The enzymatic degradation of microbial biofilms, particularly those formed by cariogenic bacteria, has attracted substantial interest in recent times due to its potential applications in oral health as well as industrial biotechnology. Mutanase, a specialized enzyme capable of hydrolyzing α-1,3-glucans (commonly referred to as mutans), plays a pivotal role in disrupting biofilms, especially those associated with dental caries. These biofilms are primarily composed of extracellular polysaccharides synthesized by Streptococcus mutans and related species, which contribute to tooth decay and other oral diseases. The identification and isolation of mutanase-producing microorganisms from natural environments, such as soil and dental caries specimens, is therefore a critical step in advancing biofilm control strategies. Microbial enzymes, including mutanase, are often sourced from diverse ecological niches due to the adaptability and metabolic versatility of microorganisms. Soil, a rich reservoir of microbial diversity, harbors numerous species capable of producing extracellular enzymes to degrade complex polysaccharides. Similarly, dental caries specimens provide a unique microenvironment where microorganisms are exposed to mutans-rich biofilms, potentially driving the evolution of mutanase-producing strains. Screening these environments for mutanase producers not only aids in understanding microbial ecology but also facilitates the discovery of novel enzymes with enhanced activity and stability for therapeutic and industrial applications. The significance of mutanase extends beyond oral health. In industrial biotechnology, mutanase is employed in processes such as the modification of glucans in food, pharmaceuticals, and bioethanol production. Furthermore, its application in biofilm disruption has implications for medical device sterilization and the prevention of biofouling in water treatment systems. These diverse applications underscore the importance of isolating and characterizing mutanase-producing microorganisms from natural sources. Recent advancements in microbial screening techniques, including selective enrichment, high-throughput assays, and molecular characterization, have streamlined the identification of enzyme-producing strains. By leveraging these methods, researchers can efficiently isolate and evaluate microorganisms capable of producing mutanase under various environmental conditions. Studies have demonstrated that combining traditional microbiological approaches with modern molecular tools enhances the likelihood of discovering novel strains with superior enzymatic properties. This report focuses on the systematic screening and isolation of mutanase-producing microorganisms from two distinct sources: soil samples and dental caries specimens. By exploring these environments, the study aims to identify potential microbial candidates for further enzymatic characterization and application development. Collection and Preparation of Soil and Teeth Caries Samples. Mutanases, are also called a-1,3-Glucan 3-glucanohydrolases; they demonstrate tremendous promise as dental caries-prevention medicines since mutanases hydrolyze the glucans that are water-insoluble found in dental plaque. Nevertheless, due to the lack of enzymatic preparations appropriate for oral usage, the use of mutanases has not been particularly successful economically. In the present study Mutanase producing microorganisms were isolated on mutanase producing agar medium. Qualitative determination of Mutanase was done by plate screening method using congo red as indicator. Positive cultures were further screened quantitatively in liquid medium using mutan as a substrate. Bacterial isolate (AK 27) gave maximum mutanase production that is 0.68 U/ml over 72 hours incubation period
Keywords: Mutanase, Mutan, congo red.
How to cite this article: Patel K, Shukla S, Padhiar A, Screening and Isolation of Mutanase producing microorganism from different soil samples and teeth caries specimens. Int J Drug Deliv Technol. 2026;16(1s): 337-347 DOI: 10.25258/ijddt.16. 337-347