Journal of Bioremediation & Biodegradation
Open Access

Pharmaceutical merchandise (PhP) is regarded one of the most complex contaminants due to their good sized prevalence in the environment. Wastewater therapy vegetation (WWTP) are no longer especially designed for the elimination of pharmaceutical substances, and therefore some of these pollution stay unchanged at some point of WWTP operation and enter the surroundings thru the discharge of the dealt with wate. Moreover, clinic and industrial wastewaters, collectively with unlawful drug disposal, are additionally accountable for this big contamination. PhPs have been detected in WWTP effluents, floor waters, seawater, groundwater and even ingesting water in a number of countries. The accumulation and persistence of PhP in the surroundings can produce dangerous effects, now not solely in aquatic organisms however additionally in humans [1]. Therefore, it is indispensable to increase reasonably-priced methods to correctly eliminate this pollution from wastewaters.

Anaerobic organic procedures are an environmentally pleasant and low fee choice for wastewater treatment, particularly in the elimination of natural pollutants. These approaches have a number of benefits consisting of low strength costs, low tiers of sludge manufacturing and the technology of biogas. Furthermore, current technological trends confirmed that the incorporation of an anaerobic technique enhances the elimination of recalcitrant micro pollutants, such as PhP. Carbamazepine, diatrizoic acid; iopromide, clofibric acid and atenolol are examples of micro-pollutants whose biodegradation is preferred in the absence of oxygen. Some biodegradation reactions that occur below anaerobic prerequisites encompass reductive dehalogenation, discount of nitro corporations and demethylating, which are necessary reactions for the breakdown of complicated chemical compounds into less complicated and much less poisonous products. In the closing decade, various anaerobic bioprocesses have been developed to deal with PhP-containing wastewaters. However, no matter the proof for anaerobic bio-removal of PhP, the identification of the microorganisms worried has not often been investigated. The elimination affectivity is incredibly based on the bacterial neighbourhood structure, so it is necessary to become aware of the PhP-degrading microorganisms for the improvement of environment friendly anaerobic bioprocesses [2].

Antibiotics and hormones are extensively used and have been discovered in a number of environmental matrices. Three compounds belonging to these two PhP training (ciprofloxacin, sulfamethoxazole and 17β-estradiol) had been chosen to inspect their anaerobic biodegradation underneath three anaerobic increase conditions: fermentative, nitrate-reducing and sulfate-reducing conditions. The PhP-degrading bacterial communities had been characterised thru Next Generation Sequencing (NGS) and the mechanisms worried in the elimination have been disclosed. Moreover, the impact of PhP on the dynamics of the bacterial consortia was once evaluated.

Discussion

Microbial diversity in anaerobic pharmaceutical degradation

The widespread use and disposal of pharmaceutical compounds in the environment have raised significant concerns regarding their potential adverse impacts on ecosystems and human health. Unlike many other organic pollutants, pharmaceuticals are intentionally designed to exert biological activity, and their persistence in environmental compartments such as surface waters, groundwater, and soils has garnered considerable attention from the scientific community and environmental regulatory agencies. In light of these concerns, it has become imperative to explore innovative and sustainable approaches for the removal and mitigation of pharmaceutical contaminants from natural systems. One such approach that has gained increasing prominence in recent years is anaerobic biodegradation [3].

Anaerobic biodegradation is a microbiological process that takes place in oxygen-deprived environments and is characterized by the utilization of organic compounds by diverse communities of microorganisms. These microorganisms have evolved unique metabolic pathways and enzymatic capabilities to break down complex organic molecules into simpler and less harmful forms. While anaerobic biodegradation has been widely studied for its role in the degradation of various organic pollutants, its application in the context of pharmaceutical degradation represents a relatively nascent field of research. At the heart of the anaerobic biodegradation process are microorganisms, which serve as the primary agents responsible for the transformation and mineralization of pharmaceuticals. Understanding the microbial diversity within anaerobic environments and their capacity to interact with and degrade pharmaceutical compounds is a fundamental aspect of elucidating the mechanisms driving pharmaceutical degradation. The investigation of microbial diversity in anaerobic pharmaceutical degradation not only expands our knowledge of the intricate relationships between microorganisms and pharmaceuticals but also holds the key to developing effective and sustainable strategies for pharmaceutical pollutant removal from natural environments [4].

Metabolic pathways of pharmaceutical-degrading microorganisms

The fate of pharmaceutical compounds in the environment is a topic of growing concern due to their widespread use in human and veterinary medicine. Pharmaceuticals, designed to exert specific biological effects within organisms, often find their way into natural systems through various routes, posing potential ecological and health risks. In response to this challenge, researchers have turned their attention to the role of microorganisms in the biodegradation of pharmaceuticals, with a particular focus on anaerobic environments. Anaerobic biodegradation, a process that occurs in the absence of oxygen, offers a promising avenue for the removal and transformation of pharmaceuticals in contaminated ecosystems. In this microbial-driven process, microorganisms utilize pharmaceutical compounds as sources of carbon, energy, or both, ultimately leading to their degradation into simpler and less harmful forms. Central to this complex process are the metabolic pathways employed by pharmaceutical-degrading microorganisms. Understanding the metabolic pathways utilized by microorganisms in the degradation of pharmaceuticals is crucial for several reasons. First, it provides insight into the mechanisms governing the transformation of pharmaceutical compounds, shedding light on the specific enzymatic reactions involved in their degradation. Second, it offers the potential for harnessing these pathways to design tailored remediation strategies for mitigating pharmaceutical pollution in natural systems. Lastly, it underscores the remarkable adaptability and versatility of microorganisms in responding to environmental contaminants [5].

Microbial consortia and synergistic interactions

Microorganisms have been performing crucial functions in ecosystems for billions of years, often working together in complex communities to accomplish tasks that would be impossible for individual microbes alone. These microbial consortia, formed by diverse groups of microorganisms, are central to various biological processes, including nutrient cycling, organic matter degradation, and even the treatment of environmental contaminants. One particularly intriguing application of microbial consortia is in the realm of anaerobic biodegradation, where the combined efforts of multiple microorganisms lead to the efficient degradation of complex organic compounds, such as pharmaceuticals. Pharmaceutical contamination in the environment has emerged as a pressing concern due to the potential ecological and human health risks associated with these biologically active compounds. As pharmaceuticals enter natural systems, their persistence and transformation pathways have become a focal point for environmental scientists and engineers. Within this context, the study of microbial consortia and their synergistic interactions in anaerobic pharmaceutical degradation has garnered significant attention. Understanding microbial consortia and their interactions is essential for several reasons. Firstly, it elucidates the cooperative and competitive dynamics among microorganisms within complex communities, providing insights into how different species work together to achieve specific metabolic objectives. Secondly, it highlights the potential for enhancing pharmaceutical degradation rates and efficiency through the manipulation of microbial consortia. Lastly, it underscores the adaptability and resilience of microbial communities in the face of environmental contaminants, offering hope for sustainable and nature-based solutions to pharmaceutical pollution [6, 7].

Environmental implications and applications

The presence of pharmaceutical substances in the environment has raised significant environmental concerns due to their potential impacts on aquatic ecosystems, human health, and the persistence of these compounds in natural systems. To address this issue, researchers have been exploring innovative and sustainable approaches for the removal and mitigation of pharmaceutical contaminants [8].

One such approach that has shown promise is anaerobic biodegradation, a process that occurs in the absence of oxygen and relies on the metabolic activities of diverse microorganisms. The environmental implications and applications of anaerobic biodegradation in the context of pharmaceutical removal are of paramount importance. By harnessing the natural capabilities of microbial communities in anaerobic environments, we have the potential to develop environmentally friendly strategies for pharmaceutical pollutant remediation. Furthermore, these strategies can significantly contribute to the protection of aquatic ecosystems and the improvement of water quality. This chapter examines the environmental implications and applications of anaerobic biodegradation in pharmaceutical removal. It explores how this process can be harnessed to address pharmaceutical contamination in natural systems and its potential benefits for environmental sustainability. Additionally, it discusses the broader implications of utilizing anaerobic biodegradation in the context of wastewater treatment and the protection of aquatic ecosystems [9-11].

Conclusion

The investigation into pharmaceutical-degrading microorganisms from anaerobic biodegradation processes has revealed a wealth of new insights that hold significant promise for addressing the environmental challenges posed by pharmaceutical contamination. Anaerobic biodegradation, occurring in oxygen-deprived environments, has emerged as a valuable tool in the arsenal of strategies aimed at mitigating pharmaceutical pollution. Throughout this exploration, several key findings and implications have emerged, culminating in a deeper understanding of this vital field of study. One of the primary insights gained from this research is the remarkable diversity of microorganisms engaged in anaerobic pharmaceutical degradation.

Microbial communities in anaerobic environments are highly adaptable, encompassing a wide range of taxonomic groups, including bacteria and archaea. The identification of specific genera, such as Clostridium, Desulfovibrio, and Methanogen archaea, highlights the dynamic and versatile nature of these microorganisms in the face of pharmaceutical contaminants. As we strive to address the complex challenges posed by pharmaceutical contamination, these insights pave the way for the development of sustainable and effective strategies that prioritize environmental protection and human health. By continuing to advance our understanding of anaerobic biodegradation, we move closer to a future where pharmaceutical pollution is managed with the utmost efficiency and care, ensuring the preservation of our precious ecosystems for generations to come.

1. Adewunmi M, Akintelu S, Adegboyega S, Oladele W, Taiwo O (2021) Exploratory Data Analysis (EDA) of Social Media Impact on Lagos Residents during COVID-19 Pandemic. J Manag Soci Sci 6:1.

Indexed at, Google Scholar

2. Ajala V O (2005) Scholarly Writing Guide for Researchers. Ibadan May Best Publishers.

Indexed at, Google Scholar

3. Akinfeleye A (1987) Communication Network: Essentials of Effective Surgery” In R.A. Akinfeleye (ed.) Health Communication and Development. Ibadan: Spectrum Books.

Google Scholar

4. Al-Hanawi M K, Angawi K, Alshareef N, Qattan AMN, Helmy HZ, et al. (2020) Knowledge, Attitude and Practice Toward COVID-19 Among the Public in the Kingdom of Saudi Arabia: A Cross-Sectional Study. Front. Public Health 8:217.

Indexed at, Google Scholar, Crossref

5. Anaeto SG, Onabajo OS, Osifeso JB (2008) Models and Theories of Communication. Maryland USA: African Renaissance Books Incorporated.

Google Scholar, Crossref

6. Anwar A, Malik M, Raees V, Anwar A (2020) Role of Mass Media and Public Health Communications in the COVID-19 Pandemic. Cureus 12:e10453.

Indexed at, Google Scholar, Crossref

7. Apuke OD, Omar B (2020) how do Nigerian newspapers report COVID-19 pandemic? The implication for awareness and prevention. Health Educ Res. 35:471-480.

Indexed at, Google Scholar, Crossref

8. Baran S J, Davis D K (2009) Mass Communication Theory: Foundations, Ferment and Future, (5th ed). Boston, USA: Wadsworth Cengage Learning.

Google Scholar

9. Chan JF, Yuan S, Kok KH, To KK, Chu H et al. (2020) A familial cluster of pneumonia associated with the 2019 novel coronavirus indicating person-to-person transmission: a study of a family cluster. Lancet 395:514-523.

Indexed at, Google Scholar, Crossref

10. Filak V F (2015) Dynamics of Media Writing: Adapt and Connect, Second Edition, Sage Publishing.

Google Scholar

11. Hamid A M, Sule G M (2021) Media Campaign Exposure and HIV/AIDS Prevention: 1980-2020. In (Ed.), AIDS Updates - Recent Advances and New Perspectives Intech Open.

Google Scholar