Науковий вісник Східноєвропейського національного університету
імені Лесі Українки. Серія: Біологічні науки, 2019, 3 (387)
УДК 582.28
Initiation of Basidioma Formation of Rare and Medicinal
Macromycetes in Pure Culture
Maryna Sukhomlyn1, Vitaliia Didenko1, Nadiia Tsvyd1*, Yurii Petrychuk2
Educational and Scientific Centre «Institute of Biology and Medicine», Taras Shevchenko National
University of Kyiv, Kyiv, Ukraine
2
Hutsulshchyna National Nature Park, Kosiv, Ukraine
Correspondence: suhmary@ukr.net
1
Abstract. More than 5000 species of Ascomycetes and Agaricales fungi are known nowadays. However,
30 species of them are intensively cultivated and have been used into the agriculture. One of the reasons of a
small number of species that can be grown in industrial culture are unclear conditions for the basidiomes
formation. Basidiomes and mycelium include various nutritional substances that are used in food, medicine,
cosmetics, etc. Recently, the biosynthesis of fungal biologically active substances with immunomodulation,
radioprotective, antitumor, antiviral and other properties is under investigation by many scientists. Only 15 % of
all products of medical mushrooms are made from extracts of mycelium. Verification of conditions of mushroom
cultivation will significantly expand the range of species that could serve as a potential object for biotechnology.
29 species of macromycetes from the pure Cultures Collection of Fungi (FCKU) of Educational and
Scientific Centre «Institute of Biology and Medicine» Taras Shevchenko National University of Kyiv were used
in our experiment. The initiation basidiomes formation of 29 macromycetes on different substrates in pure
culture was studied. The optimal substrate for the studied species was husk of sunflower seeds. Most fungi
formed basidiomes on it. If mushrooms did not formed basidiomes on this substrate, they fastest it overgrown or
developed primordia or sclerotium-shaped structures. The shaping of the basidiomes, primordia or sclerotiashaped structures was observed in 28 species. Three of these species were listed in the Red Book of Ukraine
(Grifola frondosa, Leucoagaricus barsii, Sparassis crispa) and others rare species for Ukraine (Ceriporia
viridans, Hericium cirrhatum, Sarcodontia crocea, Sparassis laminosa).
Key words: basidiomes formation, medicinal macromycetes, pure cultures, rare species, sclerotium-shaped
structures.
Ініціація формування плодових тіл рідкісних та лікарських
грибів в умовах чистої культури
Марина Сухомлин1, Віталія Діденко1, Надія Цвид 1, Юрій Петричук2
Навчально-науковий центр «Інститут біології та медицини» Київського національного університету
імені Тараса Шевченка, Київ, Україна
2
Національний природний парк «Гуцульщина», Косів, Україна
Адреса для листування: suhmary@ukr.net
1
Отримано: 18.02.19; прийнято до друку:20.03.19; опубліковано: 28.06.19
Резюме. Вивчено ініціацію утворення плодових тіл 29 видів грибів на різних субстратах в умовах
культури. У результаті скринінгу цих макроміцетів у 28 видів спостерігали формування плодових тіл,
примордіїв або склероцієподібних структур. Також плодові тіла формували (Grifola frondosa,
Leucoagaricus barsii, Sparassis crispa) три види, що занесені до Червоної книги України, та декілька
рідкісних видів для України (Ceriporia viridans, Hericium cirrhatum, Sarcodontia crocea, Sparassis
laminose).
Ключові слова: формування плодових тіл, лікарські гриби, чиста культура, рідкісні види,
склероцієподібні структури.
© Сухомлин М., Діденко В., Цвид Н., Петричук Ю., 2019
17
Lesia Ukrainka Eastern European National University Scientific Bulletin Series:
Biological Sciences, 2019,3 (387)
Species names were agreed according to the
Introduction
current names in the International Database of
More than 5000 species of Ascomycetes and
Mushrooms. The cultures are stored in test tubes
Agaricales fungi are known nowadays. Only
with a potato-glucose agar medium (PGA) in an
approximately 2,000 species are considered edible
equipped room, 4-8 °C temperature. We used
(Lakhanpal, Rana, 2005). However, 30 species of
different nutrient media, substrates and substrates
them are intensively grown and have been entered
combinations for the basidiomes formation.
into the culture (Akata et al., 2012; Buchalo, 1988;
The nutrient media are potato-glucose agar
Krupodorova et al., 2012).
medium (PGA) and liquid potato-glucose nutrient
Basidiomes and mycelium include various
medium (PG).
nutritional substances that are used in food,
The substrates are husks of pumpkin, husk of
medicine, cosmetics, etc. (Ikekawa et al., 2004;
sunflower seeds, boiled wheat grains, pine
Gao et al., 2005; Carvaja et al.l, 2012). Medical
sawdust, ground coffee beans.
properties were described for many macromycetes
The substrate combinations are mixtures of
(Dovgiy et al., 2013; Krupodorova et al., 2012;
ground coffee beans and husk of sunflower seeds,
Solomko, Lomberg, 2005; Wasser, 2010).
a mix of pine sawdust with husk of sunflower
Recently, the biosynthesis of fungal biologically
seeds, a mix of a husk of sunflower seeds with
active substances with immunomodulation,
sawdust of hardwoods.
radioprotective, antitumor, antiviral and other
50g substrates have put into 250 ml Erlenmeyer
properties is an investigation by many scientists
flask or flat-bottomed round flask. Each flask with
(Engler, 1998; Takaku et al., 2001; Zjawiony 2004;
substrates was filled with 50 ml of water. The
Mariga et al., Vaz et al., 2010; Jeena et al., 2014).
moisture content of the solid media was adjusted to
The medicinal mushrooms products derived from
65 % (w/w) on a wet basis. 50 g of the liquid
basidiomes have been commercially grown or pick
potato-glucose nutrient medium have poured into
up from the wild. Only 15 % of all products of
250 ml flat-bottomed round flask. All nutrient
medical mushrooms are made from extracts of
media, substrates and substrate combinations were
mycelium (Lindequist et al., 2005). However, in
prepared according to generally accepted methods
our opinion, almost all mushrooms may be
and were autoclaved at 120°C for 30 min.
medical, but we don’t know it precisely yet.
(Buchalo, 1988; Ohta and Fujiwara, 2003).
Now scientists are studying intensely fungi but
Mycelia agar-plugs (3–5 mm diam.) cut from
their special interest is an investigation of
the periphery of the growing colony and were put
mycorrhizal fungi (Sanmee et al., 2010; Akata et
to flasks with nutrient media, substrates and
al., 2012; Endo et al., 2014). One of the reasons a
substrate combinations. After then, inoculated
small number of species that can be grown in
flasks were incubated in darkness at an optimal
industrial culture are unclear conditions for the
temperature for mycelium growing of these
basidioma formation. Verification of conditions
species. When the surface of the medium was
mushrooms cultivation will significantly expand
covered by mycelium, incubation conditions were
the range of species that could be a potential object
changed to daylight with temperature to 16–18°C
for biotechnology. So, the study of the mushrooms
for fruit body formation. Maximum light intensity
basidiomes formation in culture is important in
was 1600–2000 lux daily.
many aspects. The purpose of our work was the
The Thiamine (Vitamin B1) (0,25 mg added to
initiation of basidioma formation of rare and
each flask) or selenium (Se) (0,125 g in each flask)
medical mushrooms in culture.
have put in some substrates for initiation
basidiomes formation. The beginning of
Materials and Мethods
basidiomes formation was determined of
primordium appearance.
The 29 species of macromycetes from the pure
Same basidiomes of studying mushrooms
Cultures Collection of Fungi (FCKU) of Educahave formed spores that were checking by
tional and Scientific Centre Institute of «Biology
microscope. We used statistical analysis to test our
and Medicine» Taras Shevchenko National
data. The entire process was repeated with five
University of Kyiv have used in our experiment
replicates.
(tab.1). Collection FCKU was registered in the
World Federation of Cultures collections and
Results
includes 51 species: 19 species of them are edible,
5 – inedible, 1 - poisonous, 4 - included in the Red
The investigated species of fungi, their location
Data Book of Ukraine (2009) and 4 are rare
source and the success of basidiomes formation in
species that need additional protection.
vitro are shown in table 1.
18
http://journalbio.eenu.edu.ua
Науковий вісник Східноєвропейського національного університету
імені Лесі Українки. Серія: Біологічні науки, 2019, 3 (387)
Table 1
Successful of Basidiomes Formations of Studied Macromycetes in Vitro
Species
Origin
Date
of Collection
Edibility
Rarity
Basidiomes
in Pure
Culture
1
2
3
4
5
6
Ascocoryne
sarcoides
Kiev region
September, 2010
NK
F
October, 2006
E
SS, R
June, 2012
NE
F
September, 2008
NE
SS
June, 2005
E
F
June, 20011
NE
F
October, 2003
E
RB
F
June, 2008
E
R
F
Kiev region
October, 2011
P
F
Kiev region
October, 2011
NE
F
June, 2008
NE
SS
June, 2007
E
F
November, 2008
E
September, 2009
E
F
September, 2005
NE
F
May, 2008
E
May, 2009
E
SS
April, 2012
E
SS
May, 2004
E
RB
SS
RB
SS
Armillaria
mellea
Ceriporia
viridans
Chondrostereum
purpureum
Coprinus
micaceus
Coprinellus
domesticus
Grifola frondosa
Hericium
cirrhatum
Hypholoma
fasciculare
Hypholoma
sublateritium
Lentinus
cyathiformis
Lentinus tigrinus
Leucoagaricus
barsii
Marasmius
scorodonius
Meripilus
giganteus
Morchella
crassipes
Morchella elata
Morchella
esculenta
Morchella
steppicola
Mutinus caninus
Oudemansiella
longipes
Oudemansiella
radicata
Phallus
impudicus
Pleurotus
calyptratus
Polyporus
squamosus
Розділ І. Ботаніка
Kherson region,
Chornomorsky State
Biosphere Reserve
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Kiev region
Volnovakha district,
Donetsk region
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Sloviansky district,
Donetsk region
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Cherkasy region
Trakhtemyriv village,
Kaniv distric, Cherkasy
region
Kiev region
Volnovakha distric,
Donetsk region
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Lutsk
Kiev region,
RB
RB
F
SS
Volnovakha district,
Donetsk region
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Kyiv, Holosiyvsky
National Nature Park
Kaniv, Cherkasy region,
Kaniv Nature Reserve
Kaniv, Cherkasy region,
Kaniv Nature Reserve
June, 2007
NE
September, 2013
NE
F
June, 2007
E
SS
June, 20011
E
N
Kiev region
October, 2012
E
SS
Sosnytsia district,
Chernihiv region
October, 2010
E
F
19
Ініціація формування плодових тіл рідкісних та лікарських грибів в умовах чистої культури
Continuation of Table 1
1
Pycnoporus
cinnabarinus
Sarcodontia
crocea
Sparassis crispa
Sparassis
laminosa
2
3
4
Kiev region
September, 2011
NE
October, 2010
NE
R
F
September, 2013
E
RB
F
September, 1996
E
R
F
Sosnytsia district,
Chernihiv region
Kiev region
Artemivsk district,
Donetsk region
5
6
F
Note. Edibility: E – edible species, N – inedible species, O – poisonous species; Rarity: R – rare species,
RB – species listed in the Red Data Book of Ukraine; Successful fruit formation: SS – species that formed
primordia or sklerotium-shaped structures, F– species, which formed basidiomes in a pure culture,
N – species that did not form basidiomes.
Primarily, all of investigated species have
basidiomes formation on the three type of
substrates such as husk of sunflower seeds, PGA
and PG. The time (days) for overgrowth of the
substrate by mycelium, appearance of primordia
and basidiomes of all species are shown in table 2.
Table 2
Fouling Substrate and Basidiomes Formation of Studied Species (Days)
Type of Substrates
PG
20
Basidioma
Appearance
Full Fouling
Substrate
The
Appearance
of Primordia
Basidioma
Appearance
Full Fouling
Substrate
The
Appearance
of Primordia
Basidioma
Appearance
1
Ascocoryne
sarcoides
Armillaria mellea
Morchella
crassipes
Morchella elata
Morchella
esculenta
Morchella
steppicola
Chondrostereum
purpureum
Coprinus
micaceus
Coprinellus
domesticus
Grifola frondosa
Ceriporia viridans
Hericium
cirrhatum
Hypholoma
fasciculare
Hypholoma
sublateritium
The
Appearance
of Primordia
Species
Husk of Sunflower Seeds
Full Fouling
Substrate
PGA
2
3
4
5
6
7
8
9
10
10±0,6
14±0,3
16±0,3
13±0,9
-
-
14±0,4
20±0,9
34±1,2
28±2,5
36±1,5
-
32±3,5
-
-
43±0,2
56±1,3
-
5±0,7
14±1,3
-
6±0,8
-
-
13±0,3
2 ±0,4
-
6±0,9
16±1,3
-
7±0,9
20±0,4
-
13±0,3
21±0,4
-
7±0,4
18±1,3
-
9±0,4
-
-
13±0,3
21±0,4
-
8±0,3
21±2,3
-
9±0,3
-
-
13±0,3
21±0,4
-
8±0,8
-
-
8±1,5
-
-
10±0,3
32±0,2
-
14±0,4
20±0,3
21±0,8
16±0,7
-
-
19±0,9
25±0,6
26±0,2
13±0,5
19±0,3
20±0,4
14±0,5
-
-
19±0,6
24±0,2
25±0,2
15±0,8
15±1,0
25±0,7
32±1,2
80±0,3 108±0,2
22±1,1
-
118±0,9 25±0,7
24±1,6
76±0,2
33±2,2
79±0,9
44±2,8
14±0,5
18±0,8
21±0,7
35±0,6
41±0,7
45±0,3
20±0,5
25±0,9
30±0,5
18±0,9
-
-
30±0,2
-
-
33±0,1
39±0,2
45±0,8
33±1,7
22±1,9
47±2,9
32±1,3
-
-
42±2,2
48±2,4
54±1,8
Сухомлин М., Діденко В., Цвид Н., Петричук Ю.
Науковий вісник Східноєвропейського національного університету
імені Лесі Українки. Серія: Біологічні науки, 2019, 3 (387)
Continuation of Table 2
1
Lentinus tigrinus
Lentinus
cyathiformis
Leucoagaricus
barsii *
Marasmius
scorodonius *
Meripilus
giganteus
Mutinus caninus
Oudemansiella
longipes
Oudemansiella
radicata
Phallus impudicus
Pleurotes
calyptratus
Polyporus
squamosus
Pycnoporus
cinnabarinus
Sarcodontia
crocea
Sparassis crispa
Sparassis
laminosa
2
11±0,3
3
20±0,6
4
29±1,8
5
43±0,3
6
-
7
-
8
14±0,3
9
35±0,9
10
39±0,3
14±0,5
-
-
18±1,8
-
-
22±0,2 137±0,4
19±1,3
-
-
16±2,6
-
-
32±2,3
91±4,9
96±5,3
15±0,7
-
-
49±0,3
-
-
31±0,3
37±0,9
41±0,3
10±0,7
14±1,2
20±0,9
13±0,3
-
-
10±0,3
16±0,8
18±0,5
10±0,4
21±0,6
-
12±0,3
24±0,9
-
16±1,2
28±1,7
-
14±0,4
-
-
21±2,8
-
-
18±1,4
31±2,5
37±3,1
12±0,6
32±1,7
-
22±3,4
-
-
16±0,4
23±0,2
-
32±3,4
-
-
23±2,3
-
-
25±2,4
-
-
10±0,7
-
-
18±1,3
-
-
11±1,3
132±0,3
-
10±0,4
20±1,3
-
16±0,8
-
-
17±0,1
35±0,3
43±0,1
9±0,8
20±1,5
25±2,1
20±0,7
32±0,3
53±1,5
14±0,5
50±0,7
63±0,1
17±0,5
25±0,7
30±0,7
20±0,3
-
-
25±0,8
36±0,7
41±0,9
16±0,2
20 ±0,7
23 ±0,7
22 ±0,4
41 ±0,7
46 ±0,7
17 ±0,1
35 ±0,3
43 ±0,1
16±0,2
-
-
13±0,5
-
-
23±0,2
25±1,8
33±0,4
-
Note. Column «The appearance of primordial» contains the results of appearance primordia or
sclerotium-shaped structures; * – macromycetes generated sporocarps after coverage by soil and
additional moisture into medium.
According to the table 2, M. gianteus had
the fastest mycelium growing. Mycelium of this
mushroom wholly covered the sunflower husk
substrate and PG medium during 10 and 13 days of
cultivations respectively. F. velutipes had the
slowest mycelium growing. The sunflower husk
substrate have had completely covered F. velutipes
mycelium after 66 days cultivations and 45 days
after PG medium cultivation accordingly.
Mycelium of almost investigated species,
except Phallus impudicus L., was forming
primordias and sclerotium-shaped structures on the
tested substrates (fig.1).
Some species formed primordia even before full
fouling of the substrate by the mycelium. M.
giganteus have formed primordia on the sunflower
husk substrate the fasted amount investigation
mushrooms after 16 days of cultivations.
Ascocoryne sarcoides (Jacq.) J. W.Groves &
D. E. Wilson, Coprinus micaceus (Bull.: Fr.)
Vilgalys, Hopple & Jacq. Johnson, Coprinellus
domesticus (Bolton) Vilgalys, Hopple &
Jacq.Johnson, Grifola frondosa (Dicks.) Gray,
Розділ І. Ботаніка
Hericium cirrhatum (Pers.) Nikol., Hypholoma
fasciculare (Huds.: Fr.) P. Kumm., Lentinus
tigrinus (Bull.) Fr., Leucoagaricus barsii (Zeller)
Vellinga, Marasmius scorodonius (Fr.) Fr.,
Meripilus giganteus Karst., Oudemansiella
longipes (Quél.) M. M. Moser, Pycnoporus
cinnabarinus (Jacq.) P. Karst., Sarcodontia crocea
(Schwein.) Kotl., Sparassis crispa (Wulfen) Fr. and
Sparassis laminosa Fries formed a well-developed
basidiomes on the husk of sunflower seeds (fig. 2).
The early basidiomes of M. giganteus looked
like light-coloured corals, but later they acquired in
a dark red colour. The most massive and intensive
basidiomes formation had in P. cinnabarinus
(fig. 2 D) on the husk of sunflower seeds substrate.
This fungus had basidiomes bright orange colour
on the walls of a flask.
As we see from Figure 2 basidiomes of
L. tigrinus has a stem of 3–4 cm length and cap of
2–6 cm diameter. The basidiomes of S. crocea
looked like sharp spines of creamy colour with 1 to
2 cm in size and located in groups throughout the
substrate surface (fig. 2 F).
21
Ініціація формування плодових тіл рідкісних та лікарських грибів в умовах чистої культури
Fig. 1. Primordium and Sclerotium-Shaped Structure of Macromycetes in Culture. Primordia of Lentinus
Tigrinus (A), Polyporus Squamosus (E), Hypholoma Sublateritium (B). Sclerotium-Shaped Structure
of Mutinus Caninus (C), Chondrostereum Purpureum (D), Oudemansiella Radicata (F), Morchella
Steppicola (G) and Hyphae Sclerotium-Shaped Structure on a Scanning Electron Microscope (H)
Fig. 2. Basidiomes Formation of Lentinus Tigrinus (A), Sparassis Laminosa (B), Oudemansiella Longipes
(C), Pycnoporus Cinnabarinus (D), Grifola Frondosa (E), and Sarcodontia Crocea (F) on Husk
of Sunflower Seeds
22
Сухомлин М., Діденко В., Цвид Н., Петричук Ю.
Науковий вісник Східноєвропейського національного університету
імені Лесі Українки. Серія: Біологічні науки, 2019, 3 (387)
of sunflower seeds substrate. Also, this plate was
M. scorodonіus formed brown basidiomes with
twisted at the ends and formed small spines in the
a stem of 4–5 cm length and cap of 1 cm diameter
center of the plate (fig. 3 D). basidiomes on PGA
(fig. 3 A). Also, this fungus had a garlic smell
had the form elongated strands with white color
which inherent in these species. Some macromyspines (fig. 3 F).
cetes generated sporocarps after additional coveThe ten of twenty-nine studied species don’t
rage by soil and added moistures (fig. 3 A and C).
form basidiomes.
Several species developed basidiomes on liquid
The
basidiomes
formation
of
rare
medium PG or PGA (fig. 3 B, D, E, F).
macromycetes S. laminosa and G. frondosa was
H. cirrhatum formed basidiomes on all type of
investigated in different substrates more details
tested media. The basidiomes look likes a white
(table 3).
colour plate on a liquid nutrient medium and husk
Fig. 3. Generation of Sporocarps After Additional Coverage By Soil and Additional Moisture by Marasmius
Scorodonіus (A) and Leucoagaricus Barsii (C). Basidiomes Formation by Grifola Frondosa (B), Hericium
Cirrhatum (D) on Liquid Medium (PG); Ascocoryne Sarcoides (E), Hericium Cirrhatum (F) on PGA
Table 3
Fouling Substrate and Basidiomes Formation by S. Laminosa and G. Frondosa (Days)
S. Laminosa
Type
of
Substrates
HPS
PS+HSS
H + HSS
CB
CB+HSS
WG
G. Frondosa
Full
Fouling
Substrate
The
Appearance
of Primordia
Basidioma
Appearance
Full Fouling
Substrate
The
Appearance
of Primordia
Basidioma
Appearance
7 ± 0,6
11 ± 0,4
9 ± 0,3
4 ± 0,7
27 ± 0,4
24 ± 0,8
24 ± 1,9
80 ± 2,1
–
–
–
–
–
85 ± 2,9
–
–
–
–
14 ± 0,5
14 ± 0,3
14 ± 1,3
12 ± 0,8
33 ± 0,5
32 ± 0,5
40 ± 0,8
70 ± 0,2
49 ± 0,4
–
55 ± 0,5
28 ± 0,3
43 ± 1,4
74 ± 1,2
53 ± 0,6
–
59 ± 0,4
–
Note. HPS – husk of pumpkin seeds; WG – wheat grain; CB – milled coffee beans; CB+HSS – mix of milled
coffee beans with husk of sunflower seeds; PS+HSS – mix of pine sawdust with husk of sunflower seeds; H +
HSS – mix sawdust of hardwood with husk of sunflower seeds.
Розділ І. Ботаніка
23
Ініціація формування плодових тіл рідкісних та лікарських грибів в умовах чистої культури
The coffee beans substrate was the fastest
primordia
or
sclerotium-shaped
structures
covered by mycelium of S. laminosa and G.
(Armillaria
mellea
(Vahl)
P.
Kumm.,
frondosa through 4 and 12 days respectively.
Chondrostereum purpureum (Pers.) Pouzar,
However, on this substrate, S. laminosa and G.
Lentinus cyathiformis (Schaeff.) Bres., Morchella
frondosa did not form primordia and basidiomes.
crassipes (Vent.) Pers., Morchella elata Fr.,
Although S. laminosa and G. frondosa slowly
Morchella esculenta Fr., Morchella steppicola
overgrown substrates, but basidiomes formed at
Zerova, Mutinus caninus, Pleurotus calyptratus
the faster on husk of sunflower seeds.
(Lindblad ex Fr.) Sacc., Polyporus squamosus
The only suitable substrate for fruiting S.
(Huds.) Fr. and Oudemansiella radicata (Relhan)
laminosa was a mix of pine sawdust and husk of
Singer) are promising for further research the
sunflower seeds. However, the basisiomes
initiation basidiomes formation in a pure culture.
formation takes a long time (80 days) on a mix of
pine sawdust with husk of sunflower seeds.
Reference
The favorable substrates for basidiomes
1. Akata, I.; Kalyoncu, F.; Solak, M. H.; Kalmis,
formation by G. frondosa were pumpkin seed
E. Growth of mycelium of three ectomycorrhizal
husks and a mix of hardwood sawdust and husk of
macrofungi,
Infundibulicybe
geotropa,
sunflower seeds. Its basidiomes were as small
Tricholoma
anatolicum
and
Lactarius
deliciosus
in
bushes that were initially white, later becoming
culture media containing various carbon sources.
brown at all types of substrate. The largest number
African Journal of Microbiology Research; 2012,
of basidiomes of G. frondosa was formed on a mix
6(12), 3042–3046.
of pine sawdust with husk of sunflower seeds, but
2. Buchalo, A. S. Higher Edible Basidiomycetes
they were very small. Large basidiomes are formed
in Pure Culture; Naukova Dumka: Kiev; 1988.
on a mix of milled coffee beans with husk of
3. Carvajal, A. E. S. S.; Koehnlein, E. A.; Soares,
sunflower seeds.
A. A.; Eler, G. J.; Nakashima, A. T. A.; Bracht, A.;
Peralta, R. M. Bioactives of fruiting bodies and
The effect of Thiamine (Vitamin B1) on the
submerged culture mycelia of Agaricus brasiliensis (A.
basidiomes formation was tested on S. laminosa.
blazei) and their antioxidant properties. LWT - Food
Vitamin B1 accelerated fouling substrate
Science and Technology; 2012, 46, 493–499.
mycelium (10 ± 1,5 days) and the mass of
4. Diduh, Ya. P. Red Book of Ukraine. Flora;
basidiomes. The term of basidiomes formation was
Hlobalkonsaltynh: Kyiv, 2009.
9 ± 1,3 days.
5. Dovgiy, R. S.; Pozur, V. V.; Svyatetska, V. N.;
The added Selenium in each of the flasks with
Suhomlyn, M. N.; Livinska, O. P.; Makarenko, A. N.
husk of sunflower seeds did not affect on the
Immunobiological action of extracts and medicines,
basidiomes formation of Mutinus caninus (Huds.)
obtained from mushrooms Ganoderma lucidum,
Fr., but speeded up fouling substrate by mycelium
Cordyceps sinensis and Leucoagaricus macrorhizus.
Bulletin
of the problems of biology and medicine (In
(average 9 ± 2,0 days).
Discussion
As a result screening of 29 macromycetes
species on the ability to produce basidiomes in
pure culture, the capacity of 28 of them was
installed, including possibility to form primordia or
sclerotium-shaped structures. Basidiomes were
obtained in three species, which are included in the
Red Data Book of Ukraine (G. frondosa, L. barsii,
S. crispa) and four rare species (Ceriporia viridans
(Berk. & Broome) Donk, H. cirrhatum, S. crocea,
S. laminosa) in pure culture.
The good substrate for the studied species
appeared husk of sunflower seeds. Most fungi
formed basidiomes on it. If mushrooms are not
formed basidiomes on this substrate, they fastest it
overgrown or developed primordia or sclerotiumshaped structures.
There is the positive effect of Vitamin B1 on
the indicators of the basidiomes formation for
example S. laminosa. The species that formed
24
Ukraine); 2013, 2(2), 44–49.
6. Endo, N.; Kawamura, F.; Kitahara, R.;
Sakuma, D.; Fukuda, M.; Yamada, A. Synthesis of
Japanese Boletus edulis ectomycorrhizae with Japanese
red pine. Mycoscience; 2014, 55(5), 405–416.
7. Engler, M.; Anke, T; Sterner, O. Production of
antibiotics by Collybia nivalis, Omphalotus olearis, a
Favolaschia and a Pterula species on natural substrates.
Z Naturforsch; 1988, 53(5–6), 318–24.
8. Gao,
Y.;
Chan,
E.;
Zhou,
S.
Immunomodulating activities of Ganoderma, a
mushroom with medicinal properties. Food Rev. Int.;
2004, 2(20), 123–161.
9. Ikekawa, T.; Ikekawa, A.; Shimada, F.
Physiologically active substance EEM-S originating in
mushrooms, process for producing the same and drugs.
2004, US 6783771 B2, Aug. 31.
10. Jeena,
G.
S.; Punetha,
H.; Prakash,
O.; Chandra, M.; Kushwaha, K. P. S. Study on in vitro
antioxidant potential of some cultivated Pleurotus
species (oyster mushroom). Indian Journal of Natural
Products and Resources; 2014, 5(1), 56–61.
11. Krupodorova, T. A.; Barshteyn, V. Yu.;
Bisko, N. A.; Ivanova, T. S. Some nutritional medicinal
fungi cultivated on amaranthus seed meal-based
Сухомлин М., Діденко В., Цвид Н., Петричук Ю.
Науковий вісник Східноєвропейського національного університету
імені Лесі Українки. Серія: Біологічні науки, 2019, 3 (387)
medium. International Journal of Medicinal Mushroom;
2012, 14(3), 295−293.
12. Lakhanpal, T. N.; Rana, M. Medicinal and
nutraceutical genetic resources of mushrooms. Plant
Genet. Resour. Charact. and Util; 2005, 2(3), 288–303.
13. Lindequist, U.; Niedermeyer, T. H. J.; Julich,
W.-D. The pharmacological potential of mushrooms.
Evidence-based Complementary and Alternative
Medicine; 2005, 2, 285–299.
14. Mariga, A. M.; Yang, W.-j.; Mugambi, D. K.;
Pei F.; Zhao, L.-y.; Shao, Y.-n. and Hu, Q.
Antiproliferative and immunostimulatory activity of a
protein from Pleurotus eryngii. J. Sci. Food Agric;
2014, 94(15), 3152–3162.
15. Ohta, A.; Fujiwara, N. Fruit-body production
of an ectomycorrhizal fungus in genus Boletus in pure
culture. Mycoscience; 2003, 44(4), 295–300.
16. Sanmee, R.; Lumyong, P.; Dell, B.; Lumyong,
S. In vitro cultivation and fruit body formation of the
black bolete, Phlebopus portentosus, a popular edible
ectomycorrhizal fungus in Thailand. Mycoscience;
2010, 51(1), 15–22.
17. Solomko, E. F.; Lomberg, M. L. The Selection
of Alternative Substrates for Medicinal. International
Journal of Medicinal Mushrooms. 2005, 7, 466.
Розділ І. Ботаніка
18. Takaku, T.; Kimura, Y.; Okuda, H. Isolation of
an antitumor compound from Agaricus blazei Murill
and its mechanism of action. The Journal of Nutrition;
2001, 131(5), 1409–1413.
19. Vaz, J.A.; Heleno, S.A.; Martins, A.; Almeida,
G.M.; Vasconcelos, M.H.; Ferreira, I.C.F.R. Wild
mushrooms Clitocybe alexandri and Lepista inversa:
in vitro antioxidant activity and growth inhibition of
human tumour cell lines. Food and Chemical
Toxicology; 2010, 48, 2881–2884.
20. Walter S. Non-wood forest products in Africa:
a regional and national overview. Les produits forestiers
non ligneux en Afrique: un aperçu régional et national.
FAO Forestry Department, Rome, August, 2001,
Working Paper/Document de Travail nr. FOPW/01/1.
21. Wasser, S. P. Medicinal Mushroom Science:
History, Current Status, Future Trends, and Unsolved
Problems. International Journal of Medicinal
Mushrooms; 2010, 12(1), 1–16.
22. Zjawiony, J. Biologically active compounds
from Aphyllophorales (Polypore) fungi. J Nat Prod;
2004, 67, 300–10.
25