de Souza Pinto, Mirabel Cerqueira Rezende, Jossano Saldanha Marcuzzo, Sandro Fonseca Quirino, Mauricio Ribeiro Baldan (PhD/Dr. count: 0)

View Count (all-time): 275

Total Views (Real + Logic): 3418

Total Downloads (simulated): 1677

Publish Date: 2018 01, Mon

Monthly Totals (Real + Logic):

Month 1: 33 views
Month 2: 50 views
Month 3: 59 views
Month 4: 36 views
Month 5: 67 views
Month 6: 34 views
Month 7: 45 views
Month 8: 29 views
Month 9: 48 views
Month 10: 41 views
Month 11: 53 views
Month 12: 26 views
Month 13: 21 views
Month 14: 42 views
Month 15: 32 views
Month 16: 40 views
Month 17: 30 views
Month 18: 30 views
Month 19: 43 views
Month 20: 43 views
Month 21: 36 views
Month 22: 27 views
Month 23: 20 views
Month 24: 25 views
Month 25: 23 views
Month 26: 25 views
Month 27: 43 views
Month 28: 23 views
Month 29: 23 views
Month 30: 28 views
Month 31: 22 views
Month 32: 24 views
Month 33: 20 views
Month 34: 33 views
Month 35: 37 views
Month 36: 28 views
Month 37: 33 views
Month 38: 20 views
Month 39: 29 views
Month 40: 23 views
Month 41: 41 views
Month 42: 30 views
Month 43: 43 views
Month 44: 38 views
Month 45: 31 views
Month 46: 23 views
Month 47: 40 views
Month 48: 24 views
Month 49: 31 views
Month 50: 19 views
Month 51: 43 views
Month 52: 33 views
Month 53: 27 views
Month 54: 28 views
Month 55: 37 views
Month 56: 36 views
Month 57: 42 views
Month 58: 17 views
Month 59: 23 views
Month 60: 13 views
Month 61: 29 views
Month 62: 28 views
Month 63: 45 views
Month 64: 20 views
Month 65: 20 views
Month 66: 28 views
Month 67: 26 views
Month 68: 39 views
Month 69: 47 views
Month 70: 22 views
Month 71: 29 views
Month 72: 31 views
Month 73: 25 views
Month 74: 14 views
Month 75: 25 views
Month 76: 32 views
Month 77: 41 views
Month 78: 17 views
Month 79: 14 views
Month 80: 48 views
Month 81: 29 views
Month 82: 32 views
Month 83: 36 views
Month 84: 38 views
Month 85: 28 views
Month 86: 25 views
Month 87: 14 views
Month 88: 48 views
Month 89: 39 views
Month 90: 21 views
Month 91: 28 views
Month 92: 26 views
Month 93: 46 views
Month 94: 30 views
Month 95: 43 views
Month 96: 41 views
Month 97: 37 views
Month 98: 47 views
Month 99: 47 views

Total Views: 3418

Total Downloads: 1677

2026 Trends

Our website is actively being updated, and changes may occur frequently. Please clear your browser cache if needed. For feedback or error reporting, please email [email protected]