우유로 제조한 휘타치즈의 지방산 조성과 숙성중 물리화학적 특성 변화를 연구하였다. 우유 휘타치즈의 성분조성은 지방 22.79%, 단백질 10.57%, 수분 함량 59.87% 이었다. 4℃에서 14 일간 치즈를 숙성한 결과, 젖산균은 Log CFU/g의 값이 10.25에서 7.95로 감소하였으며, 치즈의 pH는 pH 6.22에서 pH 5.55로 변하였다. 치즈의 색상은 L-value의 경우 92.5에서 100.1로 lightness가 증가하였으나, a-value는 2.4에서 4.6으로 red color가 강해졌으며, b-value는 8.3에서 14.1로 gray color가 증가하였다. 조직특성에 있어서 resilience는 저장기간에 따른 점진적 증가 (p<0.01)가 인정되었으며, adhesiveness는 제조 직후 보다 증가(p<0.01)하였으나, 저장기간에 따른 차이는 없었다. Hardness, fracturability, gumminess와 chewiness는 0℃ 저장온도에서 점차로 증가하였으나 통계적인 유의성은 인정되지 않았다. 14일 숙성된 우유 휘타치즈의 관능적 강도는 단맛, 우유취, 짠맛 등에서 대조치즈보다 훨씬 높았으며 (p<0.01) 저작감도 다소 높았다 (p<0.05). 관능적 기호도는 냄새, 색상, 입안느낌, 저작감을 제외한 관능적 특성들이 숙성과 더불어 개선 (p<0.01) 되었다. 휘타치즈의 포화지방산 함량은 52.61% 로서 불포화지방산 함량 (47.39%) 보다 많았으며, 단일불포화지방산 함량이 28.98%로서 이중 또는 다가불포화지방산 함량 (18.41%) 보다 많았다. 영양적으로 중요성이 높은 ω6 및 ω3 지방산의 함량은 각각 9.27% 및 0.55%, CLA 지방산 두 이성체 (c18:2c9t11 및 c18:2t10c12)의 총 함량은 0.11%, arachidonic acid (c20:4) 함량은 0.19%, DHA 지방산 (c22:6n3) 함량은 0.12% 이었다.
우유로 제조한 휘타치즈의 지방산 조성과 숙성중 물리화학적 특성 변화를 연구하였다. 우유 휘타치즈의 성분조성은 지방 22.79%, 단백질 10.57%, 수분 함량 59.87% 이었다. 4℃에서 14 일간 치즈를 숙성한 결과, 젖산균은 Log CFU/g의 값이 10.25에서 7.95로 감소하였으며, 치즈의 pH는 pH 6.22에서 pH 5.55로 변하였다. 치즈의 색상은 L-value의 경우 92.5에서 100.1로 lightness가 증가하였으나, a-value는 2.4에서 4.6으로 red color가 강해졌으며, b-value는 8.3에서 14.1로 gray color가 증가하였다. 조직특성에 있어서 resilience는 저장기간에 따른 점진적 증가 (p<0.01)가 인정되었으며, adhesiveness는 제조 직후 보다 증가(p<0.01)하였으나, 저장기간에 따른 차이는 없었다. Hardness, fracturability, gumminess와 chewiness는 0℃ 저장온도에서 점차로 증가하였으나 통계적인 유의성은 인정되지 않았다. 14일 숙성된 우유 휘타치즈의 관능적 강도는 단맛, 우유취, 짠맛 등에서 대조치즈보다 훨씬 높았으며 (p<0.01) 저작감도 다소 높았다 (p<0.05). 관능적 기호도는 냄새, 색상, 입안느낌, 저작감을 제외한 관능적 특성들이 숙성과 더불어 개선 (p<0.01) 되었다. 휘타치즈의 포화지방산 함량은 52.61% 로서 불포화지방산 함량 (47.39%) 보다 많았으며, 단일불포화지방산 함량이 28.98%로서 이중 또는 다가불포화지방산 함량 (18.41%) 보다 많았다. 영양적으로 중요성이 높은 ω6 및 ω3 지방산의 함량은 각각 9.27% 및 0.55%, CLA 지방산 두 이성체 (c18:2c9t11 및 c18:2t10c12)의 총 함량은 0.11%, arachidonic acid (c20:4) 함량은 0.19%, DHA 지방산 (c22:6n3) 함량은 0.12% 이었다.
Fatty acid compositions and physicochemical properties of feta cheese made from bovine milk were studied. Nutritional compositions of feta cheese were fat 22.79%, protein 10.57% with moisture content of 59.87%. The log cfu/g of lactic acid bacteria in bovine feta cheese decreased from 10.25 to 7.95 ...
Fatty acid compositions and physicochemical properties of feta cheese made from bovine milk were studied. Nutritional compositions of feta cheese were fat 22.79%, protein 10.57% with moisture content of 59.87%. The log cfu/g of lactic acid bacteria in bovine feta cheese decreased from 10.25 to 7.95 and pH also changed from pH 6.22 to pH 5.55 during storage at 4℃ for 14 d aging. The color of feta cheese turned into more whitish (L-value, 100.1) with a red (a-value, 4.6) and gray (b-value,－4.1) color after 14day's aging. For the texture profile analysis of bovine feta cheese, resilience was increased significantly (p<0.01) throughout the aging periods and adhesiveness was rapidly increased right after progressing of aging at both temperatures, but no difference was found between the aging periods. Hardness, fracturability, gumminess and chewiness were gradually increased at 0℃, but no statistical significances were found. Springiness and cohesiveness were not changed at both temperatures. In organoleptic evaluations, organoleptic intensities in sweetness, milky taste and saltiness were significantly enhanced over those of the control cheese at the level of p<0.01, and masticatory texture at p<0.05 with the progress of aging to 14d. Organoleptic preferences were significantly (p<0.01) enhanced except smell, color, mouth feel, and masticatory texture with the aging. In the fatty acid compositions of feta cheese analyzed by gas chromatography, the content of SFA (52.61%) was slight higher than that of USFA (47.39%) composed with MUFA (28.98%) and PUFA (18.41%). Among the nutritionally important fatty acids; ω6 (9.27%) and ω3 (0.55%) fatty acids, CLA (0.12%), arachidonic acid (0.19%) and DHA (0.12%) were also found in bovine feta cheese.
Fatty acid compositions and physicochemical properties of feta cheese made from bovine milk were studied. Nutritional compositions of feta cheese were fat 22.79%, protein 10.57% with moisture content of 59.87%. The log cfu/g of lactic acid bacteria in bovine feta cheese decreased from 10.25 to 7.95 and pH also changed from pH 6.22 to pH 5.55 during storage at 4℃ for 14 d aging. The color of feta cheese turned into more whitish (L-value, 100.1) with a red (a-value, 4.6) and gray (b-value,－4.1) color after 14day's aging. For the texture profile analysis of bovine feta cheese, resilience was increased significantly (p<0.01) throughout the aging periods and adhesiveness was rapidly increased right after progressing of aging at both temperatures, but no difference was found between the aging periods. Hardness, fracturability, gumminess and chewiness were gradually increased at 0℃, but no statistical significances were found. Springiness and cohesiveness were not changed at both temperatures. In organoleptic evaluations, organoleptic intensities in sweetness, milky taste and saltiness were significantly enhanced over those of the control cheese at the level of p<0.01, and masticatory texture at p<0.05 with the progress of aging to 14d. Organoleptic preferences were significantly (p<0.01) enhanced except smell, color, mouth feel, and masticatory texture with the aging. In the fatty acid compositions of feta cheese analyzed by gas chromatography, the content of SFA (52.61%) was slight higher than that of USFA (47.39%) composed with MUFA (28.98%) and PUFA (18.41%). Among the nutritionally important fatty acids; ω6 (9.27%) and ω3 (0.55%) fatty acids, CLA (0.12%), arachidonic acid (0.19%) and DHA (0.12%) were also found in bovine feta cheese.
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제안 방법
For the sensory analysis, eight panels familiar with mozzarella cheese were used to rank two sets of feta cheese samples (0 , 4 ) for the intensity and the preference to tastes (sweet, acidity, saltiness, bittery), flavor (milky, cow's smell, fermentation flavour) and texture (mouth feel, masticatory).
A study on the nutritional, textural and organoleptic characteristics of feta cheese made from goat milk (Kang and Park, 2006) revealed that the sensory of caprine feta cheese was restrictive to Korean consumers owing to the strong goaty flavour. This study is carried out to evaluate the nutritional, textural and organoleptic characteristics and the fatty acid compositions of feta cheese made from bovine milk.
데이터처리
0 Program) (SAS, 2000). Duncan’s multiple range test was applied to analyze the difference between the average of treatments at p<0.05, p<0.01.
이론/모형
Cheese protein was analyzed by the method of AOAC (1990) in which 1.5g of the cheese sample prepared for moisture content was put into a tube and dried at 98 for 3 h. After drying, 12 ml of 0.
02 (Table 5). The fracture strain (60%) and the deformation rates (60mm/min) were applied for TPA in this experiment in spite of the suggestions of Wium et al. (1997a, 1997b) to use the fracture strain of 25 35% order and the deformation rates of 50mm/min for TPA (texture profile analysis). The hardness and the fracturability were gradually increased from 21.
성능/효과
However, the overall preferences of smell, color, tastes (sweetness, acidity, milky taste), flavour (cow's smell, fermentation flavour) and texture (masticatory, mouth feel), and total organoleptic scores were similar with those of mozzarella cheese. Also total preferences for the organoleptic characteristics were improved significantly (p<0.01) by the prolonged aging, except smell, color, mouth feel, and masticatory texture.
1) color after 14day's aging. For the texture profile analysis of bovine feta cheese, resilience was increased significantly (p<0.01) throughout the aging periods and adhesiveness was rapidly increased right after progressing of aging at both temperatures, but no difference was found between the aging periods. Hardness, fracturability, gumminess and chewiness were gradually increased at 0 , but no statistical significances were found.
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