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131. Wan YJ, Zhu PL, Yu SH, Sun R, Wong CP, Liao WH (2017) Ultralight, super-elastic and
volume-preserving cellulose fiber/graphene aerogel for high-performance electromagnetic
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132. Liu P, Ng VMH, Yao Z, Zhou J, Lei Y, Yang Z, H. Lv., L.B. Kong (2017) Facile synthesis and
hierarchical assembly of flowerlike NiO structures with enhanced dielectric and microwave
absorption properties. ACS Appl Mater Interfaces 9:16404–16416
133. Lee J, Liu Y, Liu Y, Park SJ, Park M, Kim HY (2017) Ultrahigh electromagnetic interference
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134. Kolanowska A, Janas D, Herman AP, J˛ edrysiak RG, Gi˙ zewski T, Boncel S (2018) From
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D. K. Subbiah et al.
114. Wang Y, Yang Y, Wang ZL (2017) Triboelectric nanogenerators as flexible power sources.
Npj Flex Electron 1:1–9
115. Lin L, Wang S, Xie Y, Jing Q, Niu S, Hu Y, Wang ZL (2013) Segmentally structured disk
triboelectric nanogenerator for harvesting rotational mechanical energy. Nano Lett 13:2916–
2923
116. Jing Q, Zhu G, Bai P, Xie Y, Chen J, Han RPS, Wang ZL (2014) Case-encapsulated triboelectric
nanogenerator for harvesting energy from reciprocating sliding motion. ACS Nano 8:3836–
3842
117. Wang S, Lin L, Xie Y, Jing Q, Niu S, Lin Wang Z (2013) Sliding-triboelectric nanogenerators
based on in-plane charge-separation mechanism. Nano Lett 13:2226–2233
118. Yang Y, Zhou YS, Zhang H, Liu Y, Lee S, Wang ZL (2013) A single-electrode based
triboelectric nanogenerator as self-powered tracking system. Adv Mater 25:6594–6601
119. Zhang H, Yang Y, Zhong X, Su Y, Zhou Y, Hu C, Wang ZL (2014) Single-electrode-based
rotating triboelectric nanogenerator for harvesting energy from tires. ACS Nano 8:680–689
120. Niu S, Liu Y, Wang S, Lin L, Zhou YS, Hu Y, Wang ZL (2014) Theoretical investigation and
structural optimization of single-electrode triboelectric nanogenerators. Adv Funct Mater
24:3332–3340
121. Hati S, Das BR, Ishtiaque SM, Rengasamy RS, Kumar A (2010) Ultraviolet absorbers for
textiles. Rjta 14(1)
122. Abney JR, Scalettar BA (1998) Saving your students’ skin. Undergraduate experiments that
probe UV protection by sunscreens and sunglasses. J Chem Educ 75:757
123. Marrett LD, Chu MBH, Atkinson J, Nuttall R, Bromfield G, Hershfield L, Rosen CF (2016)
An update to the recommended core content for sun safety messages for public education in
Canada: a consensus report. Can J Public Heal 107:e473–e479
124. Ibrahim NA, Allam EA, El-Hossamy MB, El-Zairy WM (2007) UV-protective finishing of
cellulose/wool blended fabrics. Polym—Plast Technol Eng 46:905–911
125. Morganroth PA, Lim HW, Burnett CT (2013) Ultraviolet radiation and the skin: an in-depth
review. Am J Lifestyle Med 7:168–181
126. https://www.epa.gov/sites/production/files/2016-09/documents/triethylamine.pdflast
visited 1 March 2019, n.d. https://www.epa.gov/sites/production/files/2016-09/documents/
triethylamine.pdf. Accessed 25 Nov 2018
127. Dean JA (1940) Handbook of chemistry. McGraw-Hill, Inc., United States of America,
pp 1–1561 http://journals.lww.com/soilsci/Abstract/1944/07000/Handbook_of_Chemistry.
13.aspx
128. Zhao H, Hou L, Bi S, Lu Y (2017) Enhanced X-band electromagnetic-interference shielding performance of layer-structured fabric-supported polyaniline/cobalt-nickel coatings. ACS
Appl Mater Interfaces 9:33059–33070
129. Pandey DN, Basu A, Kumar P (2018) Study of electro conductive textiles : a review. Int J Sci
Res Eng Technol 7:744–749
130. Bashari A, Shakeri M, Shirvan AR, Najafabadi SAN (2018) Functional finishing of textiles
via nanomaterials. Nanomater Wet Process Text, pp 1–70
131. Wan YJ, Zhu PL, Yu SH, Sun R, Wong CP, Liao WH (2017) Ultralight, super-elastic and
volume-preserving cellulose fiber/graphene aerogel for high-performance electromagnetic
interference shielding. Carbon NY 115:629–639
132. Liu P, Ng VMH, Yao Z, Zhou J, Lei Y, Yang Z, H. Lv., L.B. Kong (2017) Facile synthesis and
hierarchical assembly of flowerlike NiO structures with enhanced dielectric and microwave
absorption properties. ACS Appl Mater Interfaces 9:16404–16416
133. Lee J, Liu Y, Liu Y, Park SJ, Park M, Kim HY (2017) Ultrahigh electromagnetic interference
shielding performance of lightweight, flexible, and highly conductive copper-clad carbon fiber
nonwoven fabrics. J Mater Chem C 5:7853–7861
134. Kolanowska A, Janas D, Herman AP, J˛ edrysiak RG, Gi˙ zewski T, Boncel S (2018) From
blackness to invisibility—carbon nanotubes role in the attenuation of and shielding from
radio waves for stealth technology. Carbon N Y 126:31–52