|
 
 |
| ORIGINAL ARTICLE |
|
| Year : 2013 | Volume
: 12
| Issue : 2 | Page : 109-114 |
|
Production and partial characterization of collagenase from marine Nocardiopsis dassonvillei NRC2aza using chitin wastes
Azza M Abdel-Fattah
Department of Chemistry of Natural and Microbial Products, Division of Pharmaceutical and Drug Industries, National Research Centre, Cairo, Egypt
| Date of Submission | 03-Mar-2013 |
| Date of Acceptance | 23-May-2013 |
| Date of Web Publication | 31-Dec-2013 |
Correspondence Address:
Azza M Abdel-Fattah
Department of Chemistry of Natural and Microbial Products, Division of Pharmaceutical and Drug Industries, National Research Centre, El-Behowth St., PO Box 12311, Dokki, 12622 Cairo
Egypt
 Source of Support: None, Conflict of Interest: None  | Check |
DOI: 10.4103/1687-4315.124003
Background
The marine ecosystem has generated considerable interest for the isolation of new microorganisms, especially Streptomyces spp. It is considered a cheaper source of precious enzymes such as collagenase.
Objective
This study aimed to produce new collagenase enzymes from the locally isolated marine Streptomyces spp. grown on marine wastes for application in industrial fields.
Materials and methods
The marine isolate was identified as Nocardiopsis dassonvillei NRC2aza by 16S rDNA sequencing. N. dassonvillei NRC2aza was grown on basal medium composed of whole chitin wastes as the sole C and N source for the production of collagenase enzyme. Extraction of the enzyme was performed to study its characteristics.
Results and conclusion
Maximum collagenase activity (240 U/ml) was obtained after 6 days of incubation in shaken liquid cultures when whole chitin wastes (shrimp and crab wastes) were used as the sole nitrogen and carbon source. A N. dassonvillei NRC2aza isolate was shown to produce significant amounts of collagenase, reaching 1872 U/g, under solid-state fermentation using a mixture of 10 g chitin waste and 2 g of feather. Successive ammonium sulfate fractionation of N. dassonvillei NRC2aza growth extract produced a group of collagenases with different molecular weights. The 80% enzyme fraction was the most active and possessed the highest collagenase activity (1106.66 U/f), reaching about 3.8-fold that of the culture filtrate. The optimum pH and temperature were 8 and 55°C, respectively, and the enzyme was stable at pH range of 6-8. The collagenase exhibited heat stability for 60 min at 50°C. Therefore, collagenases can be applied in food industry as tenderizers of red meat and in fur and hide tanning to ensure uniform dyeing of leather. Keywords: azocoll, collagenase, marine Nocardiopsis dassonvillei NRC2aza, marine wastes
How to cite this article:
Abdel-Fattah AM. Production and partial characterization of collagenase from marine Nocardiopsis dassonvillei NRC2aza using chitin wastes. Egypt Pharmaceut J 2013;12:109-14 |
How to cite this URL:
Abdel-Fattah AM. Production and partial characterization of collagenase from marine Nocardiopsis dassonvillei NRC2aza using chitin wastes. Egypt Pharmaceut J [serial online] 2013 [cited 2021 Jul 29];12:109-14. Available from: http://www.epj.eg.net/text.asp?2013/12/2/109/124003 |
| Introduction | |  |
Collagen is a major fibrous element of skin, bones, tendons, cartilage, blood vessels, and teeth found in all multicellular organisms. Collagen is advertised regularly in the mass media as an ingredient in drugs, drinks, food, cosmetics, and a variety of healthcare products. It has been reported that collagen peptides, the product of collagen degradation, possess several biological activities of industrial and medical interest. Collagenases are collagen-hydrolyzing enzymes that play an important role in connective tissue metabolism [1] . In the animal body they are produced by specific cells and are involved in repair and remodeling processes [2] . The microorganisms producing collagenase are mostly pathogenic in nature and presumably contribute to their pathogenicity by allowing the organisms to penetrate the connective tissue barrier [3-5] or are involved in degradation of collagen under natural conditions [6-8] . Microbial collagenases have wider applications because they cleave collagen helix at multiple sites. Purified collagenases are used in quantification of collagen and in isolation of specific cell types from attendant connective tissue and pulmonary mast cells from bovine tissue [9],[10] .
In medicine, collagenases are used in experimental transplantation of pancreatic islet cells to alleviate diabetic symptoms [11] , enzymatic debridement, nonsurgical removal of debris from wounds, removal of dandruff, etc. [2] . Collagenolytic proteases are classified into two major groups: metallocollagenases and serine collagenases. Among bacterial collagenolytic proteases, metalloproteases are the most frequent, whereas serine proteases and other proteases are rarely seen. All metalloproteases share a zinc-containing HEXXH motif in their active sites. Although collagenase production by bacteria is well documented, little attention has been paid to studying the actinomycetes, known as antibiotic producers. A variety of actinomycetes are actively involved in the processes of degradation of native collagen under natural conditions [12-15] . A higher thermostability of collagenolytic enzymes would be a significant advantage for their isolation, purification, storage, and different biotechnological applications. There are only a few reports for collagenase forms from thermophilic organisms [16] . It is therefore promising to search for new indigenous thermophilic microorganisms that are able to grow on collagen-rich materials and that produce collagenolytic enzymes of relatively high thermostability. For this purpose, attention has been paid recently to the thermophilic actinomycetes as a possible producer of new thermostable enzymes [17] . They have some advantages in comparison with mesophilic strains, including accelerated accumulation of biomass and desired enzymes, and are also harmless for humans. Considering the importance of collagenase, the present investigation was planned to partially characterize collagenase produced by the thermophilic marine Streptomyces strain Nocardiopsis dassonvillei NRC2aza.
| Materials and methods | | |
Microorganism
A proteolytic marine Streptomyces spp. was isolated from the Mediterranean Sea at a depth of about 300 m. The seawater specimen was incubated with pure collagen for about 4 weeks at 37°C. Then the collagenolytic enzyme producer N. dassonvillei NRC2aza was isolated using the serial dilution technique and maintained on starch-peptone-yeast slants at 37°C. The maintenance medium was prepared with marine water throughout the study.
Substrate
Chitin wastes composed of a mixture of shrimp and crab waste were obtained from fish markets. The obtained wastes were washed successively with deionized water to remove the sand debris present on the surface. The chitin wastes were then air-dried and ground. The powdered material obtained was used as the substrate for the enzyme production.
Reagents
Azocoll and Folin-Ciocalteu reagents were from Sigma Scientific Services Co. (St. Louis, Missouri, USA). Other reagents were from Merck (Darmstadt, Germany). All other chemicals and bacteriological media were from standard sources.
Taxonomic studies and 16S rDNA sequencing
Isolation of bacterial genomic DNA was performed using Gene Jet genomic DNA purification kit (Fermentas, EU). PCR-restriction fragment length polymorphism analysis was carried out using Maxima Hot Start PCR Master Mix (Fermentas). Thereafter, 4 μl of the PCR mixture was loaded to examine the PCR product on 1% agarose gel against a 1 kb plus ladder (Fermentas); F: AGA GTT TGA TCC TGG CTC AG, R: GGT TAC CTT GTT ACG ACT T. Then PCR clean-up was carried out for the PCR product using Gene Jet PCR purification kit (Fermentas). Finally sequencing to the PCR product on GATC Company with ABI 3730xl DNA sequencer by using forward and reverse primers was made (Sigma Scientific Services Co.).
Culture conditions for enzyme production
Production medium
Liquid starch-peptone-yeast medium was used for inoculum preparation. The basal medium used for the enzyme production consisted of (g/l) 0.7 g of KH2PO4, 1.4 g of K2HPO4, 0.1 g of MgSO4, 0.5 g of NaCl, and 20 g of marine waste (chitin waste). All the constituents were prepared in marine water at a ratio of 1 l. Three-day-old inoculums were prepared using the spore suspension from 7-day-old slants of N. dassonvillei NRC2aza and incubated on a shaking incubator at 150 rpm at 37°C. Then 6% of the prepared inoculum was transferred to 250 ml Erlenmeyer flasks, each containing 50 ml of the basal medium, and incubated for 6 days on a rotary shaker at 150 rpm. Packed cell volume of the biomass produced was measured by centrifugation of the content of each flask at 5000 rpm for 10 min.
The protein of the culture filtrate was determined by the method of Lowry et al. [18] .
Determination of collagenase activity
Collagenase activity was measured using azocoll as a substrate by the following method [19] . One unit of enzyme activity was defined as decomposition of μg azocoll per ml. The reaction mixture containing azocoll (0.0125 g) suspended in 2.5 ml of 0.05 mol/l tris-HCl and 1 mmol/l CaCl2 (pH 7.5) was incubated with 0.1 ml diluted enzyme at 40°C for 30 min. Assays were stopped by immersing tubes in an ice bath. Chilled tubes were then centrifuged and the supernatant was measured at 520 nm. Control tubes, containing azocoll without enzyme, were incubated for the same length of time as the test samples.
Production of collagenase by solid state fermentation (SSF)
This study was performed on the marine N. dassonvillei NRC2aza using the different wastes available (chitin wastes, feather and leather wastes) as the solid substrate. A measure of 10 g of different combinations of the different wastes was prepared in 250 ml Erlenmeyer flasks and mixed with 10 ml of the basal medium and autoclaved at 121°C for 15 min. They were cooled to room temperature and each flask was inoculated with 3 ml of 3-day-old inoculum.
Extraction and enzyme recovery
For isolation of collagenase enzymes produced under solid state fermentation, 10 volumes of distilled water per gram of substrate (based on the initial dry weight of the substrate) were added to the fermented media and the extraction was performed by agitation at room temperature in a rotary shaker for 60 min at 150 rpm. The slurry was then squeezed through sheet cloth and clarified by centrifugation at 5000 rpm at 4°C for 15 min. The clear supernatant was used for collagenase assay and protein content.
Ammonium sulfate fractionation of collagenase
The supernatant of bulk-cultured marine N. dassonvillei NRC2aza was centrifuged (10 000g, 4°C, and 20 min) to remove cells and debris, and the supernatant was collected. Solid ammonium sulfate was added to the supernatant with a saturation of 50-80% under gentle stirring and then kept at 4°C overnight. The suspension was centrifuged and the precipitate was dissolved in 0.05 mol/l tris buffer (pH 7.5). The solution was then dialyzed against the same buffer and each dialysate was assayed for collagenase activity and protein content.
| Results and discussion | | |
A marine Streptomyces strain locally isolated from marine habitats was able to grow on chitin wastes as the sole C and N source for collagenase enzyme production. The strain was identified by 16S rDNA sequencing (Sigma Scientific Services Co.).
Phylognetic analysis of 16S rDNA
Phylognetic analysis based on 16S rDNA sequencing exhibited a high level of homology (95%) with N. synnmemataformans strain IMMIB D 1215, as shown in [Figure 1].
N. dassonvillei NRC2aza secretes a large number of hydrolytic enzymes, both inducibly and constitutively on different wastes. This observation was made by Jain and Jain [20] , who reported that collagenase enzyme was produced constitutively on poultry feather. However, it was observed that a high level of collagenase was produced by the marine strain in a medium containing chitin waste as the sole N and C source. However, in other Streptomyces spp., collagenase production is associated with its induction by the specific substrate [21],[22] . N. dassonvillei NRC2aza also produced highly active collagenase enzymes in SSF using other wastes like feather and leather, which is a new trend that can be applied in the field of industry [Figure 2].
Collagenase fractionation
N. dassonvillei NRC2aza collagenase enzymes were easily purified from the culture filtrate by ammonium sulfate fractionation (with concentrations ranging from 50 to 80%). From the results illustrated in [Table 1] it can be seen that three partially pure collagenase fractions (60, 70, and 80%) were produced. This means that we have more than one enzyme. The 80% fraction was the most highly active enzyme (1106.66 U/f) with a 3.8-fold purification and a yield of 7.62% from the crude extract. This indicated that the chitin waste was highly conducive for the production of a type of collagenase that has importance in industrial and medical applications. This is nearly similar to another work with Bacillus pumilus COI-J collagenase, in which ammonium sulfate was used to precipitate the enzyme with a 3.39-fold purification and 66.4% yield [23] . Collagenase from Streptomyces exfoliates was purified by ammonium sulfate precipitation with 3.29-fold purification and 67.21% yield [20] . | Table 1: Fractional precipitation of marine Nocardiopsis dassonvillei NRC2aza collagenase enzymes by ammonium sulfate
Click here to view |
Optimum temperature and thermal stability
The effect of temperature on N. dassonvillei NRC2aza collagenase activity was determined at different temperatures ranging from 35 to 60°C, followed by assaying the collagenase activity against the control (substrate without enzyme). As shown in [Figure 3], the maximum collagenase activity was observed at 55°C. The increase in temperature above 55°C drastically reduced the collagenase activity. The maximum temperature obtained was higher than the maximum temperature reported for Cytophaga spp. L43-1, which is between 30 and 42°C [24] , and lower than the maximum temperature of Bacillus spp. MO-1 and Thermoactinomyces spp. 21E, which is between 70 and 75°C [25],[26] . From the temperature profile illustrated in [Figure 4] it can be seen that collagenase enzyme maintained 100% of its hydrolytic activity for 1 h at 40 and 50°C. At 60°C the relative collagenase activity was only 40.5%.
Effect of pH on collagenase activity and stability
The effect of pH on enzyme activity was estimated in three different buffer systems, 50 mmol/l sodium acetate (pH 5.5), 50 mmol/l sodium phosphate (pH 6-7), and 50 mmol/l tris-HCl (pH 8-9). As illustrated in [Figure 5] the optimum pH of the collagenolytic enzyme was estimated to be 8, which was the same as for the collagenolytic enzyme of Treponemadenticola spp. ATCC 35405-A [27] . The marine N. dassonvillei NRC2aza collagenase enzyme maintained 100% activity within the pH range 6-8 [Figure 6].
The relative activity of the partial pure collagenolytic enzyme, which was highly stable in the pH range of 7-8, was 64.53 and 39.67% after 1 h at pH 8 and 9, respectively.
Therefore, production of N. dassonvillei NRC2aza collagenase enzyme on cheap N and C sources such as chitin waste and poultry waste is significant as it will reduce the cost of production of the enzyme and may enable efficient hydrolysis of marine and poultry waste from the point of view of waste management.
| Acknowledgements | | |
This work was supported by National Research Centre, Cairo, Egypt, as part of the project of the Department of Chemistry of Natural and Microbial Products. The authors thank the professors of the financial department.
Conflicts of interest
There are no conflicts of interest.
| References | | |
| 1. | Dresden MH. Evidence for the role of collagenase in collagen metabolism. Nat New Biol 1971; 231:55-57. 
|
| 2. | Ravanti L, Kähäri VM. Matrix metalloproteinases in wound repair (review). Int J Mol Med 2000; 6:391-407.
|
| 3. | Mandl I FF Nord(editor) Collagenase and elastases Advances in enzymology 1961; New York: Interscience Publication; 23:163-265
|
| 4. | Bicsak TA, Harper E. Purification of nonspecific protease-free collagenase from Clostridium histolyticum. Anal Biochem 1985; 145:286-291.
|
| 5. | Welton RL, Woods DR. Collagenase production by Achromobacter iophagus. Biochim Biophys Acta 1975; 384:228-234.
|
| 6. | Gousterova A, Lilova A, Trenev M, Spassov G, Nedkov P. Thermophilic actinomycetes as producers of collagenase. Compt Rend Acad Bulg Sci 1998; 51:71-74.
|
| 7. | Goshev I, Gousterova A, Vasileva-Tonkova E, Nedkov P. Characterization of the enzyme complexes produced by two newly isolated thermophylic actinomycete strains during growth on collagen-rich materials. Process Biochem 2005; 40:1627-1631.
|
| 8. | Petrova D, Derekova A, Vlahov S. Purification and properties of individual collagenases from Streptomyces sp. strain 3B. Folia Microbiol (Praha) 2006; 51:93-98.
|
| 9. | Hu Y, Webb E, Singh J, Morgan BA, Gainor JA, Gordon TD, et al. Rapid determination of substrate specificity of Clostridium histolyticum β-collagenase using an immobilized peptide library. J Biol Chem 2002; 277:8366-8371.
|
| 10. | Stahl J, Cook E, Dong S, Saban R, Graziano FM. Isolation and purification of functional bovine lung mast cells (BLMCs). Zentralbl Veterinarmed B 1996; 43:45-53.
|
| 11. | Barker CF. Transplantation of the islets of Langerhans and the histocompatibility of endocrine tissue. Diabetes 1975; 24:766-775.
|
| 12. | De S, Chandra AL. Degradation of organic nitrogenous wastes by a soil streptomycete. Folia Microbiol (Praha) 1979; 24:473-477.
|
| 13. | Chakraborty R, Chandra AL. Collagenolytic activity of a soil actinomycete. Folia Microbiol (Praha) 1982; 27:471-474.
|
| 14. | Kabadjova P, Vlahov S. Investigation on collagenolytic activity of some streptomyces strains from Bulgarian soils. Compt Rend Acad Bulg Sci 1995; 48:115-118.
|
| 15. | Tsuruoka N, Nakayama T, Ashida M, Hemmi H, Nakao M, Minakata H, et al. Collagenolytic serine-carboxyl proteinase from Alicyclobacillus sendaiensis strain NTAP-1: purification, characterization, gene cloning, and heterologous expression. Appl Environ Microbiol 2003; 69:162-169.
|
| 16. | Kabadjova P, Vlahov S, Dalgalarrondo M, Dousset X, Haertlé T, Briand L, et al. Isolation and distribution of Streptomyces populations with heat-resistant collagenolytic activity from two protein-rich areas in Bulgarian soils. Folia Microbiol (Praha) 1996; 41:423-429.
|
| 17. | Demina NS, Lysenko SV. Collagenase from Streptomyces lavendulae. Microbiology 1996; 65:661-664.
|
| 18. | Lowry OH, Rosebrough NJ, Farr AL, Randall RJ. Protein measurement with the Folin phenol reagent. J Biol Chem 1951; 193:265-275.
|
| 19. | Peterkofsky B. Bacterial collagenase. Methods Enzymol 1982; 82:453-471.
|
| 20. | Jain R, Jain PC. Production and partial characterization of collagenase of Streptomyces exfoliatus CFS 1068 using poultry feather. Indian J Exp Biol 2010; 48:174-178.
|
| 21. | Kabadjova P, Vlahov S. Fish meal induction of the collagenase production by S. candidus. Dokladi na B "lgarskata akademiâ na naukite 1997; ISSN 1310-1331 50(6)111-114.
|
| 22. | Endo A, Murakawa S, Shimizu H, Shiraishi Y. Purification and properties of collagenase from a Streptomyces species. J Biochem 1987; 102:163-170.
|
| 23. | Wu Q, Li C, Li C, Chen H, Shuliang L. Purification and characterization of a novel collagenase from Bacillus pumilus Col-J. Appl Biochem Biotechnol 2010; 160:129-139.
|
| 24. | Sasagawa Y, Izaki K, Matsubara Y, Suzuki K, Kojima H, Kamio Y. Molecular cloning and sequence analysis of the gene encoding the collagenase from Cytophaga sp. L43-1 strain. Biosci Biotechnol Biochem 1995; 59:2068-2073.
|
| 25. | Okamoto M, Yonejima Y, Tsujimoto Y, Suzuki Y, Watanabe K. A thermostable collagenolytic protease with a very large molecular mass produced by thermophilic Bacillus sp. strain MO-1. Appl Microbiol Biotechnol 2001; 57:103-108.
|
| 26. | Petrova DH, Shishkov SA, Vlahov SS. Novel thermostable serine collagenase from Thermoactinomyces sp. 21E: purification and some properties. J Basic Microbiol 2006; 46:275-285.
|
| 27. | Mäkinen KK, Mäkinen P-L, Loesche WJ, Syed SA. Purification and general properties of an oligopeptidase from Treponema denticola ATCC 35405: a human oral spirochete. Arch Biochem Biophys 1995; 316:689-698.
|
[Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5], [Figure 6]
[Table 1]
| This article has been cited by | | 1 |
Pharmaceutical biotechnological potential of filamentous fungi isolated from textile industry |
|
| Suzan Prado Fernandes Bernal,Micaela Andrea Gritti,Viviane Piccin dos Santos,Júlia Ronzella Ottoni,Valéria Maia de Oliveira,Maria Elisa Peichoto,Michel Rodrigo Zambrano Passarini | | Archives of Microbiology. 2021; | | [Pubmed] | [DOI] | | | 2 |
Streptomyces sp. 12 Protease: Purification and Properties |
|
| N.A. Nidialkova,L.D. Varbanets,V.V. Schepelevich,P.P. Zelena,Yu.?. Yumina,E.G. Garkavaya,L.?. Troshina | | Mikrobiolohichnyi Zhurnal. 2017; 79(2): 33 | | [Pubmed] | [DOI] | | | 3 |
Microbial collagenases: challenges and prospects in production and potential applications in food and nutrition |
|
| Gaurav Kumar Pal,Suresh PV | | RSC Adv.. 2016; 6(40): 33763 | | [Pubmed] | [DOI] | |
|
 |
|
|
|
Search Pubmed for