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す 4 ᱻͪͪ喑ぶ: PDA/DTMS-㏠ㆠ TiO 2 ᄦ㯂͊㏴➖㜗ԛฺ䊲⪼Ⅱ᪡⤳ g919g
㏠ㆠ TiO 2 ᩦᕔ㯂͊㏴➖⮱Ⅱᣒ㼓㻿ᰶ̸䭺喑ѳ፲ ➖ڤᰶ㞜ສ⮱㜗⌲∮䭟㘪߈ȡₑใ喑PDA/DTMS-
Ꮣ̺๔喑㏼͊℈≄⋑ݯ≄⋑ 25 ⁎ऻ喑ڣᣒ㼓㻿ͧ ㏠ㆠ TiO 2 ᩦᕔ㯂͊㏴➖㶕⣝ܧ㞜ສ⮱䊲⪼Ⅱࣷោ㉘
151°喑Ϻڤᰶ䊲⪼Ⅱᕔȡຯఫ 9b 喑PDA/DTMS- ใ㏬⮱㔽⏣ݯ≄ᕔ㘪喑ߌ㘪㔽Ͳᕔສȡ᱙ݣิጒ㞧
㏠ㆠ TiO 2 ᩦᕔ㯂͊㏴➖㏼͊℈≄⋑ݯ≄⋑ 25 ⁎ऻ喑 キࢂȠ㐬㞟⣜Ԋ́Фᵩ䒰ѻ喑ౕ㏧㏴৮⮱ߌ㘪᪡
ڣ UPF ⩞᱗㏼≄⋑⮱ 75.81 䭺ͧ 49.50喑UVA 䔼䓴 ⤳͚ᰶ䒰倅⮱ᣕᎬᏁ⩕Фթȡ
⢴⩞᱗㏼≄⋑⮱ 0.59%̷ࡴͧ 1.32%喑ោ㉘ใ㏬ᕔ
࣯㔰᪴⡛喟
㘪Ϻ䒰ͧхᐯȡ䔆ψ㐀䄡ᬻ喑PDA হ DTMS ᩦᕔ
[1] ZHENG Y L (䗾⢶⣟). Application of anti-staining agent S-2 to silk
㏠ㆠ TiO 2 ⮱ڞह҉⩕Ҭ㯂͊㏴➖ڤᰶ㞜ສ⮱䊲⪼Ⅱ fabrics[J]. Dyeing & Finishing (࢝ᴀ), 2010, 36(2): 34-35.
Вࣷោ㉘ใ㏬Ƞ㔽⏣ݯ≄ᕔ㘪ȡ [2] YANG L (Ვ䱟), MENG J G (ႌუٶ), XUE T (㫈⋈). Research
progress of textile self-cleaning finishing[J]. Journal of Textile Science
and Engineering (㏧㏴႓̻ጒ⼸႓្), 2022, 39(1): 78-84.
[3] ALJUMAILY M M, ALSAADI M A, DAS R, et al. Optimization of
the synthesis of superhydrophobic carbon nanomaterials by chemical
vapor deposition[J]. Scientific Reports, 2018, 8(1): 2778-2786.
[4] LI A, WANG G, ZHANG Y, et al. Preparation methods and research
progress of superhydrophobic paper[J]. Coordination Chemistry Reviews,
2021, 449: 214207.
[5] FENG L Z, YAN X, HOQUE M J, et al. Superhydrophobic surfaces
made from naturally derived hydrophobic materials[J]. ACS Sustainable
Chemistry & Engineering, 2019, 5(12): 11362-11370.
[6] CAI D P (㩎๔卼). Preparation of superhydrophobic silk based on
MgO and organosilicone and its properties[D].Suzhou: Soochow
University (㟼ጋ๔႓), 2019.
[7] GAO S (倅༄), LI H Q (ᱻ㏏ᑧ), CHEN Z H (䭵͚ࡻ), et al.
Research progress on the preparation and functionalization of
self-healing superhydrophobic materials[J]. Fine Chemicals (㏳ࡃ
ጒ), 2020,37(12): 2377-2385, 2397.
[8] MA W, ZHAO J, OLAYINKA O, et al. Durable superhydrophobic
and superoleophilic electrospun nanofibrous membrane for oil-water
emulsion separation[J]. Journal of Colloid and Interface Science,
2018, (532): 12-23.
[9] ZHANG C, OU Y, LEI W X, et al. CuSO 4/H 2O 2-induced rapid
deposition of polydopamine coatings with high uniformity and
enhanced stability[J]. Angewandte Chemie International Edition,
2016, 55(9): 3054-3057.
[10] WANG H (⢸⊖), LIU N (݅ཉ), CHEN Z S (䭵∪̓), et al.
Superhydrophobic antibacterial natural cellulose fabric and its
ఫ 9 PDA/DTMS-㏠ㆠ TiO 2 ᩦᕔ㯂͊㏴➖㔽≄ᕔ喟≄⋑ preparation method: CN112900102B[P]. 2022-03-04.
[11] ZHANG Y, FU F, ZHOU F, et al. Synergistic effect of RGO/TiO 2
ᄦⅡᣒ㼓㻿喍a喎হោ㉘ใ㏬ᕔ㘪⮱ᒞ৺喍b喎 nanosheets with exposed (001) facets for boosting visible light
Fig. 9 Washing resistance of PDA/DTMS-nanoTiO 2 modified photocatalytic activity[J]. Applied Surface Science, 2020,(510):
fabric: Effect of washing on water contact angle (a) 145451.
and anti ultraviolet (b) [12] CHEN Q H, MAO X G, HAN Y X, et al. Preparation and
characterization of bamboo fiber-graft-lauryl-methacrylateand its
composites with polypropylene[J]. Applied Polymer, 2013, 130(4):
3 㐀䃧 2377-2382.
[13] WEI W C(䴓᪴ࢯ)喑LUI Z(݅ሒ)喑WEI R Z(偼⋓㟊), et al.
䛴⩕็ጡ㘧ᔘ䕌㖇व↶⼜ౕ㯂͊㏴➖㶕䲏喑Ꭳ Preparation of superhydrophobic composite coating based on MOFs
materials and its corrosion protection for carbon steel[J]. Materials
ݖ⩕ PDA ⮱倅叼䭱ᕔᑂڒ DTMS ᩦᕔ㏠ㆠ TiO 2 ᄦ Reports(ᱽ᫆ᄩ្), 2021, 35(20): 20068-20075.
㯂͊㏴➖䔈㵹䊲⪼Ⅱߌ㘪᪡⤳喑ݣิ⮱ PDA/DTMS- [14] YUAN L (㶮ϛ). Study on functional modification of cotton fabric
based on rapid polymerization of dopamine[D]. Hefei: Anhui
㏠ㆠ TiO 2 ᩦᕔ㯂͊㏴➖ڤᰶхᐯ⮱䊲⪼Ⅱᕔࣷោ㉘ Agricultural University (Ⴖᓪۉ͇๔႓), 2021.
ใ㏬ᕔ㘪ȡᄦᩦᕔݺऻ㯂͊㏴➖䔈㵹ᓛ㻯ᒏ䆹হ㐀 [15] HAO L, YAN T, FICHTHORN K A, et al. Dynamic contact angles
and mechanisms of motion of water droplets moving on nanopillared
Ჱᕔ㘪⮱≸䄂ࣾ⣝喑ᔘ䕌⅔ࡃ㖇वᒏ⮱ PDA ䷄ㆿ superhydrophobic surfaces: A molecular dynamics simulation study
হ㏠ㆠ TiO 2 ڞह҉⩕Ჱᐧγ䊲⪼Ⅱ㏴➖㶕䲏⽠Ⴧ⮱ [J]. Langmuir, 2018, 34(34): 9917-9926.
[16] CAO J, WANG C. Multifunctional surface modification of silk fabric
ᓛ㏠㇄㈆㐀Ჱ喑DTMS ᑂڒ⪼Ⅱᕔ䪬䨫☤喑䭺ѻ via graphene oxide repeatedly coating and chemical reduction method
γ㏴➖㶕䲏㘪ȡ㏼䓴ѻ⍖ぶ⻨ၽҀহᱧᷝᦖᨓᢌё [J]. Applied Surface Science, 2017, 405: 380-388.
[17] HONG G, CHENG H, MENG Y, et al. Mussel-inspired polydopamine
ऻ喑䊲⪼Ⅱ㯂͊㏴➖ज䕇䓴ߍ☚ᖏฺ䊲⪼Ⅱᕔ喠ౕ as a green, efficient, and stable platform to functionalize bamboo
10 ⁎ぶ⻨ၽҀݨ㮭-ߍ☚ԛฺ⮱ᓗ⣜কহ 1200 ⁎ fiber with amino-terminated alkyl for high performance poly (butylene
succinate) composites[J]. Polymers, 2018, 10(4): 461.
ᱧᷝᦖᨓᢌё-ԛฺᓗ⣜ऻ喑㏴➖Ⅱᣒ㼓㻿Ϻ䘪䓫ݝ
150°В̷喑ڤᰶ㞜ສ⮱⪼Ⅱ㜗ԛฺ㘪߈喑́ᩦᕔ㏴ 喍̸䒙す 928 䶢喎