So I'm starting in this arrangement. First topic will be Genetics and M.Biology. For this I'll be using the principle of Genetics by Snustad and Essential cell biology by Alberts.
I. MOLECULAR BIOLOGY AND GENETICS — 36%
Genetic Foundations
Mendelian and non-Mendelian inheritance ( Snustand chapters 3,4,5 )
Transformation, transduction and conjugation
Recombination and complementation
Mutational analysis
Genetic mapping and linkage analysis
[*]Chromatin and Chromosomes
Karyotypes
Translocations, inversions, deletions and duplications
Aneuploidy and polyploidy
Structure
Epigenetics
[*]Genomics
Genome structure
Physical mapping
Repeated DNA and gene families
Gene identification
Transposable elements
Bioinformatics
Proteomics
Molecular evolution
[*]Genome Maintenance
DNA replication
DNA damage and repair
DNA modification
DNA recombination and gene conversion
[*]Gene Expression
The genetic code
Transcription/transcriptional profiling
RNA processing
Translation
[*]Gene Regulation
Positive and negative control of the operon
Promoter recognition by RNA polymerases
Attenuation and antitermination
Cis-acting regulatory elements
Trans-acting regulatory factors
Gene rearrangements and amplifications
Small non-coding RNA (e.g., siRNA, microRNA)
[*]Viruses
Genome replication and regulation
Virus assembly
Virus-host interactions
[*]Methods
Restriction maps and PCR
Nucleic acid blotting and hybridization
DNA cloning in prokaryotes and eukaryotes
Sequencing and analysis
Protein-nucleic acid interaction
Transgenic organisms
Microarray
II. CELL BIOLOGY — 28%Methods of importance to cellular biology, such as fluorescence probes (e.g., FRAP, FRET and GFP) and imaging, will be covered as appropriate within the context of the content below.
Cellular Compartments of Prokaryotes and Eukaryotes: Organization, Dynamics and Functions
Cellular membrane systems (e.g., structure and transport across membrane)
Nucleus (e.g., envelope and matrix)
Mitochondria and chloroplasts (e.g., biogenesis and evolution)
[*]Cell Surface and Communication
Extracellular matrix (including cell walls)
Cell adhesion and junctions
Signal transduction
Receptor function
Excitable membrane systems
[*]Cytoskeleton, Motility and Shape
Regulation of assembly and disassembly of filament systems
Motor function, regulation and diversity
[*]Protein, Processing, Targeting and Turnover
Translocation across membranes
Posttranslational modification
Intracellular trafficking
Secretion and endocytosis
Protein turnover (e.g., proteosomes, lysosomes, damaged protein response)
[*]Cell Division, Differentiation and Development
Cell cycle, mitosis and cytokinesis
Meiosis and gametogenesis
Fertilization and early embryonic development (including positional information, homeotic genes, tissue-specific expression, nuclear and cytoplasmic interactions, growth factors and induction, environment, stem cells and polarity
III. BIOCHEMISTRY — 36%
Chemical and Physical Foundations
Thermodynamics and kinetics
Redox states
Water, pH, acid-base reactions and buffers
Solutions and equilibria
Solute-solvent interactions
Chemical interactions and bonding
Chemical reaction mechanisms
[*]Structural Biology: Structure, Assembly, Organization and Dynamics
Small molecules
Macromolecules (e.g., nucleic acids, polysaccharides, proteins and complex lipids)
Supramolecular complexes (e.g., membranes, ribosomes and multienzyme complexes)
[*]Catalysis and Binding
Enzyme reaction mechanisms and kinetics
Ligand-protein interaction (e.g., hormone receptors, substrates and effectors, transport proteins and antigen-antibody interactions)
[*]Major Metabolic Pathways
Carbon, nitrogen and sulfur assimilation
Anabolism
Catabolism
Synthesis and degradation of macromolecules
[*]Bioenergetics (including respiration and photosynthesis)
Energy transformations at the substrate level
Electron transport
Proton and chemical gradients
Energy coupling (e.g., phosphorylation and transport)
[*]Regulation and Integration of Metabolism
Covalent modification of enzymes
Allosteric regulation
Compartmentalization
Hormones
[*]Methods
Biophysical approaches (e.g., spectroscopy, x-ray, crystallography, mass spectroscopy)
Isotopes
Separation techniques (e.g., centrifugation, chromatography and electrophoresis)
Immunotechniques
II. CELL BIOLOGY — 28%Methods of importance to cellular biology, such as fluorescence probes (e.g., FRAP, FRET and GFP) and imaging, will be covered as appropriate within the context of the content below.
Cellular Compartments of Prokaryotes and Eukaryotes: Organization, Dynamics and Functions
Cellular membrane systems (e.g., structure and transport across membrane)
Nucleus (e.g., envelope and matrix)
Mitochondria and chloroplasts (e.g., biogenesis and evolution)
[*]Cell Surface and Communication
Extracellular matrix (including cell walls)
Cell adhesion and junctions
Signal transduction
Receptor function
Excitable membrane systems
[*]Cytoskeleton, Motility and Shape
Regulation of assembly and disassembly of filament systems
Motor function, regulation and diversity
[*]Protein, Processing, Targeting and Turnover
Translocation across membranes
Posttranslational modification
Intracellular trafficking
Secretion and endocytosis
Protein turnover (e.g., proteosomes, lysosomes, damaged protein response)
[*]Cell Division, Differentiation and Development
Cell cycle, mitosis and cytokinesis
Meiosis and gametogenesis
Fertilization and early embryonic development (including positional information, homeotic genes, tissue-specific expression, nuclear and cytoplasmic interactions, growth factors and induction, environment, stem cells and polarity