热量减少微米的性欲的物理、结构、感官和地质特征

Amin Rangriz, S. A. Mortazavi, Morteza Khomeiri, Soheil Amiri
{"title":"热量减少微米的性欲的物理、结构、感官和地质特征","authors":"Amin Rangriz, S. A. Mortazavi, Morteza Khomeiri, Soheil Amiri","doi":"10.22067/ifstrj.v1395i1.27848","DOIUrl":null,"url":null,"abstract":"Introduction \nTraditional mayonnaise is probably one of the oldest and most widely used sauces in all over the world. Mayonnaise is a product with particular consistency and is classified as a type of oil in water emulsions. Vegetable oil, acetic acid, and egg yolk are main components of mayonnaise. In addition, mayonnaise may contain salt, sweeteners, spices, effective flavor materials, preservatives and stabilizers. It must contain at least 78.5 % of total fat and 6 % pureegg yolk. Due tohigh levels of oil present in mayonnaise, continuous usageof this product may result in diseases such as obesity,arteriosclerosis, hypertension and cardiovascular diseases.Therefore, consumers tend to consume low-fat products. \nYoghurt is a very useful fermented milk products in terms of lactic acid bacteria that have beneficial effects on human health and Because of the similarity between this productand mayonnaise in terms of rheological properties, Yoghurt have been selected as a fat mimetic in mayonnaise.Therefore, the objective of present study was to investigate the effects of partial fat substitutionby yoghurt on physicochemical, rheological and sensory properties of low fat mayonnaise. \n \nMaterials and methods \nMayonnaise preparation \nOne kilogram of each mayonnaise sample was prepared.Different recipes of mayonnaise contained yoghurt asfat mimetic (as % of oil and yoghurt) including (49.5 % & 25%), (33% & 50%), (16.5% & 75%). All formulations contained 13 % Egg yolk, 10 % Vinegar, 1 %Mustard, 1 % common salt ,4 % sugar , sodium benzoate 0.07 % , Xanthan gum 0.2%.Mayonnaise preparation procedure was as follows; firstlyegg and vinegar were mixed together and then all otherIngredients(including Yoghurt for the low fatmayonnaise recipes) except oil were added and mixed well. The oil was finally poured insidethe mixer very slowly and homogenized for 1 min. Subsamples (250 g) of mayonnaise were aseptically transferredto sterile 250 ml, Duran glass bottles withpolypropylenescrew caps and left for one-day at 5 °C. \nProximate composition analysis \nMoisture, protein, and ash contents were determined accordingto AOAC (2005) official methods. Fat content wasmeasured by Bligh and Dyer (1959) method, and totalcarbohydrate content was calculated by difference. \nRheological measurements \nRheological measurements were performed after 24 hstorage using a Brookfield viscometer Model RVDV-IIwith aspindle no.6 at 5 °C and 25 °C. Shear stress data wereplotted versus shear rate for each mayonnaise sample ata range of spindle speed (10–200 rpm). Plots of Lnshear stress versus Ln shear rate (for each sample) werethen used to calculate values including flow behaviorindex (n) andconsistency coefficient (K). \nTexture analysis \nMayonnaise samples were stored in refrigerator for 24 huntil texture analysis. The measurements were carriedout using a Brookfield texture analyzer (BrookfieldLFRA texture analyzer model number 4500 texture prolite) equipped with a 38 mm diameter cylindrical probeat 25 °C. \nThe condition of the analysis was as follows; one cyclewas applied, at a constant crosshead velocity of 1 mm/s to asample depth of 30 mm, and then returned. From the resultingforce-time curve, the values for texture attributes, i.e.firmness, adhesiveness, and consistency were obtained usingtexture pro lit software. \npH measurement and stability test \npH was determined using AOAC standard method at 25 °C. The samples were assessed for the stability \ntest after 24 h storage at 35 °C. Mayonnaise stability wasdetermined after centrifugation (10 min, 2,500 rpm), andwas expressed as the volume of separated phase to the totalemulsion volume. \nColor measurement \nMayonnaise samples were measured for color in the L*, a*,b* system using a Lovibond Colorimeter. \nSensory analysis \nAfter 1 day storage Sensory characteristics including appearance,color, odor, texture, taste, and overall acceptabilitywere evaluated by 14 semi-trained panel on 5-point hedonicscale (1 = the least or the lowest; 5 = the most or thehighest). \nStatistical analysis \nAll the tests were performed in triplicate. The data collectedwere analyzed by one-way analysis of variance (ANOVA),and significant differences of means were compared usingDuncan test at 5 % significance level using SAS softwareprogram. \n \nResults and Discussion: In present study, physicochemical, texture, sensory and rheological properties were evaluated in mayonnaise formulation with dairy-based. Fat was partially substituted by yoghurt at levels of 25, 50 and 75% which were referred respectively as SM1 (25% fat substitution level), SM2 (50% fat substitution level) and SM3 (75% fat substitution level) and the full fat mayonnaise (S) with 66 % oil was used as control sample. Results indicated that low-fat mayonnaise samples had considerably lower energy content compared with control sample, but higher water content than it. In terms of texture, SM3 had lower hardness compared with control sample. The samples exhibited thixotropic and shear thinning behavior through rheological studies and all samples were classified in the group of solid viscoelastic materials because, in all samples, storage modulus was greater than loss modulus. Also, the loss tangent of low-fat mayonnaise samples were higher than the control sample which reflects the tendency of these samples behavior to pseudo-liquid behavior. Results of sensory evaluation demonstrated that SM2 and SM3samples, were more acceptable. It was concluded that yoghurt can be used as a suitable fat replacer in mayonnaise formulation.","PeriodicalId":52634,"journal":{"name":"mjlh pjwhshhy `lwm w Sny` Gdhyy yrn","volume":"12 1","pages":"34-48"},"PeriodicalIF":0.0000,"publicationDate":"2016-05-12","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"ویژگی های فیزیکوشیمیایی، بافتی، حسی و رئولوژیکی سس مایونز کم کالری بر پایه لبنیات\",\"authors\":\"Amin Rangriz, S. A. Mortazavi, Morteza Khomeiri, Soheil Amiri\",\"doi\":\"10.22067/ifstrj.v1395i1.27848\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Introduction \\nTraditional mayonnaise is probably one of the oldest and most widely used sauces in all over the world. Mayonnaise is a product with particular consistency and is classified as a type of oil in water emulsions. Vegetable oil, acetic acid, and egg yolk are main components of mayonnaise. In addition, mayonnaise may contain salt, sweeteners, spices, effective flavor materials, preservatives and stabilizers. It must contain at least 78.5 % of total fat and 6 % pureegg yolk. Due tohigh levels of oil present in mayonnaise, continuous usageof this product may result in diseases such as obesity,arteriosclerosis, hypertension and cardiovascular diseases.Therefore, consumers tend to consume low-fat products. \\nYoghurt is a very useful fermented milk products in terms of lactic acid bacteria that have beneficial effects on human health and Because of the similarity between this productand mayonnaise in terms of rheological properties, Yoghurt have been selected as a fat mimetic in mayonnaise.Therefore, the objective of present study was to investigate the effects of partial fat substitutionby yoghurt on physicochemical, rheological and sensory properties of low fat mayonnaise. \\n \\nMaterials and methods \\nMayonnaise preparation \\nOne kilogram of each mayonnaise sample was prepared.Different recipes of mayonnaise contained yoghurt asfat mimetic (as % of oil and yoghurt) including (49.5 % & 25%), (33% & 50%), (16.5% & 75%). All formulations contained 13 % Egg yolk, 10 % Vinegar, 1 %Mustard, 1 % common salt ,4 % sugar , sodium benzoate 0.07 % , Xanthan gum 0.2%.Mayonnaise preparation procedure was as follows; firstlyegg and vinegar were mixed together and then all otherIngredients(including Yoghurt for the low fatmayonnaise recipes) except oil were added and mixed well. The oil was finally poured insidethe mixer very slowly and homogenized for 1 min. Subsamples (250 g) of mayonnaise were aseptically transferredto sterile 250 ml, Duran glass bottles withpolypropylenescrew caps and left for one-day at 5 °C. \\nProximate composition analysis \\nMoisture, protein, and ash contents were determined accordingto AOAC (2005) official methods. Fat content wasmeasured by Bligh and Dyer (1959) method, and totalcarbohydrate content was calculated by difference. \\nRheological measurements \\nRheological measurements were performed after 24 hstorage using a Brookfield viscometer Model RVDV-IIwith aspindle no.6 at 5 °C and 25 °C. Shear stress data wereplotted versus shear rate for each mayonnaise sample ata range of spindle speed (10–200 rpm). Plots of Lnshear stress versus Ln shear rate (for each sample) werethen used to calculate values including flow behaviorindex (n) andconsistency coefficient (K). \\nTexture analysis \\nMayonnaise samples were stored in refrigerator for 24 huntil texture analysis. The measurements were carriedout using a Brookfield texture analyzer (BrookfieldLFRA texture analyzer model number 4500 texture prolite) equipped with a 38 mm diameter cylindrical probeat 25 °C. \\nThe condition of the analysis was as follows; one cyclewas applied, at a constant crosshead velocity of 1 mm/s to asample depth of 30 mm, and then returned. From the resultingforce-time curve, the values for texture attributes, i.e.firmness, adhesiveness, and consistency were obtained usingtexture pro lit software. \\npH measurement and stability test \\npH was determined using AOAC standard method at 25 °C. The samples were assessed for the stability \\ntest after 24 h storage at 35 °C. Mayonnaise stability wasdetermined after centrifugation (10 min, 2,500 rpm), andwas expressed as the volume of separated phase to the totalemulsion volume. \\nColor measurement \\nMayonnaise samples were measured for color in the L*, a*,b* system using a Lovibond Colorimeter. \\nSensory analysis \\nAfter 1 day storage Sensory characteristics including appearance,color, odor, texture, taste, and overall acceptabilitywere evaluated by 14 semi-trained panel on 5-point hedonicscale (1 = the least or the lowest; 5 = the most or thehighest). \\nStatistical analysis \\nAll the tests were performed in triplicate. The data collectedwere analyzed by one-way analysis of variance (ANOVA),and significant differences of means were compared usingDuncan test at 5 % significance level using SAS softwareprogram. \\n \\nResults and Discussion: In present study, physicochemical, texture, sensory and rheological properties were evaluated in mayonnaise formulation with dairy-based. Fat was partially substituted by yoghurt at levels of 25, 50 and 75% which were referred respectively as SM1 (25% fat substitution level), SM2 (50% fat substitution level) and SM3 (75% fat substitution level) and the full fat mayonnaise (S) with 66 % oil was used as control sample. Results indicated that low-fat mayonnaise samples had considerably lower energy content compared with control sample, but higher water content than it. In terms of texture, SM3 had lower hardness compared with control sample. The samples exhibited thixotropic and shear thinning behavior through rheological studies and all samples were classified in the group of solid viscoelastic materials because, in all samples, storage modulus was greater than loss modulus. Also, the loss tangent of low-fat mayonnaise samples were higher than the control sample which reflects the tendency of these samples behavior to pseudo-liquid behavior. Results of sensory evaluation demonstrated that SM2 and SM3samples, were more acceptable. 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引用次数: 0

摘要

传统蛋黄酱可能是世界上最古老和最广泛使用的酱汁之一。蛋黄酱是一种具有特殊稠度的产品,被归类为一种油在水中的乳液。植物油、醋酸和蛋黄是蛋黄酱的主要成分。此外,蛋黄酱可能含有盐、甜味剂、香料、有效调味料、防腐剂和稳定剂。它必须含有至少78.5%的总脂肪和6%的纯蛋黄。由于蛋黄酱含油量高,持续使用本产品可能导致肥胖、动脉硬化、高血压和心血管疾病等疾病。因此,消费者倾向于消费低脂产品。就乳酸菌而言,酸奶是一种非常有用的发酵乳制品,对人体健康有有益的影响,并且由于该产品与蛋黄酱在流变特性方面的相似性,酸奶被选为蛋黄酱中的脂肪模拟物。因此,本研究的目的是研究酸奶部分脂肪替代对低脂蛋黄酱理化、流变学和感官特性的影响。材料和方法蛋黄酱制备每个蛋黄酱样品各制备1公斤。不同配方的蛋黄酱含有仿酸奶(占油和酸奶的百分比),包括(49.5%和25%),(33%和50%),(16.5%和75%)。所有配方含蛋黄13%,醋10%,芥末1%,食盐1%,糖4%,苯甲酸钠0.07%,黄原胶0.2%。蛋黄酱的制备步骤如下;首先将鸡蛋和醋混合在一起,然后加入除油以外的所有其他材料(包括低脂肪蛋黄酱食谱中的酸奶)并混合均匀。最后将油缓慢倒入混合器中,匀浆1分钟。将蛋黄酱样品(250 g)无菌转移到250 ml的Duran聚丙烯螺旋盖玻璃瓶中,在5℃下放置一天。根据AOAC(2005)官方方法测定水分、蛋白质和灰分含量。脂肪含量采用Bligh and Dyer(1959)法测定,总碳水化合物含量采用差值法计算。流变学测量使用主轴号为rvdv - ii型的Brookfield粘度计,在储存24 h后进行流变学测量。6在5°C和25°C。在主轴转速范围内(10-200 rpm),绘制了每个蛋黄酱样品的剪切应力数据与剪切速率的关系。然后使用ln剪应力与Ln剪切速率(每个样品)的图来计算包括流动行为指数(n)和一致性系数(K)在内的值。质地分析蛋黄酱样品在冰箱中保存24小时,直到质地分析。测量使用Brookfield纹理分析仪(Brookfield dlfra纹理分析仪型号4500纹理剖面),配备直径38 mm的圆柱形探针,温度为25°C。分析的条件如下:以1 mm/s的恒定十字头速度进行一次循环,采样深度为30 mm,然后返回。从得到的力-时间曲线中,使用纹理pro - lit软件获得纹理属性值,即硬度、粘附性和一致性。pH测定和稳定性试验pH采用AOAC标准法测定,温度为25℃。样品在35°C下保存24 h后进行稳定性测试。离心10min, 2500rpm后测定蛋黄酱的稳定性,并以分离相体积与总乳状液体积之比表示。使用Lovibond色度计在L*, a*,b*体系中测量蛋黄酱样品的颜色。感官分析储存1天后,由14名半训练小组以5点享乐量表(1 =最小或最低;5 =最多或最高)。统计分析所有试验均为三份。收集的资料采用单因素方差分析(ANOVA)进行分析,采用SAS软件在5%显著性水平下比较均数的显著性差异,采用duncan检验。结果与讨论:本研究对乳基蛋黄酱配方的理化、质构、感官和流变性能进行了评价。以25%脂肪替代水平(SM1)、50%脂肪替代水平(SM2)和75%脂肪替代水平(SM3)的酸奶代替部分脂肪,以含66%油的全脂蛋黄酱(S)为对照样品。结果表明,低脂蛋黄酱样品的能量含量明显低于对照样品,但含水量高于对照样品。在织构方面,SM3的硬度低于对照样品。 传统蛋黄酱可能是世界上最古老和最广泛使用的酱汁之一。蛋黄酱是一种具有特殊稠度的产品,被归类为一种油在水中的乳液。植物油、醋酸和蛋黄是蛋黄酱的主要成分。此外,蛋黄酱可能含有盐、甜味剂、香料、有效调味料、防腐剂和稳定剂。它必须含有至少78.5%的总脂肪和6%的纯蛋黄。由于蛋黄酱含油量高,持续使用本产品可能导致肥胖、动脉硬化、高血压和心血管疾病等疾病。因此,消费者倾向于消费低脂产品。就乳酸菌而言,酸奶是一种非常有用的发酵乳制品,对人体健康有有益的影响,并且由于该产品与蛋黄酱在流变特性方面的相似性,酸奶被选为蛋黄酱中的脂肪模拟物。因此,本研究的目的是研究酸奶部分脂肪替代对低脂蛋黄酱理化、流变学和感官特性的影响。材料和方法蛋黄酱制备每个蛋黄酱样品各制备1公斤。不同配方的蛋黄酱含有仿酸奶(占油和酸奶的百分比),包括(49.5%和25%),(33%和50%),(16.5%和75%)。所有配方含蛋黄13%,醋10%,芥末1%,食盐1%,糖4%,苯甲酸钠0.07%,黄原胶0.2%。蛋黄酱的制备步骤如下;首先将鸡蛋和醋混合在一起,然后加入除油以外的所有其他材料(包括低脂肪蛋黄酱食谱中的酸奶)并混合均匀。最后将油缓慢倒入混合器中,匀浆1分钟。将蛋黄酱样品(250 g)无菌转移到250 ml的Duran聚丙烯螺旋盖玻璃瓶中,在5℃下放置一天。根据AOAC(2005)官方方法测定水分、蛋白质和灰分含量。脂肪含量采用Bligh and Dyer(1959)法测定,总碳水化合物含量采用差值法计算。流变学测量使用主轴号为rvdv - ii型的Brookfield粘度计,在储存24 h后进行流变学测量。6在5°C和25°C。在主轴转速范围内(10-200 rpm),绘制了每个蛋黄酱样品的剪切应力数据与剪切速率的关系。然后使用ln剪应力与Ln剪切速率(每个样品)的图来计算包括流动行为指数(n)和一致性系数(K)在内的值。质地分析蛋黄酱样品在冰箱中保存24小时,直到质地分析。测量使用Brookfield纹理分析仪(Brookfield dlfra纹理分析仪型号4500纹理剖面),配备直径38 mm的圆柱形探针,温度为25°C。分析的条件如下:以1 mm/s的恒定十字头速度进行一次循环,采样深度为30 mm,然后返回。从得到的力-时间曲线中,使用纹理pro - lit软件获得纹理属性值,即硬度、粘附性和一致性。pH测定和稳定性试验pH采用AOAC标准法测定,温度为25℃。样品在35°C下保存24 h后进行稳定性测试。离心10min, 2500rpm后测定蛋黄酱的稳定性,并以分离相体积与总乳状液体积之比表示。使用Lovibond色度计在L*, a*,b*体系中测量蛋黄酱样品的颜色。感官分析储存1天后,由14名半训练小组以5点享乐量表(1 =最小或最低;5 =最多或最高)。统计分析所有试验均为三份。收集的资料采用单因素方差分析(ANOVA)进行分析,采用SAS软件在5%显著性水平下比较均数的显著性差异,采用duncan检验。结果与讨论:本研究对乳基蛋黄酱配方的理化、质构、感官和流变性能进行了评价。以25%脂肪替代水平(SM1)、50%脂肪替代水平(SM2)和75%脂肪替代水平(SM3)的酸奶代替部分脂肪,以含66%油的全脂蛋黄酱(S)为对照样品。结果表明,低脂蛋黄酱样品的能量含量明显低于对照样品,但含水量高于对照样品。在织构方面,SM3的硬度低于对照样品。 通过流变学研究,样品表现出触变和剪切变薄的行为,所有样品都被归类为固体粘弹性材料组,因为在所有样品中,存储模量大于损失模量。低脂蛋黄酱样品的损失切线高于对照样品,反映了样品行为倾向于伪液体行为。感官评价结果表明,SM2和sm3样品更容易被接受。结果表明,酸奶可作为蛋黄酱配方中一种合适的脂肪替代品。 通过流变学研究,样品表现出触变和剪切变薄的行为,所有样品都被归类为固体粘弹性材料组,因为在所有样品中,存储模量大于损失模量。低脂蛋黄酱样品的损失切线高于对照样品,反映了样品行为倾向于伪液体行为。感官评价结果表明,SM2和sm3样品更容易被接受。结果表明,酸奶可作为蛋黄酱配方中一种合适的脂肪替代品。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ویژگی های فیزیکوشیمیایی، بافتی، حسی و رئولوژیکی سس مایونز کم کالری بر پایه لبنیات
Introduction Traditional mayonnaise is probably one of the oldest and most widely used sauces in all over the world. Mayonnaise is a product with particular consistency and is classified as a type of oil in water emulsions. Vegetable oil, acetic acid, and egg yolk are main components of mayonnaise. In addition, mayonnaise may contain salt, sweeteners, spices, effective flavor materials, preservatives and stabilizers. It must contain at least 78.5 % of total fat and 6 % pureegg yolk. Due tohigh levels of oil present in mayonnaise, continuous usageof this product may result in diseases such as obesity,arteriosclerosis, hypertension and cardiovascular diseases.Therefore, consumers tend to consume low-fat products. Yoghurt is a very useful fermented milk products in terms of lactic acid bacteria that have beneficial effects on human health and Because of the similarity between this productand mayonnaise in terms of rheological properties, Yoghurt have been selected as a fat mimetic in mayonnaise.Therefore, the objective of present study was to investigate the effects of partial fat substitutionby yoghurt on physicochemical, rheological and sensory properties of low fat mayonnaise. Materials and methods Mayonnaise preparation One kilogram of each mayonnaise sample was prepared.Different recipes of mayonnaise contained yoghurt asfat mimetic (as % of oil and yoghurt) including (49.5 % & 25%), (33% & 50%), (16.5% & 75%). All formulations contained 13 % Egg yolk, 10 % Vinegar, 1 %Mustard, 1 % common salt ,4 % sugar , sodium benzoate 0.07 % , Xanthan gum 0.2%.Mayonnaise preparation procedure was as follows; firstlyegg and vinegar were mixed together and then all otherIngredients(including Yoghurt for the low fatmayonnaise recipes) except oil were added and mixed well. The oil was finally poured insidethe mixer very slowly and homogenized for 1 min. Subsamples (250 g) of mayonnaise were aseptically transferredto sterile 250 ml, Duran glass bottles withpolypropylenescrew caps and left for one-day at 5 °C. Proximate composition analysis Moisture, protein, and ash contents were determined accordingto AOAC (2005) official methods. Fat content wasmeasured by Bligh and Dyer (1959) method, and totalcarbohydrate content was calculated by difference. Rheological measurements Rheological measurements were performed after 24 hstorage using a Brookfield viscometer Model RVDV-IIwith aspindle no.6 at 5 °C and 25 °C. Shear stress data wereplotted versus shear rate for each mayonnaise sample ata range of spindle speed (10–200 rpm). Plots of Lnshear stress versus Ln shear rate (for each sample) werethen used to calculate values including flow behaviorindex (n) andconsistency coefficient (K). Texture analysis Mayonnaise samples were stored in refrigerator for 24 huntil texture analysis. The measurements were carriedout using a Brookfield texture analyzer (BrookfieldLFRA texture analyzer model number 4500 texture prolite) equipped with a 38 mm diameter cylindrical probeat 25 °C. The condition of the analysis was as follows; one cyclewas applied, at a constant crosshead velocity of 1 mm/s to asample depth of 30 mm, and then returned. From the resultingforce-time curve, the values for texture attributes, i.e.firmness, adhesiveness, and consistency were obtained usingtexture pro lit software. pH measurement and stability test pH was determined using AOAC standard method at 25 °C. The samples were assessed for the stability test after 24 h storage at 35 °C. Mayonnaise stability wasdetermined after centrifugation (10 min, 2,500 rpm), andwas expressed as the volume of separated phase to the totalemulsion volume. Color measurement Mayonnaise samples were measured for color in the L*, a*,b* system using a Lovibond Colorimeter. Sensory analysis After 1 day storage Sensory characteristics including appearance,color, odor, texture, taste, and overall acceptabilitywere evaluated by 14 semi-trained panel on 5-point hedonicscale (1 = the least or the lowest; 5 = the most or thehighest). Statistical analysis All the tests were performed in triplicate. The data collectedwere analyzed by one-way analysis of variance (ANOVA),and significant differences of means were compared usingDuncan test at 5 % significance level using SAS softwareprogram. Results and Discussion: In present study, physicochemical, texture, sensory and rheological properties were evaluated in mayonnaise formulation with dairy-based. Fat was partially substituted by yoghurt at levels of 25, 50 and 75% which were referred respectively as SM1 (25% fat substitution level), SM2 (50% fat substitution level) and SM3 (75% fat substitution level) and the full fat mayonnaise (S) with 66 % oil was used as control sample. Results indicated that low-fat mayonnaise samples had considerably lower energy content compared with control sample, but higher water content than it. In terms of texture, SM3 had lower hardness compared with control sample. The samples exhibited thixotropic and shear thinning behavior through rheological studies and all samples were classified in the group of solid viscoelastic materials because, in all samples, storage modulus was greater than loss modulus. Also, the loss tangent of low-fat mayonnaise samples were higher than the control sample which reflects the tendency of these samples behavior to pseudo-liquid behavior. Results of sensory evaluation demonstrated that SM2 and SM3samples, were more acceptable. It was concluded that yoghurt can be used as a suitable fat replacer in mayonnaise formulation.
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