With the rapid development of infrared detection and tracking technology, the combat concealment and viability of various military targets are seriously threatened, and the demand for military infrared camouflage is increasingly urgent. Individual combatants, as small moving targets, have the characteristics of small size, strong mobility, complex and changeable background, etc. Their infrared camouflage is more flexible and accurate than the equipment and engineering camouflage. The infrared camouflage textile material is soft and portable, which is the main embodiment of the infrared camouflage technology for individual soldiers. It can be used for infrared camouflage clothing, military tents, sleeping bags, and other equipment. Its research and development have been highly valued by many countries. In this article, details of the working principle, preparation methods, and recent research progress of flexible infrared camouflage textile materials are summarized. First of all, from the military application of infrared technology and the principle of infrared camouflage, the development status of infrared camouflage textile materials is summarized, and the research results of near-infrared and thermal infrared camouflage textile materials are introduced. Secondly, the camouflage conditions and research directions of new multi-band recombination and adaptive infrared camouflage textile materials are discussed. Finally, the challenges and opportunities of the future development of infrared camouflage textile materials, especially adaptive infrared camouflage textile materials, are considered.
LiuCYeHFShiYL.Advances in near-infrared avalanche diode single-photon detectors. Chip2022;
1: 30–40.
2.
DuPFYeWXiaoS, et al.
Research progress of antimony-based type-II superlattice InAs/InAsSb infrared detector. Laser Optoelectron P2022;
59: 1700004.
3.
YangRLiJWangY, et al.
Pyroelectric polyvinylidene fluoride film prepared by a novel combining method and its application in fully flexible infrared detector. Infrared Phys Techn2021;
113: 1–7.
4.
ShengTYLiuZ HChengSY, et al.
Research progress of infrared stealth materials. Laser Infrared2015;
45: 1285–1291.
5.
FengLLLiuYMYaoL, et al.
Infrared stealth and multi-band compatible stealth materials. Prog Chem2021;
33: 1044–1058.
6.
QiaoMTTianYRLiJX, et al.
Core-shell Fe3O4@SnO2 nanochains toward the application of radar-infrared-visible compatible stealth. J Colloid Interf Sci2022;
609: 330–340.
7.
AthalyeA. Camouflage textiles for protective clothing. Indian Text J 2014; 124:110–115.
8.
DaiYJ.Laser and infrared sounds principle.
Beijing:
National Defense Industry Press, 2012, pp. 271–272.
9.
CuiWChenCYiW. Radiation characteristic inversion of space point source target based on infrared imagery. In?Applied Optics and Photonics China (AOPC2015), Beijing, China,15 Oct 2015, paper no. 96742Y, pp.1–8. SPIE: International Society for Optics and Photonics.
10.
WuXLyuJHongG, et al.
Inner surface-functionalized graphene aerogel microgranules with static microwave attenuation and dynamic infrared shielding. Langmuir2018;
34: 9004–9014.
11.
WuKHChengKFWangJC, et al.
Preparation of magnetic expanded graphite with microwave absorption and infrared stealth characteristics. Mater Express2017;
7: 500–508.
12.
LiuBPanSBYuMX.Research and progress of infrared stealth coating. Ordn Mater Sci Eng2017;
40: 137–142.
13.
SudhakarP, Gobi N and Senthilkumar M. Military Textiles: Camouflage fabrics for military protective clothing. UK: Woodhead Publishing Series in Textiles,
14.
ZhangJCZhangXD.Camouflage principle and function of camouflage training clothing. Mod Weap1993;
8: 34–35.
15.
YangYXiaQJQianK, et al.
Research progress on single soldier camouflage and its camouflage. China Text Lead2019;
8: 1–4.
16.
ChenKQ.Research on hyperspectral characteristic of camouflage clothing.
Master's thesis, Donghua University, China, 2014.
17.
FeiYWHuangZJLiuF, et al.
Technology study for organic coatings with near-infrared camouflage. Infrared Technol2003;
25: 88–92.
18.
XieDJLuCLZuM, et al.
Research progress of bionic materials simulating vegetation visible-near infrared reflectance. Spectrosc Spect Anal2021;
41: 1032–1038.
19.
TangJHZhengHCYangQ, et al.
Research and application of waterborne multichannel camouflage printing coating for fabrics. Surf Technol2016;
45: 161–166.
20.
SiadatS A and J Mokhtari.
Diffuse reflectance behavior of the printed cotton/nylon blend fabrics treated with zirconium and cerium dioxide and citric acid in near‐ and short‐wave IR radiation spectral ranges. Color Res Appl2020;
45: 1–10.
21.
HanCZhouLFengXX, et al.
Preparation of camouflage coatings and their application to textiles. China Dye Finis2014;
40: 16–20.
22.
WongADaoudWALiangH H, et al.
Application of rutile and anatase onto cotton fabric and their effect on the NIR reflection/surface temperature of the fabric. Sol Energ Mat Sol C2015;
134: 425–427.
23.
WangJHanAYeM, et al.
Thermal insulation performance of novel coated fabrics based on Fe-doped BaSnO3 near-infrared reflectance pigments. ACS Sustain Chem Eng2021;
9: 16328–16337.
24.
TawiahBNarhCLiM, et al.
Polymer-encapsulated colorful Al pigment with high NIR and UV reflectance and their application in textiles. Ind Eng Chem Res2015;
54: 11858–11865.
25.
NguyenTChenY HChenZ M, et al.
Microstructure, near infrared reflectance, and surface temperature of Ti-O coated polyethylene terephthalate fabrics prepared by roll-to-roll high power impulse magnetron sputtering system. Thin Solid Films2018;
663: 1–8.
26.
WuYYPuTWWangZ.Research on preparation and application of multi band camouflage coating fabric. New Chem Mater2021;
49: 248–251.
27.
FangJJHanJShenLM, et al.
Printing and production technology of coated fabric with special camouflage function. Knitt Ind2021;
3: 43–48.
28.
XuKYeHWangL.Heat and mass transfer characteristics of bionic material simulating the thermal effect of natural leaf transpiration. Int J Heat Mass Tran2021;
179: 121736.
29.
XieDJLvCLZuMei, et al.
Research progress of bionic materials simulating vegetation visible-near infrared reflectance spectra. Spectrosc Spect Anal2021;
41: 1032–1038.
30.
GaoY.Development of bionic material simulating vegetation and research on formation mechanism of its spectrum characteristics.
University of Science and Technology of China, China, 2017.
31.
WangJLiCLiuL, et al.
Design and application of simulation material of green vegetation spectrum in NIR interval. Acta Opt Sin2017;
37: 323–331.
32.
XuKYeH.Preparation and optimization of biomimetic materials simulating solar spectrum reflection characteristics of natural leaves. J Mater Sci2020;
55: 12848–12863.
33.
GaoYYeH.Bionic membrane simulating solar spectrum reflection characteristics of natural leaf. Int J Heat Mass Tran2017;
114: 115–124.
34.
GaoYTangBJiG, et al.
A camouflage coating with similar solar spectrum reflectance to leaves based on polymeric inorganic composite. Mater Res Express2021;
8: 066404.
35.
LuQGuanYFuS.Self-driven super water vapor-absorbing calcium alginate-based bionic leaf for Vis-NIR spectral simulation. Carbohydr Polym2022;
296: 119932.
36.
JiangXJWangHLLingJ, et al.
Preparation and performance research of super absorbent and temperature control green camouflage fabric. Acta Armament2017;
38: 345–350.
37.
HuALiMZhangL, et al.
Polyurethane-based bionic material simulating the Vis-NIR spectrum and thermal infrared properties of vegetation. RSC Adv2019;
9: 41438–41446.
38.
HuAR.Preparation and properties of spectral characteristic simulation materials of plant leaves. Master's thesis, Jiangnan University, China, 2020.
39.
XuKYangLWeiX, et al.
Biomimetic material simulating solar spectrum reflection characteristics of yellow leaf. J Bionic Eng2018;
15: 741–750.
40.
GuoJQZhangZZHuZB, et al.
Advance and trend of near infrared camouflage technology. Infrared Technol201;
38: 96–101.
41.
ZhangHWangXYZhangJC.Near-infrared camouflage properties of polyester fabric dyed with disperse dyes. China Dye Finis2005;
31: 8–11.
42.
ZhangHZhangJC.Near-infrared green camouflage of cotton fabrics using vat dyes. J Text I2008;
99: 83–88.
43.
XuYYCaiZSHeKL, et al.
Near-infrared camouflage of cotton fabric under different background. Text Aux2009;
26: 14–18.
44.
XuYY.Study on near-infrared camouflage properties of vat dyes. Master's thesis, Donghua University, China, 2009.
45.
XiaDH.Research on near-infrared camouflage dye for nylon fabrics. J Silk2014;
51: 16–20.
46.
MehriziMKMortazaviSMMallakpourS, et al.
Effect of carbon black nanoparticles on reflective behavior of printed cotton/nylon fabrics in visible/near infrared regions. Fiber Polym2012;
13: 501–506.
47.
GoudarziUMokhtariJNouriM.Camouflage of cotton fabrics in visible and NIR region using three selected vat dyes. Color Res Appl2014;
39: 200–207.
48.
GoudarziUMokhtariJNouriM.Investigation on the effect of titanium dioxide nano particles on camouflage properties of cotton fabrics. Fiber Polym2014;
15: 241–247.
49.
KhajehMMehrizi, BokaeiF, et al.
Visible-near infrared concealment of cotton/nylon fabrics using colored pigments and multiwalled carbon nanotube particles (MWCNTs). Color Res Appl2015;
40: 93–98.
50.
SalehiSSMehriziMKBidokiSM, et al.
Comfort and reflectance properties of viscose/polyester blend fabric printed by vat/disperse dyes in visible/near‐infrared region. Color Res Appl2020;
45: 477–484.
51.
LuQLiMTianA, et al.
Green plant leaf-inspired smart camouflage fabrics for visible light and near-infrared stealth. J Bionic Eng2022;
19: 788–798.
52.
EsmaeilianNTavanaieMABidokiSM, et al.
Production and characterization of camouflage poly(ethylene terephthalate) filament yarns during the melt spinning process. J Text I2014;
105: 406–413.
KalanSGTavanaieMAEsmaeilianN, et al.
Reflectance-yarn geometry relation of false-twist textured olive hue poly(ethylene terephthalate) mass dyed yarn in visible-near-infrared region. J Text I2018;
109: 248–255.
55.
ZhangLR.Camouflage fabric has adjusted near-infrared spectral reflectance properties. Patent application CN103827369 A, China, 2014.
56.
AsofieiIBoscorneaACBuligaDI, et al.
Mixture design experiments applied for the formulation of a textile ink with reproduction of the NATO IRR green color used in military camouflage. Text Res J2021;
91: 249–260.
57.
RubezieneVPadleckieneIBaltusnikaiteJ, et al.
Evaluation of camouflage effectiveness of printed fabrics in visible and near infrared radiation spectral ranges. Mater Sci-Medzg2008;
14: 361–365.
58.
WangW.Study on technology of silicate thermal insulation coating. Master's thesis,
Nanjing University of Aeronautics and Astronautics, China, 2017.
59.
LiLFXuWLWuX, et al.
Fabrication and characterization of infrared-insulating cotton fabrics by ALD. Cellulose2017;
24: 3981–3990.
60.
XuRWangWYuD.Preparation of silver-plated hollow glass microspheres and its application in infrared stealth coating fabrics. Prog Org Coat2019;
131: 1–10.
61.
AhnJLimTYeoC S, et al.
Infrared invisibility cloak based on polyurethane-tin oxide composite microtubes. ACS Appl Mater Inter2019;
11: 14296–14304.
62.
LuSYNieJB.Discussion on thermal insulation property of honeycomb three-dimensional textile composite material. Cotton Text Technol2018;
46: 67–70.
63.
ZhangXLiNHuZ, et al.
Direct fabrication of poly(p-phenylene terephthalamide) aerogel and its composites with great thermal insulation and infrared stealth. Chem Eng J2020;
388: 124310.
64.
HuangFLXiaoYLiuWT, et al. A kind of infrared stealth fabric with multilayer composite structure and its preparation method. Patent application CN106758163A, China, 2017
65.
XuRWangWYuD.A novel multilayer sandwich fabric-based composite material for infrared stealth and super thermal insulation protection. Compos Struct2019;
212: 58–65.
66.
YinXChenQPanN.Feasibility of perspiration based infrared camouflage. Appl Therm Eng2012;
36: 32–38.
67.
YinXChenQPanN.A study and a design criterion for multilayer-structure in perspiration based infrared camouflage. Exp Therm Fluid Sci2013;
46: 211–220.
68.
YinXChenQPanN.A more comprehensive transport model for multilayer-cloth for perspiration based infrared camouflage. Appl Therm Eng2014;
68: 10–19.
69.
SunZLuCFanJ, et al.
Porous silica ceramics with closed-cell structure prepared by inactive hollow spheres for heat insulation. J Alloy Compd2016;
662: 157–164.
70.
MaHJTianBHHeY.Research progress in preparation and textile application of MCPCM. New Chemical Materials2020;
48: 20–23.
71.
GuJWangWYuD.Temperature control and low infrared emissivity double-shell phase change microcapsules and their application in infrared stealth fabric. Prog Org Coat2021;
159: 106439.
72.
XuRXiaXWangW, et al.
Infrared camouflage fabric prepared by paraffin phase change microcapsule with Good thermal insulting properties. Colloid Surface A2020;
591: 124519.
73.
ChenYZhangHGaoW, et al. The preparation and infrared radar stealth performance test of a new paraffin-based phase transition microcapsule. In: 2nd International Conference on Advances in Materials, Machinery, Electronic, Xi'an, China, 20 Jan–21 Jan 2018, paper no.030063. American Institute of Physics Conference Series.
74.
ZhangGBWangSDHeYF, et al.
Structure and properties of PA6/PEG phase change and temperature regulating nanofibers. J Text Res2014;
35: 30–35.
75.
LyuJLiuZWuX, et al.
Nanofibrous kevlar aerogel films and their phase-change composites for highly efficient infrared stealth. ACS Nano2019;
13: 2236–2245.
76.
SongSZhaoTQiuF, et al.
Natural microtubule encapsulated phase change material with high thermal energy storage capacity. Energy2019;
172: 1144–1150.
77.
ShouSSTianWZhuCY.Study on regulation of thermal infrared radiation performance of fabrics based on gray scale evaluation. Adv Text Technol2019;
27: 43–49.
78.
LiuXFLaiYKHuangJY, et al.
Hierarchical SiO2@Bi2O3 core/shell electrospun fibers for infrared stealth camouflage. J Mater Chem C2015;
3: 345–351.
79.
MaoXBaiYYuJ, et al.
Insights into the flexibility of ZrMxOy (M= Na, Mg, Al) nanofibrous membranes as promising infrared stealth materials. Dalton Trans2016;
45: 6660–6666.
80.
FangKYFangF.Au-decorated SWNT/PVDF electrospun films with enhanced infrared stealth performance. Mater Let2018;
230: 279–282.
FangKYZhaoYCFangF.Infrared stealth nanofibrous composite with thermal stability and mechanical flexibility. J Alloy Compd2021;
855: 157418.
83.
FangKYWangYJZhaoYC, et al.
Infrared stealth nanofibrous composites with thermal adaptability and mechanical flexibility. Compos Sci Technol2020;
201: 108483.1–108483.6.
84.
YuBQiL.Study on the properties of infrared camouflage fiber. J Text Res2007;
8: 23–25.
85.
FangSWangWYuX, et al.
Preparation of ZnO:(Al, La)/polyacrylonitrile (PAN) nonwovens with low infrared emissivity via electrospinning. Mater Let2015;
143: 120–123.
86.
KangJChenYCuiY, et al.
Preparation of bionic porous zirconia fiber by microemulsion electrospinning and its infrared stealth property. Russ J Inorg Chem+2021;
66: 510–515.
87.
ChuHTZhangZCLiuYJ, et al.
Silver particles modified carbon nanotube paper/glassfiber reinforced polymer composite material for high temperature infrared stealth camouflage. Carbon2016;
98: 557–566.
88.
HaoLC.Development and properties of thermal infrared camouflage fabric. Master's thesis,
University of Chinese Academy of Sciences, China, 2015.
89.
WangHMaYQiuJ, et al.
Multifunctional PAN/Al-ZnO/Ag nanofibers for infrared stealth, self-cleaning, and antibacterial applications. ACS Appl Nano Mater2022;
5: 782–790.
90.
JeongSMAhnJChoiYK, et al.
Development of a wearable infrared shield based on a polyurethane-antimony tin oxide composite fiber. NPG Asia Mater2020;
12: 1–13.
91.
YanXWangLQianX.Preparation and characterization of low infrared emissive aluminum/waterborne acrylic coatings. Coatings2020;
10: 1–13.
92.
SunKZhangDYinH, et al.
Preparation of AZO/Cu/AZO films with low infrared emissivity, high conductivity and high transmittance by adjusting the AZO layer. Appl Surf Sci2022;
578: 152051.
93.
WangYBLiXYWangCH, et al.
Preparation and characteristics of polymer matrix composite coatings with low infrared emissivity and high-temperature resistance. Polym Eng Sci2022;
62: 1941–1949.
MuLWangLXHuangY, et al.
Research and development tendency of infrared stealthy coatings. Mater Rev2007;
21: 122–125.
96.
HuCXuGShenX, et al.
The epoxy-siloxane/Al composite coatings with low infrared emissivity for high temperature applications. Appl Surf Sci2010;
256: 3459–3463.
YanXXuG.Effect of surface modification of Cu with Ag by ball-milling on the corrosion resistance of low infrared emissivity coating. Mater Sci Eng: B2010;
166: 152–157.
99.
WuGYuD.Preparation and characterization of a new low infrared-emissivity coating based on modified aluminum. Prog Org Coat2013;
76: 107–112.
100.
XuGRYuXZhouL, et al.
Preparation of low-emissivity coating and its application in thermal infrared camouflage of polyester/cotton blended fabrics. J Silk2014;
51: 1–5.
101.
SunRHeXKGaoM, et al.
Study on the Influence of aluminum powder on emissivity for infrared camouflage coatings. China Coat2016;
31: 59–62.
102.
PengLJiangSGuoR, et al.
IR protection property and color performance of TiO2/Cu/TiO2 coated polyester fabrics. J Mater Sci-Mater El2018;
29: 16188–16198.
103.
JiaLFuBLuML, et al.
High-performance aramid fabric in infrared shielding by magnetron sputtering method. Mater Res Express2020;
7: 056401.
104.
JiangSMiaoDXuJ, et al.
Preparation and characterization of shielding textiles to prevent infrared penetration with Ag thin films. J Mater Sci-Mater El2016;
28: 3542–3547.
105.
MiaoDZhaoHPengQ, et al.
Fabrication of high infrared reflective ceramic films on polyester fabrics by RF magnetron sputtering. Ceram Int2015;
41: 1595–1601.
106.
TanZLiBW.Research and development tendency of infrared stealthy coatings. Mater Rev2016;
19: 13–16.
107.
WangZRYuDBSunXQ.Study on emittance of pigments for infrared camouflage paints. Aerosp Shanghai2000;
24–26+39.
108.
HanC.Study on the preparation of infrared stealth coatings and their camouflage protection application on cotton/polyester blended fabrics. Master's thesis,
Zhejiang Sci-Tech University, China, 2015.
109.
LiangJLiWXuG, et al.
Preparation and characterization of the colored coating with low infrared emissivity based on nanometer pigment. Prog Org Coat2018;
115: 74–78.
110.
LuFTanPRenD, et al.
Variable infrared emittance mechanisms of electrochromic film based on poly(aniline) under various doping concentrations of camphorsulfonic acid. Dyes Pigments2022;
200: 110179.
111.
BadadheSSMullaIS.H2S gas sensitive indium-doped ZnO thin films: Preparation and characterization. Sensor Actuat B: Chem2009;
143: 164–170.
112.
ZhouFLiZFanL, et al.
Experimental study of love-wave immunosensors based on ZnO/LiTaO3 structures. Ultrasonics2010;
50: 411–415.
113.
RavichandranKPhilominathanP.Fabrication of antimony doped tin oxide (ATO) films by an inexpensive, simplified spray technique using perfume atomizer. Mater Lett2008;
62: 2980–2983.
114.
MaoZWangWLiuY, et al.
Infrared stealth property based on semiconductor (M)-to-metallic (R) phase transition characteristics of W-doped VO2 thin films coated on cotton fabrics. Thin Solid Films2014;
558: 208–214.
115.
MaoZYuXZhangL, et al.
Novel infrared stealth property of cotton fabrics coated with nano ZnO: (Al, La) particles. Vacuum2014;
104: 111–115.
116.
WangWFangSZhangL, et al.
Infrared stealth property study of mesoporous carbon-aluminum doped zinc oxide coated cotton fabrics. Text Res J2015;
85: 1065–1075.
117.
WangWZhangLPFangSJ, et al.
Low-emitting property of lanthanum aluminate and its application in infrared stealth. Sci Adv Mater2015;
7: 1649–1656.
118.
WangW.The preparation and application of low infrared emissivity materials. Master's thesis,
Donghua University, China, 2015.
119.
JiangWJ.Preparation of infrared stealth coating and the application on tent fabrics. Master's thesis,
Donghua University, China, 2016.
120.
QinYZhangMGuanY, et al.
Laser absorption and infrared stealth properties of Al/ATO composites. Ceram Int2019;
45: 14312–14315.
121.
ZhangLXiaGLiX, et al.
Fabrication of the infrared variable emissivity electrochromic film based on polyaniline conducting polymer. Synthetic Met2019;
248: 88–93.
122.
YangLXChengHFZhangCY, et al.
Research progress of adhesives for infrared stealth coatings. Mater Prot2016;
49: 112–116.
123.
YeSTLiuCHJiaYF, et al.
Research on surface modification of fillers in infrared stealth coatings. Infrared Techn2015;
37: 1058–1062.
124.
HuangYMuLZhangQT.Research progress and developing trend of low infrared emissivity coatings. J Mater Scie Eng2008;
26: 820–823.
125.
ZhangMCaiHL, andCuiZC.Study of thermal infrared transparent binders for fabrics. J Tianjin I Text Sci Technol2003;
22: 45–48.
126.
WangHH.Research on influence factors of inorganic adhesive of adhesion of low emissivity coating with high temperature resistant. Master's thesis, Nanjing University of Aeronautics and Astronautics, China, 2015.
127.
DegensteinLMSameotoDHoganJD, et al.
Smart textiles for visible and IR camouflage application: State-of-the-art and microfabrication path forward. Micromachines2021;
12: 773.
128.
KolanowskaAJanasD, HermanAP, et al.
From blacknessto invisibility – carbon nanotubes role in the attenuation of and shielding from radio waves for stealth technology. Carbon2018;
126: 31–52
129.
XuGYQianQFangG, et al.
Research status and progress of multi-spectrum stealth materials. Aeronaut Sci Technol2022;
33: 1–9.
130.
XuCLiuCYFangG, et al.
Design, preparation and performance evaluation of core unit in multispectral camouflage coating. Infrared Phys Techn2022;
121: 104013
131.
YuBQiLYeJZ, et al.
The research of radar absorbing property of bicomponent fibers with infrared camouflage. J Polym Res2007;
14: 107–113.
132.
YuBQiLYeJZ, et al.
Preparation and radar wave absorbing characterization of bicomponent fibers with infrared camouflage. J Appl Polym Sci2007;
104: 2180–2186.
133.
WangKZWangCXYinYJ, et al.
Modification of Al pigment with graphene for infrared/visual stealth compatible fabric coating. J Alloy Compd2017;
690: 741–748．
134.
ZhouXXinBJChenZM, et al.
Preparation of PANI-coated hollow glass microsphere and its application in dual-band stealth coated fabric. Polym Bull2021;
79: 7555–7570.
135.
WangJHuQHuangJH, et al.
Multifunctional textiles enabled by simultaneous interaction with infrared and microwave electromagnetic waves. Adv Mater Interfaces2022;
9: 2102322.
136.
LiuHDWangCYChenGR, et al.
Moisture assisted photo-engineered textiles for visible and self-adaptive infrared dual camouflage. Nano Energy2022;
93: 106855.
137.
ChenLPRenZYLiuXM, et al.
Infrared-visible compatible stealth based on Al-SiO2 nanoparticle composite film. Opt Commun2021;
482: 126608.
138.
RenZChenLLiuX, et al.
Preparation, characterization and simulation of Al@SiO2 nanoparticle composite films with infrared-visible stealth. Infrared Phys Techn2020;
111: 103472.
139.
ShiTZhengZHLiuH, et al.
Configuration of multifunctional polyimide/graphene/Fe3O4 hybrid aerogel-based phase-change composite films for electromagnetic and infrared bi-stealth. Nanomaterials2022;
11: 3038.
140.
ZhuHLiQTaoC, et al.
Multispectral camouflage for infrared, visible, lasers and microwave with radiative cooling. Nat Commun2021;
12: 1–8.
141.
ShiYADingXYPanKC, et al.
A novel multi-dimensional structure of graphene-decorated composite foam for excellent stealth performance in microwave and infrared frequency bands. J Mater Chem A2022;
10: 7705–7717.
142.
LuoMYLiXZhangZJ, et al.
Tunable infrared detection, radiative cooling and infrared-laser compatible camouflage based on a multifunctional nanostructure with phase-change material. Nanomaterials2022;
12: 2261.
143.
MaWJTangCHHeP, et al.
Morphology-controlled fabrication strategy of hollow mesoporous carbon spheres@f-Fe(2)O(3) for microwave absorption and infrared stealth. ACS Appl Mater Interfaces2022;
14: 34985–34996.
144.
QiaoMTTianYRLiJX, et al.
Core-shell Fe3O4@SnO2 nanochains toward the application of radar-infrared-visible compatible stealth. J Colloid Interf Sci2022;
609: 330–340.
145.
DangSCYeH.A visible-infrared-compatible camouflage photonic crystal with heat dissipation by radiation in 5-8 mum. Cell Rep Phys Sci2022;
2: 100617.
146.
PanMHuangYLiQ, et al.
Multi-band middle-infrared-compatible camouflage with thermal management via simple photonic structures. Nano Energy2020;
69: 104449.
147.
KangQLLiDKWangW, et al.
Multiband tunable thermal camouflage compatible with laser camouflage based on GST plasmonic metamaterial. J Phys D Appl Phys2021;
55: 065103.
148.
KimTBaeJYLeeN, et al.
Hierarchical metamaterials for multispectral camouflage of infrared and microwaves. Adv Funct Mater2019;
29: 1807319.
149.
YangJZhangXZhangX, et al.
Beyond the visible: Bioinspired infrared adaptive materials. Adv Mater2021;
33: 2004754.
150.
XuCYStiubianuGTGorodetskyAA.Adaptive infrared-reflecting systems inspired by cephalopods. Science2018;
359: 1495–1500.
151.
KarpagamKRSaranyaKSGopinathanJ, et al.
Development of smart clothing for military applications using thermochromic colorants. J Text Inst2017;
108: 1122–1127.
152.
VikováMPechováM.Study of adaptive thermochromic camouflage for combat uniform. Text Res J2020;
90: 2070–2084.
CuiGPengZChenXY, et al.
Freestanding graphene fabric film for flexible infrared camouflage. Adv Sci2022;
9: 1–7.
155.
YuHQiMWangJ, et al.
A feasible strategy for the fabrication of camouflage electrochromic fabric and unconventional devices. Electrochem Commun2019;
102: 31–36.
156.
LimTJeongSMSeoK, et al.
Development of fiber-based active thermal infrared camouflage textile. Appl Mater Today2020;
20: 100624.
157.
ChoeAYeomJKwonY, et al.
Stimuli-responsive micro/nanoporous hairy skin for adaptive thermal insulation and infrared camouflage. Mater Horiz2020;
7: 3258–3265.
LiuYDZuoHYXiWF, et al.
Flexible janus functional film for adaptive thermal camouflage. Adv Mater Technol2021;
7: 2100821.
160.
KlineWMLorenziniRGSotzingGA.A review of organic electrochromic fabric devices. Color Technol2014;
130: 73–80.
161.
LiKZhangQWangH, et al.
Blue (RGB) electrochromic fibers for the new smart color change fabrics. ACS Appl Mater Inter2014;
6: 13043–13050.
162.
ChenZWeiCRaoW, et al.
An electrothermochromic fabric prepared by electrodeposition of polypyrrole on single side. Fiber Polym2018;
19: 2344–2350.
163.
ZhuTXiongJChenJ, et al.
Flexible electrochromic fiber with rapid color switching and high optical modulation. Nano Res2021;
▪: ▪. DOI: 10.1007/s12274-021-3798-9.
164.
DuanMHWangXCXuWX, et al.
Electro-thermochromic luminescent fibers controlled by self-crystallinity phase change for advanced smart textiles. ACS Appl Mater Inter2021;
13: 57943–57951.
165.
JiXLiuWYinY, et al.
A graphene-based electro-thermochromic textile display. J Mater Chem C2020;
8: 15788–15794.
166.
GeFFeiLZhangJ, et al.
The electrical-triggered high contrast and reversible color-changing Janus fabric based on double-side coating. ACS Appl Mater Inter2020;
12: 21854–21862.
167.
ChenSSPangYLWangJN.Preparation and properties of green-yellow reversible electro-thermochromic fabric. J Inorg Mater2022;
37: 954–960.
168.
FanHLiQLiK, et al.
Stretchable electrothermochromic fibers based on hierarchical porous structures with electrically conductive dual-pathways. Sci China Mater2020;
63: 2582–2589.
169.
FanHLiKLiuX, et al.
Continuously-processed, long-range electrochromic fibers with multi-environmental stability. ACS Appl Mater Inter2020;
12: 28451–28460.
170.
PanJHaoBXuP, et al.
Highly robust and durable core-sheath nanocomposite yarns for electro-thermochromic performance application. Chem Eng J2019;
384: 123376.
