斩拌条件及添加成分对肉糜类制品质量的影响
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
肉糜类制品因其口感细腻、风味独特、便于食用等优势受到广大消费者的欢迎。在肉糜类制品的生产加工中斩拌条件及添加成分对产品的质量起着至关重要的作用。因此,对肉糜类制品原辅料选择方面及斩拌工序的深入研究在提高产品品质方面显得尤为重要。
     本文介绍了肉糜类制品的发展状况,斩拌的作用机理及斩拌条件、添加成分对斩拌效果的影响等方面的研究进展。并在试验中以低温乳化肠为代表研究对象,选择不同原辅料,在不同加工条件下进行制备,测定乳化肠的质构特性(硬度、弹性、内聚性、胶粘性、咀嚼性、回复性)、色差、保水性并进行感官评定及微观结构观察等。比较不同斩拌条件、添加成分对产品质量特性的影响,确定最佳工艺参数及最适原辅料选择。本研究的试验结果可以为提高肉糜类制品的品质及开发不同特性产品提供技术支持和理论指导。关于不同肥瘦比例、不同状态、不同部位的原料肉,不同斩拌刀速、不同斩拌时间、不同斩拌物料量、斩拌时不同抽真空程度及添加不同非肉蛋白对肉糜类产品的影响的研究结果分述如下:
     1.不同肥瘦比原料肉制作的乳化肠随着肥肉比例的增加,产品的硬度、粘附性、红度(a*)、失水率呈显著下降趋势(P<0.05),而粘聚性、回复性、亮度(L*)显著升高(P<0.05)。肥瘦比为2:8的样品咀嚼度最好,且通过感官评定得知其软硬适宜,口感润滑,各项指标综合评定结果最好。结果表明不同肥瘦肉的比例对乳化肠品质有很大的影响,在实际生产中应该控制原料肉中肥瘦肉的比例。
     2.以新鲜肉作为原料制作的乳化肠产品的质构特性、色差、感官评价结果均明显好于冻肉制品(P<0.05)。0~4℃冷藏缓化方法比流水缓化更好。选冷冻缓化肉为原料时,在品质改良剂作用下并控制良好斩拌条件的情况下,产品也能呈现良好的保水性。所以肉制品加工首选冷鲜肉,也可结合工厂情况选用冷藏缓化肉。
     3.猪背最长肌和后腿肉比前腿肉制得的产品质构特性好,感官评价得分高,但差别不显著(P>0.05)。前、后腿肉制得产品色泽较好,三个部位原料肉制得乳化肠保水性几乎相同。综上,从质优价廉的角度考虑,生产加工中宜选用猪后腿肉为原料肉。
     4.刀速为3000r/min斩拌效果最佳。刀速低斩切力度不够会使细腻程度不足,影响乳化效果。但刀速越快刀与肉糜摩擦也越大,肉糜升温越快,所以为避免温度升高对乳化效果的影响,也应适当控制刀速,并非越快越好。
     5.瘦肉与肥肉斩拌阶段,不同斩拌时长对产品的粘聚性、胶着性及回复性有显著影响(P<0.05),随着斩拌时间的延长,此三项指标数值及红度值随之降低,但产品微观结构随之变得越发细腻。最佳斩拌时长:瘦肉30sec,肥肉40sec,辅料30sec。
     6.一次斩拌量过少或过多都会造成斩拌不充分。斩拌量过少,在斩瘦肉阶段容易因为物料量过少而使斩刀难触及,且生产效率低;而斩拌量过多,容易在转杆附近粘聚成团,造成旋转困难,斩拌不匀,致使产品亮度、红度、都会显著下降(P<0.05),保水性也有所降低。所以适宜斩拌量的确定要将斩拌设备和所填充的斩拌物性质结合起来充分考虑。
     7.斩拌时抽真空可显著改善产品的质构特性、色泽、感官特性及保水性(P<0.05)。真空度在-0.08MPa时斩拌产品质量最好,产品切面细腻,组织状态良好,口感和外观也较好。
     8.试验研究了添加三种非肉蛋白(蛋清蛋白,乳清蛋白和大豆蛋白)对乳化肠质构特性、色差、保水性、感官特性和微观结构等的影响。结果表明在乳化肠中添加三种分离蛋白,能改善产品质构特性。在这三种蛋白中,添加蛋清分离蛋白效果好于乳清分离蛋白好于大豆分离蛋白。且在低脂肠中添加蛋清分离蛋白比在高脂肠中添加时硬度、胶粘性增加明显(P<0.05)。在高脂肠中添加乳清分离蛋白比在低脂肠中添加时胶粘性增加明显(P<0.05)。添加不同的分离蛋白对保水性及感官评定影响差别不显著(P>0.05)。本结论在应用中要结合所选用非肉蛋白的质量和纯度等进行综合考虑。
Emulsification-type meat product is welcomed by the majority of consumers, because its feeling in the mouth is exquisite, the flavor is unique, and it easy to eat et al. During the emulsification-type meat product production and processing, chopping conditions and additives plays a very important role. Therefore, a deep research on the selection of raw material and chopping process is especially important to enhance the quality of product.
     This article introduced the status of development of emulsification-type meat product, the mechanism of chopping and the research development of the effect of chopping condition and additive on the quality of emulsification-type meat product. In this experiment, take the low temperature emulsification-type sausage as representative, choose different raw materials to make emulsification-type sausage under different processing conditions, then test the texture profile analysis(hardness, springiness, cohesiveness, gumminess, chewiness, resilience), color, water holding capacity, sensory characteristics and microstructure observation of emulsification-type sausage. Compare the effects of quality characteristics of different chopping conditions and additive, to determine the optimum process parameters and the optimal selection of raw materials. The results of this experiment will be significant to enhance the quality of emulsification-type meat product, and also can provide technical support and theory instruction.
     The study results of the effects of different fat/lean ratio, states, parts of meat, different chopping speed, time, and weight, different vacuum level and different additive proteins on the quality of emulsification-type meat product are respectively described as follows:
     1. The hardness, adhesiveness, a* value and water loss decreased significantly (P<0.05), while cohesiveness, resilience and L* value increased significantly (P<0.05). Furthermore, sensory evaluations showed that the sample of fat/lean ratio at 2:8 had optimum hardness, best chewiness and tasted lubricated. On the whole, each index evaluation result is best. This study showed that fat/lean ratio has a significant effect on the quality of emulsion-type sausage. In the practical meat processing, we should control the fat/lean ratio.
     2. Fresh meat as a raw material produced in emulsion sausage products, texture properties, color, sensory evaluation results were significantly better than frozen meat products(P<0.05). 0 ~ 4℃low temperature freezing process is better than water freezing process. If choose frozen meat as material, products can also good at water holding capacity, under the action of the quality improver and a good chopping control conditions. So fresh meat is better choice, but frozen meat can also be considered by company at different condition.
     3. Products made by tenderloin muscle and hind leg muscle are better than foreleg muscle at textural properties and sensory evaluation, but the difference is not significant(P>0.05). Hind leg muscle can produce good color products, three parts meats almost have the same water holding capacity. In summary, from the perspective of quality and low price, hind leg muscle should be selected as the raw material.
     4. Chopping knife works best at 3000r/min. If chopping speed is low, the meat was cut not fine enough, and the effect of emulsion was affected. With the knife quicker, knife and meat floss friction increases, minced warming was faster, Therefore, to avoid temperature effect on the emulsion, we should control the blade speed, not the sooner the better.
     5. During lean and fat chopping stage, different chopping time effected the cohesiveness, gumminess, and resilience of the product significantly(P<0.05). As chopping time extended, the three indicators and the red value decreases, but the microstructure of product became more refined. Best chopping time: lean 30sec, fat 40sec, accessories 30sec.
     6. One time chop too little or too much will both cause emulation not good. If the amount is too little, the chopping blade will hard to torch lean when chopping, and the productivity will low. While the amount is too much, it will be easy to turn into a pole near the cohesive group, resulting in rotation problems and chopping uneven, resulting in product brightness, redness decreased significantly(P<0.05), water holding capacity was also decreased. Therefore, to make sure the optimum chopping amount, company should combine equipment and the filling marital together to considerate.
     7. Vacuum while chopping can significantly improve product texture properties, color, sensory characteristics and water holding capacity(P<0.05). When chopping vacuum at-0.08MPa, the quality of products are best, product section delicate tissue in good condition, taste and appearance are better.
     8. Three kinds of non-meat protein were added during chopping, the texture profile analysis (TPA), color, water holding capacity, sensory characteristics and microstructure structure were measured. In these three proteins, the egg white protein isolate (EPI) had better role than whey protein isolate (WPI) and soy protein isolate (SPI). The addition of EPI in the low-fat emulsion-type sausage significantly increased hardness and gumminess than that in the high-fat emulsion-type sausage (P<0.05). The addition of WPI in the high-fat emulsion-type sausage increased gumminess significantly than that in the low-fat emulsion-type sausage (P<0.05). The different protein isolates had no significant affect on sensory quality and water holding capacity (P>0.05).When use this conclusion for reference, should take the quality and purity of different protein isolate into account.
引文
白宝兰,郑宏雁,昌友权等. 2005.高功能性大豆浓缩蛋白的性能及在肉制品中应用的研究[J].食品科学. 26(9): 58-60
    宾冬梅. 2003.果子狸肉香肠的加工试验研究[J].河南科技大学学报. 23(1): 40-43
    车永真,范大明,陆建安等. 2008.微波法快速提高蛋清粉凝胶强度及其机理的研究[J]. 食品工业科技. (8): 79
    陈功,陈有亮. 1999.鸡蛋的微观结构与凝胶性状[J].肉类研究. (2): 12-14
    褚弘斌. 1999.大豆蛋白在肉制品中的应用[J].肉类研究. (4): 39-43
    戴瑞彤,吴国强. 2000.乳化型香肠生产原理和常见问题分析[J].食品工业科技. 21(5): 21-23
    邓丽,芮汉明. 2005.变性淀粉对鸡肉糜品质影响的研究[J].食品工业科技. 26(3): 73-75
    杜伟,王洪新. 2000.火腿色泽的研究[J].肉品卫生. (9): 6-8
    方红美,陈从贵,马力量等. 2008.大豆分离蛋白及超高压对鸡肉凝胶色泽、保水和质构的影响[J].食品科学. (10): 129-132
    冯屏,徐玉佩. 2001.功能性大豆蛋白及其应用[J].中国油脂. 26(6): 70-74
    胡铁军,闫革华,邹尔新等. 2000.全牛肉乳化香肠的研制[J].肉类工业. (11): 32
    黄鸿兵. 2005.冷冻及冻藏对猪肉冰晶形态及理化品质的影响[D].南京农业大学硕士学位论文. 56-57, 70-71
    霍景庭. 2006.乳化型肉产品的理论和实际应用[J].中外食品. (5):64-66
    蒋爱民,赵丽芹. 2007.食品原料学[M].南京:东南大学出版社. 123-137
    江志伟,沈蓓英,潘秋琴等. 2002.蛋白质加工技术[M].北京:化学工业出版社. 126-132
    焦学瞬. 1999.天然食品乳化剂和乳状液—组成、性质、制备、加工与应用.北京:科学出版社. 30-31, 60-66
    金磊,麻建国. 2003.脂肪含量对肉糜性质影响[J].食品与发酵工业. 29(3): 28-32
    亢春雨,赵春青. 2007.鸡胸肉盐溶蛋白热诱导凝胶保水性和超微结构的研究[J].食品科学. (1): 52
    孔保华. 2007.畜产品加工贮藏新技术[M].北京:科学出版社. 25-31
    孔保华等. 2003.斩拌时间和pH值对牛肉凝胶特性的影响[J].食品与发酵工业. (9): 13-16
    孔凡真. 2001.我国肉制品的发展趋势[J].肉类工业. (4):11-12
    雷雨. 1999.火腿肠生产工艺及质量控制[J].山西食品工业. (3): 16-18
    李锋. 2004.雨润肉制品的“营养牌”“健康牌”[J].江苏食品发酵. 1(6): 17-19
    李锋,赵宁,周辉. 2005a.乳清制品及其在肉制品中的应用[J]. (4): 93-95
    李锋,徐宝才,赵宁等. 2005b.新型复合乳化剂及其在肉制品中的应用特性研究[J].肉类工业. (8): 26-28
    李里特. 2001.食品原料学[M].北京:中国农业出版社. 219
    李俐鑫,迟玉杰,于滨. 2008.蛋清蛋白凝胶特性影响因素的研究[J]. 29(3): 46-49
    李气清. 1998.规范产品等级,让火腿肠健康发展[J].肉类研究. (4): 8
    李气清,王其昌,陈斐莹等.中华人民共和国行业标准火腿肠, SB10251-2000
    李应彪,李开雄,童军茂. 1999.大豆蛋白在火腿肠生产中的应用[J].肉类研究. (4): 44-45
    刘国信. 2005.乳清蛋白在肉类加工中的新应用[J].山东食品发酵. (4): 45-46
    刘国信. 2007.大豆蛋白在肉制品加工中的应用[J].肉类研究. (9): 28
    刘志同,裴静. 2003.酶改性技术在大豆分离蛋白生产中的应用[J].粮油食品科技. (3): 11-12
    栾金水. 2004.肉质结构和变性淀粉[J].肉类研究. (3): 35-38
    罗欣,李洪玉,张广才. 1997.脂肪对乳化鸡肉肠食用品质的影响[J].肉类工业. (9): 21-22
    罗欣,朱燕,刘志勇等. 1998.脂肪含量和牛肉肠品质[J].肉类工业. (12): 29-31
    吕革,齐晓辉. 1993.乳化型香肠——持水性、脂肪结合和质地的形成[J].肉类工业. (6): 17
    马宇翔,周瑞宝,黄贤校等. 2004a.大豆分离蛋白在火腿肠中的应用研究[J].郑州工程学院学报. 25(1): 55-57
    马宇翔,周瑞宝,黄贤校等. 2004b.脂肪、盐和大豆分离蛋白对肉糜的影响[J].肉类工业. (8): 12-15
    彭增起,周光宏,徐幸莲. 2003.磷酸盐混合物和加水量对低脂牛肉灌肠硬度和保水性的影响[J].食品工业科技. (3): 38-43
    孙敬,董赛男. 2009.食品中蛋白质的重要性[J].肉类研究. (4): 70-71
    汪东风. 2007.食品化学[M].化学工业出版社, 100-135
    汪岩,赵百忠,陈涛. 2005.亚麻籽胶在高温火腿肠中应用性能的研究[J].肉类研究. (5): 43-46
    王飞. 2001.斩拌工序与火腿肠质量关系探讨[J].肉类工业. (1): 13-15
    王兰甜,常忠义,杜磊等. 2008.不同保水剂对冷冻猪肉的保水效果[J].西北农林科技大学学报(自然科学版). 36(4): 213-217
    位建荣. 2002.西式香肠生产工艺[J].肉类工业. (2): 7-8
    夏秀芳等. 2009.反复冷冻-解冻对猪肉品质特性和微观结构的影响[J].中国农业科学. 42(3): 982-988
    肖怀秋,李玉珍,兰立新. 2007.大豆分离蛋白在肉制品加工中的应用[J].肉类工业. (10): 33-36
    谢文. 1996.在灌肠生产中影响斩拌效果的因素[J].肉类工业. (10): 23-24
    徐幸莲,程巧芬,周光宏. 2002.转谷氨酰胺酶对肉块冷黏结性能的影响[J].南京农业大学学报, 25 (4): 87-90
    薛效贤,薛芹. 2004.乳品加工技术及工艺配方[M].北京:科学技术文献出版社, 204-233
    雅昊. 2007.低温乳化肉制品的加工工艺[J].肉类研究. (9): 21-24
    燕红,张兰威,朱永军. 2002.牛乳清蛋白的性质及其在食品工业中的应用[J].
    杨艳敏,张福,王继鹏. 2007.火腿肠发展历史与分类[J].肉类工业. (1): 47-48
    尹继忠,伍广智. 1997.斩拌对火腿肠质量的影响[J].肉类工业. (11):27-27
    殷露琴等. 2007.火腿肠质构影响因素[J].肉类工业. (6): 13-15
    玉彩云. 1992.影响肉糜稳定性因素探讨[J].肉类研究. (4): 38
    翟凤辉. 2008.浅谈高温乳化型火腿肠析油、脱皮的控制办法[J].肉类工业. (3): 8
    张大明. 1997.火腿肠的回顾与展望[J].肉类工业. (6): 28-29
    张福,杨艳敏. 2005.大豆蛋白在肉制品中的重要作用[J].肉类工业. (1): 34-36
    张根生,叶怀文等. 1997.酪蛋白钠稳定肉糜机理的研究[J].中国乳品工业. (1): 12-15
    张佳程. 1997 .乳清蛋白的热变性及其在酸奶生产中的应用[J].食品科学. 18(2): 55-59
    张坤生. 2006.法兰克福香肠乳化及工艺技术[J].食品科技. (8): 130-133
    张梅,周瑞宝,马智刚. 2004.功能性大豆浓缩蛋白性能测定及应用研究[J].粮食与油脂. (4): 21-23
    张世春,曾晓燕,张铁涛等. 2004. PH和NaCl对乳清蛋白油水乳浊液物理性质的影响[J]. 食品研究与开发. 25(1): 134-136
    张文权. 2004.国内高温火腿肠的生产现状及发展趋势[J].中外食品. (10): 24
    张治良. 1997.大豆蛋白三明治火腿[J].肉品卫生. (8): 22-24
    周伟伟,刘毅,陈霞等. 2007.斩拌条件对乳化型香肠品质和微结构的影响[J].肉类研究. (3): 38-40
    周伟伟等. 2008.斩拌终温对乳化型香肠品质影响的研究[J].食品工业科技. 29(3): 76-78
    周光宏. 1989.肉食家畜不同部位肌肉组分及其系水力的比较性研究[J].南京农业大学学报. 12(4): 84-87
    周晓燕. 2000.烹调工艺学[M].北京:中国轻工业出版社. 421-422
    Lagrange V.1999.乳清蛋白及其新组分的性质、功能和新用途[J].中国乳品工业. 27(2): 24-27
    马桂兰. 2008.肉制品加工过程中常用辅料的作用及使用方法[J].河北农业科技. 6: 62
    村上朋之. 1931.畜肉加工品制造方法及びこじ水使用すゐタタ制剂[J].特许小报. 1(14): 45-56
    原泽治郎. 1993.低脂肪ソ-セ-シ-及びの制造方法[J].特许15报. 1(14): 59-65
    Barbut, S. 1990. Effects of three chopping methods on bologna characteristics[J]. Can. Inst. of Food Science and Technology. 23: 149-153
    Baron, A. 1965. Stability of sausage emulsion[J]. The National Provisioner, 152(15): 14
    Benjakul S, Visessanguan W, Thongkaew M. 2003. Comparative study on physicochemical changes of muscle proteins from some tropical fish during frozen storage. Food Research International. 36: 787-795
    Ba?ón S, Díaz P, Nieto G, et al. 2008. Modelling the yield and texture of comminuted pork products using color and temperature. Effect of fat/lean ratio and starch[J]. Meat Science. (80): 649-655
    Candogan K, Kolsarici N. 2003. Storage stability of low-fat beef frankfurters formulated withcarrageenan with pectin. Meat Science. 64(2): 214.
    Carballo J, Mota N, Barreto G, Colmenero F J. 1995. Binding properties and colour of Bologna sausage made with varying fat levels, protein levels and cooking temperatures. Meat Science. 41(3): 301-313
    Carunchia Whetstine M E, Croissant A E, Drake M A. 2005. Characterization of dried whey protein concentrate and isolate flavor[J]. Journal of Dairy Science. 88: 3826-3839
    Chen L Y, Remondetto G E, Subirade M. 2006. [J]. Trends in Food Science & Technology. 17: 272-283
    Claus J R, Hunt M C. 1991. Journal of Food Science. 56(3): 643-647, 65
    Faustman C, Specht S M, Malkus L A, Kinsman D M. 1992. Pigment oxidation in ground veal: influence of lipid oxidation, iron and zinc. Meat Science. 31(3): 351-362
    Feng J, Xiong Y L, Mikel W B. 2003. Effects of thermally / enzymatically modified soy proteins on textural properties of pork frankfurters. Journal of Food Science. 68: 1220-1224
    Foegeding E A. 1988. Gelation in meat batters. Reciprocal Meat Conference Proceedings. 41: 44-47
    Gillett T A. Collagen in meat emulsions. 1987. In: Pearson A M, Dutson T R, Bailey A J(ed). Advances in Meat Research[M]. New York: Van Nostrand Reinhold Co.. 4: 223-249
    Gunasekaran S, Xiao L, Eleya M M O. 2005. Whey protein concentrate hydrogels as bioactive carriers[J]. Journal of Applied Polymer Science. 99(5): 2470-2476
    Hamre K, Lie ?, Sandnes K.D. 2003. evelopment of lipid oxidation and flesh color in frozen stored fillets of Norwegian spring-sprawning herring (Clupea harengus L.).Effects of treatment with ascorbic acid. Food Chemistry. 82: 447-453
    Hand L W, Hollingsworth C A, Calkins C R, et al. 1987. Effects of preblending reduced fat and salt levels on frankfurter characteristics[J]. Journal of Food Science. 52: 1149-1152
    Hongsprabhas P, Barhut S. 1999. Use of cold-set whey protein gelation to improve poultry meat batters[J]. Poultry Science. 78: 1074-1078
    Hudson H M. Daubert C R, and Foegeding E A. 2000. Rheological and physical properties of derivitized whey protein isolate powders[J]. Agricultural and Food Chemistry. 48(8): 3112-3119
    Hung T Y, Smith D M. 1993. Dynamic rheoloical properties and microstructure of partially in soluloilized whey protein gels[J]. Agricultural and Food Chemistry. 41: 1372-1378
    Jones, K W. 1984. Protein-lipid interactions in processed meats. Proceed. Recip Meat Conf. 37: 52-57
    Jul M. 1984. The quality of frozen foods. London[P]. Academic Press. 36: 789-790
    Karel M, Lund D B. 2003. Physical principles of food preservation[J]. New York: Marcel Dekker, Inc, 25: 398-421
    Huffman L M. 1996, Processing whey protein for use as a food ingredient [J]. Food Technology (Chicago). 49 (52)
    Li chan E. Nakai S. 1988. Reoin modification of bovine casein to simulate human caseincomposition effect on acid clouing and hydrolysis by pepsin, Can. Inst. of Food Science and Technology.
    Lin G C, Mittal G S, Barbut S. 1996. Optimization of tumbling and KCl substitution in low sodium restructured hams[J]. International Journal of Food Science and Technology. 31: 241-247
    Lin W, MeiM Y, 2000. Influence of gums, soy protein isolate and heating temperatures on reduced- fat meat batters in a model system[J]. Journal of Food Science. (65): 48-52
    Mine Y. 1996. Effect of pH during the dry heating on the gelling properties of egg white proteins[J]. Food Research International. 29(2): 155-161
    Mittal G S, Barbut S. 1994. Effects of fat reduction on frankfurters' physical and sensory characteristics[J]. Food Research International. 27: 425-431
    Morita J I, Choe I S, Yamamoto K et al. 1987. Heat-induced gelation of myosin from leg and breast muscles of chicken [J]. Agricultural and Biological Chemistry. 51(11): 2895-2900
    Mulvihill D M, Kinsella J E. 1998. Gelation ofβ-Lactoglobulin: effects of sodium chloride and calcium chloride on the rtheological and structrual properties of gels[J]. Journal of Food Science. 53(1): 231-236
    Murphy S C, Gilroy D, Kerry J F, et al. 2004. Evaluation of surimi, fat and water content in a low/no added pork sausage formulation using response surface methodology[J]. Meat Science, (66): 689-701
    Pan B S, Yeh W T. 1993. Biochemical and morphological changes in grass shrimp(Penaeus monodon)muscle following freezing by air blast and liquid nitrogen methods[J]. Journal of Food Biochemistry. 17: 147-160
    Reid A A, Champagne C P, Gardner N, et al. 2007. Survival in food systems of Lactobacillus rhamnosusR011 microentrapped in whey protein gelparticles[J]. Journal of Food Science. 72(1): 31-37
    Samejima K, Lee NH, Ishioroshi M, Asghar A. 1992. Protein extractability and thermal gel formability of myofibrils isolated from skeletal and cardiac muscles at different post-mortem periods. Journal of the Scicence of Food and Agriculture, 58(3): 385-393
    Sanz P D, de Elvira C, Martino M et al. 1999. Freezing rate simulation as an aid to reducing crystallization damage in foods. Meat Science. 52: 275-278
    Shai Barbut, Guari S M. 1996. International Journal of Food Science and Technology. 31: 241-24
    Shanks B C, Wulf D M, Maddock R J. 2002. The effect of freezing on Warner-Bratzler shear force values of beef longissimus steaks across several post-mortem aging periods. Journal of Animal Science. 80: 2112-2125
    Shenouda S Y K. 1980. Theories of protein denaturation during frozen storage of fish flesh. Advances in Food Research. 26: 275-311
    Sofos J N, Allen C E. 1977. Effects of lean meat source and levels of fat and soy protein on the properties of wiener-type products[J]. Journal of Food Science. 42(4): 875-878
    Sriket P, Benjakul S, Visessanguan W, Kijroongrojana K. 2007. Comparative studies on the effect of the freeze-thawing process on the physicochemical properties and microstructures of black tiger shrimp (Penaeus monodon)and white shrimp(Penaeus vannamei)muscle. Food Chemistry, 104: 113-121
    Srinivasan S, Xiong Y L, Blanchard S P. 1997. Effects of Freezing and Thawing Methods and Storage Time on Thermal Properties of Freshwater Prawns(Macrobrachium rosenbergii). Journal of the Science of Food and Agriculture. 75: 37-44
    Tantikarnjathep K, Sebranek J G, Topel D G et al. 1983. Use of vacuum during formation of meat emulsions. Journal of Food Science. 48: 1039-1041,1052
    Thomas R, Anjaneyulu A S R, Gadekar Y P, Pragati H, Kondaiah N. 2007. Effects of comminution temperature on the quality and shelf life of buffalo meat nuggets[J]. Food Chemistry. 103: 787-794
    Xiong Y L, Brekke C J. 1991. Protein extractability and thermally induced gelation properties of myofibrils isolated from pre-and postrigor chicken muscles. Journal of Food Science. 56: 210
    Xiong Y L. 1997. Protein denaturation and functionality losses. In: Erickson M C, Hung Y G (ed). Quality in frozen food[M]. New York: Chapman & Hall, 111-140
    Youssef M K, Barbut S. 2009. Effects of protein level and fat/oil on emulsion stability, texture, microstructure and color of meat batters[J]. Meat Science. (82): 228-233
    Yu L, Scanlin L, Wilson J, Schmidt G. 2002. Rosemary extracts as inhibitors of lipid oxidation and color change in cooked turkey products during refrigerated storage. Journal of Food Science. 67(2): 582-585

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700