Effect of Marination with Black Currant Juice on the Formation of Biogenic Amines in Pork Belly during Refrigerated Storage

Jinwoo Cho1, Hye-Jin Kim1, Ji-Seon Kwon1, Hee-Jin Kim2, Aera Jang1,*
Author Information & Copyright
1Department of Applied Animal Science, College of Animal Life Science, Kangwon National University, Chuncheon 24341, Korea
2Poultry Research Institute, National Institute of Animal Science, Pyeongchang 25342, Korea
*Corresponding author : Aera Jang, Department of Applied Animal Science, College of Animal Life Science, Kangwon National University, Chuncheon 24341, Korea. Tel: +82-33-250-8643, Fax: +82-33-251-7719, E-mail:

© Korean Society for Food Science of Animal Resources. This is an Open-Access article distributed under the terms of the Creative Commons Attribution Non-Commercial License ( which permits unrestricted non-commercial use, distribution, and reproduction in any medium, provided the original work is properly cited.

Received: Mar 10, 2021 ; Revised: Jun 05, 2021 ; Accepted: Jun 17, 2021

Published Online: Sep 01, 2021


The effect of marination with black currant juice (BCJ) was investigated for their effects on meat quality and content of biogenic amines (BAs) [putrescine (PUT), cadaverine (CAD), histamine (HIM), tyramine (TYM), and spermidine (SPD)] in pork belly during storage at 9°C. BCJ was shown to have antibacterial activities against Escherichia coli and Pseudomonas aeruginosa. Additionally, the pH of pork belly marinated with BCJ (PBB) was significantly lower than that of raw pork belly (RPB) during storage. No significant difference in microorganisms between RPB and PBB was observed at day 0 of storage. However, at days 5 and 10 of storage, volatile basic nitrogen (VBN) was significantly decreased in PBB compared to RPB, and PBB also demonstrated significantly lower numbers of bacteria associated with spoilage (Enterobacteriaceae and Pseudomonas spp.) at these time-points. PBB was also associated with significantly reduced formation of BAs (PUT, CAD, TYM, and total BAs) compared to RPB at days 5 and 10 of storage. These results indicated that BCJ can be regarded as a natural additive for improving meat quality by preventing increased pH, VBN, bacterial spoilage, and inhibiting BAs formation during refrigerated storage.

Keywords: pork belly; food safety; biogenic amine; marination; black currant


Meat is an important source of nutrition for human health due to high amount of protein, minerals, and various bioactive compounds (Kim et al., 2018; Kim et al., 2019). In particular, pork is one of the most popular and widely-consumed forms of meat in Korea. According to the Organization for Economic Cooperation and Development (OECD), in Korea, the annual pork consumption (31.6 kg per capita) was higher than that of beef (11.9 kg per capita) and poultry (18.8 kg per capita) (OECD, 2021). Pork belly has been indicated as a strong preference among the various cuts of pork available in Korea (Choe et al., 2015; Hoa et al., 2021). During distribution and storage of pork belly meat, quality can be decreased and various metabolites can be generated (Triki et al., 2018). As one of the metabolites generated during storage, biogenic amines (BAs) is considered as an indicator of freshness of meat (Jairath et al., 2015).

BAs are basic nitrogenous compounds which can be produced by the action of microbial decarboxylases on free amino acids (Fan et al., 2015; Jairath et al., 2015). BAs are mainly produced in foods with high protein content, such as meat, fish, and dairy products (Linares et al., 2012; Prester, 2011; Vinci and Antonelli, 2002). Generally, the most common BAs in meat and meat products are putrescine (PUT), cadaverine (CAD), histamine (HIM) and tyramine (TYM), and spermidine (SPD) has also been reported as amine present at significant levels in raw meat (Stadnik and Dolatowski, 2010). BAs are formed by spoilage bacteria (Enterobacteriaceae and Pseudomonas spp.), gram positive bacteria, and lactic acid bacteria (LAB) (Bover-Cid et al., 2003; Katikou et al., 2006; Ruiz-Capillas and Jiménez-Colmenero, 2005). As high levels of BA intake can result in toxicity, its consumption can be important for human health. Research has indicated that PUT and CAD can potentially be converted to carcinogenic N-nitrosamine as precursor substances (Lee and Kim, 2012), and SPD can also be harmful as a precursor of carcinogenic N-nitrosamines through heating of meat products (Drabik-Markiewicz et al., 2011). In addition, high intake of TYM and HIM can cause migraine headaches and food poisoning, respectively (Balamatsia et al., 2006).

To inhibit the BAs formation in meat and meat products, various natural substances have been applied in meat. The use of natural substances to meat inhibit not also the formation of potential carcinogens such as BAs (Naila et al., 2010), but also enhance meat flavor and quality (Yusop et al., 2010). For example, green tea, cloves, cumin, and spearmint were reported to be strong inhibitor of BAs production in meat (Abu-Salem et al., 2011; Cai et al., 2015; Naila et al., 2010). According to these research, these natural substances had high antioxidant activity, antibacterial activity due to high phenolic compounds (Abu-Salem et al., 2011; Cai et al., 2015). These natural substances may inhibit the BAs formation by inhibiting the growth of the bacteria producing BAs or inhibiting the biosynthesis of BAs (Mah et al., 2009).

Black currant can be a good candidate as natural substance to inhibit BAs formation in meat, because of its high content of polyphenol (e.g., ferulic acid) and antibacterial activity (Borges et al., 2013; Widén et al., 2015). Black currant (juice or extract) demonstrated effective antibacterial activity against pathogenic and spoilage bacteria such as Staphylococcus aureus, Bacillus subtilis, Listeria monocytogenes, Escherichia coli and Pseudomonas aeruginosa (Denev et al., 2014; Krisch, 2008; Widén et al., 2015).

Although black currant extracts has antibacterial activity, its effect on the reduction of BAs contents in meat during storage is limited. Therefore, the aim of this study was to evaluate the effect of black currant marination on the formation of BAs in pork belly during cold storage.

Materials and Methods

Preparation for black currant juice (BCJ) and pork belly

The BCJ was commercial BCJ used in food industry, and it was purchased from local market. The process of marination and storage of the pork belly are shown in Fig. 1. The pork belly was cut into rectangular slabs of 10 cm×5 cm×0.4 cm (length×width×thickness). Pork belly marination was carried out with 95.15% of pork belly, 1.43% of BCJ, 0.57% of salt, and 2.85% of water, selected marinating formula according to previous sensory evaluation (data not shown). The pork belly marinated with BCJ (PBB) was placed into a vacuum pack to ripen for 24 hours at 5°C. The ripened PBB and raw pork belly (RPB) were stored at 9±2°C for 10 days and analyzed at days 0, 5, and 10 of storage. Each experimental day, pork belly (n=10) was finely ground using a food mixer (HMF-3800SS, Hanil Electric, Seoul, Korea) and used for analysis.

Fig. 1. Diagram of procedure of marinating pork belly. VBN, volatile basic nitrogen; BA, biogenic amine.
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pH of BCJ and pork belly

The pH values of BCJ, PBB, and RPB were measured by pH meter (Orion 230A, Thermo Fisher Scientific, Waltham, MA, USA). Ten grams of each sample were homogenized with 90 mL distilled water (DW) using a homogenizer (PolyTron® PT-2500E, Kinematica, Lucerne, Switzerland).

Instrumental color of BCJ

The CIE L* (lightness), a* (redness), and b* (yellowness) values of the BCJ was measured with a Minolta chromameter (Model CR-400, Minolta, Tokyo, Japan), with the device calibrated using a white calibration plate (L*=93.69, a*=–0.22, b*=4.15).

Antioxidant activity of BCJ
2,2-Azinobis (3-ethyl-benzothiazoline-6-sulfonic acid) radical-scavenging activity (ABTS)

ABTS radical-scavenging activity was analyzed by the method of Kim et al. (2019). The stock solution of the ABTS+ radical was made by mixing equal volumes of 14 mM ABTS+ solution and 4.9 mM potassium persulfate solution, and left to react for 12 h at 23±1°C in the dark. The stock solution was diluted with DW (absorbance of 0.700±0.02 at 735 nm) and assessed using a spectrophotometer (SpectraMax M2, Molecular Devices, San Jose, CA, USA) at 30°C. The sample (50 μL) was reacted with ABTS+ radical solution (950 μL) at 30°C for 30 min in the dark. The standard curve was established using Trolox (Sigma-Aldrich, St. Louis, MO, USA), and the ABTS values were expressed as mmol Trolox equivalent (TE)/g.

Ferric reducing antioxidant power activity (FRAP)

The FRAP assay was conducted by the method of Kim et al. (2019) with slight modifications. The FRAP working solution was made with acetate buffer (300 mM) of pH 3.6, 2,4,6-tripyridyl-S-triazine in 40 mM HCl (10 mM), and FeCl3·6H2O solution (20 mM) at a ratio of 10:1:1 (v/v/v), respectively. The 25 μL of the sample was reacted with FRAP working solution of 175 μL at 37°C for 30 min in the dark. The reacted solution absorbance was determined at 590 nm using a spectrophotometer (Molecular Devices). FRAP activity were expressed as mmol TE/g.

1,1-Diphenyl-2-pricrylhydrazyl radical scavenging activity (DPPH)

DPPH radical scavenging activity was conducted by the method of Kim and Jang (2021) with slight modifications. The 100 μL of sample was added to wells of a 96-well microplate with 100 μL methanolic solution containing DPPH radicals (0.2 mM). The plate was shaken for 10 s and allowed to react for 30 min at 25°C in the dark. The absorbance was measured at 517 nm using a spectrophotometer (Molecular Devices). A standard curve was established using Trolox, and DPPH values were expressed as mmol TE/g.

Oxygen radical absorption capacity (ORAC)

The ORAC assay was carried out using the method of Kim et al. (2019). The modified ORAC assay used potassium phosphate buffer (75 mM) of pH 7.4 at 37°C. The 25 μL of the sample was mixed with 150 μL of fluorescein (80 nM) and incubated for 15 min at 37°C. The 25 μL of 2,2’-azobis (2-amidinopropane) hydrochloride (150 mM) was mixed with generate peroxyl radicals. The change in the absorbance of the reacted sample was measured every minute at emission wavelength of 520 nm and excitation wavelength of 480 nm at 37°C by spectrophotometer (Molecular Devices). A standard curve was established using Trolox, and ORAC values were expressed as mmol TE /g.

Total phenolic content (TPC) of BCJ

TPC was measured using the Folin-Ciocalteu colorimetric method as described by Kim et al. (2021). BCJ was diluted using methanol. 0.5 mL of diluted sample was mixed with 5 mL DW and Folin-Ciocalteu phenol reagent (Sigma-Aldrich), and left for 3 min. After that, the mixture was added to 1 N Na2CO3 and reacted for 90 min at 25°C in the dark. The absorbance of the reacted sample at 760 nm was measured using a spectrophotometer (Molecular Devices). A standard curve was established using gallic acid, and TPC was expressed as mg gallic acid equivalent (GAE)/g.

BAs content of BCJ and pork belly

The BAs content was analyzed according to the method of Eerola et al. (1993). PUT, CAD, TYM, HIM and SPD stock solutions were diluted from 0.078 to 10 μg/mL using 0.4 M perchloric acid (PCA). Two grams of samples (BCJ, RPB, and PBB) were homogenized with 10 mL of 0.4 M PCA and centrifuged (1,763×g, 4°C, 10 min). After centrifugation, the homogenate was filtered using Whatman No. 1 filter paper and the remaining pellet was re-extracted using 10 mL of 0.4 M PCA. The filtrated solution was collected, and made to 25 mL with 0.4 M PCA. The extracted solution (0.2 mL) was then mixed with 40 μL of 2 N NaOH, 60 μL of saturated NaHCO3 and 0.4 mL dansyl chloride (10 mg/mL in acetone), and incubated at 45°C for 40 min. Following the incubation, the solution was mixed with 20 μL of ammonium hydroxide to remove the dansyl chloride from the solution, and incubated in the dark for 30 min. The solution was thereafter mixed with 280 μL of acetonitrile, centrifuged for 10 min at 589×g, and filtered using 0.22 μm membrane filter (Rephile Bioscience and Technology, Shanghai, China) for using HPLC analysis.

Quantification of BAs was performed using Agilent 1260 HPLC (Agilent Technologies, Santa Clara, CA, USA) with Poroshell 120 EC-C18 (4 μm, 4.6×150 mm) column (Agilent Technologies). The HPLC analysis used a gradient elution program with solvent A (0.1 M ammonium acetate) and solvent B (acetonitrile). The flow rate was 1.0 mL/min. The gradient started with a 50% of solvent B and then, it proceeded linearly for 19 min at 90% of solvent B. This ratio was changed linearly over 5 min to 50% of solvent B and it was kept for 5 min (the total run time was 29 min). The column temperature was 40°C. Samples of 20 μL volume each were injected, and BA amounts were quantified by UV-absorption measured at 254 nm.

Antibacterial activity of BCJ
Bacterial strain

To evaluate its antibacterial activity, BCJ was lyophilized and stored at –20°C until analysis. The antibacterial activity of BCJ was assessed against Escherichia coli (E. coli, KCCM 11234) and Pseudomonas aeruginosa (P. aeruginosa, ATCC 27853). The bacteria strains (E. coli and P. aeruginosa) were streaked on Mueller Hinton agar (MHA, MB Cell, Seoul, Korea) and incubated at 37°C for 24 h. A single colony of each test organism from the culture plates were inoculated into 10 mL sterile Mueller Hinton broth (MHB, MB Cell) and incubated at 37°C. Subsequently, the culture was sub-cultured 3 times and used for the paper disc diffusion assay, minimum inhibitory concentration (MIC), and minimum bactericidal concentration (MBC) analyses.

Paper disc diffusion assay

The paper disc diffusion assay for evaluating antibacterial activity was conducted according to the method of Ramos et al. (2006) with slight modifications. The lyophilized BCJ powder was dissolved in DW at different concentrations: 30, 20, 10, 5, 2.5, and 1.25 mg/disc. The samples were filter sterilized using a 0.45 μm hydrophobic membrane filter (Rephile Bioscience and Technology). Test organisms were inoculated by transferring a loopful of culture into 10 mL of sterile MHB and incubated at 37°C for 48 h; following the incubation period, the culture was adjusted to 8 Log CFU/mL and incubated in MHA. Sterile 8 mm paper discs (Advantec, Toyo Roshi Kaisha, Tokyo, Japan) were aseptically placed on MHA surfaces, and each sample was immediately added to disc in volumes of 50 μL. The negative control was 50 μL of DW added to a sterile paper disc, and the positive control was 50 μL of streptomycin added to discs at concentrations of at 0.01 mg/disc for E. coli and 0.05 mg/disc for P. aeruginosa. The loaded plates were incubated for 24 h at 37°C. After incubation, the inhibition zone diameters (mm) were measured using a digital caliper (A&D Company, Tokyo, Japan).

MIC and MBC determination

The MIC, which was the least concentration of sample that inhibit microbial growth, was determined by microdilution of MHB in 96-well plates; 130 μL MHB, 20 μL microorganism suspension, and 50 μL sample were loaded to each well. The BCJ was diluted to concentrations of 600, 400, 200, 100, 50, 25, and 12.5 mg/mL, then inoculated with each test bacterial strain. The plates were incubated in a 37°C incubator for 24 h, and the absorbance of each sample concentration at 600 nm was then measured using a spectrophotometer (Molecular Devices) at 37°C. The MIC was defined as the lowest concentration of BCJ showing no detectable growth.

The MBC, which was the least concentration of sample required to kill microorganisms, was determined by the testing concentrations listed above and performing subcultures on MHA medium. The plates were incubated at 37°C for 48 h. The MBC was defined as the lowest concentration showing no bacterial colonies in media.

Microorganism analysis of pork belly

To evaluate the total aerobic bacteria (TAB), LAB, Enterobacteriaceae, and Pseudomonas spp. counts, each sample (10 g) was transferred into a sterile stomacher bag with 90 mL of sterile saline solution. Then, samples were homogenized for 40 s using a stomacher (Bag Mixer 400, Interscience, St. Nom, France). A serial dilution was performed using sterile saline solution, and 1 mL diluent was seeded onto petri dish in media. TAB counts were performed on plate count agar (PCA; MB cell) and incubated at 37°C for 48 h. The man rogosa sharpe (MRS) agar (MB cell) was used for counting LAB as selective media and incubated at 37°C for 48±2 h in the anaerobic jar. The Enterobacteriaceae and Pseudomonas spp. counts were carried out on violet red bile glucose (VRBG) agar (MB cell) and cetrimide (CN) agar (MB cell), respectively, as selective media and incubated at 30°C for 24±2 h. The numbers of colony-forming units (CFU) per gram of pork belly were calculated.

Volatile basic nitrogen (VBN) of pork belly

VBN content was analyzed by the micro diffusion method, as described by Kim et al. (2020). Ten gram of ground RPB and PBB was homogenized for 30 min in 50 mL DW on a magnetic stirrer, and the homogenate was filtered by filter paper (Whatman No. 1). The filtrate in Conway unit was incubated with H2SO4 (0.01 N) at 25°C for 1 h. Following incubation, 20 μL of Brunswik indicator added to the Conway unit inner chamber, and titrated against NaOH (0.01 N). The VBN value was calculated as follows and expressed as mg/100 g.

VBN ( mg/100g ) = 0.14 × ( b a ) × F / W × 100 × 50

where a is the volume of NaOH (0.01 N) added to the sample (mL), b is the volume of NaOH (0.01 N) added to the blank (mL), F is the standard factor for NaOH (0.01 N), W is the weight of sample (g).

Statistical analysis

Data were analyzed using the SAS program (ver. 9.2; SAS Institute, Cary, NC, USA). T-test was performed to comparing means of treatment (marination) and a one-way analysis of variance (ANOVA) was performed for data of storage time. Significant differences was determined by Tukey’s test (p<0.05). Additionally, a two-way ANOVA was carried out to evaluate any interactions between treatment and storage.

Results and Discussion

Characteristics of BCJ

The pH, color, antioxidant activity, TPC, BAs of BCJ were analyzed (Table 1). The pH of BCJ was 3.17 and the CIE L*, CIE a*, and CIE b* of BCJ were 16.81, 0.19, and 0.25, respectively. BCJ showed the antioxidant activity across four traits; ABTS radical scavenging activity: 112.64 mmol TE/g; FRAP activity: 126.46 mmol TE/g; DPPH radical scavenging activity: 104.85 mmol TE/g; ORAC activity: 231.57 mmol TE/g. TPC of BCJ showed 8.58 mg GAE/g, which had similar values compared to previously published research (5.80–7.42 mg GAE/g black currant extract) (Bakowska-Barczak and Kolodziejczyk, 2011). The BCJ contained four types of BAs: PUT: 4.83 μg/g; CAD: 14.41 μg/g; TYM: 0.50 μg/g; SPD: 1.19 μg/g. The PUT contents of BCJ (4.83 μg/g) was higher than that of other vegetable [Chinese cabbage (1.8 μg/g), Endive (2.8 μg/g), Radicehio (4.3 μg/g)], while the contents of TYM and SPD in BCJ (0.50 and 1.19 μg/g, respectively) was lower than that in Chinese cabbage (1.2 and 15.1 μg/g, respectively), Endive (11.3 and 1.5 μg/g, respectively), Iceberg lettuce (0.9 and 7.8 μg/g, respectively), and Radicehio (2.3 and 11.3 μg/g) (Simon-Sarkadi et al., 1993).

Table 1. Characteristics of black currant juice
Trait Value
pH 3.17±0.013
Color L* 16.81±0.036
a* 0.19±0.015
b* 0.25±0.006
Antioxidant activity (mmol TE/g) ABTS 112.64±0.934
FRAP 126.46±1.346
DPPH 104.85±3.741
ORAC 231.57±6.563
Total phenol contents (mg GAE/g) 8.58±0.011
BAs (μg/g) PUT 4.83±0.291
CAD 14.41±0.452
TYM 0.50±0.039
SPD 1.19±0.058
Total 20.93±0.676

Values were expressed as means±SD.

ABTS, 2,2-azinobis (3-ethyl-benzothiazoline-6-sulfonic acid) radical-scavenging activity; FRAP, ferric reducing antioxidant power; DPPH, 1,1-diphenyl-2-pricrylhydrazyl radical scavenging activity; ORAC, oxygen radical absorption capacity; BA, biogenic amine; PUT, putrescine; CAD, cadaverine; HIM, histamine; ND, not detected; TYM, tyramine; SPD, spermidine.

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Antibacterial activity of BCJ against E. coli and P. aeruginosa

The antibacterial activity of BCJ against spoilage bacteria (E. coli and P. aeruginosa) was evident by the presence of inhibition zones, shown in Table 2 and Fig. 2. BCJ at a concentration from 10 to 30 mg/disc showed inhibition zones against E. coli and P. aeruginosa. BCJ had antibacterial activity against E. coli, with the range of inhibition zones between 9.71 and 14.87 mm, while an inhibition zone of P. aeruginosa of between 8.76 to 12.52 mm was clearly observed. The inhibition zones formed by BCJ against E. coli and P. aeruginosa indicated a concentration-dependent effect of BCJ from 10 to 30 mg/disc (p<0.05). However, there were no inhibition zones in the concentration range between 1.25 and 5 mg/disc.

Table 2. Antibacterial activities of black currant juice against E. coli and P. aeruginosa by paper disc diffusion assay
Treatments mg/disc Microorganisms
E. coli (mm) P. aeruginosa (mm)
Negative control (distilled water) ND ND
Positive control (streptomycin) 0.05 NT 16.83
0.01 18.31 NT
Black currant juice 30 14.87A 12.52A
20 12.73B 11.08B
10 9.71C 8.76C
1.25 NDD NDD
SEM 0.118 0.038

The diameter of paper disc (8 mm) is included.

A–D Means within a column with different superscript differ significantly at p<0.05.

ND, not detected; NT, not tested.

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Fig. 2. Antibacterial activity of black currant juice against E. coli (A) and P. aeruginosa using paper disc diffusion assay. N, negative control (distilled water); P1, positive control (Streptomycin 0.01 mg/disc); P2, positive control (Streptomycin 0.05 mg/disc); 30, 30 mg/disc of sample; 20, 20 mg/disc of sample; 10, 10 mg/disc of sample; 5, 5 mg/disc of sample; 2.5, 2.5 mg/disc of sample; 1.25, 1.25 mg/disc of sample. The 8-mm paper discs were used.
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The antibacterial activity of BCJ against E. coli and P. aeruginosa was also evidenced by the MIC and MBC shown in Table 3. The MIC of BCJ was determined to be 100 mg/mL against both bacterial strains. For the MBC, the inhibitory effect of BCJ was higher in P. aeruginosa than in E. coli. In a previous study, BCJ, water and methanol extract inhibited the growth of E. coli by less than 25% (Krisch, 2008). Meanwhile, a study by Widén et al. (2015) showed that a higher level (10%) BCJ (pH 4.7) effectively inhibited P. aeruginosa growth due to the low pH of the black currant, in concordance with our results (Table 1). According to previous studies, the high antibacterial activity of black currant is resulting from its high levels of phenolic acids such as ferulic acid and chlorogenic acid (Borges et al., 2013; Widén et al., 2015). In particular, the abundance of ferulic acid (113.1 μg/mL) in black currant, and BCJ, is higher than that of other phenols (Widén et al., 2015). Ferulic acid is one of several phenols with antibacterial activity against pathogenic bacteria. Several reports found that ferulic acid had high antibacterial activity against E. coli and P. aeruginosa (MIC of E. coli and P. aeruginosa were 100 μg/mL) (Borges et al., 2013; Cho et al., 2017). The possible mechanism for antimicrobial effect of phenolic compounds are known as altering microbial cell permeability, which interfering with membrane function such as nutrient uptake, electron transport, enzyme activity, protein and nucleic acid synthesis (Abu-Salem et al., 2011).

Table 3. Minimum inhibitory concentration (MIC) and minimum bactericidal concentration (MBC) of black currant juice against E. coli and P. aeruginosa
Antibacterial activities (mg/mL) Microorganisms
E. coli P. aeruginosa
MIC 100 100
MBC 200 100
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pH, microorganism, and VBN of pork belly

Changes in pH value of RPB and PBB during storage were shown in Table 4. The pH values of RPB and PBB significantly decreased on day 10 when compared to day 0 of storage. Of note, the pH values of PBB were low compared to RPB on all storage days (p<0.05). In pH, the treatment (marination) and storage had a high degree of interaction with each other (p<0.0001). Duffy et al. (2000) previously reported that pH values of vacuum-packed minced beef gradually declined during storage at 0°C and 10°C due to predominant growth of LAB in vacuum-packed minced beef. Additionally, Chung et al. (2018) reported that the pH of Hanwoo tteokgalbi treated with black currant powder (pH 5.31) was lower than that of control tteokgalbi (pH 5.40) at day 0 of storage, which agrees with our results. Moreover, an earlier study also reported that black currant contains high level of ascorbic acid (Iversen, 1999). Thus, the low pH value of PBB may be affected by the low pH of BCJ (Table 1), and the vacuum conditions may contribute to the predominance of acid-forming microbes during storage.

Table 4. Effects of marination with black currant juice on the pH, microorganism, and VBN value in pork belly during storage at 9±2°C
Traits Treatment Storage days (d) SEM Significance
0 5 10 T S T×S
pH RPB 5.82Aa 5.78Ab 5.59Ac 0.010 **** **** ****
PBB 4.97Bb 5.04Ba 4.71Bc 0.009
SEM 0.008 0.012 0.008
Total aerobic bacteria (Log CFU/g) RPB 3.57Ac 6.64Bb 7.98Ba 0.030 ** *** **
PBB 3.29Ac 7.20Ab 8.59Aa 0.098
SEM 0.102 0.063 0.035
Lactic acid bacteria (Log CFU/g) RPB 2.81Ac 6.31Bb 7.68Ba 0.088 *** **** ***
PBB 2.71Ac 7.03Ab 8.47Aa 0.023
SEM 0.107 0.003 0.031
Enterobacteriaceae (Log CFU/g) RPB 2.94Ac 6.02Ab 7.34Aa 0.205 *** **** ns
PBB 2.54Ac 5.51Bb 6.07Ba 0.036
SEM 0.243 0.014 0.074
Pseudomonas spp. (Log CFU/g) RPB 1.65Ac 4.36Ab 6.97Aa 0.051 **** **** ****
PBB 1.48Ac 3.50Bb 4.31Ba 0.017
SEM 0.034 0.021 0.052
VBN (mg/100 g) RPB 6.60Ac 15.77Ab 32.92Aa 0.274 **** **** ****
PBB 6.04Ac 8.35Bb 15.10Ba 0.202
SEM 0.294 0.187 0.229

A,B Means within a column with different superscript differ significantly at p<0.05.

a–c Means within a row with different superscript differ significantly at p<0.05.

** p<0.01

*** p<0.001

**** p<0.0001.

VBN, volatile basic nitrogen; T, treatment; S, storage day; T×S, treatment×storage day; RPB, raw pork belly; PBB, pork belly marinated with black currant juice; ns, not significantly.

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Bacterial contamination is an unavoidable consequence of meat processing and storage. As such, bacterial counts are an important factor in determining the freshness of meat and meat products. To evaluate the antibacterial activity of BCJ on the BCJ-marinated pork belly, microorganism counts in RPB and PBB are shown in Table 4. There were no significant differences in the microorganism abundance between RPB and PBB at day 0 of storage. As the storage period increased, the counts of TAB and LAB were higher in PBB than in RPB, and were evident at both day 5 and 10 of storage (p<0.05). On the other hand, amounts of spoilage bacteria (Enterobacteriaceae and Pseudomonas spp.) were lower in PBB than in RPB by days 5 and 10 of storage (p<0.05), evidencing the antibacterial activity of BCJ. Indeed, in the present study, BCJ demonstrated effective antibacterial activity against E. coli (the type species of the type genus of Enterobacteriaceae) and P. aeruginosa (the type species of Pseudomonas) (Table 3). In addition, the vacuum condition used here can inhibit the growth of Pseudomonas spp. and contribute predominance of LAB (Castellano et al., 2008). The low pH of BCJ (pH 3.17) and vacuum packaging can also contribute to providing an optimal environment for LAB growth, while low pH can concurrently inhibit the growth of spoilage bacteria during storage. The treatment (marination) and storage was highly interacted with each other for TAB, Enterobacteriaceae and Pseudomonas spp. (p<0.01–p<0.0001). Therefore, our study demonstrated that PBB can effectively inhibit growth of spoilage bacteria (Enterobacteriaceae and Pseudomonas spp.) due to the antibacterial activity of black currant, and the vacuum conditions.

As well as the number of bacteria, VBN value is also important indicators for determining the freshness of meat. The VBN value of RPB and PBB are shown in Table 4. The addition of BCJ was not associated with a significant difference between the VBN value of RPB and PBB (6.60 and 6.04 mg/100 g, respectively) at day 0 of storage. However, the VBN value of RPB and PBB increased as the storage period increased, and significant differences were observed from day 5 of storage (p<0.05). On days 5 and 10 of storage, the VBN values of PBB (8.35 and 15.10 mg/100 g, respectively) was lower than that of RPB (15.77 and 32.92 mg/100 g, respectively) (p<0.05). Moreover, the treatment (marination) and storage had a strong interaction for VBN value (p<0.0001). In Korea, the upper limit of the VBN value is 20 mg/100 g for fresh meat (Kim et al., 2020). During storage for 10 days at 9°C, it was observed that the VBN content for PBB did not exceed 20 mg/100 g, in contrast to the RPB. VBN is mainly produced by enzymatic decarboxylation of specific amino acids, which is associated with growth of Enterobacteriaceae and Pseudomonas spp. (Li et al., 2019). In the present study, the addition of BCJ significantly reduced the VBN values of PBB from day 5 of storage, which is consistent with the results of microbial analysis (Table 4), indicating that addition of BCJ effectively inhibited the growth of spoilage bacteria in PBB from day 5 of storage.

Effect of marination with BCJ on the formation of BAs in pork belly during storage

BAs are formed by the action of bacterial decarboxylases in meat. Factors involved in the formation of BAs include factors pertaining to the specific raw meat material (such as meat composition, free amino acids, fat content, pH, etc.), microbial growth, processing conditions, and storage conditions (Ruiz-Capillas and Jiménez-Colmenero, 2005). In particular, microorganisms can be an important factor in the formation of BAs; thus, controlling microbial levels using natural antibacterial agents can be a direct strategy for controlling BA content.

The effect of BCJ on the formation of BAs in the pork belly during refrigerated storage are shown in Table 5. The PUT, CAD, HIM, and TYM contents of RPB and PBB were gradually increased from day 0 to 10 of storage (p<0.05). On the other hand, the SPD content of RPB tended to decrease as the storage period increased (p<0.05), while the SPD content of PBB showed irregular fluctuation throughout storage. Although there is no criterion for judgment about BAs in fresh meat, according to previous study, total BAs content in fresh pork meat reported in range of 3.8–8.0 μg/g (Favaro et al., 2007; Kalač, 2006; Min et al., 2007; Ngapo et al., 2017; Triki et al., 2018) and even up to 32.8 μg/g (Halász et al., 1994). The addition of BCJ effectively inhibited the formation of BAs in pork belly during the storage period. In the PBB, an inhibitory effect on PUT content was observed from day 0 to 10 of storage (p<0.05). Further, a significant inhibitory effect on the formation of CAD and TYM was found on day 5 and 10 of storage in PBB. However, HIM was detected only at day 10 of storage, and there was no significant differences between PBB (1.12 μg/g) and RPB (1.45 μg/g). Additionally, no clear reduction of SPD in pork belly was observed in association with addition of BCJ during storage. All BAs contents were strongly affected by BCJ treatment (p<0.0001), and treatment and storage had high degree of interaction with each other for PUT, CAD, TYM, Total BAs (p<0.001) and HIM (p<0.05).

Table 5. Effect of marination with black currant juice on biogenic amines in pork belly during storage
BAs (μg/g) Treatment Storage days (d) SEM Significance
0 5 10 T S T×S
PUT RPB 0.56Ab 7.19Ab 63.33Ac 0.010 **** **** ****
PBB 0.50Bb 0.44Ba 21.11Bb 0.009
SEM 0.007 0.361 1.152
CAD RPB 0.00Aa 59.70Ab 98.28Ac 0.030 **** **** ****
PBB 0.00Aa 12.91Ba 58.34Bc 0.098
SEM 0.000 1.805 1.991
HIM RPB 0.00Ab 0.00Ab 1.45Ab 0.088 **** * *
PBB 0.00Aa 0.00Aa 1.12Ab 0.023
SEM 0.000 0.000 0.093
TYM RPB 5.23Aa 50.22Aa 76.68Ab 0.205 **** **** ****
PBB 5.18Ab 15.51Ba 68.08Bb 0.036
SEM 0.064 1.747 1.501
SPD RPB 3.33Ab 3.49Ac 2.99Bc 0.051 **** ns ***
PBB 3.10Bc 3.52Ab 3.32Ac 0.017
SEM 0.029 0.069 0.042
Total BAs RPB 9.11Ab 120.59Ab 242.73Ab 0.274 **** **** ****
PBB 8.78Ac 32.37Ba 151.96Bb 0.202
SEM 0.088 3.938 4.655

A,B Means within a column with different superscript differ significantly at p<0.05.

a–c Means within a row with different superscript differ significantly at p<0.05.

* p<0.05

*** p<0.001

**** p<0.0001.

BA, biogenic amine; T, treatment; S, storage day; T×S, treatment×storage day; PUT, putrescine; ns, not significantly; RPB, raw pork belly; PBB, pork belly marinated with black currant juice.

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PUT, CAD, and TYM can be formed by spoilage bacteria in fresh pork, and can therefore be used as spoilage indicators in pork (Li et al., 2014). The formation of PUT and CAD is mainly associated with Pseudomonas spp. and Enterobacteriaceae, respectively (Bover-Cid et al., 2003; Geornaras et al., 1995; Katikou et al., 2006; Ruiz-Capillas and Jiménez-Colmenero, 2005), while the formation of TYM usually has responsibility with the LAB strains (Bover-Cid et al., 2001). Prior research has indicated that Pseudomonas spp. is also strongly correlated with TYM formation in chilled pork (Li et al., 2014). In the present study, PBB showed low levels of spoilage bacteria (Enterobacteriaceae and Pseudomonas spp.) and a low VBN value when compared to RPB. According to Min et al. (2007), VBN values are highly correlated with levels of BAs (PUT, CAD, and TYM) in beef, pork, and chicken during storage. Here, the content of PUT, CAD, and TYM were significantly low in PBB compared to RPB; these results may therefore be related to low levels of spoilage bacteria and the low VBN value in PBB during storage. Taken together, our results indicate that addition of BCJ to pork belly can inhibit the growth of spoilage bacteria in pork belly, and can reduce the formation of PUT, CAD, and TYM by spoilage bacteria during chilled storage. The lack of difference in HIM content between RPB and PBB could be attributed to the low inhibitory efficiency of black currant on gram-positive bacteria; HIM is formed by decarboxylase of histidine, which is widely distributed in the gram-positive genera (Geornaras et al., 1995). In a previous study, black currant was shown to include high of ferulic acid, and the level of intracellular content (K+) release of gram-positive bacteria was lower upon exposure to ferulic acid than that of gram-negative bacteria (Borges et al., 2013; Widén et al., 2015). Thus, BCJ marination would have had a lesser effect on HIM in PBB than its effect on other BAs (PUT, CAD, and TYM) more susceptible to its mechanisms. Additionally, in the present study, the average level of SPD in RPB and PBB was 3.27 and 3.31 μg/g during storage, respectively. A previous study found that the average level of SPD in meat is usually around 3.0 mg/kg (Hernández-Jover et al., 1997), which agrees with our results. During storage, there was an irregular reduction of SPD content associated with BCJ marination. This could be due to different mechanisms of SPD formation. Generally, PUT, CAD, HIM, and TYM are formed on the surface of meat by the activity of bacteria, while SPD is formed naturally in fresh pork meat because it exists as a natural constituent of living cells (Cai et al., 2015; Hernández-Jover et al., 1997; Paulsen et al., 2006). Therefore, it is reasonable that marination with BCJ would have a lesser effect on SPD. In other studies, a small decline in SPD content has been reported due to the conversion of SPD to PUT (Larqué et al., 2007) or deamination by microbial polyamine oxidase enzymes (Razin et al., 1959) during the storage. Similarly, in our study, the SPD content of RPB and PBB tended to decrease at day 10 of storage than that of day 5 of storage. The total BA content in RPB and PBB gradually increased up to 242.73 and 151.96 μg/g during day 10 of storage time, respectively. At day 0 of storage, there was no significant difference in total BA content between RPB and PBB. However, the inhibitory effect of total BAs in PBB was observable at day 5 and day 10 of storage (p<0.05). In particular, the PBB had a higher rate of total BA inhibition (73.16%) at day 5 of storage.


In our study, the addition of BCJ was found to increase shelf life via inhibiting the growth of spoilage bacteria and reduce BAs contents formed during storage in pork belly. Overall, this study suggests that black currant can be used as a natural additive on meat industry and can provide consumer health benefits via reducing BAs in meat products. However, in order to commercially apply black currant to meat, additional studies for the optimal addition concentration of black currant on various meat are needed in consideration of economic efficiency and organoleptic characteristics.

Conflict of Interest

The authors declare no potential conflicts of interest.


This research was supported by the Korea Institute of Planning and Evaluation for Technology in Food, Agriculture and Forestry (IPET) through High Value-added Food Technology Development Program, funded by Ministry of Agriculture, Food and Rural Affairs (MAFRA) (118039033HD030). Also, it was supported by the MSIT (Ministry of Science and ICT), Korea, under the ITRC (Information Technology Research Center) support program (IITP-2021-2018-0-01433) supervised by the IITP (Institute for Information & Communications Technology Promotion).

Author Contributions

Conceptualization: Cho J, Kim Hye-Jin, Kim Hee-Jin, Kwon JS, Jang A. Data curation: Cho J, Kim Hye-Jin, Kim Hee-Jin. Formal analysis: Cho J, Kim Hye-Jin, Kim Hee-Jin, Kwon JS. Methodology: Cho J, Kim Hye-Jin, Kwon JS. Software: Cho J. Validation: Cho J, Kim Hye-Jin, Jang A. Investigation: Kim Hee-Jin, Kwon JS. Writing - original draft: Cho J, Jang A. Writing - review & editing: Cho J, Kim Hye-Jin, Kim Hee-Jin, Kwon JS, Jang A.

Ethics Approval

This article does not require IRB/IACUC approval because there are no human and animal participants.



Abu-Salem FM, Abou-Arab EA, Ibrahim HM, Abou-Arab AA. 2011; Effect of adding green tea extract, thyme oil and/or their combination to luncheon roll meat during refrigerate storage. J Am Sci. 7:538-548.


Bakowska-Barczak AM, Kolodziejczyk PP. 2011; Black currant polyphenols: Their storage stability and microencapsulation. Ind Crops Prod. 34:1301-1309


Balamatsia CC, Paleologos EK, Kontominas MG, Savvaidis IN. 2006; Correlation between microbial flora, sensory changes and biogenic amines formation in fresh chicken meat stored aerobically or under modified atmosphere packaging at 4°C: Possible role of biogenic amines as spoilage indicators. Antonie van Leeuwenhoek. 89:9-17


Borges A, Ferreira C, Saavedra MJ, Simões M. 2013; Antibacterial activity and mode of action of ferulic and gallic acids against pathogenic bacteria. Microb Drug Resist. 19:256-265


Bover-Cid S, Hernández-Jover T, Miguélez-Arrizado MJ, Vidal-Carou MC. 2003; Contribution of contaminant enterobacteria and lactic acid bacteria to biogenic amine accumulation in spontaneous fermentation of pork sausages. Eur Food Res Technol. 216:477-482


Bover-Cid S, Hugas M, Izquierdo-Pulido M, Vidal-Carou MC. 2001; Amino acid-decarboxylase activity of bacteria isolated from fermented pork sausages. Int J Food Microbiol. 66:185-189


Cai L, Cao A, Li Y, Song Z, Leng L, Li J. 2015; The effects of essential oil treatment on the biogenic amines inhibition and quality preservation of red drum (Sciaenops ocellatus) fillets. Food Control. 56:1-8


Castellano P, Belfiore C, Fadda S, Vignolo G. 2008; A review of bacteriocinogenic lactic acid bacteria used as bioprotective cultures in fresh meat produced in Argentina. Meat Sci. 79:483-499


Cho JJ, Kim HS, Kim CH, Cho SJ. 2017; Interaction with polyphenols and antibiotics. J Life Sci. 27:476-481


Choe JH, Yang HS, Lee SH, Go GW. 2015; Characteristics of pork belly consumption in South Korea and their health implication. J Anim Sci Technol. 57:22


Chung YK, Choi JS, Yu SB, Choi YI. 2018; Physicochemical and storage characteristics of Hanwoo Tteokgalbi treated with onion skin powder and blackcurrant powder. Korean J Food Sci Anim Resour. 38:737-748.


Denev P, Kratchanova M, Ciz M, Lojek A, Vasicek O, Nedelcheva P, Blazheva D, Toshkova R, Gardeva E, Yossifova L, Hyrsl P, Vojtek L. 2014; Biological activities of selected polyphenol-rich fruits related to immunity and gastrointestinal health. Food Chem. 157:37-44


Drabik-Markiewicz G, Dejaegher B, de Mey E, Kowalska T, Paelinck H, Vander Heyden Y. 2011; Influence of putrescine, cadaverine, spermidine or spermine on the formation of N-nitrosamine in heated cured pork meat. Food Chem. 126:1539-1545


Duffy G, Walsh D, Sheridan JJ, Logue CM, Harrington D, Blair IS, McDowell DA. 2000; Behaviour of Listeria monocytogenes in the presence of Listeria innocua during storage of minced beef under vacuum or in air at 0°C and 10°C. Food Microbiol. 17:571-578


Eerola S, Hinkkanen R, Lindfors E, Hirvi T. 1993; Liquid chromatographic determination of biogenic amines in dry sausages. J AOAC Int. 76:575-577


Fan W, Yi Y, Zhang Y, Diao P. 2015; Effect of an antioxidant from bamboo leaves combined with tea polyphenol on biogenic amine accumulation and lipid oxidation in pork sausages. Food Sci Biotechnol. 24:421-426


Favaro G, Pastore P, Saccani G, Cavalli S. 2007; Determination of biogenic amines in fresh and processed meat by ion chromatography and integrated pulsed amperometric detection on Au electrode. Food Chem. 105:1652-1658


Geornaras I, Dykes GA, von Holy A. 1995; Biogenic amine formation by poultry-associated spoilage and pathogenic bacteria. Lett Appl Microbiol. 21:164-166


Halász A, Baráth Á, Simon-Sarkadi L, Holzapfel W. 1994; Biogenic amines and their production by microorganisms in food. Trends Food Sci Technol. 5:42-49


Hernández-Jover T, Izquierdo-Pulido M, Veciana-Nogués MT, Mariné-Font A, Vidal-Carou MC. 1997; Biogenic amine and polyamine contents in meat and meat products. J Agric Food Chem. 45:2098-2102


Hoa VB, Seol K, Seo H, Kang S, Kim Y, Seong P, Moon S, Kim J, Cho S. 2021; Investigation of physicochemical and sensory quality differences in pork belly and shoulder butt cuts with different quality grades. Food Sci Anim Resour. 41:224-236


Iversen CK. 1999; Black currant nectar: Effect of processing and storage on anthocyanin and ascorbic acid content. J Food Sci. 64:37-41


Jairath G, Singh PK, Dabur RS, Rani M, Chaudhari M. 2015; Biogenic amines in meat and meat products and its public health significance: A review. J Food Sci Technol. 52:6835-6846


Kalač P. 2006; Biologically active polyamines in beef, pork and meat products: A review. Meat Sci. 73:1-11


Katikou P, Georgantelis D, Paleologos EK, Ambrosiadis I, Kontominas MG. 2006; Relation of biogenic amines’ formation with microbiological and sensory attributes in Lactobacillus-inoculated vacuum-packed rainbow trout (Oncorhynchus mykiss) fillets. J Agric Food Chem. 54:4277-4283


Kim HJ, Cho J, Kim D, Park TS, Jin SK, Hur SJ, Lee SK, Jang A. 2021; Effects of Gochujang (Korean red pepper paste) marinade on polycyclic aromatic hydrocarbon formation in charcoal-grilled pork belly. Food Sci Anim Resour. 41:481-496


Kim HJ, Jang A. 2021; Correlations between the levels of the bioactive compounds and quality traits in beef loin and round during cold storage. Food Control. 120:107491


Kim HJ, Kim HJ, Jang A. 2019; Nutritional and antioxidative properties of black goat meat cuts. Asian-Australas J Anim Sci. 32:1423-1429


Kim HJ, Kim HJ, Jeon J, Nam KC, Shim KS, Jung JH, Kim KS, Choi Y, Kim SH, Jang A. 2020; Comparison of the quality characteristics of chicken breast meat from conventional and animal welfare farms under refrigerated storage. Poult Sci. 99:1788-1796


Kim HJ, Yang SR, Jang A. 2018; Anti-proliferative effect of a novel anti-oxidative peptide in Hanwoo beef on human colorectal carcinoma cells. Korean J Food Sci Anim Resour. 38:1168-1178


Krisch J. 2008; Effect of fruit juices and pomace extracts on the growth of Gram-positive and Gram-negative bacteria. Acta Biol Szeged. 52:267-270.


Larqué E, Sabater-Molina M, Zamora S. 2007; Biological significance of dietary polyamines. Nutrition. 23:87-95


Lee JI, Kim YW. 2012; Rapid detection methods for biogenic amines in foods. Korean J Food Sci Technol. 44:141-147


Li M, Tian L, Zhao G, Zhang Q, Gao X, Huang X, Sun L. 2014; Formation of biogenic amines and growth of spoilage-related microorganisms in pork stored under different packaging conditions applying PCA. Meat Sci. 96:843-848


Li N, Zhang Y, Wu Q, Gu Q, Chen M, Zhang Y, Sun X, Zhang J. 2019; High-throughput sequencing analysis of bacterial community composition and quality characteristics in refrigerated pork during storage. Food Microbiol. 83:86-94


Linares DM, del Río B, Ladero V, Martínez N, Fernández M, Martín MC, Álvarez MA. 2012; Factors influencing biogenic amines accumulation in dairy products. Front Microbiol. 3:180


Mah JH, Kim YJ, Hwang HJ. 2009; Inhibitory effects of garlic and other spices on biogenic amine production in Myeolchi-jeot, Korean salted and fermented anchovy product. Food Control. 20:449-454


Min JS, Lee SO, Jang A, Jo C, Park CS, Lee M. 2007; Relationship between the concentration of biogenic amines and volatile basic nitrogen in fresh beef, pork, and chicken meat. Asian-Australas J Anim Sci. 20:1278-1284


Naila A, Flint S, Fletcher G, Bremer P, Meerdink G. 2010; Control of biogenic amines in food—existing and emerging approaches. J Food Sci. 75:R139-R150


Ngapo TM, Vachon L. 2017; Biogenic amine concentrations and evolution in “chilled” Canadian pork for the Japanese market. Food Chem. 233:500-506


Organisation for Economic Cooperation and Development [OECD]. 2021 Meat consumption (indicator). Available from
Accessed at Jan 28, 2021


Paulsen P, Hagen U, Bauer F. 2006; Changes in biogenic amine contents, non-protein nitrogen and crude protein during curing and thermal processing of M. longissimus, pars lumborum of pork. Eur Food Res Technol. 223:603-608


Prester L. 2011; Biogenic amines in fish, fish products and shellfish: A review. Food Addit Contam A. 28:1547-1560


Ramos FA, Takaishi Y, Shirotori M, Kawaguchi Y, Tsuchiya K, Shibata H, Higuti T, Tadokoro T, Takeuchi M. 2006; Antibacterial and antioxidant activities of quercetin oxidation products from yellow onion (Allium cepa) skin. J Agric Food Chem. 54:3551-3557


Razin S, Gery I, Bachrach U. 1959; The degradation of natural polyamines and diamines by bacteria. Biochem J. 71:551-558


Ruiz-Capillas C, Jiménez-Colmenero F. 2005; Biogenic amines in meat and meat products. Crit Rev Food Sci Nutr. 44:489-599


Simon-Sarkadi LIVIA, Holzapeel WH, Halasz A. 1993; Biogenic amine content and microbial contamination of leafy vegetables during storage at 5°C. J Food Biochem. 17:407-418


Stadnik J, Dolatowski ZJ. 2010; Biogenic amines in meat and fermented meat products. Acta Sci Pol Technol Aliment. 9:251-263.


Triki M, Herrero AM, Jiménez-Colmenero F, Ruiz-Capillas C. 2018; Quality assessment of fresh meat from several species based on free amino acid and biogenic amine contents during chilled storage. Foods. 7:132


Vinci G, Antonelli ML. 2002; Biogenic amines: Quality index of freshness in red and white meat. Food Control. 13:519-524


Widén C, Renvert S, Persson GR. 2015; Antibacterial activity of berry juices, an in vitro study. Acta Odontol Scand. 73:539-543


Yusop SM, O’Sullivan MG, Kerry JF, Kerry JP. 2010; Effect of marinating time and low pH on marinade performance and sensory acceptability of poultry meat. Meat Sci. 85:657-663

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