Buscar en
Revista Iberoamericana de Micología
Toda la web
Inicio Revista Iberoamericana de Micología Use of lignocellulosic wastes of pecan (Carya illinoinensis) in the cultivation ...
Información de la revista
Vol. 35. Núm. 2.
Páginas 103-109 (Abril - Junio 2018)
Compartir
Compartir
Descargar PDF
Más opciones de artículo
Visitas
1730
Vol. 35. Núm. 2.
Páginas 103-109 (Abril - Junio 2018)
Original article
DOI: 10.1016/j.riam.2017.09.005
Acceso a texto completo
Use of lignocellulosic wastes of pecan (Carya illinoinensis) in the cultivation of Ganoderma lucidum
Utilización de residuos lignocelulósicos de la pacana (Carya illinoinensis) para el cultivo del hongo Ganoderma lucidum
Visitas
...
María Virginia Ozcariz-Fermosellea,
Autor para correspondencia
mvirginiaozcariz@gmail.com

Corresponding author.
, Raúl Fraile-Faberoa,b, Tomás Girbés-Juanb, Oscar Arce-Cervantesc, Juan Andrés Oria de Rueda-Salgueiroa, Anabela Marisa Azuld
a Cátedra de Micología, Escuela Técnica Superior de Ingenierías Agrarias, Campus Palencia, Universidad de Valladolid, Avenida de Madrid, 57, 34004 Palencia, Spain
b Nutrición y Bromatología, Facultad de Medicina, Universidad de Valladolid, Av. Ramón y Cajal n° 7, 47003 Valladolid, Spain
c Instituto de Ciencias Agropecuarias, Universidad Autónoma del Estado de Hidalgo, Rancho Universitario Av. Universidad km1, 43600 Tulancingo, Hgo, Mexico
d Center for Neuroscience and Cell Biology, Faculty of Medicine, University of Coimbra, Rua Larga, Pólo I, 1st Floor, 3004-504 Coimbra, Portugal
Información del artículo
Resumen
Texto completo
Bibliografía
Descargar PDF
Estadísticas
Figuras (3)
Mostrar másMostrar menos
Tablas (3)
Table 1. Solid substrates with the highest performance in the cultivation of the medicinal Ganoderma lucidum mushroom.
Table 2. Ganoderma lucidum growth on the six formulations of pecan wastes. Mycelium linear growth rate, biological efficiency (BE), production, and dry biological efficiency (DBE).
Table 3. Orthogonal contrast of yields in relation to the substrates with and without wood-chips of pecan branches (PB).
Mostrar másMostrar menos
Material adicional (1)
Abstract
Background

The wastes of pecan nut (Carya illinoinensis (Wangenh.) K. Koch) production are increasing worldwide and have high concentrations of tannins and phenols.

Aims

To study the biodegradation of lignocellulosic wastes of pecan used as solid substrate for the cultivation of the white-rot fungus Ganoderma lucidum (Curtis) P. Karst.

Methods

Six formulations of pecan wastes were used as solid substrate: pecan shells (PS100), pecan pericarp (PP100), pecan wood-chips (PB100), and the combinations PS50+PP50, PB50+PS50 and PB50+PP50. The substrates were inoculated with a wild strain of G. lucidum collected in the Iberian Peninsula. The biodegradation capability of G. lucidum was estimated by using the mycelial growth rate, the biological efficiency, the production and the dry biological efficiency.

Results

Notably, all solid substrates were suitable for G. lucidum growth and mushroom yield. The best performance in mushroom yield was obtained with PB100 (55.4% BE), followed by PB50+PP50 (31.7% BE) and PB50+PS50 (25.4% BE). The mushroom yield in the substrates containing pecan wood-chips (PB) was significantly higher.

Conclusions

Our study is leading the way in attempting the cultivation of G. lucidum on lignocellulosic pecan waste. These results show an environmentally friendly alternative that increases the benefits for the global pecan industry, especially in rural areas, and transforms biomass into mushrooms with nutraceutical properties and biotechnological applications.

Keywords:
Carya illinoinensis
Lignocellulosic waste
Ganoderma lucidum
Biological efficiency
Mushroom production
Resumen
Antecedentes

Los residuos de la producción de pacana (Carya illinoinensis [Wangenh.] K. Koch) se distribuyen por todo el mundo y poseen elevadas concentraciones de taninos y fenoles.

Objetivos

Estudiar la biodegradación de los residuos lignocelulósicos de la pacana usados como sustrato sólido para el cultivo de Ganoderma lucidum (Curtis) P. Karst.

Métodos

Se utilizaron seis formulaciones de sustratos sólidos a partir de los residuos: cáscara de la nuez (PS100), pericarpio de la nuez (PP100), astillas de ramas de poda (PB100) y las combinaciones PS50+PP50, PB50+PS50 y PB50+PP50. Los sustratos se inocularon con las hifas de una cepa silvestre de G. lucidum procedente de la península ibérica. La capacidad de biodegradación de G. lucidum se estimó mediante el ratio de crecimiento micelial, la eficiencia biológica, la producción de carpóforos y la eficiencia biológica en seco.

Resultados

Notablemente, todos los sustratos sólidos utilizados resultaron adecuados para ser colonizados por G. lucidum y producir carpóforos. Los mejores rendimientos en cultivo se obtuvieron con la formulación PB100 (55,4% BE), seguida por PB50+PP50 (31,7% BE) y PB50+PS50 (25,4% BE). La producción de carpóforos en sustratos con astillas de ramas del árbol (PB) fue considerablemente más elevada que en aquellos que no contenían este residuo.

Conclusiones

Este estudio muestra la posibilidad de cultivar G. lucidum sobre residuos lignocelulósicos de pacana. Los resultados obtenidos sugieren una alternativa respetuosa con el medio ambiente para el incremento de los beneficios en la industria de la pacana a nivel internacional, especialmente en zonas rurales, al convertir biomasa en la producción de un hongo de interés nutracéutico y con aplicaciones biotecnológicas.

Palabras clave:
Carya illinoinensis
Residuos lignocelulósicos
Ganoderma lucidum
Eficiencia biológica
Producción de carpóforos
Texto completo

The cultivation of Carya illinoinensis (Wangenh.) K. Koch is increasing worldwide (i.e. United States, Mexico, Australia, South Africa, Brazil, Argentina, Chile, Egypt, Israel, Spain, etc.).30,41 Pecan nut production is valued at over USD 433 million in the United States (USDA, 2008). In 2012, the worldwide production of nuts rose to 7 million tons, of which 187,000 tons were produced in Europe and 13% were produced in the Iberian Peninsula.10 The direct disposal of waste from pecan nut yields is often neglected,38 which represents an important loss of biomass and it is a major cause of environmental pollution. In fact, the pecan nutshell processing generates an important amount of waste in the form of shells (40–50%).30,35 The waste products of pecan are rich carbon sources1 and have high concentrations of tannins and phenols.7,23 The composition of lignocellulosic wastes of pecan, in terms of percentage of cellulose, hemicellulose, lignin and ash in the shells, are 5.6, 3.8, 70 and 5.85%, respectively,1 in the pericarp are 30, 26, 41 and 1.7%,13 and in the pecan branches are 38.7, 30.2, 23.3 and 0.4%, respectively.28

The ability of Ganoderma lucidum to decompose lignocellulosic wastes has been extensively studied.18,45 So far, there have been no studies to find out whether these white-rot fungi (WRF) can utilize lignocellulosic pecan waste. The mushroom G. lucidum, known as reishi (in Japan) and lingzhi (in China), has been used for centuries in oriental traditional medicine and it is one of the most important and widely distributed WRF in the world. G. lucidum has been linked to nutraceutical mushrooms. In clinical trials with G. lucidum, hepatoprotective efficacy,5 control in type 2 diabetes42 and protection against lung cancer37 were observed. Additionally, biotechnological applications of the fungus, for example as a producer of enzymes that decolorize the synthetic dyes from effluents,16,24 or in oleo-chemical and biotechnological industries for producing lipase,3 have been proposed. Moreover, it has been studied its potential for environmental decontamination of heavy metals,39 and for the biological pre-treatment of lignocellulose for bioenergy production.20,45

In Spain, pecan cultivation has been successfully expanded over the last two decades, particularly in Valle del Guadalhorce (Malaga). In this work, we tested the capability of G. lucidum to use lignocellulosic wastes of pecan.

Materials and methodsG. lucidum strain isolation

The fruiting body of a G. lucidum (Curtis) P. Karst specimen was collected from an evergreen oak (Quercus ilex subsp. ballota) forest in Robledo de Chavela (Madrid, Spain). The fruiting body was cultured in potato dextrose agar (PDA), at 25°C in a culture chamber according to Postemsky et al.31 The wild strain was first morphologically and anatomically characterized, as described in Nithya et al.25 Secondly, the molecular analysis of the fruiting body by rDNA-ITS was obtained according to Zheng et al.46 The fungal DNA was extracted and amplified by polymerase chain reaction (PCR) of the ITS region. The obtained nucleotide sequence was compared with those of GenBank, using the NCBI BLAST program. DNA sequences were aligned by MAFFT 7 using the default settings and manually optimized with BioEdit version 7.2.3. A phylogenetic analysis was carried out in PAUP version 4.0b 10. The specimen was identified through the sequence as G. lucidum (accession number: KT805317) (Appendix A). The cultures of G. lucidum were kept at 4°C in the dark.20

The fungal radial growth (mm) in pure culture (n=10) was registered according to Imtiaj et al.15 to compare with commercial strains. Pure samples of G. lucidum cultures were kept on PDA in Petri dishes.

Spawn production

The spawn was produced with a mixture of grains of Triticum durum (59.1%, w/w), distilled water (40%, w/w), CaCO3 (0.1%, w/w) to balance the pH, and CaSO4 (0.8%, w/w) for the texture, according to Curvetto et al.6 Two mycelial plugs of G. lucidum were inoculated. The spawn was produced after 10 days (0.25 l Erlenmeyer flasks at 25°C in the dark).

Pecan waste preparation

The wastes of C. illinoinensis were obtained from an organic certified pecan plantation in Valle del Guadalhorce (Malaga, Spain). The pecan wastes were separated into three categories: (i) shells (PS), (ii) pericarp (PP) and (iii) branches (PB). First, the lignocellulosic wastes were dried at 35°C for 3 days. Once dried, PP and PS were pressed, and PB was chopped into wood-chips. Then PS, PP and PB were sieved to obtain 2.5 and 5mm particles. Pecan wastes were prepared according to Royse and Sanchez-Vazquez32 and Lakshmi.36 Finally, the pecan wastes PS, PP and PB were washed and hydrated with distilled water for 24h. The relative humidity was adjusted between 60 and 70%.29 In this study, the wastes were PS 100% (PS100), PP 100% (PP100), PB 100% (PB100), and the paired formulations PS50+PP50, PB50+PS50 and PB50+PP50. All substrate formulations were supplemented with CaCO3 1% (w/w, dry matter) according to Yang et al.,43 Erkel8,9 and Manavalan et al.20

Experimental design

The experiment was carried out in glass tubes 20cm long and 1.6cm in diameter.31 Tubes were filled with the different substrates to a height of 13cm from the bottom (Fig. 1a). Nine replicates were prepared for each of the six substrates (eighteen tubes×3) and sterilized in an autoclave for 45min at 121°C.18,43 The glass tubes were inoculated at the top of the substrate with spawn at 5% (w/w) and were sealed with Parafilm M®. Colonization of the glass tubes with the different substrates took place in a chamber at 25±1°C. Mycelial growth rate (mm day−1) was measured by marking the advancing fronts at intervals on the tubes, using the same method as for recording fungal radial growth on Petri dishes. To induce the formation of sporophore primordia, the tubes containing the mycelium were subjected to a cold shock for 2 days at 4±1°C.29,44 Then they were placed in the growth chamber at 25°C, with 85% relative humidity, and 10-h/day of light (fluorescent lamps; 500–1000lux). A gap of 50mm was left between the substrate and the Parafilm M® until the period of fruit body formation to promote gas exchange and the proper antler development. When the primordia appeared, the upper film was perforated and, once developed, the film was completely withdrawn.

Fig. 1.

Lignocellulosic wastes of pecan studied for cultivating Ganoderma lucidum. (a) The six formulations include shells (PS100), pericarp (PP100), wood-chips of branches (PB100), and paired formulations of shells and pericarp (PS50+PP50), shells and wood-chips of branches (PP50+PS50) and pericarp and wood-chips of branches (PB50+PP50). (b) Fructification on the six formulations.

(0,52MB).
Data analysis

The growth of G. lucidum was measured by estimating the biological efficiency, the production, and the dry biological efficiency. Biological efficiency32 (BE) is defined as the weight of fresh mushrooms×100/weight of dry substrate. Production6 (P) is defined as the weight of fresh mushrooms×100/weight of wet substrate. Dry biological efficiency36 (DBE) is defined as the weight of dry mushrooms×100/weight of dry substrate.

First, the assumptions of independence, normality and homoscedasticity were tested for the studied variables (mycelial growth rate, BE, P and DBE). Secondly, given that the data structure comply with normality criteria, ANOVA was used to evaluate the mycelial growth rate, BE, P and DBE, which were represented in terms of mean±standard error. Analysis of variance (MIXED and REML) to test the differences in colonization and production between the substrates was carried out with Statistical Analysis System (SAS) software, version 9.2 for Windows (SAS Institute Inc., Cary, NC, USA). Significant differences were determined by paired Student-t test (LSD) with α=0.05.

ResultsG. lucidum strain growth

Fig. 2 illustrates the mycelial radial growth of G. lucidum (n=10). The growth rate, 8.83mmday−1, was comparable to other wild strains, e.g., 8.70mmday−1 from South Korea,17 and 7.5–6mmday−1 from India,25 and to commercial strains.11 Similarly, the mycelium grew consistently on wheat grains.

Fig. 2.

Mycelium radial growth of the wild strain of Ganoderma lucidum (n=10).

(0,06MB).
Mycelial linear growth on pecan substrate

All formulations were found to be suitable as solid substrate for G. lucidum when using 5% inoculum (Table 2). The mycelial growth was significantly higher in the PB50+PS50 substrate, 5.54±0.63mmday−1 in a total of 23.67±2.89 days to fill the tube. The lowest growth was recorded for the PB50+PP50 substrate, 3.28±1.20mmday−1 over a period of 43±13.75 days. The formulations PS100, PP100, PB100 and PS50+PP50 had similar mycelial linear growth (Table 2).

G. lucidum yield

The six formulations were able to produce at least two flushes over the period of the experiment (Fig. 1a and b). Table 2 shows the performance in mushroom yield of G. lucidum. The BE ranged from 4.36% for substrate PP100 to 55.42% for substrate PB100; P ranged from 1.43% in the substrate PP100 to 22.97% in the substrate PB100, and DBE ranged from 0.66% in the substrate PP100 to 11.08% in the substrate PB100.

Discussion

G. lucidum has been successfully produced on a wide variety of waste materials, including corn stover residues,33 sawdust with rice straw,40 sunflower seed shells,11 tea residues,26 bagasse from sugar cane,20 soy residues,14 fish waste36 and different types of sawdust2,8,18 (poplar, beech, hornbeam, oak) (Table 1). Similarly, studies on lignocellulosic degradation ability have been conducted. Zhang et al.45 studied the biological pre-treatment of bamboo culms (Phyllostachys pubescence) with G. lucidum and 33 other WRF. After a 4-week period of cultivation, G. lucidum caused component loss of 12.10% (w/w) in weight: 10.56% (w/w) in lignin, 12.83% (w/w) in cellulose, and 15.16% (w/w) in hemicellulose. The selective delignification of G. lucidum was also observed in poplar wood.19Table 1 reviews the available studies on solid substrates for cultivating G. lucidum, using both commercial and wild strains. Comparison with the pecan wastes associated with BE and DBE is illustrated in Fig. 3a and b.

Table 1.

Solid substrates with the highest performance in the cultivation of the medicinal Ganoderma lucidum mushroom.

Substrate formulationBE (%)  Region  Reference 
Highest performance (%)  Substrate  Supplement       
SB100  Sugarcane bagasse (SB)  CaCO3  80±15  Tamil Nadu, Indiaa  20 
MS80+WB20  Sawdust of sheesham, mango (MS) and poplar, wheat brans (WB), rice bran, corn flour  Gypsum and CaCO3  58.57  Himachal Pradesh, Indiaa  21 
HS80+TW20  Tea manufacturing waste (TW), Sawdust of hornbeam (HS), wheat bran  Sucrose and CaCO3  34.9  Denizli, Turkeyb  26 
SDM22.5+PA67.5+RB10  Sawdust mixture (SDM), paddy straw (PA), rice bran (RB)  None  29.9  Rajasthan, Indiaa  40 
PSD58+BSD29+RG13  Poplar sawdust (PSD), beech sawdust (BSD), rye grain (RG)  NH4H2PO4 and CaCO3  25.5  Not indicatedb  27 
AS90+GF10  Sawdust of Alnus nepalensis (AS), Shorea robusta, Dalbergia sisoo, rice bran, wheat bran, corn flour, gram flour (GF)  Gypsum and CaCO3  22.62  Imadole, Nepalb  12 
BP100  Billets of poplar (BP)  Malt extract  22  Uttarakhand, Indiaa  34 
PSD80+WB20a  Sawdust of poplar, oak, beech, brans of wheat, rice, corn  Gypsum and CaCO3  20.85  Marmara, Turkeya  8 
PSD80+WB20b  Poplar sawdust, wheat bran  Molasses and corn gluten meal  20.37  Marmara, Turkeya  9 
PSD94.5+ME5.5  Sawdust of poplar, beech, hornbeam, wheat bran, malt extract (ME)  CaCO3, Gypsum and KH2PO4  18.68  Mashhad, Iránb  2 
RS67+RH25+RB8  Rice straw (RS), rice husk (RH), rice bran  Olive oil  13.8  Guelph, Ontario, Canadab  31 
SB100  Fishery waste, coir pith, wood-chips, sugarcane bagasse  None  12.95  Tamil Nadu, Indiaa  36 
SSH85+WB5  Sunflower seed hull (SSH), wheat bran, malt  Gypsum and CaCO3  10  Olympia, WA, USAb  11 
      DBE%     
BS80+WB20  Oat straw, bean straw (BS), Brachiaria grass straw, Tifton grass straw, Eucalyptus sawdust and wheat bran  CaCO3  6.7  Botucatu, Brazilb  22 
ASD50+SG30+WB20  Sawdust of stalk of Acacia confusa (ASD), Stillage grain (SG), wheat bran  NH4H2PO4 and CaCO3  5.36  Hsinchu, Taiwanb  43 
FWC15+RB17+OS68  Food waste compost (FWC), rice bran and oak sawdust (OS)  NaCl and Ca  3.4±0.2  Chuncheon, South Koreab  18 
a

Wild fungal strain.

b

Commercial fungal strain.

Table 2.

Ganoderma lucidum growth on the six formulations of pecan wastes. Mycelium linear growth rate, biological efficiency (BE), production, and dry biological efficiency (DBE).

Substrate  Mycelium linear growth rate  BE  DBE 
  (mm/day)  (%)  (%)  (%) 
PS100  4.05±1.39ab  17.57±0.56d  8.79±0.28c  3.72±0.43d 
PP100  4.00±1.83ab  4.36±3.28e  1.43±1.08e  0.66±0.72e 
PB100  4.62±1.45ab  55.42±14.72a  22.97±6.10a  11.08±2.95a 
PS50+PP50  5.00±1.03ab  11.85±5.28de  4.92±2.19d  2.37±1.06d 
PB50+PS50  5.54±0.63a  25.37±2.91c  11.87±1.36b  5.07±0.59c 
PB50+PP50  3.28±1.20b  31.66±1.71b  11.43±0.62b  6.33±0.35b 

The same letters are not significantly different by the paired student-t test (α=0.05).

Fig. 3.

Ganoderma lucidum mushroom cultivation in solid substrates. (a) Biological efficiency, and (b) Dry biological efficiency. Formulations of pecan wastes (black bars) are compared with other solid substrates (white bars); abbreviations of the solid substrates are given in Table 1.

(0,34MB).

The G. lucidum strain KT805317 used for the first time in this study, is adapted to Mediterranean climate conditions, contrary to the strains reported so far (Table 1). The results were particularly significant regarding the proportion of the native inoculum used in the degradation of residues. The mycelial growth rate of G. lucidum in pecan waste was analogous to that on other solid substrates, such as agro-industrial rice residues on substrate formulations using 10% of inoculum20,43 and 8% of inoculum.31 The wood-chips formulations with shells or pericarp improved the G. lucidum yield. The biological efficiency increased from 4.36% in PP100 formulation to 31.67% in PB50+PP50, and from 8.79% in PS100 formulation to 11.87% in PB50+PS50 (Table 2). The orthogonal contrast (Table 3) corroborates the importance of formulations in the mushroom yield, with significantly higher values of BE, P and DBE in the substrates with pecan wood-chips (PB100). Ultimately, substrate PB100 was certainly the most efficient for G. lucidum yield. The higher similarity of the substrate formulations with the natural environment in which the G. lucidum grows could be possibly the key for success to obtain high BE values.

Table 3.

Orthogonal contrast of yields in relation to the substrates with and without wood-chips of pecan branches (PB).

Index  With PB  Without PB  Difference 
BE  37.4844  11.2611  26.2233*** 
15.42  5.0456  10.3744*** 
DBE  7.4956  2.2478  5.2478*** 

BE: biological efficiency, P: production, DBE: dry biological efficiency.

***

p-Value<0.01.

No significant correlation was observed between the rate of mycelial growth and mushroom yield within the same test formulation, ρ (mycelial growth rates, P)=0.1430, p-value=0.5713 (ns) and ρ (mycelial growth rates, BE)=0.0927, p-value=0.7144 (ns). It is important to know how long G. lucidum takes to colonize each type of substrate. This is an industrial setting of great interest, but should not be taken as a measure of performance. This result indicates that a substrate should not be discarded for a long colonization time.

This study shows the novelty of using pecan wood-chips instead of sawdust to produce G. lucidum. Royse and Sanchez-Vazquez32 reported the influence of wood-chip particle size on the cultivation of the shiitake (Lentinula edodes); yields from substrates prepared with wood-chip particles of <0.85mm were compared with yields from substrates prepared with wood-chip particles of 2.8±4.0mm. Further research is required to confirm the influence of particle size of pecan wastes on G. lucidum cultivation and yield.

The pecan wood chip formulation (PB100), with 55.42% BE, emerges as one of the best solid substrates for cultivating G. lucidum (Fig. 3a), only surpassed by sugarcane bagasse (SB100), with 80±15% BE,20 and sawdust of mango and wheat brans (MS80+WB20), with 58.57% BE.21 Both the formulations PB50+PP50, with 31.7% BE, and PB50+PS50, with 25.4% BE, are listed in the top ten agro-industrial residues to obtain G. lucidum mushrooms. The only additive used in our study was the pH regulator (1% of CaCO3). Comparable results in the same conditions were those of pecan shells (PS100), with 17.6% BE, and the mixture of poplar sawdust and wheat bran without additives (PSD80+WB20), with 17.2% BE.9

The DBE index is particularly relevant for G. lucidum production because this mushroom is being sold as dry matter in all its forms (powder, capsules, whole and chopped). The best value was obtained for PB100 (11%) relative to other reported values (Fig. 3b).

Conclusions

This study describes an attempt to cultivate the medicinal mushroom G. lucidum by using agro-industrial residues of C. illinoinensis. The results show that all six formulations of the substrates tested were suitable for the fungus growth and mushroom yield. The mushroom yield was increased with formulations including shells or pericarp with wood-chips. The best result (55.4% BE) was obtained with PB100. The cultivation of pecan is being expanded in both the northern and southern hemispheres41 due to market demand and the ability of the tree to adapt to a range of climate environments.4 The economic aspect of pecan production on a global scale could benefit considerably from the usage of the lignocellulosic wastes to produce high value products in the form of mushrooms with medicinal and biotechnological applications.

Conflict of interests

All authors declare that they have no conflict of interest.

Acknowledgements

We are grateful for the support and materials provided by the producers of pecan nuts from the Asociación Valle del Guadalhorce, in the province of Málaga, Spain. We also thank Álvaro Rodrigo for providing the G. lucidum specimen. This work was possible due to the funding provided by the Erasmus Mundus Program under a EuroTango Project for a PhD program.

Appendix A
Supplementary data

The following are the supplementary data to this article:

References
[1]
M. Antal, S. Allen, X. Dai, B. Shimizu, M. Tam, M. Gronli.
Attainment of the theoretical yield of carbon from biomass.
Ind Eng Chem Res, 39 (2000), pp. 4024-4031
[2]
M. Azizi, M. Tavana, M. Farsi, F. Oroojalian.
Yield performance of Lingzhi or Reishi medicinal mushroom. Ganoderma lucidum (W. Curt.:Fr.) P. Karst. (Higher basidiomycetes), using different waste materials as substrates.
Int J Med Mushrooms, 14 (2012), pp. 521-527
[3]
H.N. Bhatti, A.F. Amin.
Kinetic and hydrolytic characterization of newly isolated alkaline lipase from Ganoderma lucidum using canola oil cake as substrate.
J Chem Soc Pakistan, 35 (2013), pp. 585-592
[4]
R.M. Burns, B.H. Honkala.
Silvics of North America.
(1990), pp. 205-210
[5]
H.-F. Chiu, H.-Y. Fu, Y.-Y. Lu, Y.-C. Han, Y.-C. Shen, K. Venkatakrishnan, et al.
Triterpenoids and polysaccharide peptides-enriched Ganoderma lucidum: a randomized, double-blind placebo-controlled crossover study of its antioxidation and hepatoprotective efficacy in healthy volunteers.
Pharm Biol, 55 (2017), pp. 1041-1046
[6]
N.R. Curvetto, D. Figlas, R. Devalis, S. Delmastro.
Growth and productivity of different Pleurotus ostreatus strains on sunflower seed hulls supplemented with N-NH4+ and/or Mn(II).
Bioresour Technol, 84 (2002), pp. 171-176
[7]
L.A. De-La-Rosa, E. Alvarez-Parrilla, F. Shahidi.
Phenolic compounds and antioxidant activity of kernels and shells of Mexican pecan (Carya illinoinensis).
J Agric Food Chem, 59 (2011), pp. 152-162
[8]
E.I. Erkel.
The effect of different substrate mediums on yield of Ganoderma lucidum (Fr.) Karst.
J Food Agric Environ, 7 (2009), pp. 841-844
[9]
E.I. Erkel.
Yield performance of Ganoderma lucidum (Fr.) Karst cultivation on substrates containing different protein and carbohydrate sources.
African J Agric Res, 4 (2009), pp. 1331-1333
[10]
FAOSTAT.
FAOSTAT 2012.
Food Agric Commod Prod, (2012),
[11]
R. González Matute, D. Figlas, R. Devalis, S. Delmastro, N. Curvetto.
Sunflower seed hulls as a main nutrient source for cultivating Ganoderma lucidum.
Micol Apl Int, 14 (2002), pp. 1-6
[12]
O.K. Gurung, U. Budathoki, G. Parajuli.
Effect of different substrates on the production of Ganoderma lucidum (Curt.: Fr.) Karst.
Our Nat, 10 (2012), pp. 191-198
[13]
V. Hernández-Montoya, D. Mendoza-Castillo, A. Bonilla-Petriciolet, M. Montes-Morán, M. Pérez-Cruz.
Role of the pericarp of Carya illinoinensis as biosorbent and as precursor of activated carbon for the removal of lead and acid blue 25 in aqueous solutions.
J Anal Appl Pyrolysis, 92 (2011), pp. 143-151
[14]
C. Hsieh, F.C. Yang.
Reusing soy residue for the solid-state fermentation of Ganoderma lucidum.
Bioresour Technol, 91 (2004), pp. 105-109
[15]
A. Imtiaj, C. Jayasinghe, G.W. Lee, T. Lee.
Comparative study of environmental and nutritional factors on the mycelial growth of edible mushrooms.
J Cult Collect, 6 (2009), pp. 97-105
[16]
M. Irshad, B.A. Bahadur, Z. Anwar, M. Yaqoob, A. Ijaz, H.M.N. Iqbal.
Decolorization applicability of sol-gel matrix-immobilized laccase produced from Ganoderma lucidum using agro-industrial waste.
BioResources, 7 (2012), pp. 4249-4261
[17]
C. Jayasinghe, A. Imtiaj, H. Hur, G.W. Lee, T.S. Lee, U.Y. Lee.
Favorable culture conditions for mycelial growth of Korean wild strains in Ganoderma lucidum.
Mycobiology, 36 (2008), pp. 28-33
[18]
E.-Y. Jo, J.-L. Cheon, J.-H. Ahn.
Effect of food waste compost on the antler-type fruiting body yield of Ganoderma lucidum.
Mycobiology, 41 (2013), pp. 42-46
[19]
M.L. Luna, M.A. Murace, G.D. Keil, M.E. Otaño.
Patterns of decay caused by Pycnoporus Sanguineus and Ganoderma Lucidum (Aphyllophorales) in poplar wood.
IAWA J, 25 (2004), pp. 425-433
[20]
T. Manavalan, A. Manavalan, K.P. Thangavelu, K. Heese.
Secretome analysis of Ganoderma lucidum cultivated in sugarcane bagasse.
J Proteomics, 77 (2012), pp. 298-309
[21]
S. Mehta, S. Jandaik, D. Gupta.
Effect of cost-effective substrates on growth cycle and yield of lingzhi or reishi medicinal mushroom. Ganoderma lucidum (Higher Basidiomycetes) from Northwestern Himalaya (India).
Int J Med Mushrooms, 16 (2014), pp. 585-591
[22]
C.S. Melo De Carvalho, C. Sales-Campos, L. Pessoa De Carvalho, M. Teixeira De Almeida Minhoni, A.L. Merthan Saad, G. Polidoro Alquati, et al.
Cultivation and bromatological analysis of the medicinal mushroom Ganoderma lucidum (Curt.: Fr.) P. Karst cultivated in agricultural waste.
African J Biotechnol, 14 (2015), pp. 412-418
[23]
I.H. Mian, R. Rodríguez-Kábana.
Organic amendments with high tannin and phenolic contents for control of Meloidogyne arenaria in infested soil.
Nematropica, 12 (1982), pp. 221-234
[24]
K. Murugesan, I.H. Nam, Y.M. Kim, Y.S. Chang.
Decolorization of reactive dyes by a thermostable laccase produced by Ganoderma lucidum in solid state culture.
Enzyme Microb Technol, 40 (2007), pp. 1662-1672
[25]
V. Nithya, M. Ambikapathy, A. Panneerselvam.
Collection, identification, phytochemical analysis and phyto toxicity test of wood inhabiting fungi Ganoderma lucidum.
Hygeia J D Med, 6 (2014), pp. 31-39
[26]
A. Peksen, G. Yakupoglu.
Tea waste as a supplement for the cultivation of Ganoderma lucidum.
World J Microbiol Biotechnol, 25 (2009), pp. 611-618
[27]
M. Petre, A. Teodorescu.
Biotechnology for in vitro growing of edible and medicinal mushrooms on wood wastes.
Ann For Res, 52 (2009), pp. 129-136
[28]
R.C. Petterson.
The chemical composition of wood. Advances in Chemistry Series 207.
[29]
A. Philippoussis, P. Diamantopoulou, C. Israilides.
Productivity of agricultural residues used for the cultivation of the medicinal fungus Lentinula edodes.
Int Biodeterior Biodegrad, 59 (2007), pp. 216-219
[30]
A.C. Pinheiro do Prado, A. Monalise Aragão, R. Fett, J.M. Block.
Antioxidant properties of pecan nut [Carya illinoinensis (Wangenh.) C. Koch] shell infusion.
Grasas Aceites, 60 (2009), pp. 330-335
[31]
P.D. Postemsky, S.E. Delmastro, N.R. Curvetto.
Effect of edible oils and Cu (II) on the biodegradation of rice by-products by Ganoderma lucidum mushroom.
Int Biodeterior Biodegrad, 93 (2014), pp. 25-32
[32]
D.J. Royse, J.E. Sanchez-Vazquez.
Influence of substrate wood-chip particle size on shiitake (Lentinula edodes) yield.
Bioresour Technol, 76 (2001), pp. 229-233
[33]
T. Shahzadi, Z. Anwar, Z. Iqbal, A. Anjum, T. Aqil.
Induced production of exoglucanase, and β-Glucosidase from fungal co-culture of T. viride and G. lucidum.
Adv Biosci Biotechnol, 5 (2014), pp. 426-433
[34]
S. Singh, N.S.K. Harsh, P.K. Gupta.
A novel method of economical cultivation of medicinally important mushroom. Ganoderma lucidum.
Int J Pharm Sci Res, 5 (2014), pp. 2033-2037
[35]
E.T. Stafne, C.T. Rohla, B.L. Carroll.
Pecan shell mulch impact on “loring” peach tree establishment and first harvest.
Horttechnology, 19 (2009), pp. 775-780
[36]
S. Subbu Lakshmi.
In vivo utilization of seafood processing wastes for cultivation of the medicinal mushroom (Ganoderma lucidum) using agro-industrial waste.
Asian J Pharm Clin Res, 6 (2013), pp. 51-54
[37]
L.X. Sun, W.D. Li, Z.B. Lin, X.S. Duan, X.F. Li, N. Yang, et al.
Protection against lung cancer patient plasma-induced lymphocyte suppression by Ganoderma lucidum polysaccharides.
Cell Physiol Biochem, 33 (2014), pp. 289-299
[38]
M.B. Tahboub, W.C. Lindemann, L. Murray.
Nutrient availability in soil amended with pecan wood chips.
HortScience, 42 (2007), pp. 339-343
[39]
L.X. Tham, S. Matsuhashi, T. Kume.
Responses of Ganoderma lucidum to heavy metals.
Mycoscience, 40 (1999), pp. 209-213
[40]
S.S. Veena, M. Pandey.
Paddy straw as a substrate for the cultivation of Lingzhi or Reishi medicinal mushroom. Ganoderma lucidum (W. Curt.:Fr.) P. Karst. in India.
Int J Med Mushrooms, 13 (2011), pp. 397-400
[41]
L.T. Wakeling, R.L. Mason, B.R. D’Arcy, N.A. Caffin.
Composition of pecan cultivars Wichita and Western Schley [Carya illinoinensis (Wangenh.) K. Koch] grown in Australia.
J Agric Food Chem, 49 (2001), pp. 1277-1281
[42]
C.W. Wang, J.S.M. Tschen, W.H.H. Sheu.
Ganoderma lucidum on metabolic control in type 2 diabetes subjects – a double blinded placebo control study.
J Intern Med Taiwan, 19 (2008), pp. 54-60
[43]
F.C. Yang, C. Hsieh, H.M. Chen.
Use of stillage grain from a rice-spirit distillery in the solid state fermentation of Ganoderma lucidum.
Process Biochem, 39 (2003), pp. 21-26
[44]
S. Yildiz, Ü.C. Yildiz, E.D. Gezer, A. Temiz.
Some lignocellulosic wastes used as raw material in cultivation of the Pleurotus ostreatus culture mushroom.
Process Biochem, 38 (2002), pp. 301-306
[45]
X. Zhang, H. Yu, H. Huang, Y. Liu.
Evaluation of biological pretreatment with white rot fungi for the enzymatic hydrolysis of bamboo culms.
Int Biodeterior Biodegrad, 60 (2007), pp. 159-164
[46]
L. Zheng, D. Jia, X. Fei, X. Luo, Z. Yang.
An assessment of the genetic diversity within Ganoderma strains with AFLP and ITS PCR-RFLP.
Microbiol Res, 164 (2009), pp. 312-321
Copyright © 2018. Asociación Española de Micología
Opciones de artículo
Herramientas
Material suplementario
es en pt
Política de cookies Cookies policy Política de cookies
Utilizamos cookies propias y de terceros para mejorar nuestros servicios y mostrarle publicidad relacionada con sus preferencias mediante el análisis de sus hábitos de navegación. Si continua navegando, consideramos que acepta su uso. Puede cambiar la configuración u obtener más información aquí. To improve our services and products, we use "cookies" (own or third parties authorized) to show advertising related to client preferences through the analyses of navigation customer behavior. Continuing navigation will be considered as acceptance of this use. You can change the settings or obtain more information by clicking here. Utilizamos cookies próprios e de terceiros para melhorar nossos serviços e mostrar publicidade relacionada às suas preferências, analisando seus hábitos de navegação. Se continuar a navegar, consideramos que aceita o seu uso. Você pode alterar a configuração ou obter mais informações aqui.