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Akinsemolu, A.; Onyeaka, H.; Fagunwa, O.; Adenuga, A.H. The Promise of Microbial Bioeconomy. Encyclopedia. Available online: https://encyclopedia.pub/entry/43939 (accessed on 13 April 2024).
Akinsemolu A, Onyeaka H, Fagunwa O, Adenuga AH. The Promise of Microbial Bioeconomy. Encyclopedia. Available at: https://encyclopedia.pub/entry/43939. Accessed April 13, 2024.
Akinsemolu, Adenike, Helen Onyeaka, Omololu Fagunwa, Adewale Henry Adenuga. "The Promise of Microbial Bioeconomy" Encyclopedia, https://encyclopedia.pub/entry/43939 (accessed April 13, 2024).
Akinsemolu, A., Onyeaka, H., Fagunwa, O., & Adenuga, A.H. (2023, May 07). The Promise of Microbial Bioeconomy. In Encyclopedia. https://encyclopedia.pub/entry/43939
Akinsemolu, Adenike, et al. "The Promise of Microbial Bioeconomy." Encyclopedia. Web. 07 May, 2023.
The Promise of Microbial Bioeconomy
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Naturally occurring resources, such as water, energy, minerals, and rare earth elements, are limited in availability, yet they are essential components for the survival and development of all life. The pressure on these finite resources is anthropogenic, arising from misuse, overuse, and overdependence, which causes a loss of biodiversity and climate change and poses great challenges to sustainable development. The focal points and principles of the bioeconomy border around ensuring the constant availability of these natural resources for both present and future generations. The rapid growth of the microbial bioeconomy is promising for the purpose of fostering a resilient and sustainable future. This highlights the economic opportunity of using microbial-based resources to substitute fossil fuels in novel products, processes, and services. 

sustainability microorganisms energy biotechnology biocatalysis

1. Introduction

By using microorganisms to produce biodegradable and sustainable products, the microbial bioeconomy offers a viable alternative to traditional production methods, which are based on the global economy principles. With continued advances and innovations, the microbial bioeconomy will likely become an increasingly important part of the global economy [1]. Genetically modified organisms (GMOs) are vital for a sustainable bioeconomy; they are employed in the creation of food and feed additives, pharmaceuticals, biomedicine, bioenergy, biofuels, bioplastics, environmental remediation and waste management, building and transportation system, forestry and agriculture, and other recyclable bio-based materials and products [1][2][3][4][5][6][7].

2. Applications of the Microbial Bioeconomy for Economic, Environmental, and Social Sustainability

2.1. Principles of the Microbial Bioeconomy

To achieve a sustainable and efficient microbial bioeconomy, adherence to certain guiding principles is crucial. Adhering to these principles can help create an environmentally friendly, economically sustainable, and socially responsible microbial economy.

Seven (7) Key Principles Central to the Microbial Bioeconomy

  • Use of renewable resources: The microbial bioeconomy relies on renewable resource utilisation, such as plant biomass, organic materials, and agricultural waste, as feedstocks for the production of products of high value. This approach helps to not only reduce reliance on non-renewable resources, such as fossil fuels, but also create a more sustainable and efficient economy [8]
  • Sustainable production: The microbial bioeconomy produces products and services that are environmentally friendly and sustainable. This involves using renewable resources, converting waste materials into valuable products, and optimising production processes to minimise waste and reduce greenhouse gas emissions [9].
  • Efficient utilisation of resources: The microbial bioeconomy seeks to use resources efficiently to minimise waste and reduce the environmental impact of production. This involves closed-loop systems where waste from one process is used as a resource [10].
  • Adaptability: The microbial bioeconomy technologies should be adaptable to different environments and conditions and should be able to be easily modified or scaled up as needed [11].
  • Innovation: The microbial bioeconomy should be driven by the development of new technologies and approaches along with a focus on innovation [12].
  • Collaboration: The development and implementation of the microbial bioeconomy technologies often require collaboration between researchers, industry, and government [13].
  • Transparency: The microbial bioeconomy should be transparent and open with information about processes and products and make this information readily available to stakeholders [9].
The seven principles are shown graphically in Figure 1.
Figure 1. Principles of the Microbial Bioeconomy.

2.2. The Microbial Bioeconomy Current State

Based on a report by the [14] the global microbial market is worth €250 billion, with an annual growth of 5.6%. By 2030, it is predicted to reach €700 billion due to the rising demand for sustainable products, biotechnology advancements, and supportive policies. The European Union (EU) bioeconomy generated €2.29 trillion turnover in 2015 [15] However, the COVID-19 pandemic caused a 2% decrease in 2019 and a 0.4% decrease in 2020 in employment and gross value addition [15].
One of the key trends in the microbial bioeconomy is the growing demand for renewable and sustainable products and services driven by a growing awareness of the social and environmental impacts of non-renewable resources such as fossil fuels. Additionally, an improved public understanding of climate change and the devastations caused by non-renewable products have changed consumer preferences and resulted in more robust regulatory policies [14]. This trend creates new products and processes that rely on microorganisms, such as biofuels, biomaterials, and bioplastics [1].
Another significant trend is the increasing focus on waste management and resource recovery. Microorganisms are expected to play a critical role in this area by using anaerobic digestion and other processes to convert waste into valuable products, such as biogas, fertilisers, and biochemicals [16].
The microbial bioeconomy contributes to economic sustainability through biocatalysis, biotransformations, anaerobic digestion, and bioremediation processes. Biocatalysis has advantages over traditional chemical processes due to its improved selectivity and specificity [17][18].

2.3. Recent Advances and Innovations in the Microbial Bioeconomy

Recent advances in biotechnology have led to significant progress, particularly in the development and application of microorganisms for producing goods and services. Advances in metabolic engineering and synthetic biology have made significant progress in creating new microbial strains with improved productivity and efficiency. The Penicillium chrysogenum X-1612 strain was genetically modified using X-ray mutagenesis for enhanced genetic expression [19] (These advances have also paved the way for developing sustainable products and processes, including the production of biofuels from waste materials and using microorganisms to remove pollutants from water and air [20][21].
In addition to technical advances, there have also been significant innovations in commercialising microbial products and services. For example, the rise of biotechnology start-ups and the increasing availability of venture capital have facilitated the development and growth of the microbial bioeconomy with greater availability in some countries than others. The most common way through which start-ups are commercialising microbial products and services is the repurposing of biomass from agricultural products, consultancy, and training [22].

2.4. Applications of the Microbial Bioeconomy in Various Sectors

The microbial bioeconomy is a fast-growing field with various commercial and industrial applications, bio-based product production, food and feed, energy recovery and composting, waste management, recycling, and cascading, as well as multi-output production chains [22].
The use of microorganisms in producing bio-based products, including food and animal feed, has been widely acknowledged for a long time. One key advantage of using microorganisms to produce bio-based products is their capacity to utilise a variety of feedstocks. For instance, microorganisms, such as yeast and bacteria, can convert plant-based feedstocks, such as corn and wheat, into valuable products, such as lactic acid and ethanol [23] This renders the use of microorganisms a more cost-effective and efficient option to produce biofuels [24] Additionally, they can produce a variety of food products, such as fermented foods including yogurt, which is made using Lactobacillus delbrueckii subsp. Bulgaricus and Streptococcus thermophilus [25].
Microorganisms are also used for energy recovery and composting by converting organic waste into a valuable soil amendment that improves its physical properties, such as drainage, water retention, structure, permeability, aeration, and water infiltration. There has been a growing interest recently in composting to recover energy from organic waste while promoting economic sustainability [26]. One of the main benefits of composting is that it decreases the quantity of waste sent to landfills, where organic waste decomposes anaerobically and produces methane, a potent greenhouse gas. In contrast, when organic waste is composted, it decomposes in the presence of oxygen and produces carbon dioxide, a less harmful greenhouse gas. 
Human activities have led to the proliferation of landfills and incineration facilities, which can be environmentally damaging and costly to maintain. Microorganisms can convert organic waste, such as food and agricultural wastes, into biofuels and biochemicals [20]. This reduces the amount of refuse that is sent to landfills and generates revenue from selling these products.
The microbial bioeconomy can also support integrated and multi-output production chains, leading to cost-effective and efficient production. This method utilises microorganisms to simultaneously produce multiple products from a single feedstock. Studies have shown how effective this method is in producing biofuels and chemicals from a single microbial strain [27][28][29][30] and in producing biofuels, animal feed, and bioplastics using microalgae [31][32]. Such integrated production can increase the industrial process efficiency and sustainability. The discovery of CRISPR/Cas9 and other genetic engineering techniques has enabled the precise modification of various strains to produce targeted products. This flexibility has facilitated rapid and efficient responses to changes in market demand [33].

2.5. Role of the Microbial Bioeconomy in Achieving Sustainability in the Economy and Environment

The microbial bioeconomy plays a significant role in achieving both economic and environmental sustainability by using renewable resources and reducing waste and pollution. By using biomass and biological knowledge to provide food, feed, industrial products, bioenergy, and ecological services, the microbial bioeconomy aligns with several sustainable development goals, such as affordable and clean energy (Goal 7), sustainable cities and communities (Goal 11), and responsible consumption and production (Goal 12) [4][34][35]. By creating a balance between sustainability and economic aspirations, the microbial bioeconomy can help address global challenges, such as climate change mitigation, global food security, and sustainable resource management, leading to a more resilient and sustainable economy that benefits both people and the planet [36][37]. It creates a more resilient and sustainable economy that benefits both people and the planet by utilising the unique capabilities of microorganisms [4].
The microbial-based bioeconomy can create jobs, drive economic growth, and contribute to achieving the Sustainable Development Goals of the United Nations, particularly No Poverty (SDG 1), Zero hunger (SDG 2), and Decent Work and Economic Growth (SDG 8) [38][39]. As biomass is widely available, the microbial bioeconomy can create modern jobs (biotechnologists and bioeconomists) in rural areas and promote social inclusion [36][40][41], For instance, in 2019, approximately 17.4 million people in the EU were working in the bioeconomy sectors, which was 8.3% of its total labour force. Bio-based employment can be generated from advances in the microbial bioeconomy as described in the following practical examples. Spirulina, a kind of blue-green algae, is an excellent source of protein and other nutrients, making it a potentially sustainable and nutritious food source. Spirulina cultivation can create jobs in the aquaculture and agriculture industries, as well as in the processing and packaging of spirulina-based products [39]. Spirulina platensis is also being explored for its potential use in animal feed production. Because of its high protein content, spirulina is used in animal feed, which can create jobs in the animal husbandry and feed manufacturing industries. Using microorganisms in waste treatment, biopesticide production, and bioremediation products can create jobs in the environmental industry and in research and development, engineering, and operations.
Microorganisms play a vital role in mitigating and achieving climate neutrality, as they are used in various industrial processes that can help reduce greenhouse gas emissions and promote environmental sustainability. Using biological resources for food, feed, bio-based products, and bioenergy can align with the United Nations’ Sustainable Development Goals (SDGs), such as Affordable and Clean Energy (SDG 7); Industry, Innovation, and Infrastructure (SDG 9); and Responsible Consumption and Production (SDG 12) [1]. Microorganisms, such as yeast and algae, can produce biofuels, such as ethanol and biodiesel, as alternatives for fossil fuels. The production of biofuels using microorganisms can reduce lifecycle greenhouse gas emissions, as biofuels have a lower net GHG emission compared to fossil fuels [42].
Microbes play a crucial role in ecosystem and biodiversity restoration in several ways. For example, certain bacteria can break down pollutants and waste products, making them less harmful to the environment [43]. This process, known as bioremediation, can help clean up contaminated soil and water, making it safer for plants, animals, and humans. One example of a bacterium that can be used in bioremediation is Pseudomonas cepacia. This bacterium secretes a bio-surfactant that cleans up hydrocarbon contamination [44]. Microorganisms, such as bacteria and fungi, can degrade organic waste and pollutants, aiding in wastewater treatment and soil remediation. Specific examples of microorganisms that are used in the bioremediation of crude oil include Pseudomonas cepacian [44][45]. Bacillus cereus [46], Aspergillus oryzae [47], Bacillus coagulans [45], Citrobacter koseri [45] and Serratia ficariam [48]. These microorganisms can degrade pollutant hydrocarbons, heavy metals, and pesticides and are also used in the bioremediation of dyes in textile industry wastewater. Specific examples of microorganisms effective in dye bioremediation include Exiguobacterium indicum [49] (Exiguobacterium aurantiacums [50] Bacillus cereus [51] and Acinetobacter baumanii [52].
Penicillium, which is known for breaking down cellulose, a major component of plant cell walls [53] can help release nutrients into the soil, making them more available to plants. Additionally, Penicillium can produce antibiotics that can kill or inhibit the growth of other microbes, which can help control soil-borne diseases. Other fungi involved in this process include Trichoderma, Rhizopus, and Fusarium.
Trichoderma is a diverse genus of fungi. Some can break down varieties of organic compounds, including lignin, cellulose, and hemicellulose [54]. This renders it an effective tool for improving soil health and supporting the growth of plants. Rhizopus is another fungus in which most group members can help decompose organic matter and release nutrients into the soil, and it is known for its ability to break down starch and other complex sugars. One of the most well-known is Rhizopus stolonifer (the common bread mould), making it an essential contributor to the soil nutrient cycle [55].

2.6. Barriers to the Development of the Microbial Bioeconomy

Several limitations must be considered when using microorganisms in the bioeconomy [56]. One of the main limitations is the complexity of the microorganisms themselves. The genetic makeup of microorganisms can vary significantly, even within the same species, making it challenging to standardise the production process. Major advances are required, including genome sequencing and the creation of systems that can facilitate multitrophic and multi-layered production of microorganisms [57]. In addition, the process of genetically modifying microorganisms, an important component of the microbial bioeconomy, is complex and expensive, making it difficult to scale up production for commercial viability [57]. The use of these organisms raises ethical and safety concerns as they could escape into the environment and potentially cause harm to other organisms and could also spread to wild populations. Addressing these limitations is important for the successful implementation of the microbial bioeconomy.
To ensure sustainable production and prevent environmental harm, the microbial bioeconomy must consider resource availability and feedstocks. It involves developing microbial-based products and services while addressing bottlenecks through scientific policy and economic approaches. Policy recommendations include increasing research investments, incentivising microbial-based products, and facilitating public–private partnerships. Multi-disciplinary research from microbiologists, chemists, economists, and farmers is necessary, as in the case of biogas production, to evaluate the innovations’ scientific and societal impacts. Clear communication and close engagement with society are also crucial [58].
Another barrier lies in combining biodiversity with synthetic biotechnology for industrial-scale CO2 capture. The CO2 emission from fossil fuels and increased global warming are major challenges that will have significant and lasting implications for future generations. The first indicators of artificial climate change are the rising frequency of droughts, wildfires, heat waves in southern nations, excessive rainfall, and flooding [59][60].

References

  1. Thrän, D. Introduction to the Bioeconomy System. In The Bioeconomy System; Thrän, D., Moesenfechtel, U., Eds.; Springer: Berlin/Heidelberg, Germany, 2022; pp. 1–19. ISBN 978-3-662-64414-0.
  2. Kircher, M. Economic trends in the transition into a circular bioeconomy. J. Risk Financ. Manag. 2022, 15, 44.
  3. Wesseler, J.; Kleter, G.; Meulenbroek, M.; Purnhagen, K.P. EU Regulation of Genetically Modified Microorganisms in Light of New Policy Developments: Possible Implications for EU Bioeconomy Investments. Appl. Econ. Perspect. Policy 2022, 1–21.
  4. Bose, D.; Dey, A.; Banerjee, T. Aspects of Bioeconomy and Microbial Fuel Cell Technologies for Sustainable Development. Sustainability 2020, 13, 107–118.
  5. Gilbert, J.A.; Stephens, B. Microbiology of the built environment. Nat. Rev. Microbiol. 2018, 16, 661–670.
  6. Shi, T.-Q.; Peng, H.; Zeng, S.-Y.; Ji, R.-Y.; Shi, K.; Huang, H.; Ji, X.-J. Microbial Production of Plant Hormones: Opportunities and Challenges. Bioengineered 2017, 8, 124–128.
  7. Voidarou, C.; Antoniadou, Μ.; Rozos, G.; Tzora, A.; Skoufos, I.; Varzakas, T.; Lagiou, A.; Bezirtzoglou, E. Fermentative Foods: Microbiology, Biochemistry, Potential Human Health Benefits and Public Health Issues. Foods 2020, 10, 69.
  8. Chandel, A.K.; Garlapati, V.K.; Kumar, S.P.J.; Hans, M.; Singh, A.K.; Kumar, S. The Role of Renewable Chemicals and Biofuels in Building a Bioeconomy. Biofuels Bioprod. Biorefining 2020, 14, 830–844.
  9. Issa, I.; Delbrück, S.; Hamm, U. Bioeconomy from Experts’ Perspectives—Results of a Global Expert Survey. PLoS ONE 2019, 14, e0215917.
  10. Antar, M.; Lyu, D.; Nazari, M.; Shah, A.; Zhou, X.; Smith, D.L. Biomass for a Sustainable Bioeconomy: An Overview of World Biomass Production and Utilization. Renew. Sustain. Energy Rev. 2021, 139, 110691.
  11. Jadhav, D.A.; Mungray, A.K.; Arkatkar, A.; Kumar, S.S. Recent Advancement in Scaling-up Applications of Microbial Fuel Cells: From Reality to Practicability. Sustain. Energy Technol. Assess. 2021, 45, 101226.
  12. Schütte, G. What Kind of Innovation Policy Does the Bioeconomy Need? New Biotechnol. 2018, 40, 82–86.
  13. Lokko, Y.; Heijde, M.; Schebesta, K.; Scholtès, P.; Van Montagu, M.; Giacca, M. Biotechnology and the Bioeconomy—Towards Inclusive and Sustainable Industrial Development. New Biotechnol. 2018, 40, 5–10.
  14. European Commission, Directorate-General for Research and Innovation. A Sustainable Bioeconomy for Europe: Strengthening the Connection between Economy, Society and the Environment: Updated Bioeconomy Strategy, Publications Office. 2018. Available online: https://data.europa.eu/doi/10.2777/792130 (accessed on 8 December 2022).
  15. Piotrowski, S.; Carus, M.; und Carrez, D. European Bioeconomy in Figures. 2016. Available online: https://biconsortium.eu/sites/biconsortium.eu/files/documents/European%20Bioeconomy%20in%20Figures%202008%20-%202016_0.pdf (accessed on 8 December 2022).
  16. Joshi, S.; Robles, A.; Aguiar, S.; Delgado, A.G. The Occurrence and Ecology of Microbial Chain Elongation of Carboxylates in Soils. ISME J. 2021, 15, 1907–1918.
  17. Singh, R. Microbial Biotransformation: A Process for Chemical Alterations. J. Bacteriol. Mycol. Open Access 2017, 4, 47–51.
  18. Marulanda, V.A.; Gutierrez, C.D.B.; Alzate, C.A.C. Thermochemical, Biological, Biochemical, and Hybrid Conversion Methods of Bio-Derived Molecules into Renewable Fuels. In Advanced Bioprocessing for Alternative Fuels, Biobased Chemicals, and Bioproducts; Elsevier: Amsterdam, The Netherlands, 2019; pp. 59–81. ISBN 978-0-12-817941-3.
  19. Adrio, J.L.; Demain, A.L. Genetic Improvement of Processes Yielding Microbial Products. FEMS Microbiol. Rev. 2006, 30, 187–214.
  20. Karmee, S.K. Liquid Biofuels from Food Waste: Current Trends, Prospect and Limitation. Renew. Sustain. Energy Rev. 2016, 53, 945–953.
  21. Cunha, M.; Romaní, A.; Carvalho, M.; Domingues, L. Boosting Bioethanol Production from Eucalyptus Wood by Whey Incorporation. Bioresour. Technol. 2018, 250, 256–264.
  22. Donner, M.; de Vries, H. Innovative Business Models for a Sustainable Circular Bioeconomy in the French Agrifood Domain. Sustainability 2023, 15, 5499.
  23. Lin, Y.; Tanaka, S. Ethanol Fermentation from Biomass Resources: Current State and Prospects. Appl. Microbiol. Biotechnol. 2006, 69, 627–642.
  24. Singh, R.; Langyan, S.; Rohtagi, B.; Darjee, S.; Khandelwal, A.; Shrivastava, M.; Singh, A. Production of biofuels options by contribution of effective and suitable enzymes: Technological developments and challenges. Mater. Sci. Energy Technol. 2022, 5, 294–310.
  25. Nagaoka, S. Yogurt Production. In Lactic Acid Bacteria; Kanauchi, M., Ed.; Methods in Molecular Biology; Springer: New York, NY, USA, 2019; Volume 1887, pp. 45–54. ISBN 978-1-4939-8906-5.
  26. Saradha Devi, G.; Vaishnavi, S.; Srinath, S.; Dutt, B.; Rajmohan, K.S. Chapter 19—Energy Recovery from Biomass Using Gasification. In Current Developments in Biotechnology and Bioengineering; Varjani, S., Pandey, A., Gnansounou, E., Khanal, S.K., Raveendran, S., Eds.; Elsevier: Amsterdam, The Netherlands, 2020; pp. 363–382.
  27. Jang, Y.S.; Lee, J.Y.; Lee, J.; Park, J.H.; Im, J.A.; Eom, M.H.; Lee, J.; Lee, S.H.; Song, H.; Cho, J.H.; et al. Enhanced butanol production obtained by reinforcing the direct butanol-forming route in Clostridium acetobutylicum. mBio 2012, 3, e00314-12.
  28. Aindrila, M. Tolerance engineering in bacteria for the production of advanced biofuels and chemicals. Trends Microbiol. 2015, 23, 498–508.
  29. Adegboye, M.F.; Ojuederie, O.B.; Talia, P.M.; Babalola, O.O. Bioprospecting of microbial strains for biofuel production: Metabolic engineering, applications, and challenges. Biotechnol. Biofuels 2021, 14, 5.
  30. Nyyssölä, A.; Ojala, L.S.; Wuokko, M.; Peddinti, G.; Tamminen, A.; Tsitko, I.; Nordlund, E.; Lienemann, M. Production of Endotoxin-Free Microbial Biomass for Food Applications by Gas Fermentation of Gram-Positive H2-Oxidizing Bacteria. ACS Food Sci. Technol. 2021, 1, 470–479.
  31. Benemann, J. Microalgae for Biofuels and Animal Feeds. Energies 2013, 6, 5869–5886.
  32. Onen Cinar, S.; Chong, Z.K.; Kucuker, M.A.; Wieczorek, N.; Cengiz, U.; Kuchta, K. Bioplastic Production from Microalgae: A Review. Int. J. Environ. Res. Public Health 2020, 17, 3842.
  33. Guo, N.; Liu, J.-B.; Li, W.; Ma, Y.-S.; Fu, D. The Power and the Promise of CRISPR/Cas9 Genome Editing for Clinical Application with Gene Therapy. J. Adv. Res. 2022, 40, 135–152.
  34. United Nations. The Sustainable Development Goals Report 2022. United Nations Publications; United Nations: New York, NY, USA, 2022; Available online: https://unstats.un.org/sdgs/report/2022/ (accessed on 8 December 2022).
  35. Tan, E.C.D.; Lamers, P. Circular Bioeconomy Concepts—A Perspective. Front. Sustain. 2021, 2, 701509.
  36. Wesseler, J.; von Braun, J. Measuring the bioeconomy: Economics and policies. Annu. Rev. Resour. Econ. 2017, 9, 275–298.
  37. Staffas, L.; Gustavsson, M.; McCormick, K. Strategies and Policies for the Bioeconomy and Bio-Based Economy: An Analysis of Official National Approaches. Sustainability 2013, 5, 2751–2769.
  38. Gomez, J.A.; Höffner, K.; Barton, P.I. From Sugars to Biodiesel Using Microalgae and Yeast. Green Chem. 2016, 18, 461–475.
  39. Jung, F.; Krüger-Genge, A.; Waldeck, P.; Küpper, J.-H. Spirulina Platensis, a Super Food? J. Cell. Biotechnol. 2019, 5, 43–54.
  40. Azevedo, S.G.; Sequeira, T.; Santos, M.; Mendes, L. Biomass-related sustainability: A review of the literature and interpretive structural modeling. Energy. Elsevier 2019, 171, 1107–1125.
  41. Demirbas, A. Political, Economic and Environmental Impacts of Biofuels: A Review. Appl. Energy 2009, 86, S108–S117.
  42. United States Environmental Protection Agency. Economics of Biofuels. In US EPA Publications and Reports; United States Environmental Protection Agency: Washington, DC, USA, 2022.
  43. Rabbani, A.; Zainith, S.; Deb, V.K.; Das, P.; Bharti, P.; Rawat, D.S.; Kumar, N.; Saxena, G. Microbial Technologies for Environmental Remediation: Potential Issues, Challenges, and Future Prospects. In Microbe Mediated Remediation of Environmental Contaminants; Elsevier: Amsterdam, The Netherlands, 2021; pp. 271–286. ISBN 978-0-12-821199-1.
  44. Soares da Silva, R.D.C.F.; Luna, J.M.; Rufino, R.D.; Sarubbo, L.A. Ecotoxicity of the Formulated Biosurfactant from Pseudomonas cepacia CCT 6659 and Application in the Bioremediation of Terrestrial and Aquatic Environments Impacted by Oil Spills. Process Saf. Environ. Prot. 2021, 154, 338–347.
  45. Fagbemi, O.K.; Sanusi, A.I. Chromosomal and Plasmid Mediated Degradation of Crude Oil by Bacillus coagulans, Citrobacter koseri and Serratia ficaria Isolated from the Soil. Afr. J. Biotechnol. 2017, 16, 1242–1253.
  46. Deng, Z.; Jiang, Y.; Chen, K.; Gao, F.; Liu, X. Petroleum Depletion Property and Microbial Community Shift After Bioremediation Using Bacillus halotolerans T-04 and Bacillus cereus 1-1. Front. Microbiol. 2020, 11, 353.
  47. Singh, R.; Kumar, M.; Mittal, A.; Mehta, P.K. Microbial Enzymes: Industrial Progress in 21st Century. 3 Biotech 2016, 6, 174.
  48. Dos Santos, R.A.; Rodríguez, D.M.; da Silva, L.A.R.; de Almeida, S.M.; de Campos-Takaki, G.M.; de Lima, M.A.B. Enhanced production of prodigiosin by Serratia marcescens UCP 1549 using agrosubstrates in solid-state fermentation. Arch Microbiol. 2021, 203, 4091–4100.
  49. Solís, M.; Solís, A.; Pérez, H.I.; Manjarrez, N.; Flores, M. Microbial Decolouration of Azo Dyes: A Review. Process Biochem. 2012, 47, 1723–1748.
  50. Palanivelan, R.; Sakthi Thesai, A.; Ramya, S.; Ayyasamy, P.M. Effect of Multiple Factors on Azo Dye Decolorization using a Moderate Halophilic Bacterium Exiguobacterium aurantiacum (ESL52). Glob. Sci. 2019, 22, 206–216.
  51. Emadi, Z.; Sadeghi, R.; Forouzandeh, S.; Mohammadi-Moghadam, F.; Sadeghi, R.; Sadeghi, M. Simultaneous Anaerobic Decolorization/Degradation of Reactive Black-5 Azo Dye and Chromium (VI) Removal by Bacillus cereus Strain MS038EH Followed by UV-C/H2O2 Post-Treatment for Detoxification of Biotransformed Products. Arch. Microbiol. 2021, 203, 4993–5009.
  52. Sreedharan, V.; Saha, P.; Rao, K.V.B. Dye Degradation Potential of Acinetobacter baumannii Strain VITVB against Commercial Azo Dyes. Bioremediation J. 2021, 25, 347–368.
  53. Todero Ritter, C.E.; Camassola, M.; Zampieri, D.; Silveira, M.M.; Dillon, A.J.P. Cellulase and Xylanase Production by Penicillium echinulatum in Submerged Media Containing Cellulose Amended with Sorbitol. Enzym. Res. 2013, 2013, 240219.
  54. Do Vale, L.H.F.; Filho, E.X.F.; Miller, R.N.G.; Ricart, C.A.O.; de Sousa, M.V. Cellulase Systems in Trichoderma. In Biotechnology and Biology of Trichoderma; Elsevier: Amsterdam, The Netherlands, 2014; pp. 229–244. ISBN 978-0-444-59576-8.
  55. Briggs, G.M. Inanimate Life; Milne Open Textbooks: Geneseo, NY, USA, 2021; ISBN 978-1-942341-82-6.
  56. Talwar, N.; Holden, N.M. The Limitations of Bioeconomy LCA Studies for Understanding the Transition to Sustainable Bioeconomy. Int. J. Life Cycle Assess. 2022, 27, 680–703.
  57. Yarnold, J.; Karan, H.; Oey, M.; Hankamer, B. Microalgal Aquafeeds as Part of a Circular Bioeconomy. Trends Plant Sci. 2019, 24, 959–970.
  58. United Kingdom Department of Business, Energy and Industrial Strategy. Growing the Economy: A National Strategy to 2030; United Kingdom Department of Business, Energy and Industrial Strategy: London, UK, 2018. Available online: https://www.gov.uk/government/publications/bioeconomy-strategy-2018-to-2030/uk-bioeconomy-strategy-background-analytical-note (accessed on 8 December 2022).
  59. Karl, T.R.; Trenberth, K.E. Modern global climate change. Science 2003, 302, 1719–1723.
  60. IPCC. Climate Change 2014. Synthesis Report. 2014. Available online: https://www.ipcc.ch/assessment-report/ar5/ (accessed on 8 December 2022).
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