Microbial Biotechnology and Microbe Engineering
Microorganisms are crucial cell factories for the manufacture of single cell proteins, small and large metabolites, and proteins. Methods and strategies for the production and use of eukaryotic and prokaryotic microorganisms (e.g., yeasts, fungi, algae) and archaea for substance synthesis, as well as the use of the microorganisms or their substances in applications in the fields of white (industrial), red (pharmaceutical/medical), and green (agro-environmental) biotechnology, are included in the field of microbial biotechnology. It also addresses the use of microbes or their products in biocatalysis, energy, food and feed, mining, and the development of novel materials.
Engineering and applied biological sciences have identified microbial engineering technologies as a significant and relevant topic area. A microbial engineer works on biotechnology's biological, chemical, and engineering elements, manipulating microbes and discovering new applications for them. Microbiome engineering is becoming more popular as a way to address problems in health, agriculture, and climate change. Microbiome engineering aims to improve an ecosystem's function by changing microbial makeup. The design of a microbiome with increased function and the creation of an improved microbiome are two important obstacles for successful microbiome engineering. Microbiome engineering is a field that is fast growing. Microbiome engineering for human health has had several remarkable successes, particularly in the infant gut, bioremediation, wastewater engineering, and agriculture.
- Primary Metabolites
- Food, Beverages and Supplements
- Secondary Metabolites and Natural Products
- Pharmaceuticals and Diagnostics
- Bioenergy
- Biomining, Including Oil Recovery and Processing
- Bioremediation
- Biopolymers, Biomaterials
- Bionanotechnology
- Biosurfactants And Bioemulsifiers
- Compatible Solutes and Bioprotectants
- Biosensors, Monitoring Systems, Quantitative Microbial Risk Assessment
- Technology Development
- Protein Engineering
- Functional Genomics
- Metabolic Engineering
- Metabolic Design
- Systems Analysis, Modelling
- Process Engineering
- Biologically-Based Analytical Methods
- Microbially-Based Strategies in Public Health
- Microbially-Based Strategies to Influence Global Processes
P. Satya Singh
Saurashtra University, India
Alon Herschhorn
University of Minnesota, United States
Xingmin Sun
University of South Florida, United States
Aubrey Frantz
University of North Texas at Dallas, United States
Mario Meza Segura
University of Massachusetts Chan Medical School, United States
Bhanu Priya Ganesh
The University of Texas Health Science Centre Houston, United States
Katchen Julliany Pereira Silva
Cornell University, United States
Title : Screening for proteins that extend chronological life span in yeast
Eugene Boon Beng Ong, Universiti Sains Malaysia, Malaysia
Title : Heavy metal tolerance and adaptive strategies of halophilic archaea isolated from the highly contaminated Sfax solar saltern sediments (Tunisia)
Houda Baati, University of Sfax , Tunisia
Title : The effectiveness of B cell and T cell epitopes cocktail as a potential vaccine against Staphylococcus aureus in two murine models
Samar Mansour Solyman, Suez Canal University, Egypt
Title : Extremophiles protein structural, functional and evolutionary adaptation driven by its structural plasticity is proven by different physicochemical factors
Anindya Sundar Panja, Vidyasagar University, India
Title : Studies on alteration of gut microbial composition with probiotics administration in health and disease using metagenomic analysis
Manisha Mandal, MGM Medical College, India
Title : Development and validation of two robust simple chromatographic methods for estimation of tomatoes specific pesticides? residues for safety monitoring prior to food processing line and evaluation of local samples
Amira Hegazy, BSU, Egypt