6^th International conference on Microbes and Beneficial Microbes November 03-04, 2022 Montreal, Canada

Agricultural microbiology which is the most important field of Microbiology for the economic and medical importance it holds. This field explores various aspects like the genetics, physiology, molecular biology, virulence & pathogenicity and other aspects of the plant microbes. It deals with the infectious agents of the microbes, improvements and resistance of the agricultural crops, economic importance and the beneficial aspects of the normal agricultural flora. A complete study and understanding is crucial in application of the microbes for augmentation of soil nutrients, which is increasing the resistance of plants against the plant pathogen, for understanding the interaction a microbe has with the plant, and crop robustness.

1. Food microbiology
2. Bio-fertilizer Production
3. Fermentation technology
4. Soil and Applied Microbiology
5. Use of microorganisms to the soil fertility.
6. Microorganisms to control illnesses and pests.

Soil microorganisms are the most abundant of all the biota in soil and responsible for driving nutrient and organic matter cycling, soil fertility, soil restoration, plant health and ecosystem primary production. Beneficial microorganisms include those that create symbiotic associations with plant roots (rhizobia, mycorrhizal fungi, actinomycetes, diazotrophic bacteria), promote nutrient mineralization and availability, produce plant growth hormones, and are antagonists of plant pests, parasites or diseases (biocontrol agents). Many of these organisms are already naturally present in the soil, although in some situations it may be beneficial to increase their populations by either inoculation or by applying various agricultural management techniques that enhance their abundance and activity.

1. Rhizobia
2. Biocontrol fungi
3. Growth Promoting Bacteria
4. Nitrogen (N2) Fixing Bacteria

The ability of gut microbiota to communicate with the brain and thus modulate behavior is emerging as an exciting concept in health and disease. The enteric microbiota interacts with the host to form essential relationships that govern homeostasis. Despite the unique enteric bacterial fingerprint of each individual, there appears to be a certain balance that confers health benefits. It is, therefore, reasonable to note that a decrease in the desirable gastrointestinal bacteria will lead to deterioration in gastrointestinal, neuroendocrine or immune relationships and ultimately disease.

1. Citrobacter Rodentium
2. Modulation of the Intestinal Micro-flora
3. Infection, central activation and behavior
4. Inflammatory Bowel Disease and Crohn’s Disease
5. Probiotics and behavior/central neurotransmitters
6. Behavioral and neurochemical consequences of growing up germ-free

The term “Immunobiotics” has been proposed to define microbial strains able to beneficially regulate the mucosal immune system. Over the past few years, we have witnessed the emergence of robust development in the application of immunobiotics to combat infections, and researchers have found that the use of beneficial microbes is an interesting alternative to prevent and reduce the severity of infections in humans and animals. The effect of immunobiotics on the gut innate and adaptive immune responses to enteric pathogens has been recognized conclusively the influence of immunobiotics on the immune responses in distal mucosal sites and its impact in the outcome of respiratory infections has recently been exposed.

1. Pathogens
2. Beneficial microbes 
3. Immunobiotic strains
4. Influenza virus infection

Oral microbiology is the study of the microorganisms (microbiota) of the oral cavity and their interactions between oral microorganisms or with the host. Microbes within dental plaque as the cause of dental and periodontal diseases. The collective function of microbial communities is a major driver of homeostasis or dysbiosis and ultimately health or disease. Despite different aetiologies, periodontitis and caries are each driven by a feed forward loop between the microbiota and host factors (inflammation and dietary sugars, respectively) that favour the emergence and persistence of dysbiosis. 

1. Periodontitis
2. Microbiota
3. Homeostasis
4. Dysbiosis

A microbiome is the community of microorganisms such as bacteria, archaea, fungi, as well as viruses that inhabit an ecosystem or organism. Microorganisms dominate all other life everywhere scientists have looked, including the human body, the Earth’s soils and sediments, the oceans and fresh waterways, the atmosphere and even extreme environments such as hydrothermal vents and subglacial lakes. Scientists also use the term microbiome to refer to all these genes associated with those life forms.

1. The Earth Microbiome
2. The Ocean Microbiome
3. The Animal Microbiome
4. Modulation of Microbiota
5. The Human Microbiome
6. The Atmospheric Microbiome

Marine microbiology is the study of microorganisms and non-organismic microbes that exist in saltwater environments, including the open ocean, coastal waters, estuaries, on marine surfaces and in sediments. Aquatic microbiology is the science that deals with microscopic living organisms in fresh or salt water systems. Aquaculture & Marine Biotechnology helps to control the marine organisms and water borne organisms. It is a process which has to do with marine or underwater environment. Blue Biotechnology is used to protect the marine organisms from harmful diseases underwater. The control of seasonal production and reproduction in farm animals has become major research goals. The applications of biotechnology to fish farming and ornamental fish production are numerous and valuable in both economic (food production, aquarium trade) and environmental terms (conservation of natural biodiversity for endangered species and protection of natural biodiversity from escapee domesticated strains). With the growing demand for fish products, biotechnology can help in the development of high quality, economical produce, thereby reducing pressure on natural population.

1. Applications of Marine Biotechnology
2. Marine Microbiology and Biodiversity
3. Biotechnology applications to Aquaculture
4. Marine-based Drug Discovery and Development
5. Environmental Risk of Aquatic Organisms from Genetic Biotechnology

Microbes are typically surrounded by different strains and species with whom they compete for scarce nutrients and limited space. Given such challenging living conditions, microbes have evolved many phenotypes with which they can outcompete and displace their neighbours: secretions to harvest resources, loss of costly genes whose products can be obtained from others, stabbing and poisoning neighbouring cells, or colonising spaces while preventing others from doing so. These competitive phenotypes appear to be common, although evidence suggests that, over time, competition dies down locally, often leading to stable coexistence of genetically distinct lineages. Nevertheless, the selective forces acting on competition and the resulting evolutionary fates of the different players depend on ecological conditions in a way that is not yet well understood. Here, we highlight open questions and theoretical predictions of the long-term dynamics of competition that remain to be tested. Establishing a clearer understanding of microbial competition will allow us to better predict the behaviour of microbes, and to control and manipulate microbial communities for industrial, environmental, and medical purposes.

1. Social Evolution.
2. Bacteria Communities
3. Bacterial pathogenomics
4. Host–microbe interactions
5. Interference and Exploitative competition
6. Manipulation of host-cell pathways by bacterial pathogens
7. An ecological and evolutionary perspective on human–microbe mutualism and disease

Demands for food, animal feed, and feedstocks for bioenergy and biorefining applications, are increasing with population growth, urbanization and affluence. Low-input, sustainable, alternatives to petrochemical-derived fertilizers and pesticides are required to reduce input costs and maintain or increase yields, with potential biological solutions having an important role to play. Plant–microbe interactions span a wide range of relationships in which one or both of the organisms may have a beneficial, neutral or negative effect on the other partner. A relatively small number of beneficial plant–microbe interactions are well understood and already exploited; however, others remain understudied and represent an untapped reservoir for optimizing plant production. There may be near-term applications for bacterial strains as microbial biopesticides and biofertilizers to increase biomass yield from energy crops grown on land unsuitable for food production. Longer term aims involve the design of synthetic genetic circuits within and between the host and microbes to optimize plant production. A highly exciting prospect is that endosymbionts comprise a unique resource of reduced complexity microbial genomes with adaptive traits of great interest for a wide variety of applications.

1. Energy and microbes
2. Bacterial endophyte
3. Food and microbial engineering
4. Genetic engineering of microbes
5. Metabolic engineering and synthetic biology
6. Biomedical engineering and microbiological researches

Soil microorganisms are the most abundant of all the biota in soil and responsible for driving nutrient and organic matter cycling, soil fertility, soil restoration, plant health and ecosystem primary production. Beneficial microorganisms include those that create symbiotic associations with plant roots (rhizobia, mycorrhizal fungi, actinomycetes, diazotrophic bacteria), promote nutrient mineralization and availability, produce plant growth hormones, and are antagonists of plant pests, parasites or diseases (biocontrol agents). Many of these organisms are already naturally present in the soil, although in some situations it may be beneficial to increase their populations by either inoculation or by applying various agricultural management techniques that enhance their abundance and activity