HUNTERTUTORING

Biochemistry II

Undergraduate · Chemistry

Syllabus focus

Standard syllabus · STEM / applied

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$60.00 · 60 min · Undergraduate · Online ($60/hr)

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Topics typically covered

Standard syllabus

Nucleic acid structure and function

  • Nucleotide structure: bases, sugars, phosphates
  • DNA double helix: Watson–Crick base pairing
  • RNA types: mRNA, tRNA, rRNA, and noncoding RNA
  • Chromatin structure and histone modifications (intro)
  • DNA replication: semiconservative model and enzymes
  • DNA repair mechanisms: mismatch, excision, double-strand break
  • Telomeres and telomerase
  • Supercoiling and topoisomerases
  • Restriction enzymes and molecular cloning overview
  • Polymerase chain reaction (PCR) principles

Gene expression and regulation

  • Transcription in prokaryotes: promoters and sigma factors
  • Eukaryotic transcription: RNA polymerases and general factors
  • mRNA processing: capping, splicing, polyadenylation
  • Genetic code and codon–anticodon recognition
  • Translation: ribosome structure and tRNA charging
  • Post-translational modification and protein targeting
  • Operon model: lac and trp operons
  • Eukaryotic gene regulation: enhancers, silencers, transcription factors
  • Epigenetics: DNA methylation and histone acetylation (intro)
  • RNA interference and microRNAs (overview)

Signal transduction and hormones

  • Receptor types: GPCRs, receptor tyrosine kinases, nuclear receptors
  • Second messengers: cAMP, cGMP, Ca²⁺, IP₃, DAG
  • G-protein signaling cascades
  • Insulin and glucagon signaling in glucose homeostasis
  • Adrenaline and fight-or-flight metabolic responses
  • Cell cycle regulation and cyclin–CDK complexes
  • Apoptosis: intrinsic and extrinsic pathways (intro)
  • Cancer biochemistry: oncogenes and tumor suppressors (overview)
  • Integrating hormonal control with metabolic pathways
  • Membrane transport: channels, pumps, and carriers

Integrated metabolism

  • Glycogen metabolism: synthesis and degradation
  • Fatty acid synthesis and β-oxidation
  • Ketone body formation and utilization
  • Amino acid metabolism: transamination and deamination
  • Urea cycle and nitrogen disposal
  • One-carbon metabolism and folate cycle
  • Nucleotide biosynthesis: purine and pyrimidine pathways
  • Heme synthesis and degradation (overview)
  • Metabolic integration during fasting and fed states
  • Organ-specific metabolism: liver, muscle, brain, adipose

STEM / applied

Laboratory techniques in molecular biochemistry

  • Nucleic acid extraction and quantification
  • Agarose gel electrophoresis of DNA
  • Restriction digest and ligation workflows
  • Protein–nucleic acid interaction assays (EMSA intro)
  • ELISA and immunoassays
  • Cell culture basics for biochemical assays
  • Spectroscopic assays for metabolites
  • Enzyme-linked assays in clinical diagnostics
  • Bioinformatics tools: BLAST, sequence alignment (intro)
  • Writing research-style lab reports

Applied and clinical biochemistry

  • Inborn errors of metabolism case studies
  • Pharmacogenomics and drug metabolism enzymes
  • Diagnostic enzymes: CK, ALT, AST in clinical labs
  • Nutritional biochemistry: obesity and metabolic syndrome
  • Exercise biochemistry: lactate threshold and fuel selection
  • Fermentation and industrial microbiology (biochemical view)
  • Vaccine development and antibody biochemistry
  • Gene therapy and CRISPR therapeutics (overview)
  • Environmental toxins and xenobiotic metabolism
  • Career paths in biotechnology and clinical labs

Notes

Builds on Biochemistry I. Topics reflect common second-semester biochemistry syllabi at US colleges and universities. Molecular biology techniques may be integrated depending on department structure.