MICROBIOLOGY-MOD.1
- Academic year
- 2023/2024 Syllabus of previous years
- Official course title
- MICROBIOLOGIA-MOD.1
- Course code
- CT0534 (AF:394043 AR:205244)
- Modality
- On campus classes
- ECTS credits
- 6
- Degree level
- Bachelor's Degree Programme
- Educational sector code
- BIO/19
- Period
- 1st Semester
- Course year
- 3
- Moodle
- Go to Moodle page
Contribution of the course to the overall degree programme goals
Expected learning outcomes
-Understand the fundamental concepts of microbiology and the importance of microorganisms;
-Describe prokaryotic and viral structures and how they relate to cell functions and interaction with other organisms and the environment;
-Describe the metabolic diversity of prokaryotes and how these organisms obtain energy, electrons and carbon from the environment;
-Describe the molecular biology mechanisms of microorganisms
-Discuss the main options for the control of microbial growth in vitro and in vivo;
-Prepare and recognize microscopic and macroscopic preparations, culture plates and culture media;
- Have a good understanding of common procedures in microbiology laboratories, including bacterial isolation and purification and bacterial identification based on biochemical and molecular tools
-Evaluate potential benefits and harm caused by microorganisms;
- Retain and apply the specialized language of microbiology
Pre-requirements
Contents
2. MICROBIAL CELL BIOLOGY.
to. Cell structure: prokaryotes vs eukaryotes; bacterial morphology; the cytoplasmic membrane: structure and functions; the cell wall: Gram + and Gram- structure; cell wall synthesis and cell division
b. Surface cell structures and cell inclusions: capsules and mucous layers, fimbre and pili. Cellular inclusions; gas vesicles, endospores: structure and sporulation cycle.
c. Microbial locomotion: flagella and motility; motility due to sliding; microbial rates: chemotaxis, phototaxis
3. MOLECULAR BIOLOGY AND MICROBIAL GENETICS. Microbial DNA, bacterial replication, transcription and translation; mutations; gene transfer in bacteria; gene recombination; transformation; transduction; conjugation; transposons; CRISPR
4. MICROBIAL METABOLISM. Macro and micro nutrients; cellular transport; energy classification of microorganisms; principles of bioenergetics;
Catabolism: Glycolysis, citric acid and glyoxylate cycles; principles of fermentation; principles of respiration: electron carriers and metabolic varieties
Anabolism: autotrophy and nitrogen fixation; polysaccharide biosynthesis and gluoconeogenesis; amino acids-nucleotides, lipids
5. METABOLIC DIVERSITY PRINCIPLES. Chemotrophic metabolism; Calvin cycle and other CO2 fixation pathways; phototrophy; nitrogen fixation; Hydrogen oxidation; iron and sulfur oxidation; nitrification; nitrate reduction and denitrification; sulfur reduction; 1 carbon atom metabolism; acetogenesis and methanogenesis, fermentations
6. MICROBIAL GROWTH. Nutrients; classical microbiology: cultivation techniques and microbial count; binary cleavage and microbial growth cycle; continuous crops; growth in biofilm; quorum sensing; environmental effects on microbial growth: temperatures, pH, osmotic pressure and oxygen; microbial growth control: heat, chemical and physical agents; antibiotic resistance
7. PRINCIPLES OF VIROLOGY. The nature of viruses; structure of the virion; methods for culturing and quantifying viruses; viral replication cycle overview; bacteriophages; eukaryotic viruses; viral classification: DNA virus, RNA virus.
8. PRINCIPLES OF BIOTECHNOLOGY AND NANOTECHNOLOGY. Use of bacteria and viruses for biotechnological and nanotechnological applications
Referral texts
Assessment methods
Teaching methods
Teaching language
Type of exam
2030 Agenda for Sustainable Development Goals
This subject deals with topics related to the macro-area "Natural capital and environmental quality" and contributes to the achievement of one or more goals of U. N. Agenda for Sustainable Development