Advancements and Innovations in Harnessing Microbial Processes for Enhanced Biogas Production from Waste Materials
Abstract
:1. Introduction
Microorganism | Substrate | Major Events during Substrate Degradation | Biogas Yield (mL/g VS) | Condition | Ref. |
---|---|---|---|---|---|
Acetobacteroides hydrogenigenes | Corn straw | Hydrogen gas production | 258.1 | Laboratory scale | [33] |
Methanospirillum hungatei | Nonfat dry milk | Increase of methanogenic activity | 32 | Laboratory scale | [34] |
Pseudobutyrivibrio xylanivorans | Brewery spent grain | Hydrolysis | 261.3 | Piolot scale | [35] |
C. saccharolyticus | Pig slurry and sweet sorghum | Hydrogen gas production | 62.5 | Laboratory scale | [36] |
Clostridium cellulolyticum | Wheat straw | Hydrolysis | 342.5 | Laboratory scale | [37] |
Clostridium sp. | Cellulosic waste | Hydrolysis | 168 | Laboratory scale | [38] |
Enterobacter cloacae | Maize silage | Hydrolysis | 718.5 | Laboratory scale | [39] |
T. hermosaccharolyticum Caldanaerobacter subterraneus Thermoanaerobacter pseudethanolicus C. cellulolyticum | Corn stover and cellulose | Hydrolysis | 165 | Laboratory scale | [40] |
Lignocellulose degrading microbial consortium | Swine manure | Hydrolysis | 180 | Laboratory scale | [41] |
Gelria, Anaerovorax, Dethiobacter, Clostridia | Grass siliage | Hydrolysis and fatty acid metabolism | - | Laboratory scale | [42] |
2. Methods
3. Microbial Diversity and Dynamics Involved in Biogas Production
4. Effect of Feedstock Substrate on Microbial Community and Biogas Production in an Anaerobic Digester
4.1. Bioaugmentation with Microbial Additives to the Feedstock
4.2. Co-Digestion Strategy for Biogas Production from Agricultural Waste and Animal Waste
4.3. Biological Pretreatments of Organic Waste for Enhanced Biogas Production
4.4. Advantages and Disadvantages of Biogas Production Enhancement Strategies
5. Anaerobic Metabolic Pathways and Genes Involved in Biogas Production
6. Microbial Metagenomics, High-Throughput Sequencing, and Its Relevance to Biogas Production
6.1. Applications of Meta-Transcriptomics in Biogas Production
6.2. Integration of Omics Approaches with Molecular Probing Techniques
7. Biogas Production and Circular Economy
8. Microbe-Based Large-Scale Commercial Biogas Plants
9. Future Prospects
9.1. Genetic Engineering of Microorganisms for Enhanced Biogas Production
9.2. Microbial Conversion of CH4 and CO2 into Other Renewable Energy
9.3. Policy Support and Market Incentives from Government
10. Conclusions
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Type of Waste Feed into Bioreactor | Pretreatment Strategy | Microorganism | Initial and Final Concentration of Biogas/Biomethane (mL/gVS) | Increase in Biogas/Biomethane Production (%) | Ref. |
---|---|---|---|---|---|
Tall Wheat Grass | Fungal | Agropyron elongatum | BG 120%; BM 134% | [99] | |
Rice Straw | Bacteria | Ligninolytic Bacillus sp. Co-culture | BM Control: 270 Pretreated: 528.9 | BM 93.30% | [100] |
Fresh leaves, dry leaves and cattle dung | Fungal | Aspergillus terreus and Trichoderma viride | BG Control: 102.6 Pretreated: 125.9 BM Control: 61.4 Pretreated: 79.8 | BG 22.71%; BM 29.97% | [101] |
Japanese cedar wood | Fungal | Ceriporiopsis subvermispora | BG 35% | [102] | |
Forestry waste | Fungal | Ceriporiopsis subvermispora | BG 270% | [103] | |
Hazel branches | Fungal | Ceriporiopsis subvermispora | BM 60% | [104] | |
Corn stover silage | Fungal | Phanerochaete chrysosporium | BM 19.6–32.6% | [105] | |
Paddy straw | Fungal | Fusarium sp. | BG 53.8% | [106] | |
Yard trimmings | Fungal | Ceriporiopsis subvermispora | BM Control: 20.5 Pretreated: 44.6 | BM 54% | [107] |
Rice straw | Fungal | Pleurotus ostreatus | BM 20% | [97] | |
Sisal leaf decortication residues | Fungal | Isolate CCHT-1 and Trichoderma reesei | BG Control: 292 Pretreated: 453 | BG 30–101% | [108] |
Organic waste | Fungal | Trichoderma viride | BM 100% | [109] | |
Agricultural Biomass | - | Pleurotus ostreatus | BM 120% | [110] | |
Agricultural Biomass | - | Trichoderma reesei | BM 78.3% | [110] | |
Rice straw | Fungal | Pleurotus ostreatus | BM Control: Pretreated: 258 | BM 165% | [111] |
Petroleum refinery sludge | Bacterial | Kosakonia oryziphila | BG Control: 0.08 Pretreated: 5.15 | BG 56% | [112] |
Wheat straw | Fungal | Lignin-degrading fungal culture from their natural habitat | BM 407.1% | [113] | |
Sawdust waste | - | Gymnopilus pampeanus | BG Control: 232 Pretreated: 312 BM Control: 42.5 Pretreated: 155.2 | BG 25.6% BM 72.6% | [114] |
Crop waste | Fungal | Polyporus brumalis | BM Control: 159.6 Pretreated: 280.5 | BM 75.75% | [94] |
Crop waste | Fungal | Pl. ostreatus | BG Control: 270 Pretreated: 299 BM Control: 186 Pretreated: 212 | BG 10.74% BM 13.98% | [111] |
Crop waste | Fungal | Thermoascus aurantiacus | BG Control: 390 Pretreated: 514.9 | BG 31.72% | [115] |
Crop waste | Fungal | P. chrysosporium | BM 10.9% | [105] | |
Crop waste | Fungal | C. subvermispora | BM Control: 36.1 Pretreated: 44.6 | BM 23.55% | [116] |
Crop waste | MC | MC having Clostridium straminisolvens Pseudoxanthomonas Brevibacillus Bordetella Clostridium | BG Control: 173 Pretreated: 304 BM Control: 21 Pretreated: 79 | BG 75.72% BM 276.19% | [117] |
Crop waste | MC | MC having Ochrobactrum sp. Coprinopsis cinereus | BM Control: 182.7 Pretreated: 279 | BM 49.04% | [118] |
Crop waste | MC | MC having: Bacillus Providencia Ochrobactrum | BM Control: 249.3 Pretreated: 393.4 | BM 61.3% | [119] |
Sawdust | Fungal | A. biennis | BM Control: 101.5 Pretreated: 145.3 | BM 47.88% | [120] |
Sawdust | Fungal | L. menziesii A. biennis | BM Control: 101.3 Pretreated: 149.8 | BM 43.15% | [121] |
Animal/Fish waste | Fungal | F. velutipe | BG Control: 330.2 Pretreated: 398.1 BM Control: 125.8 Pretreated: 169.2 | BG 20.56% BM 34.5% | [99] |
Animal/Fish | MC | Bacilli Gammaproteobacteria Actinobacteria | BG Control: 107.9 Pretreated: 150.4 | BG 39.39% | [122] |
Waste | Enzymatic | Aspergillus candida | BM Control: 68 Pretreated: 180 | BM 164.71% | [123] |
Animal/Fish | Enzymatic | C. rugose G. candidum | BG Control: 219.4 Pretreated: 417.4 | BM 90.47% | [124] |
Algae | Enzymatic | Geotrichum rugose | BG Control: 471 Pretreated: 626.5 | BG 33% | [125] |
Fruit waste | Fungal | P. chrysosporium Aspergillus niger | BG Control: 145.2 Pretreated: 308.9 BM Control: 61 Pretreated: 176 | BG 112.74% BM 188.22% | [126] |
Sludge | Enzymatic | B. subtilis A. hydrophila | BG Control: 207 Pretreated: 244.4 | BG 18.07% | [127] |
Sludge | Enzymatic | Bacillus jerish | BG Control: 212 Pretreated: 467 | BG 120.28% | [128] |
MSW | MC | MC having Bacillus cereus, B. subtilis, Staphylococcus saprophyticus Staphylococcus xylosus P. agglomerans P. chrysosporium | BM Control: 30.9 Pretreated: 81.8 | BM 190.61% | [129] |
MSW | MC | B. licheniformis and others | BG Control: 24 Pretreated: 45.3 | BG 88.75% | [130] |
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Das, A.; Das, S.; Das, N.; Pandey, P.; Ingti, B.; Panchenko, V.; Bolshev, V.; Kovalev, A.; Pandey, P. Advancements and Innovations in Harnessing Microbial Processes for Enhanced Biogas Production from Waste Materials. Agriculture 2023, 13, 1689. https://doi.org/10.3390/agriculture13091689
Das A, Das S, Das N, Pandey P, Ingti B, Panchenko V, Bolshev V, Kovalev A, Pandey P. Advancements and Innovations in Harnessing Microbial Processes for Enhanced Biogas Production from Waste Materials. Agriculture. 2023; 13(9):1689. https://doi.org/10.3390/agriculture13091689
Chicago/Turabian StyleDas, Ankita, Sandeep Das, Nandita Das, Prisha Pandey, Birson Ingti, Vladimir Panchenko, Vadim Bolshev, Andrey Kovalev, and Piyush Pandey. 2023. "Advancements and Innovations in Harnessing Microbial Processes for Enhanced Biogas Production from Waste Materials" Agriculture 13, no. 9: 1689. https://doi.org/10.3390/agriculture13091689