Journal of Zhejiang Agricultural Sciences ›› 2025, Vol. 66 ›› Issue (3): 706-711.DOI: 10.16178/j.issn.0528-9017.20240523
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GUO Taike1,2(), ZHAO Dandan1,2, WENG Yayi2, WANG Keying2, HE Yuanhai2, YAO Jigang3, CHEN Wenxuan1,*(
)
Received:
2024-06-28
Online:
2025-03-11
Published:
2025-04-02
Contact:
CHEN Wenxuan
CLC Number:
GUO Taike, ZHAO Dandan, WENG Yayi, WANG Keying, HE Yuanhai, YAO Jigang, CHEN Wenxuan. Fluid ice preservation technology and its effects on storage quality of fresh food[J]. Journal of Zhejiang Agricultural Sciences, 2025, 66(3): 706-711.
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URL: http://www.zjnykx.cn/EN/10.16178/j.issn.0528-9017.20240523
制冰方法 | 优点 | 缺点 |
---|---|---|
刮壁法 | 成熟,可以用在商业生产 | 装置易损坏,易造成冰堵 |
真空法 | 不需要制冷剂 | 机械能和电能消耗大 |
流化床法 | 成本低,结构简单 | 载冷剂消耗大 |
过冷法 | 传热效率高,能耗低 | 存在局限性,疏水性控制困难 |
直接接触法 | 传热效率高 | 冷媒需求量大,制冰剂与水难分离 |
Table 1 Comparison of advantages and disadvantages of fluid ice production methods
制冰方法 | 优点 | 缺点 |
---|---|---|
刮壁法 | 成熟,可以用在商业生产 | 装置易损坏,易造成冰堵 |
真空法 | 不需要制冷剂 | 机械能和电能消耗大 |
流化床法 | 成本低,结构简单 | 载冷剂消耗大 |
过冷法 | 传热效率高,能耗低 | 存在局限性,疏水性控制困难 |
直接接触法 | 传热效率高 | 冷媒需求量大,制冰剂与水难分离 |
参考文献 | 实验对象 | 研究方法 | 研究结论 |
---|---|---|---|
Chen等[ | 鳙鱼 | 分别采用片冰、浆冰、臭氧浆冰处理鳙鱼,在2 ℃冷藏21 d,进行感官等品质分析 | 与片冰组相比,浆冰组和臭氧浆冰组TVB-N、过氧化值(POV)、硫代巴比妥酸(TBA)值明显减少,臭氧浆冰组鳙鱼货架期延长至18 d |
Lan等[ | 大黄鱼 | 分别采用片冰、浆冰、臭氧浆冰处理大黄鱼,在4 ℃冷藏21 d,进行微生物及其他品质指标分析 | 臭氧浆冰具有抗菌和抗氧化活性,可抑制微生物生长,降低TBA、TVB-N、生物胺含量和K值的增加,维持大黄鱼亮度等色泽特性 |
Zhao等[ | 大黄鱼 | 采用片冰、浆冰、臭氧浆冰处理大黄鱼,对比分析微生物和其他指标变化 | 臭氧浆冰可显著减缓TVB-N、硫代巴比妥酸反应物(TBARS)、K值的增加,抑制微生物的生长,维持大黄鱼的质构和色泽特性 |
Bono等[ | 欧洲鳀和沙丁鱼 | 采用不同浓度臭氧浆冰处理欧洲鳀和沙丁鱼,在-1 ℃下过冷储藏,进行微生物组成分析 | 臭氧浆冰结合过冷储藏技术可以提高样品的抗菌能力 |
Table 2 Effect of fluid ice coupled with ozone on the quality of fresh foods
参考文献 | 实验对象 | 研究方法 | 研究结论 |
---|---|---|---|
Chen等[ | 鳙鱼 | 分别采用片冰、浆冰、臭氧浆冰处理鳙鱼,在2 ℃冷藏21 d,进行感官等品质分析 | 与片冰组相比,浆冰组和臭氧浆冰组TVB-N、过氧化值(POV)、硫代巴比妥酸(TBA)值明显减少,臭氧浆冰组鳙鱼货架期延长至18 d |
Lan等[ | 大黄鱼 | 分别采用片冰、浆冰、臭氧浆冰处理大黄鱼,在4 ℃冷藏21 d,进行微生物及其他品质指标分析 | 臭氧浆冰具有抗菌和抗氧化活性,可抑制微生物生长,降低TBA、TVB-N、生物胺含量和K值的增加,维持大黄鱼亮度等色泽特性 |
Zhao等[ | 大黄鱼 | 采用片冰、浆冰、臭氧浆冰处理大黄鱼,对比分析微生物和其他指标变化 | 臭氧浆冰可显著减缓TVB-N、硫代巴比妥酸反应物(TBARS)、K值的增加,抑制微生物的生长,维持大黄鱼的质构和色泽特性 |
Bono等[ | 欧洲鳀和沙丁鱼 | 采用不同浓度臭氧浆冰处理欧洲鳀和沙丁鱼,在-1 ℃下过冷储藏,进行微生物组成分析 | 臭氧浆冰结合过冷储藏技术可以提高样品的抗菌能力 |
参考文献 | 实验对象 | 研究方法 | 研究结论 |
---|---|---|---|
Lan等[ | 鲭鱼 | 分别采用片冰、浆冰、微酸性电解水浆冰处理鲭鱼,分析微生物及其他品质变化 | 与片冰组相比,浆冰组和微酸性电解水浆冰组有效减缓K值的增加和抑制微生物的生长,可延长鲭鱼货架期5 d |
Liu等[ | 鲭鱼 | 分别采用片冰、浆冰、微酸性电解水浆冰处理鲭鱼,检测TBARS、TVB-N值变化 | 与片冰和浆冰组相比,微酸性电解水浆冰组pH值、TBARS、TVB-N值较低,可有效抑制肌原纤维蛋白的降解 |
金素菜曼等[ | 大黄鱼 | 分别用片冰、浆冰、微酸性电解水浆冰处理大黄鱼,于4 ℃冷藏,进行微生物和品质指标分析 | 在贮藏中后期,微酸性电解水浆冰组有效抑制微生物生长,减缓K值的增加,在防止肌纤维组织结构劣变上具有显著优势,微酸性电解水浆冰组货架期延长至19 d |
Table 3 Effect of fluid ice coupled with acidic electrolyzed water on the quality of fresh foods
参考文献 | 实验对象 | 研究方法 | 研究结论 |
---|---|---|---|
Lan等[ | 鲭鱼 | 分别采用片冰、浆冰、微酸性电解水浆冰处理鲭鱼,分析微生物及其他品质变化 | 与片冰组相比,浆冰组和微酸性电解水浆冰组有效减缓K值的增加和抑制微生物的生长,可延长鲭鱼货架期5 d |
Liu等[ | 鲭鱼 | 分别采用片冰、浆冰、微酸性电解水浆冰处理鲭鱼,检测TBARS、TVB-N值变化 | 与片冰和浆冰组相比,微酸性电解水浆冰组pH值、TBARS、TVB-N值较低,可有效抑制肌原纤维蛋白的降解 |
金素菜曼等[ | 大黄鱼 | 分别用片冰、浆冰、微酸性电解水浆冰处理大黄鱼,于4 ℃冷藏,进行微生物和品质指标分析 | 在贮藏中后期,微酸性电解水浆冰组有效抑制微生物生长,减缓K值的增加,在防止肌纤维组织结构劣变上具有显著优势,微酸性电解水浆冰组货架期延长至19 d |
参考文献 | 实验对象 | 研究方法 | 研究结论 |
---|---|---|---|
张皖君等[ | 鲈鱼 | 分别采用流化冰、0.1%竹叶抗氧化物-流化冰、0.1%迷迭香提取物-流化冰处理鲈鱼,于4 ℃冷藏,分析感官等品质指标变化 | 与流化冰组相比,0.1%竹叶抗氧化物流化冰组、0.1%迷迭香提取物流化冰组有效抑制微生物生长、脂质和蛋白质的氧化和水解,鲈鱼货架期延长至3~6 d |
蓝蔚青等[ | 鲳鱼 | 分别采用流化冰、1%银杏叶提取液-流化冰、1%竹醋液-流化冰处理鲳鱼,置于4 ℃冰箱冷藏,分析品质变化 | 1%银杏叶提取液流化冰组、1%竹醋液流化冰组的TBA、K值、pH值比流化冰组低,有效抑制微生物生长和脂肪氧化,货架期分别延长至15~16 d和17~18 d |
施源德等[ | 鲭鱼 | 分别采用碎冰、茶多酚流化冰处理鲭鱼,置于4 ℃下冷藏,进行感官和理化分析 | 茶多酚流化冰组感官评分和水分含量比碎冰组高,TVB-N、pH值比碎冰组低 |
Table 4 Effect of fluid ice coupled with natural oxidants on the quality of fresh foods
参考文献 | 实验对象 | 研究方法 | 研究结论 |
---|---|---|---|
张皖君等[ | 鲈鱼 | 分别采用流化冰、0.1%竹叶抗氧化物-流化冰、0.1%迷迭香提取物-流化冰处理鲈鱼,于4 ℃冷藏,分析感官等品质指标变化 | 与流化冰组相比,0.1%竹叶抗氧化物流化冰组、0.1%迷迭香提取物流化冰组有效抑制微生物生长、脂质和蛋白质的氧化和水解,鲈鱼货架期延长至3~6 d |
蓝蔚青等[ | 鲳鱼 | 分别采用流化冰、1%银杏叶提取液-流化冰、1%竹醋液-流化冰处理鲳鱼,置于4 ℃冰箱冷藏,分析品质变化 | 1%银杏叶提取液流化冰组、1%竹醋液流化冰组的TBA、K值、pH值比流化冰组低,有效抑制微生物生长和脂肪氧化,货架期分别延长至15~16 d和17~18 d |
施源德等[ | 鲭鱼 | 分别采用碎冰、茶多酚流化冰处理鲭鱼,置于4 ℃下冷藏,进行感官和理化分析 | 茶多酚流化冰组感官评分和水分含量比碎冰组高,TVB-N、pH值比碎冰组低 |
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