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(1)

대추 및 포도 발효물의 생리활성 효과에 관한 연구

박태순1, 김동희1, 권오준2, 손준호1*

1

(

)

한국한방산업진흥원한방화장품개발팀

2

(

)

대경지역산업평가원

Received: December 11, 2013 / Revised: March 18, 2014 / Accepted: March 24, 2014

서 론

최근건강에대한지대한관심과함께각종기능성식품 원료등에대한연구가활발히진행되고있다

.

이러한 인들로소득증가와함께식생활등의생활환경의변화와 업화에의한환경오염들을있으며결국이러한환경 변화와오염으로인한질병들은과거와는다른양상을나타 내어현대인들에게건강에대한다양한요구사항을만들게 하였다

.

그에따라많은연구자들이약용식용작물들이 발현하는다양한생리활성에대한연구를진행하고있다

[14].

특히전통적으로이용되어온발효는최근상당한관심을 으고있는데

,

이유는일부또는다수의유효성분이대부

당이붙은고분자로구성되어있는경우가많아그럴 우에는체내흡수에지장이있어발효를하면당이떨어져 나가면서저분자화되어체내흡수율이증가되고

,

새로운 성분의생성

,

독성의감소

,

풍미의향상저장성향상

,

식물섬유소의활성증진많은장점을가지기때문이다

[17, 23, 29].

식품과한방재료로서널리사용되어온대추는갈매나무과

(Rhamnaceae)

속하는낙엽활엽교목의열매로서약용성분

각종

sterol, alkaloid, saponin, vitamin, serotonin, organic acid, fatty acid, polyphenol, flavonoid

amino acid

등이

보고되고있으며

[2, 19, 34],

약리작용으로는알레르기작

,

근수축력증강작용

,

보호작용과빈혈증

,

결핵

,

기관지 신경쇠약

,

조직손상치료에유효한것으로알려져

[17, 24].

최근성숙도에따른대추추출물의항산화활성

검증결과미숙

,

완숙

,

건조대추모두폴리페놀물질도다량 함유되어있으며

,

항산화활성도우수한것으로나타낸다고

A Study on Biological Activities of Fermented Jujube and Grape

Tae-Soon Park

1

, Dong-Hee Kim

1

, O-Jun Kwon

2

, and Jun-Ho Son

1

*

1

Herbal Cosmetic Team, Korea Promotion Institute for Traditional Medicine Industry, Gyeongsan 710-260, Republic of Korea

2

Daegyeong Institute for Regional Program Evaluation, Gyeongsan 712-210, Republic of Korea

For the development of high value consumables utilizing jujube and grape, we investigated the biological activities of a variety of existing fermentation products of jujube and grape. The results revealed that ethanol fermentation products of jujube and grape had a higher antioxidative activity than acetic acid fermentation products. In addition, the ethanol fermentation products of jujube (JEF) had the highest antioxidative activity, with it being greater than that of the ethanol fermentation products of grape (GEF), the acetic acid fermentation products of jujube (JAF) and the acetic acid fermentation products of grape (GAF). As regards tests on whitening effects, JEF exhibited the highest tyrosinase inhibition effects amongst the test groups. However, when immunofluorecence was employed, JAF was seen to inhibit the expression of proteins related to the whitening effect. In the lipopolysaccharide-stimulated mode peritoneal macrophage model, all tested groups of fermentation products (JEF, GEF, JAF and GAF) suppressed nitric oxide production dose-dependently, with ethanol fermentation products demonstrating a higher nitric oxide expression inhibition effect than acetic acid fermentation products. When subjected to antibacterial activity tests, GAF exhibited antibacterial activity against all tested strains except Propionibacterium acnes. Both GAF and JEF revealed high antibacterial activity against Escherichia coli.

Keywords: Jujube, grape, fermentation, biological activities, antimicrobial activity

*Corresponding author

Tel: +82-53-810-0320, Fax: +82-53-810-0399 E-mail: [email protected]

© 2014, The Korean Society for Microbiology and Biotechnology

(2)

보고된있다

[8].

포도는갈매나무목

(Rhamnales)

포도나무과

(Vitaceae)

속하는나엽성덩굴식물로

,

포도나무과에는

11

, 700

여종

포도가있다

[12].

포도에함유되어있는페놀성화합물의

천연항산화제로서가치에대하여많은연구가진행되고

. (+)-catechin, (

)-epicatechin, procyanidin, viviferin

resveratrol

등의

polyphenol

물질들이포도의주요생리활

성물질로알려져있으며

,

포도과피와종자추출물의

oral

tumor cell

대한 세포독성

, proanthocyanidin

free radical

소거능

,

포도 종자로부터 분리한

polyphenolic fraction

antitumor

촉진활성

,

그리고

resveratrol

암세 포성장억제등의생리활성연구가진행되었다

[1, 20, 22, 28,

33].

그러나대추포도는이들을이용한발효물에대한

리활성에관한 연구는아직 이루어지지않고있는실정이

.

따라서이러한이유로연구에서는대추포도를 용하여알코올발효와초산발효를하여생리활성탐색을 대추포도의고부가가치성소재개발특화작물로 개발하기위하여실험을수행하였다

.

재료 및 방법

알코올 발효 및 초산 발효 방법

실험에사용된 대추

(Zizyphus jujuba Miller)

포도

(Vitis vinifera L.)

경상북도경산시자인면에서생산되는 품종을이용하였다

.

이를이용한알코올발효의경우전배양 본배양을거쳐활성화된

Saccharomyces klutveri DJ97 (KCTC 8842P)

대추포도의착즙액

(18

o

brix)

5%

량이되도록접종하여

30

o

C

에서

4

일간정치배양하면서알코

발효를수행하여알코올발효액이알코올도수가

3-4%

8-9

o

brix

나타내었을이를농축동결건조하여 험재료로사용하였다

.

또한초산발효의경우상기에기술한 알코올 발효액을 살균처리하여 활성화된

Acetobacter pasteurianus KFC 819 (KCTC 10173BP)

접종하여

30

o

C

에서

10

일간정치배양하여초산의함량이

3-4%

7-8

o

brix

나타내는것을이용하여농축동결건조하여시험재료 사용하였다

.

재료 및 시약

생리활성 측정 실험에 사용된 시약인

1-1-diphenyl-2-

picryl-hydrazyl (DPPH), xanthine, xanthine oxidase, nitro blue tetrazolium (NBT), mushroom tyrosinase, tyrosine

L-3,4-dihydroxyphenyl-alanine (L-DOPA)

griess reagent

등은

Sigma Chemical Co. (St. Louis, MO, USA)

에서구입하여사용하였으며

,

세포독성에측정에사용된 포주는대식세포인

RAW 264.7

멜라노마세포는

B16F10

Korean Cell Line Bank (KCLB)

에서구입하여사용하였

.

세포독성측정시약은

Dulbecco's Modified Eagle Medium (DMEM), fetal bovine serum, penicillin/streptomycin, trypsin 250, 0.4% trypan blue stain

Gibco BRL Co.

(Grand Island, USA)

에서 구입하여사용하였으며

, 3-[4,5- dimethylthiazol-2-yl]-2,5-diphenyl-tetrazolium-bromide (MTT)

Sigma Chemical Co. (St. Louis, MO, USA)

에서 구입하여사용하였다

.

항균력실험에서사용한공시균주는 피부상재균으로서

Staphylococcus aureus KCTC 1621, Staphylococcus epidermidis KCTC 1917, Escherichia coli KCTC 1039

여드름유발균으로서

Propionibacterium acnes KCTC 3314

계대배양하여사용하였다

.

배양 배양을 위한 액체 배지는

nutrient broth, tryptic soy broth

Difco Lab. (Sparks, MD., USA)

Gifu anaerobic medium (GAM, Nissui Co. Japan)

구입하여사용하였으

,

생육저해환측정을위한고체배지는상기액체배지에

agar

첨가하여실험에사용하였다

.

항균효과 측정

항균효과측정은

paper disc

법을이용하여측정하였다

[6].

,

평판배지에배양된균주를

1

백금이취해서액체

10 ml

에서

18-24

시간배양하여활성화시킨다시액체 배지

10 ml

균액을

0.1 ml

접종하여

3-6

시간배양한 평판배지

1

개당수가

1 × 10

7

cells

되게접종하여 면봉으로균일하게도말하였다

.

멸균된

filter paper disc (8 mm, Tokyo, Japan)

고체평판배지에 올려놓은다음

0.05 ml/disc

되도록시료를농도별로흡수시켜

37

o

C

에서

18-24

시간배양하여

disc

주위의

clear zone (cm)

직경을 측정하였다

.

세포 생존율 측정

대식세포

(RAW 264.7)

멜라노마세포

(B16F10)

한국 세포주은행

(KCLB)

에서분양받았으며

,

세포배양을위해

10%

fetal bovine serum

1% penicillin-streptomycin

포함하

DMEM

배지를사용하였다

.

세포는

37

o

C, 5% CO

2조건 에서배양하였으며

,

세포독성측정은

Carmichael

[5]

방법에따라측정하였다

.

방법은

MTT

formazan

으로

전환되는 것을 측정하는 것으로

, RAW 264.7

세포와

B16F10

세포

0.6~0.8 × 10

3

cells/ml

96 well plate

주하고대추포도의 발효물을농도별

(0.01-5 mg/ml)

24

시간동안처리하였다

. Well

20

µ

l

MTT

용액을첨가 하여

37

o

C, 5% CO

2

incubator

에서

4

시간동안반응시킨

,

microplate reader

이용하여

540 nm

에서흡광도의변화 측정하여대조군에대한세포생존율을 백분율로표시하 였다

.

(3)

항산화 효과 측정

대추포도의발효물들의항산화활성은

DPPH anion scavenging activity, superoxide anion radical scavenging activity, ABTS

+

· cation scavenging activity

를 측정하여 가하였다

.

먼저

DPPH anion scavenging activity

대한 험은기존에보고된방법을변형하여

96 well plate

맞게 수정하여측정하였다

[3].

시료용액

800

µ

l

0.15 mM

DPPH

용액

200

µ

l

넣고교반한

30

분간방치한다음

517 nm

에서흡광도를측정하였으며

,

시료용액의첨가군과

무첨가군의흡광도감소율로나타내었다

. Superoxide anion radical scavenging activity

경우

, NBT

환원방법에의해 측정하였다

[15].

시료 용액

100

µ

l

0.1 M potassium phosphate buffer (pH 7.5) 400

µ

l

xanthine (0.4 mM)

녹인기질액

400

µ

l

NBT (0.24 mM)

첨가하고

xanthine oxidase (0.2 U/ml) 100

µ

l

가하여

37

o

C

에서

15

분간반응 시킨

1 N HCl 1 ml

가하여반응을종료시킨다음

,

응액중에생성된

superoxide anion radical

양을

560 nm

에서흡광도를측정하였다

.

또한

, ABTS

+

· cation scavenging activity

측정은

7 mM 2,2-azino-bis (3-ethyl-benthiazoline-6- sulfonic acid)

2.4 mM potassium persulfate

혼합하여

실온에서

24

시간 동안 방치하여

ABTS

+

·

형성시킨

ethanol

희석하여

ABTS

+

· 100

µ

l

시료

100

µ

l

가하여

1

동안방치한

732 nm

에서흡광도를측정하였다

[25].

미백효과 측정

Tyrosinase

저해활성측정은

Yagi

[31]

방법에따라 측정하였다

.

반응구는

0.175 M sodium phosphate buffer (pH 6.8) 500

µ

l

10 mM L-DOPA

녹인 기질액

200

µ

l

시료용액

100

µ

l

혼합액에

mushroom tyrosinase (110 U/ml) 200

µ

l

첨가하여

25

o

C

에서

2

분간반응시켜반응액 중에 생성된

DOPA chrome

475 nm

에서 측정하였다

.

Tyrosinase

저해활성은시료용액의첨가구와무첨가구의

광도감소율로나타내었다

.

한편

, immnunoflurecence

용한 미백효과 측정은

B16F10

세포를

Lab-tek chamber

8 well

세포를

1 × 10

6개로분주하여

24

시간안정시킨

,

시료를 농도별로 처리한다

. 24-48

시간이 지난 차가운

phosphate buffer saline (PBS)

완충용액으로

3

세척한

0.5% triton X-100

10

분간가하여세포를투과하였다

.

PBS

완충용액으로

3

세척한

1

bovine serum albumin

넣어

1

시간동안방치하였다

. Primary anti-body (tyroisnase 1:100, microphthalmia-associated transcription factor (MITF) 1:100)

4

o

C

에서

over night

하였다

. 1

응이끝나면

PBS

3

세척

alexa flour 568 goat anti- mouse IgG (1:1,000)

첨가하고차광하여

1

시간동안반응 시켰다

. 40

후에

DAPI

200

µ

l

well

첨가하였다

. PBS

완충용액으로

4

세척

chamber

제거한

slide

mounting solution

첨가하여커버슬립으로고정하여 관찰을하였다

.

항염증 효과 측정

항염증효과측정은

nitric oxide (NO)

농도를측정하는 방법으로

NO

농도는배양액내의

nitrite

농도를

griess reagent

이용하여측정하였다

. RAW 264.7

세포를

DMEM

배지를이용하여

5 × 10

4

cells/ml

조절한

12 well plate

접종하고

, 5% CO

2

incubator

에서

24

시간배양하였

.

세포에

1

µ

g/ml

lipopolysaccharide (LPS)

처리하고

1

시간뒤에

0.01-1 mg/ml

대추포도발효물을처리하

24

시간배양하였다

.

배양액의상층액을얻은

griess

약과반응시킨

ELISA reader

540 nm

에서흡광도를 정하여

NO

생성율을백분율로표시하였다

.

결과 및 고찰

항균효과 측정 결과

대추알코올초산발효물과포도의알코올초산 효물의항균력을검토하기위하여피부상재균인

S. aureus, E. coli

S. epidermidis

여드름유발균인

P. acnes

clear zone

형성을관찰한결과

Table 1

같이나타내었

Table 1. Antimicrobial activity of various fermentation products on several microorganisms.

Strains JEF (mg/disc) GEF (mg/disc) JAF (mg/disc) GAF (mg/disc)

1.5 2.5 5 1.5 2.5 5 1.5 2.5 5 1.5 2.5 5

S. epidermidis -

a

- - - - - - - - - - 1.1 ± 0.21

b

S. aureus - - - - - - - - - - - 1.2 ± 0.10

E. coli - - - - - 1.3 ± 0.55 - 1.2 ± 0.07 1.7 ± 0.55 - 1.1 ± 0.06 1.5 ± 0.15

P. acnes - - - - - - - - - - - -

a

No inhibition.

b

Inbition zone diameter (cm), JEF: ethanol fermentation of jujube, GEF: ethanol fermentation of grape, JAF: acetic acid

fermentation of jujube, GAF: acetic acid fermentation of grape.

(4)

.

포도의초산발효물이

P. acnes

제외한모든균주에 해서항균효과가나타났으며

,

대추의초산발효물의경우

E.

coli

대해서항균효과가나타났다

.

, E. coli

대해서는 포도알코올발효물과초산발효물이

5 mg/disc

에서

1.3 cm, 1.5 cm

나타내었으며

,

대추초산발효물의경우

2.5 mg/

disc

5 mg/disc

에서각각

1.2 cm, 1.7 cm

저해환을나타 내었다

.

이와같은결과로보아알코올발효보다초산발효 항균효과가높음을있었으며

,

또한대추의발효물 보다는포도의발효물이다양한균주에서생육저해환을 타내는것으로조사되었다

.

세포 생존율 측정 결과

세포 생존율을 확인하기 위한

MTT

검색법은

96 well

plate

사용하였으며

,

검사결과를

ELISA reader (multiwell microplate reader)

이용하여많은시료를간단하게판독 있어세포독성세포증식검색법으로서널리사용

되고있는방법중의방법이다

[21].

대추포도발효물

들이세포의증식에미치는영향에대해알아보기하여

0.01-

5 mg/ml

으로

48

시간동안처리한결과발효물모두

1 mg/

ml

에서는

90%

이상의세포생존율을나타내었으며

, 5 mg/

ml

에서는발효물모두세포독성을나타내었다

(Fig. 1).

이와 같은결과로

NO

측정과

immunofluorecence

측정은

1 mg/

ml

이하의농도에서실험하였다

.

항산화 효과 측정 결과

대추포도발효물들의항산화효과를측정한결과를

Table 2

같이나타내었다

.

먼저

, DPPH anion scavenging activity (

전자공여능

)

측정결과대추의알코올발효는

5 mg/

ml

에서

59%

나타내어발효물가장높은

DPPH

소거

능을나타내었으며

,

대추의초산발효의경우

53%,

포도의

알코올발효물은

37%,

포도의초산발효물은

32%

소거능

나타내어알코올발효물과초산발효물비교시알코올 효물이높은

DPPH

소거능을나타내었다

.

이는

Hong

[8]

건대추의전자공여능측정결과

5 mg/ml

에서

53.8%

능을나타내어대추의초산발효물과유사한효과를나타내 었다

.

또한

, Krigaya [13]

Yamaguchi [32]

전자공여작 용이페놀산화합물과높은상관관계가있다는보고를참조 발효과정에서포도의페놀산화합물이분해되는것으로

Fig. 1. Cell viability of various fermentation poducts. (A) macrophage (RAW 264.7), (B) melanoma cell (B16F10), JEF : ethanol fermentation of jujube, GEF : ethanol fermentation of grape, JAF : acetic acid fermentation of jujube, GAF : acetic acid fer- mentation of grape. Result are means ± S.D. of triplicate data.

Table 2. Antioxidant activity of various fermentation products.

Samples (mg/ml)

Antioxidant activity (%) DPPH

scavenging activity

Superoxide anion radical

scavenging activity

ABTS scavenging

activity JEF 1 33.8 ± 1.2 36.9 ± 1.9 58.1 ± 4.9

5 58.7 ± 2.4 76.4 ± 0.8 95.6 ± 1.6 GEF 1 29.6 ± 4.1 19.5 ± 3.9 23.8 ± 1.6 5 36.9 ± 1.7 61.5 ± 2.2 60.7 ± 5.0 JAF 1 24.1 ± 1.5 41.6 ± 6.7 38.6 ± 2.8 5 53.2 ± 0.4 69.9 ± 2.8 73.7 ± 1.9 GAF 1 9.5 ± 1.2 21.3 ± 4.1 18.5 ± 1.5 5 32.1 ± 0.4 57.8 ± 3.9 55.5 ± 1.4 Vit. C 1 83.8 ± 0.2 85.6 ± 7.2 98.8 ± 2.8 5 86.9 ± 0.1 96.2 ± 5.2 100 ± 1.2 JEF: ethanol fermentation of jujube, GEF: ethanol fermenta- tion of grape, JAF: acetic acid fermentation of jujube, GAF:

acetic acid fermentation of grape, Vit. C: ascorbic acid.

Result are means ± S.D. of triplicate data.

(5)

사료되며

,

이를규명하기위한향후연구가필요하다고생각 된다

.

두번째로

, superoxide anion radical scavenging activity

측정결과는대추의알코올발효물이

5 mg/ml

에서

70%,

초산발효물이

69%

높은소거능을나타내었으며

,

도의알코올초산발효물은각각

62%, 58%

소거능을

나타내어대추의알코올발효물이가장높은소거능을나타 내었다

.

이는

Hong

[8]

미숙

,

완숙

,

건대추의열수 탄올추출물에대한

xantnin oxidase

저해능을측정한결과

모든추출물

5 mg/ml

에서대추포도의발효물보다낮은

저해능을나타내어발효물들이우수함을나타내었다

.

마지 막으로

, ABTS

+

· cation scavenging activity

ABTS

potassium persulfate

와의반응으로

ABTS

+

· radical

생성 되면특유의색인청록색을띄게되는데

,

시료를첨가함에 따라연한녹색으로

decolorization

되는것을측정하는방법 이며

, hydrogen donating antioxidant

chain breaking antioxidant

모두를측정할있다

[30].

이러한

ABTS

소거 능을 측정한 결과 포도의 알코올 초산 발효물의경우

5 mg/ml

에서

61%, 56%

ABTS

소거능을나타낸반면

,

추의 발효물알코올 발효의경우

5 mg/ml

농도에서

vitamin C

필적하는활성을나타내어발효물가장

소거능을나타내었다

.

미백효과 측정 결과

Melanin

생성은

tyrosinase, tyrosinase related protein 1, tyrosinase related protein 2

같은

3

종의효소에의해 조절된다

[11].

이러한효소들은세포내에서

cyclic adenosine monophosphate / protein kinase A

경로를통해

melanin

합성한다

.

,

자외선에피부가노출되면피부의

keratinocyte

자극을받게 되어 α

-melanocyte stimulating hormone, adrenocorticotropic hormone

등의신호전달물질을

melanocyte

분비하게되어세포

cyclic adenosine monophosphate

증가하게되며

, protein kinase A

활성화시켜

MITF

현을 증가시킨다

[4, 27].

이렇게 발현이 증가된

MITF

tyrosinase, tyrosinase related protein 1, tyrosinase related protein 2

생합성을촉진시켜

melanin

증가하게된다

[26]. 3

종의효소

tyrosinase

tyrosin

으로부터

DOPA

DOPA-quinone

거쳐최종적으로흑갈색의

melanin

색소

생성에관여하는효소로자외선에의하여

melanocyte

사분열이일어나고이어서

melanocyte

활성화된다

[7].

성화

melanocyte

에서는

tyrosinase

합성이 촉진되고

melanin

생성이항지되어이를표피밖으로운반배출하

되어기미

,

주근깨와같은색소침착이일어나게된다

.

Fig. 2. Tyrosinase inhibition rate of various fermentation products. JEF: ethanol fermentation of jujube, GEF: eth- anol fermentation of grape, JAF: acetic acid fermentation of jujube, GAF: acetic acid fermentation of grape, Vit. C:

ascorbic acid. Result are means ± S.D. of triplicate data.

Fig. 3. Reduced cellular expression of tyrosinase and

MITF using immunofluorescence assay. (A) control, (B) etha-

nol fermentation of jujube, (C) ethanol fermentation of grape, (D)

acetic acid fermentation of jujube, (E) acetic acid fermentation of

grape. B16F10 cells (1 × 10

6

cells) were seeded in serum free

medium for 1 h at room temperature. The cells were treated with

1 mg/ml of various fermentation products for 48 h.

(6)

따라서

tyrosinase

활성억제제는피부내에서의

melanin

polymer

합성을효과적으로저해할있어피부미백제의

개발에있어서

tyrosinase

활성억제실험은유용한평가법으

인정되고있다

[9, 10].

대추포도발효물들의

tyrosinase

저해활성을측정한결과대추의알코올발효의경우

5 mg/

ml

에서

54%

저해능을나타내어발효물중에서가장높은

저해활성을나타내었으며

,

초산발효는

5 mg/ml

에서

36%

tyrosinase

저해능을나타내었다

.

포도의알코올초산

효물은

5 mg/ml

에서각각

26%

이상의저해능을나타내었

(Fig. 2).

세포내에서의

melanin

합성기전미백기전 상관관계를알아보기위하여

MITF

tyrosinase

발현 정도를면역형광염색법

(immunofluorescence)

실시한

Fig. 3

같이나타내었다

. MITF

발현은대추초산발효 물이대조군과비교시형광발현이줄어드는것을확인하였 으며

, tyrosinase

단백질발현의경우대추포도의발효

물을

1 mg/ml

농도로처리한결과대추와포도의초산

효물은대조군과비교시형광발현이줄어드는것을확인하 였다

.

또한

,

포도의알코올발효물은형광발현이미미하게 줄어드는것을확인하였다

.

이는

tyrosinase

활성저해 험과상반된효능을나타내어정확한미백기전의 명을위한실험이향후수행되어야것이다

.

항염증효과 측정 결과

NO

NO

합성효소에의해

L-arginie

으로부터생성되는 무기유리체로면역반응

,

세포독성

,

신경전달계혈관이완

여러가지생물학적인과정에관여하는것으로알려져 으며농도에따라세포기능유지에중요한작용을하기도 세포독성을일으키기도한다

[16, 18]. RAW 264.7 cell

NO

생성억제정도를측정하기위하여세포에

10

µ

g/ml

LPS

처리대추포도의발효물을농도별로처리하여

생성되는

NO

량을측정한결과

Fig. 4

같이나타내었다

.

LPS

처리군은

LPS

무처리군에비하여높은

NO

발현양을

나타내었으며

,

발효물마다

NO

발현을감소시키는것을 확인할있었다

.

,

포도의초산발효물의경우

1 mg/ml

농도에서

37%

NO

발현억제효과를나타내었으며

,

포도알코올발효물의경우같은농도에서

35%

까운

NO

발현억제효과를나타내었다

.

이와같은상기의결과를종합해보면초산발효물보다 코올발효물이우수한활성을나타내었으며

,

대추의알코올 발효물이항산화

,

미백

,

항염증항균효과를보유하는 으로확인되었다

.

이러한결과는향후기능성식품피부 미용소재로서의활용을위한근거자료로활용될있을 것으로판단된다

.

요 약

대추포도를이용하여고부가가치성소재개발 화작물로서개발하기위하여이들을이용한알코올발효와 초산발효를발효물들의생리활성을검증하였다

.

항산 활성을측정결과초산발효물보다알코올발효물이우수

Fig. 4. Effects of various fermentation products on the production of nitric oxide in macrophage cell (RAW 264.7). nor: LPS not

induced group, con: LPS induced group, JEF: ethanol fermentation of jujube, GEF: ethanol fermentation of grape, JAF: acetic acid fer-

mentation of jujube, GAF: acetic acid fermentation of grape. Result are means ± S.D. of triplicate data.

(7)

활성을나타내었으며

,

대추의알코올발효물이 발효물보다높은항산화활성을나타내었다

.

미백효과 정결과또한대추의알코올발효물이우수한효능을나타내 었으나

, immunofluorecence

이용한미백효과측정결과 추의초산발효물이미백에관련된단백질발현을저해하는 것으로나타내었다

.

대추포도의발효물들은대식세포에

lipopolysaccharide

의해생성된

nitric oxide

농도 존적으로감소시켰으며

,

알코올발효물이초산발효물보다 우수한효능을나타내었다

.

발효물들의항균력을측정한 포도의초산발효물이

Propionibacterium acnes

제외 모든균주에항균력을나타내었으며

, Escherichia coli

대해서는포도의알코올발효물과대추의알코올발효물이 높은항균력을나타내었다

.

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수치

Table 1. Antimicrobial activity of various fermentation products on several microorganisms.
Table 2. Antioxidant activity of various fermentation products.
Fig. 3. Reduced cellular expression of tyrosinase and MITF using immunofluorescence assay
Fig. 4. Effects of various fermentation products on the production of nitric oxide in macrophage cell (RAW 264.7)

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