CC BY
143
UDK 606:615.322:631:871 doi: 10.15407/biotech9.01.055
ENDOGENOUS CYTOKININS IN MEDICINAL BASIDIOMYCETES MYCELIAL BIOMASS
N. P. Vedenicheva G. A. Al-Maali
N. Yu. Mytropolska Kholodny Institute of Botany of the National Academy
0. B. Mykhaylova of Sciences of Ukraine, Kyiv N. A. Bisko
1. V. Kosakivska
E-mail: [email protected]
Received 10.02.2016
The aim of the research was to study the cytokinins production by medicinal basidial mushrooms. Cytokinins were for the first time identified and quantified in mycelial biomass of six species (Ganoderma lucidum, Trametes versicolor, Fomitopsis officinalis, Pleurotus nebrodensis, Grifola frondosa, Sparassis crispa) using HPLC. Trans- and cis-zeatin, zeatin riboside, zeatin-O-glucoside, isopentenyladenosine, isopentenyladenine were found but only one species (G. lucidum, strain 1900) contained all these substances. The greatest total cytokinin quantity was detected in F. officinalis, strain 5004. S. crispa, strain 314, and F. officinalis, strain 5004, mycelial biomass was revealed to have the highest level of cytokinin riboside forms (zeatin riboside and isopentenyladenosine). The possible connection between medicinal properties of investigated basidiomycetes and of cytokinins is discussed. S. crispa, strain 314, and F. officinalis, strain 5004, are regarded as promising species for developing biotechnological techniques to produce biologically active drugs from their mycelial biomass. As one of the potential technological approaches there is proposed fungal material drying.
Key words: medicinal mushrooms, mycelial biomass, cytokinins.
Mushrooms form a special kingdom of living creature — Fungi. They possess both plant and animal features in their cell structure and metabolism. The most important regulation system of plants and animals is a hormonal one, all vital functions of these organisms are under hormonal control. Hormones trigger all life programs without exceptions and control their running during ontogenesis. The action of such system in fungi remains unknown. More than 35 fungi species are able to synthesize the phytohormones, but a functional significance of these substances has not been investigated [1]. The main attention was concentrated on microscopic phytopathogenic fungi causing an abnormal growth of host plants tissues and tumours formation. One of the specific symptoms of fungal infection is a considerable cytokinins levels increase in these tissues (several times higher than those in healthy ones) [2, 3].
Cytokinins are polyf unctional phytohormones that are involved in plants growth and development regulation. They stimulate cells division and shoot apical
meristems initiation and activity, delay leaves senescence, inhibit roots growth and branching, control sink/source relationships, seeds germination, nutrient uptake and response to biotic and abiotic stresses [4, 5]. Naturally occurring cytokinins are adenine derivatives which have the similar structure but not equivalent functions. Hormone molecules with the side chain structure variations are likely to mediate different biological signals. The participation of trans-zeatin and isopentenyladenine in long-distance signal transmission in acropetal and basipetal directions along plant stem correspondently is assumed [6].
Phytopathogenic fungi are shown to produce high concentrations of cytokinins in culture [7, 8]. The incorporation of 14C-adenine into cytokinins in Fusarium moniliforme confirmed the ability of this fungus to synthesize hormone de novo [9]. Biotrophic fungus Claviceps purpurea produced substantial quantities of cytokinins in culture and expressed the cytokinins biosynthesis enzymes genes [2]. The general strategy of
parasitic fungi is to use cytokinins for host plant growth manipulations. They not only can apply hormones synthesized by themselves but change cytokinins biosynthesis genes expression in occupied plant [10, 11].
Until now there are few data on the cytokinins occurrence and functioning in basidial mushrooms. Cytokinins activity was for the first time detected in their fruit bodies by bioassays in the 70s of the XX century. Cytokinins activity corresponding to zeatin and zeatin riboside was detected in Agaricus bisporus (J. E. Lange) Imbach and Pleurotus sajor-caju (Fr.) Singer [12], in six species of genus Rhizopogon and twenty two species of genus Hebeloma [13]. The content of zeatin riboside in Pleurotus ostreatus (Jacq.) P. Kumm. basidiomes [14], zeatin — in Lentinus tigrinus (Bull.) Fr. and Laetiporus sulphurous (Bull.) Murrill [15], trans-zeatin — in eighteen macromycetes species, particularly in L. tigrinus, Boletus impolitus Fr., Ptychoverpa bohemica (Krombh.) Boud., Volvariella speciosa (Fr.) Singer, Amanita gemmata (Fr.) Bertill. etc. was determined by high performance liquid chromatography (HPLC) [16]. Recently, combination of HPLC with electrospray ionization tandem mass spectrometry allowed to determine seven cytokinins in twenty species of forest fungi [3].
Last years, a higher interest to growth regulating substances in edible mushrooms fruit bodies is connected with necessity to produce ecologically pure protein products and to increase cultivated mushrooms yield. Additionally, almost all basidiomycetes possess the medicinal properties and that is why medicinal mushrooms science devoted to study of these fungi characteristics is developing successfully in 21st century [17]. It is not yet completely known what specific components of biochemical mushrooms composition are effective therapeutic agents. At the same time, therapeutic properties of cytokinins, in particular, anticancer and immunomodulatory action, have been proved now [18-20]. The question about possible interconnection between medicinal mushrooms effects and cytokinins synthesized in their cells arises. We have previously established that cytokinins content in Lentinus edodes (Berk.) Singer mycelium is by an order in magnitude higher than that of fruit bodies (data not published). Taking in consideration all above mentioned we aimed to study the cytokinin production by mycelial biomass of basidial mushrooms and to determine the species with the higher productivity.
Materials and Methods
Biological material
The following basidial macromycetes were screened for cytokinins content: Pleurotus nebrodensis (Inzenga) Quel., Grifola frondosa (Dicks: Fr.) S.F.Gray, Fomitopsis officinalis (Vill.) Bondartsev et Singer, Sparassis crispa (Fr.) Fr., Ganoderma lucidum (Curtis) P. Karst and Trametes versicolor (L.) Lloyd. All of them are the valuable fungi species with long history of applying in oriental medicine and ethnoscience for many diseases treatment and prevention. We investigated the pure cultures of F. officinales 5004, S. crispa 314, G. lucidum 1900, T. versicolor 353, G. frondosa 976 and P. nebrodensis 2035 from the National Ukrainian Culture Collection of Mushrooms of Kholodny Institute of Botany of the National Academy of Sciences of Ukraine.
Mushrooms cultivation
To obtain the mycelial biomass of above mentioned strains we cultivated them in 250 ml Erlenmeyer flasks with 50 ml liquid medium at thermostat conditions (26 ± 1 °C) in darkness (Fig. 1). Inoculation with physiologically active mycelium in proportion 10% to total volume was carried out in accordance with method developed for basidiomycetes [21]. Microbiological control of nutrient medium and seeding material purity was fulfilled before inoculation. For cultivation of F. officinales 5004 and S. crispa 314 the following liquid nutrient medium was used (g/l): glucose — 30,0; NH4 NO3 — 3,5; KCl — 0,5; K2HPO4 — 1,0; MgSO47H2O — 0,5; beer wort (15° in accordance with Baling method) — 115 ml; pH — 5,0. For cultivation of G. lucidum 1900, T. versicolor 353, G. frondosa 976 and P. nebrodensis 2035 such liquid nutrient medium was used (g/l): glucose — 25,0; peptone — 3,0; yeast extract — 3,0; KH2PO4 — 1,0; K2HPO4 — 1,0l; MgSO47H2O — 0,25; pH — 6,5. Mediums acidity was maintained at necessary pH levels by 1 N KOH and 1 N HCl solutions addition.
Cytokinins analysis
The cytokinins extraction and purification from mushrooms mycelial biomass and final determination in samples were based on the methods described for plants [22] with some modifications. Choice and combination of procedures and their adaptation to work with mushrooms mycelial biomass were realized for the first time. The sample (10 g of mycelial biomass) was homogenized in 80% ethanol solution. Homogenous material was mixed
A
B
Fig. 1. Basidial mushrooms mycelial biomass: A — Ganoderma lucidum, strain 1900, and Pleurotus nebrodensis, strain 2035; B — Sparassis crispa, strain 314
with 80% ethanol (10 ml per 1 g) thrice during a day (2 h + 2 h +20 h). Every time extracts were filtrated under vacuum and dry debris was washed with new ethanol portion. All procedures were performed in cold conditions (+4 °C) to prevent hormones enzyme or oxidative degradation. Joined extract was evaporated under vacuum on rotor evaporator at +50 °C to water phase state. Water residue was kept in freezer at -20 °C. After 24 h it was fast defrosted to break cells and subcellular structure. Then extract was adjusted with 1 N HCl to pH 2,5 and centrifuged at 15 000 g and +4 °C during 30 min in K-24 centrifuge (Janetzky, Germany). Supernatant was adjusted with 1 N NaOH to pH 8,0 and fourfold fractionated with n-butanol (1:1 by volume). Joined butanol extract was dried under vacuum and kept at -20 °C. For further purification dry residue was dissolved in 0,1 N HCl and taken through a column 20x2 cm
Bio-Rad (USA) containing ionexchange resin Dowex 50Wx8 (Serva, Germany) in H+ form. The column was rinsed with water, the sample was eluated by 0,1 N ammonia and eluate was evaporated under vacuum. Then, sample was purified by thin layer chromatography (TLC). The dry residue was dissolved in 1 ml of 96% ethanol and applied on TLC plates Silicagel 60 F254 (Merck, Germany) 20x20 cm. The plates were run in solvent systems isopropanol:ammonia:water (10:1:1 by volume) and dried. Zones correspondent to the cytokinins standards were detected under UV 254 in chemoscope Desaga (Germany) and then eluated with 96% ethanol. The final cytokinins identification and determination were performed by HPLC (Agilent 1200 LC, USA) using Eclipse XDB-C 18 column (2,1x150 mm), particles size 5 ^m. Elution was carried out with solvents system methanol:water (37:63 by volume). Data were analyzed and processed by software Chem Station, version B.03.01 on line. Standard solutions of trans- and cis-zeatin, zeatin riboside, isopentenyladenosine, isopentenyladenine and zeatin-O-glucoside (Sigma, USA) were used as a markers. The example of HPLC chromatogram of cytokinins determination is shown on Fig. 2 (illustrated by Sparassis crispa 314 micelial biomass purified sample).
Methods of statistical analysis
Cytokinins concentration and water content were determined from three replicates of each experiment. HPLC analysis was carried out with five analytical replications. The data was processed by standard methods of variation statistics using Microsoft Excel 2007 program. In the Tables the average values and standard errors (M ± m) are presented. Values of P < 0.05 were considered to be significant.
Results and Discussion
Trans- and cis-zeatin, zeat in riboside, zeatin-O-glucoside, isopentenyladenosine and isopentenyladenine were determined in the mycelial biomass of six medicinal macromycetes species but only in one of them (G. lucidum 1900) all these forms were present (Table 1). Studied species contained mostly zeatin-type cytokinins that are normally dominant in higher plants [6]. Isopentenyladenosine was not detected in fungi mycelial biomass excepting G. lucidum 1900. Very low levels of isopentenyladenosine were found only in S. crispa 314 and G. lucidum 1900. This data indicate that a direct
Fig. 2. HPLC-analysis of of cytokinins, purified from:
Sparassis crispa, strain 314, mycelial biomass, X = 254 nm
isopentenyl-dependent (mevalonate) pathway of cytokinins biosynthesis was suspended or its level was very low. Mevalonate pathway is appropriate to higher plants but it also occurs in animals, fungi and bacteria and is localized in the cytoplasm and mitochondria [4, 23]. However, presence of rather large amounts of cis-zeatin in all studied fungal species testifies to the possibility of a considerable contribution of tRNA degradation to the cytokinin pool because it is cis-zeatin that is produced in this way [24]. Thus, the obtained data demonstrated an insignificant level of cytokinins direct biosynthesis at the studied stage of fungal mycelial biomass development and the necessity to check the intensity of these hormones production at the other stages to provide a more significant yield of cytokinins.
Mycelial biomass of investigated fungi species differed both in a qualitative composition and in quantitative content of endogenous cytokinins (Table 1). In P. nebrodensis 2035 the amount of a conjugated form — zeatin-O-glucoside was the greatest. In G. frondosa 976 the level of free zeatin-type forms — trans- and cis-zeatin was relatively high. Mycelial biomass of F. officinalis 5004 was characterized by a considerable concentration of bound zeatin forms — riboside and O-glucoside. Trans-zeatin and zeatin riboside were dominant in S. crispa 314 while cis-zeatin — in T. versicolor 353 and G. lucidum 1900. In general, cytokinin qualitative composition in analyzed fungal mycelial biomass was, probably, species-specific like that in plants [25].
The largest total cytokinins content was detected in S. crispa 314 and the smallest one — in G. lucidum 1900 (Table 1). Amount of individual cytokinin forms in fungal mycelial biomass varied in most cases approximately in the range of 40-200 ng/g of fresh weight. Such concentrations of these hormones in fresh plant tissues are regarded as low and are typical for plant organs at the final stages of growth. Cytokinins levels in rapidly growing plant organs with a high mitotic index are by order of magnitude greater as a rule [5, 23]. Since it is highly possible that cytokinins biosynthesis and metabolism pathways differ in different organisms [7] and taking into account the fact that fungi belong to a separate kingdom of living creatures, comparison of concentrations of these hormones in mycelial biomass and plant tissues does not enable to make unambiguous conclusions concerning the correspondence of hormones accumulation to growth processes intensity in fungi. Unfortunately, literature data on the cytokinin dynamics in fungal tissues at the various developmental stages are not available.
The analysis of studied material has shown that mycelial biomass of all six medicinal macromycetes species had a great quantity of moisture (Table 2).
According to this the results about endogenous cytokinin concentrations were recalculated per gram of dry weight (Table 3). This data showed that the total amount of these hormones is considerably higher as compared with plants [5, 23]. The highest cytokinins content was detected in F. officinalis
Table. 1. Cytokinins content in medicinal mushrooms mycelial biomass (ng/g of fresh weight)
Sample t-Z * c-Z* ZR* iPa* iP* ZG* X
Pleurotus nebrodensis, strain 2035 88.66 ± 4.0** 71.46 ± 3.1** 42.34 ± 1.8** 0 0 213.85 ± 8.5** 416.31
Grifola frondosa, strain 976 95.31 ± 4.2** 111.04 ± 4.9** 0 0 0 51.79 ± 2.2** 258.14
Fomitopsis officinalis, strain 5004 81.41 ± 3.7** 130.4 ± 5.9** 146.21 ± 6.7** 0 0 167.34 ± 7.5** 525.41
Sparassis crispa, strain 314 212.03 ± 9.1** 95.78 ± 4.5** 212.66 ± 9.7** 0 20.21 ± 0.9** 0 540.68
Trametes versicolor, strain 353 81.45 ± 3.4** 180.16 ± 8.7** 55.70 ± 2.2** 0 0 2.27 ± 0.1** 319.58
Ganoderma lucidum, strain 1900 40.04 ± 1.8 95.34 ± 4.3 48.95 ± 2.1 15.44 ± 0.7 6.81 ± 0.3 34.24 ± 1.6 240.82
Notes. Hereinafter: * t-Z — trans-zeatin, c-Z — cis-zeatin, ZR — zeatin riboside; iPa — isopentenyladenosine, iP — isopentenyladenine, ZG — zeatin-O-glucoside; ** P < 0,05 in comparison with correspondent cytokinins content in Ganoderma lucidum, strain 1900, mycelial biomass.
Table. 2. Water content in medicinal mushrooms mycelial biomass (%)
Pleurotus nebrodensis, strain 2035 Grifola frondosa, strain 976 Fomitopsis officinalis, strain 5004 Sparassis crispa, strain 314 Trametes versicolor, strain 353 Ganoderma lucidum, strain 1900
95.2 95.3 95.7 90.6 96.3 95.2
Table 3. Cytokinins content in medicinal mushrooms mycelial biomass (ng/g of dry weight)
Sample t-Z * c-Z* ZR* iPa* iP* ZG* X
Pleurotus nebrodensis, strain 2035 1847 ± 90** 1489 ± 71** 882 ± 39** 0 0 4437 ± 218** 8655
Grifola frondosa, strain 976 2028 ± 95** 2363 ± 108** 0 0 0 1102 ± 53** 5493
Fomitopsis officinalis, strain 5004 1893 ± 87** 3034 ± 147** 3400 ± 161** 0 0 3892 ± 182** 12219
Sparassis crispa, strain 314 2256 ±109** 1019 ± 46** 2262 ± 111** 0 215±9** 0 5752
Trametes versicolor, strain 353 2201±105** 4869 ± 233** 1506 ± 71** 0 0 62 ± 3** 8638
Ganoderma lucidum, strain 1900 834 ± 38 1986 ± 92 1020 ± 45 322 ± 14 142 ± 6 713 ± 32 5017
5004 (more than 12 mkg/g of dry weight) and the lowest one — in G. lucidum 1900 (5,017 mkg/g of dry weight). Thus, considering high moisture of mycelial biomass, we can make conclusion about very high relative cytokinins concentrations in fungi tissues. Accordingly, it is possible to consider mushrooms mycelium as a perspective source of cytokinins.
All studied fungal species produce great amounts of cytokinin hormones. At the same time, all of them possess medicinal properties and are used in traditional east medicine, folk medicine, and homeopathy. Particularly, an edible mushroom P. nebrodensis contains essential amino acids, unsaturated fatty acids, microelements and vitamins thereby it is very important for human dietary nutrition [26]. Powder made from its mycelial mass or fruit bodies and their water extracts inhibit tumour growth in experimental animals both by oral intake and injections [27, 28]. Fruit bodies, mycelium and metabolites of G. frondosa show antibacterial, antiviral, antifungal, antitumour and immunostimulating effects, regulate blood pressure and have antidiabetic properties [29, 30]. F. officinalis has been used in folk medicine of Eastern Slavs to treat insular diabetes, thyroid gland function, neurasthenia, asthma [17]. In the countries of the South-East Asia F. officinalis has been known for more than 2000 years and is included in the composition of many drugs [31]. S. crispa extracts have oncostatic, immunostimulating and antimetastatic effects [32-34]. Medicinal potential of G. lucidum and T. versicolor is expressed in antitumour, immunostimulating, antibacterial, antiviral, antiphlogistic action [35-37]. Medicinal properties of these fungi are usually connected with their biologically active substances — polysaccharides and specific thriterpenoid compounds. Our studies have shown that fungal mycelial biomass contains a considerable amount of cytokinin hormones. At the same time, cytokinins are known to possess therapeutic properties. Cytokinins are known to stimulate cells division in plants [38]. Contrary, in animal and human they induce apoptosis and block the cell cycle of a wide spectrum of tumour cells [39]. They change morphology and disorganize actin cytoskeleton of bladder carcinoma T24 cells
[40], block DNA synthesis and increase the level of cycline-dependent kinase inhibitor
[41] and induce genes involved in a negative
regulation of the cell cycle [42] in tumour cells of epithelium. Cytokinins also inhibit a replication of human enterovirus [43], show immunostimulating effects promoting proliferation of natural killer cells [44]. Comparing the above data on medicinal fungal properties and information on biological effects of cytokinins on animal and human cells, it can be suggested with a high probability that there is relation between them. Since fungal mycelial biomass contains a great quantity of cytokinins, it is not excluded that these substances make a major contribution to a therapeutic effect of fungi. Analysis of interrelation between these hormones structure and their antiprolifiration and cytotoxic effects on tumour cells indicates that mostly cytokinin riboside forms possess therapeutic properties [39, 45, 46]. It was shown in our experiments the largest total content of cytokinins in terms of dry weight in mycelial biomass of S. crispa 314, and about 50% of this quantity were riboside forms — zeatin riboside and isopentenyladenosine (Table 1).The highest level of ribosides was found in F. officinalis 5004 (Table 3). Thus, these two basidomycetes species may be regarded as perspective to obtaining highly biologically active preparations from their mycelial biomass to be further tested for a therapeutic effect and use to make treating and prophylactic remedies.
Thus, for the first time cytokinins were qualitatively and quantitatively analyzed in mycelial biomass of six medicinal mushrooms species — Ganoderma lucidum, Trametes versicolor, Fomitopsis officinalis, Pleurotus nebrodensis, Grifola frondosa, Sparassis crispa — using HPLC. The widest cytokinins spectrum was shown in G. lucidum, strain 1900. The largest riboside-type cytokinins content was detected in S. crispa, strain 314 and F. officinalis, strain 5004. The endogenous cytokinin concentration per gram of dry weight in mycelial biomass was considerably higher as compared with plants. The fungi raw material exsiccation can be offered as one of the possible stages in biotechnology of high biological active preparations obtaining.
The work was supported by the National Academy of Sciences of Ukraine under the complex interdisciplinary program of scientific research "Molecular and Cell Biotechnologies for the Medicine, Industry and Agriculture".
REFERENCES
1. Sytnik K. M., Musatenko L. I., Vasjuk V. A., Vedenicheva N. P., Generalova V. N, Martyn G. I., Nesterova A. N. Hormonal complex of plants and fungi. Kyiv:Akademperiodyka. 2003, 186 p. (In Ukrainian).
2. Hinsch J., Vrabka J., Oeser B., Novák O., Galuszka P., Tudzynski P. De novo biosynthesis of cytokinins in the biotrophic fungus Claviceps purpurea. Environm. Microbiol. 2015, V. 17, P. 2935-2951. doi: 10.1111/1462-2920.12838.
3. Morrison E. N., Knowles S., Hayward A., Thorn R. G., Saville B. J., Emery R. J. Detection of phytohormones in temperate forest fungi predicts consistent abscisic acid production and a common pathway for cytokinin biosynthesis. Mycologia. 2015, V. 107, P. 245-257. doi: 10.3852/14-157.
4. Kieber J. J., Schaller G. E. Cytokinins. The Arabidopsis Book. 2014. 11:e0168. doi:10.1199/tab.0168.
5. Vanková R. Cytokinin regulation of plant growth and stress responses. Phytohormones: a window to metabolism, signaling and bio-technological applications. Tran L.-S., Pal S. (Eds.). N. Y., Heidelberg, Dordrecht, London: Springer Science + Business Media. 2014, P. 55-80.
6. Romanov G. A. How do cytokinins affect the cell? Russian J. Plant Physiol. 2009, V. 56, P. 268-290. doi: 10.1134/S1021443709020174.
7. Stirk W. A., Van Staden J. Flow of cytokinins through the environment. Plant Growth Regul. 2010, V. 62, P. 101-116. doi: 10.1007/ s10725-010-9481-x.
8. Castillo G., Torrecillas A., Nogueiras C., Michel-ena G., Sanchez-Bravo J., Acosta M. Simultaneous quantification of phytohormones in fermentation extracts of Botryodiplodia theo-bromae by liquid chromatography-electrospray tandem mass spectrometry. World J. Microbi-ol. Biotechnol. 2014, V. 30, P. 1937-1946. doi: 10.1007/s11274-014-1612-5.
9. Van Staden J., Nicholson R. I. D. Cytokinins and mango flower malformation II. The cytokinin complement produced by Fusarium moniliforme and the ability of the fungus to incorporate [8-14C] adenine into cytokinins. Physiol. Mol. Plant Pathol. 1989, V. 35, P. 423-431. doi: 10.1016/0885-5765(89)90061-1.
10. Choi J,, Choi D., Lee S., Ryu C.-M., Hwang I. Cytokinins and plant immunity: old foes or new friends? Trends Plant Sci. 2011, V. 16, P. 388-394. doi: 10.1016/j.tplants.2011.03.003.
11. Spíchal L. Cytokinins — recent news and views of evolutionally old molecules. Funct. Plant Biol. 2012, V. 39, P. 267-284. http:// dx.doi.org/10.1071/FP11276.
12. Dua I. S., Jandaik C. L. Cytokinins in two cultivated edible mushrooms. Scientia
Horticulturae. 1979, V. 10, P. 301-304. doi: 10.1016/0304-4238(79)90086-4.
13. Crafts C. B., Miller C. O. Detection and identification of cytokinins produced by mycorrhizal fungi. Plant Physiol. 1974, V. 54, P.586-588.
14. Vedenicheva N. P., Generalova V. N., Bisko N. A., Musatenko L. I., Dudka I. A. Phytohormonal complex of oyster mushrooms. Ukr. Botan. J. 1997, V. 54, P. 266-271. (In Ukrainian).
15. Ozcan B. GA3, ABA and cytokinin production by Lentinus tigrinus and Laetiporus sulphureus fungi cultured in the medium of olive oil mill waste. Turk. J. Biol. 2001, V. 25, P. 453-462.
16. Turker M., Demirel K., Uzun Y., Battal P., Tileklioglu B. Determination of phytohor-mones level in some dried and fresh macrofungi taxa. Phyton — Annales rei Botanicae. 2005, V. 45, P. 145-157.
17. Wasser S. P. Medicinal mushroom science: Current perspectives, advances, evidences, and challenges. Biomed. J. 2014, V. 37, P. 345-356. doi: 10.4103/2319-4170.138318.
18. Casati S, Ottria R, Baldoli E, Lopez E., Maier J. A. M, Ciuffreda P. Effects of cytokinins, cytokinin ribosides and their analogs on the viability of normal and neoplastic human cells. Anticancer Res. 2011, V. 31, P. 3401-3406.
19. Kolyachkina S. V., Tararov V. I., Alexeev C. S., Krivosheev D. M. , Romanov G. A., Stepano-va E. V., Solomko E. S., Inshakov A. N., Mikhailov S. N. N6-substituted adenosines. Cytokinin and antitumor activities. Collect, Czech. Chem. Commun. 2011, V. 76, P. 1361-1378. http://dx.doi.org/10.1135 /cccc2011114.
20. Molinsky J., Klanova M., Koc M., Beranova L., Andera L., Ludvikova Z., Bohmova M., Gasova Z., Strnad M., Ivanek R., Trneny M., Necas E., Zivny J., Klener P. Roscovitine sensitizes leukemia and lymphoma cells to tumor necrosis factor-related apoptosis-inducing ligand-induced apoptosis. Leuk Lymphoma. 2013, V. 54, P. 372-380. doi: 10.3109/10428194.2012.710331.
21. Solomko E. Ph., Mytropolskaya N. Yu. Obtaining of Lentinus edodes (Berk.) Sing. sowing material by deep method. Mycol. Phytopatol. 1994, V. 28, P. 34-39. (In Russian).
22. Musatenko L., Vedenicheva N., Vasyuk V., Generelova V., Martyn G., Sytnik K. Phyto-hormones in seedlings of maize hybrids differing in their tolerance to high temperatures. Russian J. Plant Physiol. 2003, V. 50, P. 499-504. doi: 10.1023 /A:1024704303406.
23. Frebort I., Kowalska M., Hluska T., Frebor-tova J., Galuszka P. Evolution of cytokinin biosynthesis and degradation. J. Exp. Bot. 2011, V. 62, P. 2431-2452. doi: 10.1093/ jxb/err004.
24. Schäfer M., Brütting C., Meza-Canales I. D., Großkinsky D. K., Vankova R., Baldwin I. T., Meldau S. The role of cis-zeatin-type cytokinins in plant growth regulation and mediating responses to environmental interactions. J. Exp. Bot. 2015, V. 66, P. 4873-4884. doi:10.1093/jxb/erv214.
25. Werner T., Schmülling T. Cytokinin action in plant development. Curr. Opin. Plant Biol.
2009, V. 12, P. 527-538. doi: 10.1016/j. pbi.2009.07.002.
26. Gargano M. L., Zervakis G. I., Venturella G. Cultivation and nutritional value of Pleurotus nebrodensis. Pleurotus nebrodensis, A Very Special Mushroom. Gargano M. L., Zervakis G. I., Venturella G. (Eds.). Bentham Science Publishers. 2013, P. 99-120. doi: 10.2174/9781608058006 1130101.
27. Hobbs Ch. Medicinal mushrooms: An exploration of tradition, healing and culture. Santa Cruz: Botanica Press. 1995, 251 p.
28. Zhang J., Huang C. Study on germplasm characteristics of Pleurotus nebrodensis in China. Int. J. Med. Mushrooms. 2007, V. 9, P. 365. doi: 10.1615/IntJMedMushr. v9.i34.90.
29. Adachi Y., Okazaki M., Ohno N., Yadomae T. Enhancement of cytokine production by macrophages stimulated with (1-3)-beta-D-glucan, grifolan (GRN), isolated from Grifola frondosa. Biol. Pharm. Bull. 1994, V. 17, P. 1554-1560.
30. Wasser S. P., Weis A L. Medicinal properties of substances occurring in higher basidiomycetes mushrooms: current perspectives (review). Int. J. Med. Mushrooms. 1999, V. 1, P. 31-62. doi: 10.1615/IntJMedMushrooms.v1.i1.30.
31. Wasser S. P. Medicinal mushroom science: History, current status, future trends, and unsolved problems. Int. J. Med. Mushrooms.
2010, V. 12, P. 1-16. doi: 10.4103/23194170.138318.
32. Kwon A. H., Qiu Z., Hashimoto M., Kimura T. Effects of medicinal mushroom (Sparassis crispa) on wound healing in streptozotocin-induced diabetis rats. Amer. J. Surgery. 2009, V. 197, P. 503-509. doi: 10.1016/j. amjsurg.2007. 11.021.
33. YamamotoK.,Inose T.,Kimura T., SugitachiA., Matsuura N. Anti-angiogenic and anti-metastatic effects of beta-1,3-d-glucan purified from Hanabiratake, Sparassis crispa. Biol. Pharmaceut. Bull. 2009, V. 32, P. 503-509.
34. Yoshikawa K., Kokudo N., Hashimoto T., Yamamoto K., Inose T., Kimura T. Novel phthalate compounds from Sparassis crispa (Hanabiratake), Hanabiratakelide A-C, exhibiting anticancer related activity. Biol. Pharmaceut. Bull. 2010, V. 33, P. 1355-1359.
35. Chen X., Hu Z. P., Yang X. X., Huang M., Gao Y. Monitoring of immune responses
to a herbal immuno-modulator in patients with advanced colorectal cancer. Int. Immunopharmacol. 2006, V. 6, P. 499-508. doi: 10.1016/j.intimp. 2005.08.026.
36. Paterson R.R. Ganoderma — a therapeutic fungal biofactory. Phytochemistry. 2006, V. 67, P. 1985-2001.
37. Patel S., Goyal A. Recent developments in mushrooms as anti-cancer therapeutics: a review. Biotech. 2012, 2 (1), 1-15. doi: 10.1007/sl13205-011-0036-2.
38. Schaller G. E., Street I. H., Kieber J. J. Cytokinin and the cell cycle. Curr. Opin. Plant Biol. 2014, V. 21, P. 7-15. doi: 10.1016/j. pbi.2014.05.015.
39. Voller J., Zatloukal M., Lenobel R., Dolezal K., Beres T., Krystof V., Spichal L., Niemann P., Dzubak P., Hajduch M., Strnad M. Anticancer activity of natural cytokinins: A structure-activity relationship study. Phytochemistry. 2010, V. 71, P. 1350-1359. doi: 10.1016/j. phytochem.2010.04.018.
40. Castiglioni S., Casati S., Ottria R., Ciuffreda P., Maier J. A. M. N6-isopentenyladenosine and its analogue N6-benzyladenosine induce cell cycle arrest and apoptosis in bladder carcinoma T24 cells. Anti-Cancer Agents Med. Chem. 2013, V. 13, P.672-678.
41. Spinola M., Colombo F., Falvella F. S, Dragani T. A. N6-Isopentenyladenosine: A potential therapeutic agent for a variety of epithelial cancers. Int. J. Cancer. 2007, V. 120, P. 2744-2748. doi: 10.1002/ ijc.2260110.1007/s13205-011-0036-2.
42. Colombo F., Falvella F. S., De Cecco L., Tortoreto M., Pratesi G., Ciuffreda P., Ottria R., Santaniello E., Cicatiello L., Weisz A., Dragani T. A. Pharmacogenomics and analogues of the antitumour agent N 6 -isopentenyladenosine. Int. J. Cancer. 2009, V. 124, P. 2179-2185. doi: 10.1002/ijc.24168.
43. Tararov V. I., Tijsma A., Kolyachkina S. V., Oslovsky V. E., Nevts J., Drenichev M. S., Leyssen P., Mikhailov S. N. Chemical modification of the plant isoprenoid cytokinin N 6-isopentenyladenosine yields a selective inhibitor of human enterovirus 71 replication. Eur. J. Med. Chem. 2015, V. 90, P. 406-413. doi: 10.1016/j.ejmech.2014.11.048.
44. Ciaglia E., Pisanti S., Picardi P., Laezza C., Malfitano A. M., D'Alessandro A., Gazzer-ro P., Vitale M., Carbone E., Bifulco M. N6-isopentenyladenosine, an endogenous isoprenoid end product, directly affects cytotoxic and regulatory functions of human NK cells through FDPS modulation. J. Leukocyte Biol. 2013, V. 94, P. 1207-1219. doi: 10.1189/jlb.0413190.
45. Bifulco M., Malfitano A. M., Proto M. C., Santoro A., Caruso M. G., Laezza C.
Biological and pharmacological roles of N6-isopentenyladenosine: an emerging anticancer drug. Anticancer Agent Med. Chem. 2008, V. 8, P. 200-204. doi: http:// dx.doi.org/10.2174/187152008783497028.
46. Ottria R., Casati S., Manzocchi A., Baldoli E, Mariotti M, Maier J. A. M.,
Ciuffreda P. Synthesis and evaluation of in vitro anticancer activity of some novel isopentenyladenosine derivatives. Bioorg. Med. Chem. 2010, V. 18, P. 4249-4254. doi: 10.1016/j.bmc.2010.04.093.
ЕНДОГЕНН1 ЦИТОК1Н1НИ У МЩЕЛЯРН1Й Б1ОМАС1 Л1КАРСЬКИХ БАЗИД1ОМ1ЦЕТ1В
H. П. Веденичова Г. А. Аль-Maani
Н. Ю. Митропольська
О. Б. Михайлова Н. А. Б^ько
I. В. Косатвська
1нститут ботанши îm. М. Г. Холодного НАН Украши, Кшв
E-mail: [email protected]
Мета роботи — досл^ити продукування цитошшшв лшарськими базидieвими грибами. Уперше методом високоефективно! рщин-но! хроматографы було щентифшовано цитокь нiни та визначено ïx вмiст у мщелярнш бiомасi 6 видiв (Ganoderma lucidum, Trametes versicolor, Fomitopsis officinalis, Pleurotus nebrodensis, Grifola frondosa, Sparassis crispa). Виявлено зеатин (транс- i цис-форма), зеатин-рибозид, зеатин-О-глюкозид, iзопентенiладе-нозин та iзопентенiладенiн, проте всi щ форми були присутнi лише в одного виду (G. lucidum, штам 1900). Найбшьший сумарний вмiст ци-токiнiнiв визначено у F. officinalis, штам 5004. У мщеляршй бшмаи S. crispa, штам 314, i F. оfficinalis, штам 5004, виявлено найвищий рiвень рибозидних форм цитошшшв (зеатин-рибозиду й iзопентенiладенозину). Обговорю-еться можливий взаемозв'язок мiж лшарськими властивостями дослщжених базидiомiцетiв та виявленими цитокшшами. S. crispa, штам 314, i F. оfficinalis, штам 5004, розглядають як перспективш види для створення б^тех-нологiï отримання з ïxньоï мiцелярноï бiомаси препарамв iз бiологiчною активнiстю. Одним iз можливих теxнологiчниx пiдxодiв може бути висушування грибного матерiалу.
Ключовi слова: лшарсьш гриби, мiцелярна бiомаса, цитокшши.
ЭНДОГЕННЫЕ ЦИТОКИНИНЫ В МИЦЕЛЯРНОЙ БИОМАССЕ ЛЕКАРСТВЕННЫХ БАЗИДИОМИЦЕТОВ
Н. П. Веденичева Г. А. Аль-Маали Н. Ю. Митропольская О. Б. Михайлова
Н. А. Бисько И. В. Косаковская
Институт ботаники им. Н. Г. Холодного НАН Украины, Киев
E-mail: [email protected]
Целью работы было исследование продуцирования цитокининов лекарственными базидиевыми грибами. Впервые методом высокоэффективной жидкостной хроматографии были идентифицированы цитокинины и определено их содержание в мицелярной биомассе 6 видов (Ganoderma lucidum, Trametes versicolor, Fomitopsis officinalis, Pleurotus nebrodensis, Grifola frondosa, Sparassis crispa). Выявлены зеатин (транс- и цис-форма), зеа-тинрибозид, зеатин-О-глюкозид, изопентени-ладенозин и изопентениладенин, однако все эти формы присутствовали только у одного вида (G. lucidum, штамм 1900). Наибольшее суммарное количество цитокининов определено у F. officinalis, штамм 5004. В мицелярной биомассе S. crispa, штамм 314, и F. officinalis, штамм 5004, обнаружен наиболее высокий уровень рибозидных форм цитокининов (зе-атинрибозида и изопентениладенозина). Обсуждается возможная взаимосвязь между лекарственными свойствами исследованных базидиомицетов и цитокининов. S. crispa, штамм 314, и F. оfficinalis, штамм 5004, рассматривают как перспективные виды при разработке биотехнологии получения из их мице-лярной биомассы препаратов с биологической активностью. Одним из возможных технологических подходов может быть высушивание грибного материала.
Ключевые слова: лекарственные грибы, мице-лярная биомасса, цитокинины.
