• Title/Summary/Keyword: 무화과

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Production of cheese containing alcohol metabolism using Lactobacillus with fig enzyme (무화과(Fig) 효소를 첨가한 유산균을 이용하여 알코올 대사활성 함유 치즈의 제조)

  • Lee, Sung-Jae;Yang, Yung-Hun;Jeon, Jong-Min;Lee, Ki-Won;Cho, In-Jae;Lee, Seong-Min;Ryu, Jeong-Youl;Shin, Won-Sung;Kim, Jung-Soo
    • Korean Journal of Food Science and Technology
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    • v.49 no.2
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    • pp.141-145
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    • 2017
  • In this study, we evaluated the alcohol degradation ability of fig enzyme in the production of cheese using Lactobacillus kitasatonis, Lactobacillus amylophillus, and Leuconostoc mesenteroides sub. The strains were highly resistant to ethanol, acid, and bile acid. When 10% of fig enzyme was added, the alcohol dehydrogenase and aldehyde dehydrogenase activities in each strain were approximately 170, 270, and 190% higher, respectively, than in samples without fig enzyme. The addition of 10% of fig enzyme to produce cheese with the L. amylophillus strain showed an approximately 250% increase in alcohol dehydrogenase and aldehyde dehydrogenase degradation. In conclusion, when fig enzyme was added to produce cheese using L. amylophillus, high alcohol degradation ability was observed. The applicability of fig enzyme addition was confirmed for the production of functional food.

Effects of Seasonings and Flavor Spices on Tenderizing Activity of Fig and Kiwifruit Sauce for Meat Cooking (양념과 부재료가 키위, 무화과를 이용한 육류조리용 소스의 연육효과에 미치는 영향)

  • Kim, Mi-Hyun;Kim, Mee-Jeong;Rho, Jeong-Hae
    • Korean journal of food and cookery science
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    • v.26 no.5
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    • pp.530-536
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    • 2010
  • This study was the tenderizing activity of fig and kiwifruit using meat cooking. Furthermore, the effects of various seasonings and flavor spices were investigated. The proteolytic activity of kiwifruit was 36,513 uM/g fruit, whereas that of fig was 24,131 uM/g fruit. The best amount of fruit for meat cooking was 3~5% for kiwifruit and 5% for fig among three different dilutions, 3%, 5% & 10%. The effect of fruit ratio showed that treatment with 'kiwifruit only' produced the best organoleptic results, and there was no significant difference between the kiwifruit and fig ratios, 3:0, 2:1, 1:1. The best marinating time for meat tenderizing by fig and kiwifruit was 6hr at $4^{\circ}C$. The best marinating temperature for meat tenderizing by fig and kiwifruit was $25^{\circ}C$ rather than $4^{\circ}C$. Fruit sauce containing basic seasonings such as soy sauce, sugar, oligosaccharides, and sesame oil had a pH of 4.64 for fig and 4.23 for kiwifruit. The addition of soy sauce, oligosaccharides, and rice wine decreased the proteolytic activity of the fruits. Fruit sauce containing basic seasonings, garlic, ginger, onion and scallion had a pH of 4.71 for fig and 4.43 for kiwifruit. Finely chopped garlic, finely chopped scallion, and pureed onion, finely chopped ginger, and pear juice, all increased the proteolytic activity of the fruits. There the fruit sauce containing seasonings and flavory spices for meat cooking improved the tenderness and preference in terms of sensory evaluation without undesirable taste or increased fruits.

Stabilizing and Optimizing Properties of Crude Protease Extracted from Korean Figs (국내산 무화과에서 추출한 protease 조효소액의 안정성과 최적화에 관한 연구)

  • Kim, Mi-Hyun;Rho, Jeong-Hae;Kim, Mee-Jeong
    • Korean journal of food and cookery science
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    • v.27 no.3
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    • pp.29-37
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    • 2011
  • Protease activity of fig (Ficus carica L.), cultivated in Korea was estimated. In particular, the proteolytic effect on myofibrilar protein was studied. A crude protease extract of fig was prepared in two ways; fig was homogenized in buffer followed by centrifugation, and the supernatant was precipitated by saturated ammonium sulfate followed by dialysis. The former method resulted in 41.15 mM/g fig protease activity, whereas the latter method resulted in 17.65 mM/g fig protease activity. The crude fig protease extract showed high specificity for casein as a substrate followed by egg white, bovine serum albumin, myofibrilar protein, collagen, and elastin. The extract had stable proteolytic activity in a pH range of 6.5~9.0 (optimal at pH 7-8) but lost activity, at pH 2-3. Proteolytic activity for myofibrilar protein was sensitive to pH. The proteolytic activity of the fig extract was steady up to $60^{\circ}C$ but declined at higher temperature. It also began to lose stability in salt concentrations >0.7 M NaCl. Fig has been used as a meat tenderizer for cooking, and these results support the tenderizing effectiveness of fig, particularly for Korean style meat marinating.

Hypolipidemic Effects of Glycoprotein Isolated from Ficus Carica Linnoeus in Mice (무화과 당단백질의 혈중지질 저하 효과)

  • Lim, Kye-Taek;Lee, Sei-Jung;Ko, Jeong-Hyeon;Oh, Phil-Sun
    • Korean Journal of Food Science and Technology
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    • v.37 no.4
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    • pp.624-630
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    • 2005
  • Glycoprotein (60 kDa) isolated from Ficus Carica Linnoeus (FCL glycoprotein) was examined by evaluating its hypolipidemic effects on plasma cholesterol levels and hepatic detoxicant enzyme activities in ICR mice. FCL glycoprotein $(100{\mu}g/mL)$ had strong scavenging activities (38%) against lipid peroxyl radicals. When mice were treated with Triton WR-1339 (400 mg/kg), levels of total cholesterol (TC) and low-density lipoprotein (LDL)-cholesterol in plasma significantly increased by 53.9 and 47.5 mg/dL, respectively, compared to the control, whereas, when pretreated with FCL glycoprotein $(100{\mu}g/mL)$, decreased remarkably by 55.4, and 47,0 mg/dL, compared to Triton WR-1339 treatment alone. Interestingly, high-density lipoprotein (HDL)-cholesterol level did not change. Body and liver weights did not change significantly after Triton WR-1339 treatment in presence of FCL glycoprotein. FCL glycoprotein $(100{\mu}g/mL)$ stimulated activities of antioxidative detoxicant enzymes such as superoxide dismutase (SOD), catalase (CAT), and glutathione peroxidase (GPx), whereas GPx activity significantly increased compared to the control. These results suggest FCL glycoprotein has abilities to scavenge lipid peroxyl radicals, lower plasma lipid levels, and stimulate detoxicant enzyme activity in mouse liver.

Changes of pH, Meat Color, Cooking Loss, Shear Force and Sensory Evaluation on Hanwoo Meat Fed with Supplemental Fig Fermentation during Storage Period (무화과 발효물을 급여한 한우고기의 저장기간 중 pH, 육색, 가열감량, 전단력 및 관능평가의 변화)

  • Kook, Kil;Kim, Kwang-Hyun
    • Food Science of Animal Resources
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    • v.22 no.4
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    • pp.289-293
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    • 2002
  • This study was conducted to investigate changes of pH, meat color, cooking loss, shear force and sensory evaluation on Hanwoo meat fed with supplemental fig fermentation(SFF) during storage period. A total of 10 Hanwoo bulls were subjected to one of two treatment diets (control and 10% SFF) from live weight of 400kg far 6 months. After slaughter, longissimus muscles were removed, zipper-wrapped and stored at 4$\^{C}$ for 21 days. The pH, meat color, cooking loss, shear force and sensory evaluation of the samples were measured at 1, 3, 9, 15, 21 days of storage. There were no differences in pH, meat objective color(Hunter L, a and b) and cooking loss (%) of longissimus muscles between control and SFF treatment during storage. Shear force values of longissimus muscle from SFF treatment showed lower level in 1, 3 and 9 days and tended to decrease during storage. No differences in odor and appearance of sensory evaluation were observed between control and SFF treatment during storage. The taste induced by SFF was increased(f<0.05) at 1, 3 and 9 days of storage. These results indicate that the SFF may improve meat quality of Hanwoo during storage.

Changes in Organic acids, Free Sugars, and Volatile Flavor Compounds in Fig (Ficus carica L.) by Maturation Stage (무화과의 성숙도에 따른 유기산, 유리당 및 향기 성분의 변화에 관한 연구)

  • Shin, Tai-Sun;Park, Jin-A;Jung, Bok-Mi
    • Journal of the Korean Society of Food Science and Nutrition
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    • v.44 no.7
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    • pp.1016-1027
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    • 2015
  • This study collected 120 figs, classified them into six degrees of maturity according to hardness values, and analyzed contents of organic acids and free sugars. Volatile compounds in figs were investigated using the solid-phase microextraction method of gas chromatography/mass spectrometry. For measurement of texture, elasticity increased up to stage 4 and decreased again. Cohesiveness and brittleness increased with maturation. Organic acids in figs were mainly composed of citric acid, malic acid, and tartaric acid in the final stage. Fructose and glucose were the major sugar components of figs. Fructose content decreased from stage 1 to stage 4 and then increased significantly. One hundred and nineteen volatile compounds were identified in figs, and classes were 14 acids, 15 alcohols, 23 aldehydes, 10 esters, 33 hydrocarbons, 11 ketones, four aromatics, six miscellaneous, and five terpenes. The dominant volatile components in figs were hexadecanoic acid, hexane, dodecanal, DL-limonene, 2-hexanal, nonanal, and 6-methyl-5-hepten-2-one.

Optimization of Extraction Condition on Fig (Ficus carica L.) by Response Surface Methodology (반응표면분석법에 의한 무화과 열수 추출조건의 최적화)

  • Kim, Jung-Ok;Kwon, Soon-Tae;Lee, Gee-Dong;Hong, Joo-Heon;Moon, Doo-Hwan;Kim, Tae-Wan;Kim, Dae-Ik
    • Food Science and Preservation
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    • v.15 no.1
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    • pp.66-73
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    • 2008
  • Response surface methodology (RSM) was applied for monitor the yields of desirable substances from fig (Ficus carica L) under different extraction conditions. The maximum yield was 66.46% at 22.08 mL/g of solvent to sample ratio, $90.59^{\circ}C$ extraction temperature and 148.04 min extraction time. The maximum total phenolics was $121.31{\mu}g/mL$ at 17.87 mL/g, $98.82^{\circ}C$, and 130.80 min. The maximum electron donating ability was 54.09% at $121.31{\mu}g/mL$, 18.13 mL/g, and $98.81^{\circ}C$. The maximum value of protease activity was 54.51 unit/min at 17.45 mL/g, $99.01^{\circ}C$, and 131.43 min. In addition, the maximum value of reducing sugar content was 19.14 mg/mL in 22.66 mL/g, $86.30^{\circ}C$, and 153.59 min. The optimum conditions estimated by RSM for maximal extraction of the effective components were $17{\sim}25$ mL/g of solvent to sample ratio, $80{\sim}100^{\circ}C$ of extraction temperature, and $100{\sim}170$ min of extraction time.