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1.28	The title is: 香芹酚抑制细菌生长的作用机制与应用潜力研究
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Title: 香芹酚抑制细菌生长的作用机制与应用潜力研究

香芹酚的抗菌作用机制与协同效应

香芹酚对细菌细胞膜结构与功能的损伤机制

香芹酚的抗菌作用核心机制为损伤细菌细胞膜的结构与功能，其分子结构中的游离羟基是抗菌活性的关键位点——缺乏该羟基的p-伞花烃抗菌活性显著降低[1][2][3][4][5]。具体机制可分为两方面：一是破坏细胞膜完整性，导致通透性增加、质子与钾离子泄漏及膜电位去极化[1][6][7][8][9][10][11][12][13][14][15][16]；二是作为单价阳离子跨膜转运体，通过H⁺与K⁺交换干扰质子动力势，抑制ATP合成，最终导致细菌死亡[2][17][10][11][14][5]。此外，香芹酚还可通过与膜脂质相互作用改变膜结构（亲水部分结合膜极性区域、疏水部分嵌入膜疏水内层），导致膜脂过氧化水平升高（如大肠杆菌经处理后丙二醛产量显著增加[18][19]）。

香芹酚对不同细菌的膜损伤效应及协同作用

研究对象	膜损伤效应/协同机制	相关指标/结果	参考文献
大肠杆菌（革兰氏阴性菌）	诱导细胞膜释放脂多糖，增强膜损伤；破坏膜完整性	脂多糖释放增加；细胞外钾离子、低分子量蛋白、核酸泄漏量升高[12][16]	[20][21][7][22][12][16]
金黄色葡萄球菌	剂量依赖性增加PI摄取；抑制质子动力势；与百里酚联用表现相加效应	细胞外核酸和K⁺浓度显著升高；1/16 MIC香芹酚+1/4 MIC百里酚对Xcc菌株FICI=0.31	[23][24][16][25][26][20][27]
蜡样芽孢杆菌营养细胞	与p-伞花烃联用协同抗菌	p-伞花烃通过肿胀细胞膜促进香芹酚进入细胞	[20][21][5]
嗜水气单胞菌	与柠檬醛联用加速膜损伤	1/8 MIC联合使用显著增加PI阳性细胞比例	[28]
荧光假单胞菌	与柠檬醛联用协同增加膜通透性	——	[24]
铜绿假单胞菌	与百里酚联用表现相加效应；包封香芹酚（E-CARV）增强膜损伤	八倍稀释的香芹酚-百里酚联合混合物仍具协同杀菌作用；E-CARV更易导致GFP泄漏	[26][20][27][12]
大肠杆菌、李斯特菌	与庆大霉素联用协同抗菌	1/4 MIC香芹酚使庆大霉素MIC降低至1/16	[29]
化脓性链球菌	与克林霉素联用表现边际协同效应	FICI=1.0	[13]
多种细菌	与生物合成银纳米颗粒（bioAgNP）联用协同破坏细胞膜	细胞内ATP泄漏量增加，加速细菌死亡	[18]
多种细菌	纳米载体（壳聚糖纳米粒、纳米乳）增强膜靶向作用	香芹酚壳聚糖纳米粒对金葡菌、大肠杆菌的MBC值（0.06、0.12 mg/mL）低于游离态	[1][30]

超微结构观察进一步证实，香芹酚处理后细菌普遍出现形态变形、表面粗糙及细胞质泄漏，如大肠杆菌暴露后细胞膜破裂、内容物外泄现象显著[2][23][31][27][24][17][29][32][10][33][13][14][18]。此外，香芹酚可增加细菌对TX-100、SDS等去污剂的裂解敏感性，进一步验证其膜损伤效应[34]。植物精油中的协同效应也值得关注：西班牙牛至、香薄荷等精油中，香芹酚与γ-松油烯等成分可通过氧化途径转化为p-伞花烃并羟基化生成香芹酚，增强整体膜破坏效应[21][5]；百里香牛至精油中高含量的香芹酚（66.2%）与百里酚（26.5%）也通过协同作用强化膜损伤[10]。

香芹酚与其他化合物的协同抗菌效应及作用机制

香芹酚与其他化合物的协同抗菌效应在萜类、酚类、脂肪酸、精油成分及抗生素等多种组合中被证实，核心机制包括细胞膜损伤、成分间互补转运（如萜类前体促进香芹酚进入细胞）及多靶点作用互补，且对革兰氏阴性杆菌的抑制效果通常强于革兰氏阳性球菌[35]。这些协同效应不仅降低单一化合物的使用浓度，还能提升抗菌效率，为其在食品、医药领域的应用提供了广阔思路。

香芹酚与不同化合物组合的协同抗菌效应及特征

组合类型	具体组合	作用菌株/对象	协同效应特征	机制相关说明	参考文献
萜类化合物组合	萜类组合C4	白喉棒状杆菌、肠炎沙门氏菌等5种细菌	0.5 mM浓度下表现强杀菌活性，15分钟内显现效果，革兰氏阴性杆菌5分钟内完全杀灭	-	[35]
萜类-萜类组合	香芹酚+百里酚	金黄色葡萄球菌、铜绿假单胞菌、Xcc菌株WHRI 3811、MRSA、MSSA	相加效应；对Xcc、MRSA、MSSA表现协同（FICI=0.31）	-	[20][26][27][36]
萜类-萜类前体组合	香芹酚+对伞花烃	蜡样芽孢杆菌营养细胞	协同作用；0.5 mM香芹酚+0.25 mM对伞花烃48分钟内使活菌数降50%	对伞花烃肿胀细胞膜，促进香芹酚进入细胞	[20][37]
萜类-酚类组合	香芹酚+丁香酚	大肠杆菌	协同效应	香芹酚破坏外膜，使丁香酚更易进入细胞质结合蛋白质	[38][39]
萜类-单萜烃组合	香芹酚+1,8-桉叶素	单核细胞增生李斯特菌等3种细菌	协同（FICI=0.25），1/8 MIC联用仍抑制生长；对嗜水气单胞菌存在拮抗效应	-	[40][41]
萜类-酚类组合	香芹酚+没食子酸	4株粪肠球菌	部分协同（FICI=0.5~0.75），浓度降至单独使用的1/4~1/2	-	[42]
萜类-单萜醇组合	香芹酚+香茅醇（1:1、1:0.5等比例）	金黄色葡萄球菌等4种细菌、生物膜	协同（FICI=0.25~0.5），破坏成熟生物膜胞外多糖基质，降低碳水化合物等含量	-	[43]
萜类-脂肪酸组合	香芹酚+百里酚+辛酸/癸酸	热死环丝菌、弯曲乳杆菌	热死环丝菌比生长速率从0.46 d⁻¹降至0.24 d⁻¹（降幅63.3%）；弯曲乳杆菌活菌数降4 log单位	-	[44]
萜类三元组合	香芹酚+百里酚+丁香酚	无害李斯特菌	75 mg/kg香芹酚+62.5 mg/kg百里酚可完全抑制生长；三元组合表现协同杀菌活性	-	[45]
精油-精油组合	牛至精油（主含香芹酚）+百里酚精油	蜡样芽孢杆菌	协同（FICI=0.5），抑菌浓度显著低于单独使用	-	[46]
精油-抗生素组合	摩洛哥百里香精油（高香芹酚）+环丙沙星/庆大霉素/普那霉素	肺炎克雷伯菌	与环丙沙星、庆大霉素、普那霉素协同；低香芹酚精油仅与普那霉素协同	-	[47]
萜类-抗生素组合	香芹酚+四环素、链霉素、庆大霉素	MRSA、MSSA、沙门氏菌	与四环素（FICI=0.28）、链霉素（FICI=0.31）、庆大霉素协同；恢复沙门氏菌对四环素的敏感性	香芹酚抑制细菌外排泵活性	[48][36][49]
萜类-纳米载体组合	含香芹酚的百里香精油纳米粒（Th-CNPs）	单核细胞增生李斯特菌	MIC低至0.03 mg/mL，显著低于纯精油（1 mg/mL）	壳聚糖纳米粒阳离子基团与细菌细胞膜阴离子相互作用，促进香芹酚扩散	[1]
萜类-食品添加剂组合	香芹酚+山梨酸钾	金黄色葡萄球菌等	特定aw和pH条件下协同（FICIndex 0.405~0.833）	-	[50]
多化合物混合物	香芹酚+辣椒素+肉桂醛	大肠杆菌、产气荚膜梭菌	降低菌株数量	-	[20]
萜类-柑橘提取物组合	香芹酚+20%柠檬提取物（柑橘果实提取物CFEs）	非酸/酸适应的大肠杆菌O157:H7、鼠伤寒沙门氏菌、单核细胞增生李斯特菌	协同杀菌，可完全消除非酸适应的鼠伤寒沙门氏菌	-	[51]

香芹酚与脂肪酸的协同作用在食品模型中得到验证，如萜类与中链脂肪酸混合物可显著降低热死环丝菌的比生长速率和弯曲乳杆菌的最大活菌数[44]；与香茅醇的组合还能破坏成熟生物膜的胞外多糖基质，降低碳水化合物、蛋白质和脂质含量[43]。此外，香芹酚与硫酸新霉素对嗜水气单胞菌NJ-35表现出相加效应（FICI=0.563）[52]，进一步体现了其与不同类别化合物协同的广谱性。

香芹酚对不同细菌菌株的抗菌活性与剂量效应关系

香芹酚对革兰氏阳性菌、革兰氏阴性菌及条件致病菌均具有广谱抗菌活性，且普遍呈现剂量效应关系——抑制/杀菌效果随浓度升高而增强，部分菌株在高浓度下活菌数显著下降甚至降至检测限以下。其对不同菌株的最低抑菌浓度（MIC）和最低杀菌浓度（MBC）存在差异，具体数据如下表所示：

香芹酚对不同细菌菌株的MIC与MBC值汇总

细菌类别	菌株（菌株编号/类型）	MIC值	MBC值	参考文献
革兰氏阳性菌	金黄色葡萄球菌USA300野生株	50 μL/L	-	[53]
革兰氏阳性菌	金黄色葡萄球菌CAR耐药株	150 μL/L（较野生株增50%）	-	[53]
革兰氏阳性菌	变形链球菌、血链球菌	0.1%（93.4 μg/mL）	0.39%（373.4 μg/mL）	[2]
革兰氏阳性菌	表皮葡萄球菌	31.25 μg/mL	-	[54]
革兰氏阳性菌	粪肠球菌、肺炎链球菌	0.03–0.75 mg/mL	-	[55]
革兰氏阳性菌	金黄色葡萄球菌ATCC 25923	1.0 mM	-	[56]
革兰氏阳性菌	金黄色葡萄球菌75MR（多重耐药临床株）	-	-（2小时完全抑制）	[55]
革兰氏阳性菌	嗜热脂肪芽孢杆菌、无害李斯特菌、单核细胞增生李斯特菌	0.80–2.10 µg mL−1	-	[57]
革兰氏阳性菌	嗜水气单胞菌	100 ppm	100 ppm	[41]
革兰氏阳性菌	金黄色葡萄球菌（MRSA）	0.6 mg/mL	-	[58]
革兰氏阳性菌	金黄色葡萄球菌MSSA	128.0–203.2 μg mL−1	-	[36]
革兰氏阳性菌	金黄色葡萄球菌MRSA	362.0–1024.0 μg mL−1	-	[36]
革兰氏阳性菌	金黄色葡萄球菌SA 358	32 µg/mL	-	[59]
革兰氏阳性菌	金黄色葡萄球菌IS-58	256 µg/mL	-	[60]
革兰氏阳性菌	凝固酶阴性葡萄球菌（CoNS）	1–2 mM	-	[61]
革兰氏阳性菌	金黄色葡萄球菌MU 47	0.125 μl/ml	-	[62]
革兰氏阳性菌	其他金黄色葡萄球菌菌株	0.25 μl/ml	-	[62]
革兰氏阳性菌	表皮葡萄球菌MU 30	0.5 μl/ml	-	[62]
革兰氏阳性菌	变形链球菌ATCC 25175	100–400 μg/mL	-	[63]
革兰氏阳性菌	玉米狄克氏菌	0.1 mg/mL	0.2 mg/mL	[14]
革兰氏阳性菌	停乳链球菌	0.05 mg/mL	0.11 mg/mL	[64]
革兰氏阳性菌	人葡萄球菌	0.03 mg/mL	0.05 mg/mL	[64]
革兰氏阳性菌	金黄色葡萄球菌	1.38 mg/mL	2.77 mg/mL	[64]
革兰氏阳性菌	葡萄球菌（P. savastanoi pv. savastanoi）	1.25 mg/mL	-	[65]
革兰氏阳性菌	金黄色葡萄球菌	0.156 mg/mL	-	[16]
革兰氏阳性菌	金黄色葡萄球菌ATCC 25923	1.0 mM	-	[15]
革兰氏阳性菌	金黄色葡萄球菌ATCC 6538	2.5 μL/mL	-	[66]
革兰氏阳性菌	粪肠球菌	1/6400	-	[67]
革兰氏阴性菌	嗜水气单胞菌NJ-35	125 μg/mL	250 μg/mL	[52]
革兰氏阴性菌	大肠杆菌	1.0–2.0 mmol/L	-	[68]
革兰氏阴性菌	大肠杆菌O157:H7	500 μg/mL	-（0.5小时活菌数降至检测限）	[69]
革兰氏阴性菌	肠炎沙门氏菌	-	-（1 mM完全抑制生长）	[35]
革兰氏阴性菌	多杀性巴氏杆菌	2.5 mM	-	[48]
革兰氏阴性菌	溶血性曼氏杆菌	1.25 mM	-	[48]
革兰氏阴性菌	铜绿假单胞菌	0.23–0.7 mg/mL	-	[70]
革兰氏阴性菌	铜绿假单胞菌	0.3 mg/mL	-	[58]
革兰氏阴性菌	伤寒沙门氏菌、阴沟肠杆菌（Enterobacter agglomerans）	0.03–0.75 mg/mL	-	[55]
革兰氏阴性菌	野油菜黄单胞菌	0.0195%	-（30分钟杀菌）	[27]
革兰氏阴性菌	恶臭假单胞菌	0.80–2.10 µg mL−1	-	[57]
革兰氏阴性菌	大肠杆菌	200 ppm	-	[41]
革兰氏阴性菌	流感嗜血杆菌、副流感嗜血杆菌	0.15 mg/mL	-	[58]
革兰氏阴性菌	荧光假单胞菌	0.25 μl/ml	-	[62]
革兰氏阴性菌	铜绿假单胞菌	0.25–0.5 μl/ml	-	[62]
革兰氏阴性菌	伴放线放线杆菌ATCC 33384、大肠杆菌ATCC 10798	100–400 μg/mL	-	[63]
革兰氏阴性菌	鲍曼不动杆菌（临床分离株）	0.5 mg/ml	-	[71]
革兰氏阴性菌	牙龈卟啉单胞菌、微小消化链球菌	0.04 mg/ml	-	[72]
革兰氏阴性菌	大肠杆菌	2.50 mg/ml	-	[72]
革兰氏阴性菌	肠炎沙门氏菌	-	-（0.77 mM使生长速率降至0.09±0.005 h⁻¹）	[73]
革兰氏阴性菌	肠炎沙门氏菌ATCC 700720	-	-（抑制圈20 mm）	[74]
革兰氏阴性菌	肠炎沙门氏菌	0.025–0.03%	-	[75]
革兰氏阴性菌	大肠杆菌MG1655	200 μL/L	-	[76]
革兰氏阴性菌	大肠杆菌ATCC 25922	0.6 ± 0.3 mg/ml	0.7 ± 0.4 mg/ml	[18]
革兰氏阴性菌	KPC产肺炎克雷伯菌、碳青霉烯耐药鲍曼不动杆菌、MRSA N315	0.6 ± 0.3 mg/ml	0.7 ± 0.4 mg/ml	[18]
革兰氏阴性菌	空肠弯曲菌108	0.2 mM（最高亚抑制浓度）	-	[77]
革兰氏阴性菌	空肠弯曲菌81116	0.25 mM（最高亚抑制浓度）	-	[77]
革兰氏阴性菌	大肠杆菌	0.025–0.05%	-	[15]
革兰氏阴性菌	大肠杆菌、鼠伤寒沙门氏菌	250 μg/mL	-	[78]
革兰氏阴性菌	铜绿假单胞菌	125 μg/mL	-	[78]
革兰氏阴性菌	大肠杆菌ATCC 25922	0.6 ± 0.3 mg/ml	0.7 ± 0.4 mg/ml	[18]
革兰氏阴性菌	阴沟肠杆菌（Enterobacter aerogenes）	1/3200	-	[67]
条件致病菌	与白色念珠菌共分离的细菌	1 mg/mL	-	[79]
条件致病菌	SE86菌株	0.62 μL/mL	-	[80]
条件致病菌	Δdps、ΔrpoS、ΔompR突变株	0.31 μL/mL	-	[80]
乳腺炎致病菌	无乳链球菌、停乳链球菌等	0.4–0.8%	0.8–1.5%	[81]

香芹酚的抗菌作用机制以破坏细胞膜结构和功能为核心：其羟基赋予的亲脂性使其插入细胞质膜脂质层，破坏膜结构并增加通透性，导致细胞内容物（离子、ATP、钾离子等）泄漏[12,35,99]。具体表现为处理大肠杆菌和金黄色葡萄球菌后出现显著离子泄漏[68]，处理蜡样芽孢杆菌时ATP池耗尽、膜电位改变[11]，处理玉米狄克氏菌时细胞膜完整性降低、细胞表面褶皱破裂[14]。此外，香芹酚还可通过多种途径增强抗菌效应：如作为单价阳离子跨膜转运体破坏质子动力势[2]，与DNA的鸟嘌呤N7、胞嘧啶N3及骨架磷酸基团结合干扰DNA功能[11]，抑制生物膜形成（如半MIC浓度对金黄色葡萄球菌生物膜抑制率达95%[82]），下调多重耐药鲍曼不动杆菌核糖体亚基组装相关mRNA表达[83]，诱导大肠杆菌产生ROS和脂质过氧化[18]，以及抑制细菌运动性和侵袭能力[77]等。

香芹酚与其他物质联用可产生协同或相加效应，进一步增强抗菌活性。协同/相加组合包括：与香茅醛、法尼醇联用抑制白色念珠菌[79]，与百里酚联用作用于金黄色葡萄球菌（包括MRSA）[59,70]，与对伞花烃联用抑制蜡样芽孢杆菌和单核细胞增生李斯特菌[74,256]，与多西环素联用抑制多杀性巴氏杆菌[48]，与nisin联用抑制金黄色葡萄球菌和李斯特菌[84]，以及与环丙沙星、庆大霉素联用抑制肺炎克雷伯菌[47]等。部分联用机制明确，如与百里酚联用增强细胞膜通透性[85]，与nisin、热处理联用延长沙门氏菌滞后期[73]等。此外，含香芹酚的复合精油（如与对伞花烃、百里酚组合）抗菌活性常优于纯香芹酚[54,67]，体现了成分间的协同贡献。

香芹酚在食品与医疗领域的抗菌应用潜力及技术优化

香芹酚的抗菌作用机制主要依赖其结构中的游离羟基：该基团赋予亲脂性，使其嵌入细菌细胞膜脂质层，破坏膜结构与功能（增加通透性、质子/钾离子泄漏、膜电位去极化）[1][2][20][7]；作为单价阳离子跨膜转运体，通过H⁺-K⁺交换破坏质子动力势，抑制ATP合成，并干扰核酸代谢与酶活性，最终导致细胞死亡[2]。此外，香芹酚与百里香酚可协同破坏革兰氏阴性菌外膜、释放脂多糖（LPS），增加细胞质膜ATP通透性与被动渗透性[22]。

香芹酚对不同细菌的形态与分子损伤效应

处理对象	损伤效应	浓度/处理特征	文献来源
野油菜黄单胞菌（Xcc）NCPPB 528T	改变细胞质膜结构，出现明显膜变形	-	[27]
D. zeae	细胞表面皱缩、塌陷甚至破裂，损伤程度随浓度升高而加剧	浓度依赖性损伤	[14]
P. savastanoi pv. savastanoi	引发蛋白质和DNA泄漏，强度强于牛至精油	-	[65]
D. zeae	细胞上清液OD₂₆₀显著升高，4×MIC下1-4小时内较对照增加9.59-14.60倍	4×MIC浓度	[14]

香芹酚的协同效应在多组分配伍中表现显著：与生物前体p-伞花烃联用时，p-伞花烃通过肿胀细胞膜促进其进入细胞[20]；与百里香酚联用对单核细胞增生李斯特菌等呈现协同/相加效应，如对Xcc菌株WHRI 3811的1/16 MIC香芹酚+1/4 MIC百里香酚组合FICI为0.31[27]；与p-伞花烃联用对蜡样芽孢杆菌（0.5 mM+0.25 mM，48分钟活菌数降为初始值50%）[37]、单核细胞增生李斯特菌STCC4031（0.75 mmol/L组合10分钟活菌数降4.7 log单位）具协同活性[86]；与单萜烃（α-蒎烯、莰烯等）联用可增强细胞膜相互作用[39]；与橙花醇联用对金黄色葡萄球菌等FICI为0.25-0.5[43]。抗生素联用方面，与四环素对甲氧西林敏感金黄色葡萄球菌（MSSA）ATCC 11632的FICI为0.28[36]，与链霉素对甲氧西林耐药金黄色葡萄球菌（MRSA）ATCC 43300的FICI为0.31[36]，与庆大霉素联用可降低大肠杆菌等的抗生素剂量（如大肠杆菌组庆大霉素剂量降至1/16 MIC）[29]。

香芹酚在食品领域的抗菌应用参数与效果

应用场景	处理方式/浓度	效果	文献来源
食品包装涂层	含0.0125 g香芹酚的MHPC涂层	有效抑制金黄色葡萄球菌	[87]
鱼broth和碎鱼肉	与牛至精油其他成分协同	降低单核细胞增生李斯特菌数量，12℃低温效果更优	[88]
卷心菜种子表面	0.078%香芹酚溶液	根除Xcc，对种子发芽无显著phytotoxic效应	[27]
食品基质	0.5-20 μL/g	发挥显著抗菌作用	[89]
果蔬清洗液	0.1-10 μL/mL	发挥显著抗菌作用	[89]
彩虹鳟鱼片	1.5%含香芹酚的精油	单核细胞增生李斯特菌数量降至5.51±0.08 log cfu/g	[10]
火鸡香肠	含香芹酚的精油组合	减少生物胺积累	[90]
大肠杆菌/沙门氏菌处理	含香芹酚的精油（EO6）与SAN复配	30秒内使活菌数降低>5 log CFU/ml	[75]

需注意，高脂食品基质会降低香芹酚抗菌功效（如牛排鞑靼中5 mmol/g对单核细胞增生李斯特菌无显著抑制[91]），NaCl（1.25 g/L）也会拮抗其与对伞花烃对蜡样芽孢杆菌的协同效应[39]。

医疗领域中，香芹酚对口腔致病菌活性显著：对变形链球菌和血链球菌的MIC为0.1%（93.4 μg/mL），10×MIC浓度1小时可抑制成熟生物膜代谢活性且无溶血作用[2]；对碳青霉烯酶产生菌具抗菌与生物膜抑制双重作用[92]；对产超广谱β-内酰胺酶（ESBL）的多重耐药肠杆菌科细菌有抑制活性[93]；蒸汽对伴放线放线杆菌和大肠杆菌的抑制圈约0.6 cm[63]；与橙花醇联用100X浓度可1分钟内使活菌数降>5 log单位，并破坏指甲表面成熟生物膜[43]。此外，香芹酚临床安全剂量（1-2 mg/kg/天）无负面健康影响，具抗原otoxic活性，可用于漱口水或可植入生物材料[2]；亚抑菌浓度（1/2 MIC）对橄榄植株无显著phytotoxic效应[65]。

技术优化方面，纳米载体与微胶囊化可提升香芹酚应用潜力：微胶囊化产品冷藏3个月仍保持抗菌活性且气味更低[26]；大豆油为油相的微胶囊释放量52-97 ppm，适用于果蔬包装[22]；香芹酚-壳聚糖纳米粒（Th-CNPs）对单核细胞增生李斯特菌的MIC低至0.03 mg/mL，优于纯百里香精油（1 mg/mL）[1]；含香芹酚的纳米乳液对杀鱼爱德华氏菌等的MIC和MBC为3.12 µg/mL，优于四环素[94]。此外，A. tenuifolia精油中香芹酚与其他成分的协同作用，使其抗菌效果优于庆大霉素和萘啶酸等常用抗生素[95]。

含香芹酚抗菌材料的制备及性能表征

含香芹酚抗菌材料的制备方法多样，涵盖纳米颗粒包封、金属有机框架（MOF）复合、环糊精接枝、电纺纤维负载等策略，部分方法还涉及协同负载或基质直接添加；载体类型显著影响香芹酚的释放行为与抗菌活性，二者的对应关系可通过不同载体体系的表征结果直观体现。

含香芹酚抗菌材料的制备方法、释放行为与抗菌活性

载体体系	制备方法	释放行为/关键特性	抗菌活性	文献
PEI修饰PLA纳米颗粒（CAR-(PEI)NPs）	表面修饰聚乙二醇（PEI）实现正电荷改性	pH 7.4 PBS中先burst释放（<15%）后持续释放，8小时累计释放90%；7天内挥发量<10%	抑制香芹酚挥发，对革兰氏阳性菌长期抑菌效果显著（48小时MIC 128-256 μg/mL）	[96]
香芹酚@MIL-100(Fe)复合材料	MOF纳米颗粒与香芹酚乳液在旋转摇床搅拌5天后离心干燥（直接浸渍法）	控制香芹酚缓释	对E. coli和L. innocua抑菌效果较游离香芹酚分别提升82%和93%	[97]
β-环糊精接枝CNC材料	β-环糊精包合作用负载香芹酚	释放更持久，48小时及3次清洗后仍保持活性	细菌log降低值显著高于未接枝CNC及脂肪酸改性CNC	[98]
电纺PCL纤维（PCL-CA）	香芹酚替代乙酸丁酯作为溶剂制备	包封效率83%	抗菌活性与电纺时间相关：90分钟电纺纤维对E. coli杀菌，对L. innocua需更长时间	[99]
香芹酚+百里酚协同负载纳米颗粒	协同负载（27% w/w香芹酚+20% w/w百里酚）	-	加剧细胞膜损伤（扫描电镜显示皱缩、孔洞及鞭毛丢失）	[100]
香芹酚负载壳聚糖材料	直接添加	-	-	[101]
香芹酚负载PP薄膜（8%添加量）	直接添加	-	对S. aureus抑菌圈最大，对E. coli仅有限直接接触抑制	[102]
Surfynol 485W胶束	香芹酚加入75%（wt/wt）表面活性剂储备液，再与琼脂混合（终浓度0.3%/0.5%/0.7%）	-	0.3%胶束使L. monocytogenes 310菌株3小时下降3.4 log，24小时低于检测限；对E. coli O157:H7 3小时低于检测限	[103]
杂化二氧化硅纳米颗粒（CTESPC）	香芹酚与3-(三乙氧基硅基)丙基异氰酸酯在四辛基锡催化下反应合成	需细菌膜酯酶水解氨基甲酸酯键释放香芹酚	对E. coli杀菌浓度1.4 mg/ml，效果较纯二氧化硅纳米颗粒提升4.5 log	[104]
EVA-香芹酚共混膜（7 wt%添加量）	115°C熔融混合	37°C下释放促进抗菌活性	37°C对E. coli、S. aureus及混合菌活菌数分别下降2-3、2.5-4、1-2 log；抑制60-80%生物膜形成	[105]
β-环糊精-香芹酚包合物（CD-CARV）	包合作用制备	-	对Bacillus sp. B7有显著抑制作用	[106]
苯丙氨酸-香芹酚共晶（PHE:CARV）	共晶形成制备	-	对Bacillus sp. B7抑制效果强于CD-CARV，与纯香芹酚相当	[106]
PLA_PHB-香芹酚-OLA复合膜（10 wt%香芹酚）	添加香芹酚及OLA（15或20 wt%）	-	对S. aureus和E. coli 3小时内杀菌并维持24小时	[107]
番茄/苹果基可食性薄膜	成膜液中添加0.5%或0.75%（w/w）香芹酚	0.5%香芹酚不影响熟鸡肉偏好性，0.75%降低偏好性	-	[108]
聚乳酸电纺香芹酚纳米纤维（C10）	负载香芹酚	浓度依赖性释放	对E. coli和S. epidermidis浓度依赖性抑制，10%香芹酚纤维24小时抑制率>92%	[109]
β-环糊精包合香芹酚	-	水溶性提升	对S. Typhimurium和E. coli K12的MIC较游离香芹酚降低65-72.7%	[110]
0.5%香芹酚纳米乳液水凝胶	Labrafac®WL1349、Kolliphor®ELP及Carbopol 940制备	-	对S. aureus及革兰氏阴性菌杀菌，MIC 20-75 mg/100 mL，MBC 75-200 mg/100 mL	[111]
壳聚糖纳米颗粒（TEO-CSNPs）	负载香芹酚	释放速率快于纳米胶囊	对S. aureus抑菌圈直径4.3 cm，MIV 2.5 μL	[112]
壳聚糖纳米胶囊（TEO-CSNCs）	负载香芹酚	释放速率慢于纳米颗粒	-	[112]
Z. multiflora精油负载PLA薄膜	浸渍法（精油含21.37 wt%香芹酚）	负载量13.65-20.76 wt.%时释放更充分	对E. coli和S. aureus抑菌效果显著，活菌数降至检测限以下	[113]
香芹酚负载不对称膜（Sample II）	-	释放与载体特性相关	对S. aureus（革兰氏阳性）抑制优于E. coli（革兰氏阴性），Sample II实现4 log下降	[114]
香芹酚负载PLA薄膜（CAR-PLA）	PLA颗粒溶解于DCM后加入香芹酚，超声均质后浇铸干燥（溶剂浇铸法）	-	对M粒径乳液中P. fluorescens 7天活菌数降低1.02±0.09 log CFU/mL	[115]
香芹酚+GSE复合膜（CMF）	Ultra-Turrax均质机制备	-	延缓三文鱼中微生物生长，嗜温菌、嗜冷菌及假单胞菌属4-7天维持可接受水平	[116]
香芹酚微乳液（CPC/T20体系）	1.0 wt%香芹酚、9.0 wt%表面活性剂、90.0 wt%水/丙二醇（1:1）	-	CPC体系对S. typhimurium和L. monocytogenes抗菌活性显著高于T20体系	[117]
香芹酚微囊（MO1）	微囊化	降低MBC（较游离精油降低4倍）	延长释放时间，减少挥发损失，增强抑菌持久性	[118]
游离香芹酚	-	-	对E. coli MIC 0.5 mg/mL、MBC 1 mg/mL；对S. aureus MIC 0.6 mg/mL、MBC 0.9 mg/mL	[119]
香芹酚负载明胶薄膜	直接添加1%-5% w/w香芹酚	-	对革兰氏阳性菌（B. subtilis、S. aureus）抑制优于革兰氏阴性菌（E. coli、P. aeruginosa）	[120]

抗菌机制方面，香芹酚核心作用是破坏细菌细胞膜：酚羟基与细胞膜脂质 bilayer相互作用，导致膜流动性增加、通透性升高，引发细胞内容物泄漏[98][121]；其疏水性可穿透革兰氏阴性菌外膜，导致脂多糖释放及细胞质膜通透性增加[114][119]。不同载体通过调控释放行为或增强细菌相互作用，进一步优化抗菌效果：如PEI修饰纳米颗粒增强细菌摄取，抑制亚致死损伤修复[96]；杂化二氧化硅纳米颗粒需细菌膜酯酶水解释放香芹酚[104]；EVA共混膜随温度升高（37°C vs 22°C）释放加快、抗菌增强[105]；壳聚糖纳米颗粒通过快速释放提升效果[112]。此外，香芹酚可与百里酚协同加剧细胞膜损伤[100]，与OLA协同增强杀菌作用[107]；微囊化、环糊精包合可延长释放、减少挥发[114][118]，β-环糊精包合还能提升水溶性[110]。对真菌的抑制则与麦角固醇生物合成受损有关，导致细胞膜完整性破坏及细胞死亡[122]。

香芹酚在食品防腐中的应用效果

香芹酚在食品防腐中的应用效果受剂型、浓度及食品类型影响显著，其抗菌活性在叶菜、肉制品、水产品、果蔬及其他食品基质中均得到验证，且存在浓度依赖性及成分间协同作用。以下为不同食品基质中香芹酚及其衍生物的防腐效果数据汇总：

不同食品基质中香芹酚及其衍生物的防腐效果

食品基质	处理方式	目标微生物	效果指标	文献
通用（纳米粒）	游离香芹酚、CAR-(PEI)NPs	E. coli、L. monocytogenes、Salmonella enterica、S. aureus	PEI包被纳米粒对革兰氏阳性菌MIC为128-256 μg/mL，显著低于游离香芹酚的>1024 μg/mL；7天香芹酚释放量<10%（游离组几乎完全挥发）	[96]
叶菜类	3%香芹酚苹果可食膜	沙门氏菌	婴儿菠菜3天、7天沙门氏菌分别降低4.6、1.8 log CFU/g，优于低浓度组（0.5%-1.5%）	[123]
叶菜类	香芹酚单独使用	L. monocytogenes、嗜水气单胞菌、荧光假单胞菌	MIC为0.6-2.5 μL/mL，处理后菌数<2.0 log CFU/g	[40]
叶菜类	香芹酚+1,8-桉叶素（1/8 MIC组合）	蔬菜broth中细菌	8小时内菌数降至2 log cycle以下	[40]
叶菜类	0.3%牛至油（主含香芹酚）	生菜中E. coli O157:H7	7天内无存活；28天储存期处理组菌数（4.37-7.68 log CFU/g）低于对照组（5.79-9.63 log CFU/g）	[124]
叶菜类	0.3%香芹酚清洗	新鲜香草中E. coli O157:H7、沙门氏菌	菌数降至<0.57 log CFU/g，14天冷藏仍有效，优于氯处理组	[125]
肉制品	香芹酚单独使用	E. coli、Salmonella Typhi	抑制效果优于百里香提取物和百里酚，MIC更低	[126]
肉制品	含香芹酚的百里香精油纳米粒（Th-CNPs）	L. monocytogenes	MIC为0.03 mg/mL，显著低于纯精油的1 mg/mL	[1]
肉制品	香芹酚+nisin	牛奶中L. monocytogenes	4℃储存6天有效抑制生长	[84]
肉制品	香芹酚+nisin变体（nisin V、nisin S29A）	阪崎克罗诺杆菌、E. coli O157:H7	菌数降低3-log以上	[127]
肉制品	0.5%ZEO（主含香芹酚）+0.5%MEO涂层	鸡胸肉中L. monocytogenes、S. aureus、E. coli O157:H7等	14天储存后李斯特菌降低2.44-2.62 log CFU/g，沙门氏菌降低2.57-2.77 log CFU/g	[128]
肉制品	0.5%香芹酚照烧汁腌制	牛肉中E. coli O157:H7、L. monocytogenes、Salmonella enterica	7天内除沙门氏菌外完全灭活，消除本土总大肠菌群	[129]
肉制品	香芹酚纳米乳涂层	碎肉中嗜温菌、乳酸菌、嗜冷菌	9天后乳酸菌计数为4.8 log CFU/g，较未处理组降低4.3 log	[130]
肉制品	10%香芹酚醋酸纤维素膜	熟火腿中微生物	货架期从5天延长至14天	[131]
肉制品	含香芹酚的GC膜	熟火腿中E. coli O157:H7、L. monocytogenes	9天后分别降低0.75、1.65 log CFU/g	[132]
水产品	0.5%香芹酚	鱼片L. monocytogenes	20天储存期菌数显著低于对照组，10天前持续下降	[133]
水产品	含香芹酚的微胶囊膜（CMF）包装	三文鱼中嗜温菌、嗜冷菌	4天内菌数未超过7 log CFU/g，延迟腐败	[116]
果蔬及其他	20%香芹酚甲基纤维素（MB）泡沫托盘	甜瓜、南瓜中总需氧菌、L. monocytogenes、假单胞菌	储存7天后微生物完全消失	[134]
果蔬及其他	香芹酚+柠檬醛PP/EVOH活性膜	即食沙拉中E. coli、沙门氏菌、李斯特菌	10%牛至精油（主含香芹酚）组8天肠杆菌计数降低0.57 log	[135]
果蔬及其他	1.5%ZEO（主含香芹酚）	虹鳟鱼片L. monocytogenes、铜绿假单胞菌	储存期李斯特菌数始终低于7.12 log CFU/g	[10]
果蔬及其他	0.19-0.53 mg/g香芹酚	蜡样芽孢杆菌	0.19 mg/g降低约1 log，0.38 mg/g完全抑制生长，0.53 mg/g以上7天降至检测限以下	[37]
果蔬及其他	0.5 mM香芹酚+0.25 mM对伞花烃	蜡样芽孢杆菌	48分钟内活菌数减少50%	[37]
果蔬及其他	3.0 mg/ml香芹酚	蘑菇汤中蜡样芽孢杆菌	活菌数降低一个数量级，完全抑制毒素产生	[136]
果蔬及其他	312-625 μg/ml香芹酚	鲜切南瓜中E. coli、Salmonella enterica、嗜水气单胞菌、S. aureus	625 μg/ml完全抑制生长，312 μg/ml降低5-8 log CFU/g	[137]
协同作用	香芹酚+百里酚	L. monocytogenes	抑制浓度降低50%	[88]
协同作用	0.5%ZMEO（香芹酚含量30.50%）	碎肉中L. monocytogenes	12℃低温下抑制效果更优	[88]
协同作用	香芹酚+中链脂肪酸（癸酸、辛酸）	肉中热死环丝菌、弯曲乳杆菌	弯曲乳杆菌最大生长速率降低63.3%	[44]
牛至精油对比	希腊不同地区野生牛至OEO（香芹酚63.14%-82.76%）	S. aureus、B. cereus、E. coli、Salmonella Typhimurium	完全抑制生长；Skopelos地区OEO（香芹酚82.76%）活性突出	[138]
牛至精油协同	香芹酚类OEO+百里酚类OEO（各25%混合）	致病菌	抑菌圈为2.2-2.6 cm，显著大于单一OEO（50%浓度）的1.2-1.6 cm	[138]

香芹酚的应用优势还体现在安全性与耐药性方面：作为GRAS物质，其每日摄入量和无观察效应水平已获FDA及欧盟明确规定[139]；且不易诱导细菌耐药性，如铜绿假单胞菌在含香芹酚的肉基质中暴露72小时未产生耐受性[140]。需注意的是，高脂肪食品基质可能降低其抗菌效力[141]，高浓度使用或影响食品感官接受度（如即食沙拉气味劣变）[135]。

香芹酚在动物养殖中的抗菌应用

香芹酚作为植物精油的主要抗菌活性成分，在动物养殖中展现出显著应用潜力，其作用机制涉及细胞膜损伤、协同效应及肠道菌群调控等多个维度。具体而言，香芹酚可破坏革兰氏阴性菌外膜、增加细胞质膜通透性并导致膜去极化[20]；同时能整合到磷脂单层结构中形成抗菌-脂质复合物聚集体，干扰细菌代谢与能量产生[11]。此外，香芹酚还可通过与生物前体、其他植物精油成分或抗生素的协同作用增强抗菌效果，并在亚抑制浓度下抑制金黄色葡萄球菌和沙门氏菌的生物膜形成（效果与商业消毒剂相当）[11]。

香芹酚在不同养殖场景中的应用效果及协同作用

应用场景	处理方式	效果	参考文献
抗菌机制协同	香芹酚与对伞花烃协同作用于蜡样芽孢杆菌营养细胞	对伞花烃肿胀细胞膜，促进香芹酚进入细胞，增强抗菌效果	[20]
抗菌机制协同	香芹酚与百里酚组合（250 mg/L+250 mg/L、400 mg/L+100 mg/L）	对总厌氧菌表现出协同抑制作用	[142]
水产养殖	饲料添加含香芹酚的植物源性添加剂	金头鲷皮肤黏液对鳗弧菌（8-12 h生长量降超30%）、豚鼠气单胞菌（14 h降50.2±1.6%）的抑制作用增强	[143]
水产养殖	牛至精油（含50.8%香芹酚）纳米乳剂	对P. damselae、A. hydrophila和S. iniae的MIC与MBC均为3.12 µg/ml，优于四环素（MIC分别为50、15、25 µg/ml）	[94]
肉鸡养殖	日粮添加含65%香芹酚的牛至精油（Oo）	改变十二指肠、空肠、回肠、盲肠和结肠的细菌群落组成（DGGE图谱聚类差异）	[144]
肉鸡养殖	每日口服300/400 μl含63.5%香芹酚的精油	显著降低肠道大肠杆菌和沙门氏菌数量	[145]
肉鸡养殖	饮水添加含5.1%百里酚+0.12%香芹酚的牛至精油产品（200 μL/L全程或400 μL/L 8-12日龄）	显著降低沙门氏菌阳性率；全程添加组平均体重高于对照组	[146]
猪体外模拟	500 mg/L香芹酚	显著降低总厌氧菌、大肠杆菌、链球菌和乳酸菌计数	[142]
犬养殖	饲料添加含香芹酚、百里酚和肉桂醛的微囊化添加剂（300 mg/kg）	降低粪便总细菌数、总大肠菌群数、沙门氏菌和大肠杆菌数	[147]
肠道菌群调控	香芹酚与肉桂醛混合物	降低大肠杆菌和产气荚膜梭菌数量；抑制空肠弯曲杆菌运动性和上皮细胞感染能力	[20]、[11]
猪链球菌抑制	香芹酚体外处理	8、12和24 h时细菌生长量均显著降低	[148]
反刍动物（犊牛）	饲料添加含香芹酚、石竹烯、对伞花烃的复合精油	肠道菌群结构改变：厚壁菌门降低（43.68%±6.92% vs 73.22%±6.79%）、拟杆菌门升高（44.63%±6.28% vs 13.45%±6.02%）、变形菌门升高	[149]
耐药菌协同抑制	牛至精油（含香芹酚）与四环素联用	沙门氏菌四环素MIC从256 μg/mL降至4 μg/mL（符合CLSI敏感 breakpoint），部分菌株表现协同效应	[49]

香芹酚的上述特性表明，其在替代或辅助抗生素、减少动物养殖中病原菌污染方面具有重要应用价值。

香芹酚在医疗及日化领域的应用潜力

香芹酚在医疗与日化领域的应用潜力广泛，尤其在口腔护理、创伤敷料、皮肤护理、制剂优化及医疗表面消毒等场景中表现出显著的抗菌及生物膜抑制活性，其低细胞毒性与多靶点作用机制使其成为传统化学合成抗菌剂的潜在替代物[2][31][114]。

香芹酚对不同菌株的抗菌活性及相关参数

应用场景	目标菌株	最低抑菌浓度（MIC）	最低杀菌浓度（MBC）	特殊抗菌效果	作用机制	安全性相关参数	文献
口腔护理	变形链球菌（S. mutans） 血链球菌（S. sanguinis）	0.1%（93.4 μg/mL）	0.39%（373.4 μg/mL）	10×MIC、100×MIC浓度1小时内清除对数期培养物；10×MIC降低单菌及混合生物膜代谢活性	抑制ATP酶、破坏细胞膜、干扰质子动力势、影响核酸代谢；致细菌变形、表面粗糙及囊泡结构	12.5%轻微溶血，1%无溶血；1-2 mg/kg/天无健康负面影响，具抗原毒性活性	[2]
创伤护理	大肠杆菌（E. coli） 金黄色葡萄球菌（S. aureus）	-	-	含香芹酚不对称膜处理24小时，前者生长减少2-3对数级，后者减少3-4对数级	破坏细菌细胞膜；封装技术延长释放、减少挥发、靶向生物膜	亚细胞毒性剂量低于MIC/MBC，对真核细胞危害性低于传统防腐剂	[114][31]
皮肤护理	红色毛癣菌（T. rubrum） 白色念珠菌（C. albicans） 大肠杆菌（E. coli）	-	-	3 wt%乳膏抑制红毛癣菌、大肠杆菌；2 wt%乳膏阻碍白色念珠菌生长	-	-	[150]
制剂优化（纳米乳水凝胶）	金黄色葡萄球菌、革兰氏阴性菌	20-75 mg/100 mL	75-200 mg/100 mL	具杀菌活性	-	-	[111]
医疗/日化表面消毒（自组装纳米颗粒SAN）	大肠杆菌、肠炎沙门氏菌	-	-	1% EO6 SAN 30秒内使大肠杆菌减少8 log CFU/ml，60秒内使沙门氏菌减少8 log CFU/ml；5% SAN溶液对不锈钢等表面具抑制效果	-	-	[75]

香芹酚的作用机制具有多靶点特性，包括抑制ATP酶活性、破坏细胞质膜通透性、干扰质子动力势阻断ATP合成、影响核酸代谢等；超微结构观察显示其可致细菌细胞变形、表面粗糙及囊泡结构形成[2]。在医疗表面消毒领域，墨西哥牛至油树脂中的香芹酚可作为多重耐药菌消毒替代方案，其高疏水性会影响磷脂双分子层稳定性，-OH基团可介导跨膜离子交换导致胞内K+流失[151]。

制剂技术的优化进一步拓展了香芹酚的应用场景：封装技术可延长其释放时间并减少挥发[114]；与四环素盐酸盐的组合制剂可治疗局部口腔细菌感染和念珠菌病，与经典抗生素联用有望用于肠道致病菌治疗[74]；自组装纳米颗粒（SAN）则显著提升其消毒效率，含1%高香芹酚成分的EO6 SAN可在30-60秒内实现致病菌8 log级减少[75]。此外，含香芹酚的凝胶能保护大鼠免受实验性牙周炎影响，在口腔铁剂治疗期间可预防致病菌过度生长[11]。

安全性方面，香芹酚在口腔护理常用的1%浓度下无溶血作用，1-2 mg/kg/天剂量无健康负面影响且具抗原毒性活性[2]；其亚细胞毒性剂量低于细菌MIC和MBC，对真核细胞的危害性低于传统防腐剂[31]。未来研究可聚焦香芹酚在自组装纳米颗粒、可植入生物材料中的负载或涂层应用，以预防多重耐药菌生物膜形成[2]。

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