Key Skills and Knowledge Areas

Key Skills and Knowledge Areas
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Medicinal Chemistry

  • Therapeutics development via Organic Chemistry (specialty in radioprosthetic, chelator, amino acid and nucleotide development)
  • Synthetic route design and optimization
  • Bioconjugation (small molecules payloads, linkers, oligonucleotides, peptides, antibodies)
  • Solid phase peptide synthesis (SPPS, standard and custom amino acids, manual and automatic, linear and cyclic)
  • Solid phase oligonucleotide synthesis (SPOS, standard and custom phosphoramidites, also on-bead triphosphorylation)
  • Biomolecule library development through computational modelling, databases and structural activity relationship (SAR)
  • Validation via mass spectroscopy (MS, including MALDI analysis of oligonucleotides), inductively coupled plasma (ICP-MS, ICP-OES), high performance liquid chromatography (HPLC, including LC-MS), nuclear magnetic spectroscopy (NMR), surface plasmon resonance (SPR), infra-red spectroscopy (FTIR-ATR), X-ray crystallography (XRD)
  • I also teach some of these topics in UBC Chemistry course CHEM461+561.

Radiochemistry

  • Radioisotopes: 18F, 32P, 68Ga, 111In, 161Tb, 177Lu, and more
  • Manual (by hand/ telemanipulators) and automated synthesis (Trasis AllinOne)
  • Protein (including antibodies) and peptide radioconjugates (includes chelators)
  • Oligonucleotide, nucleotide, antibody, peptide radioconjugates (includes chelators)
  • Radiobiocatalysis (specialty in oligonucleotide biochemistry)
  • Labeling conditions and assay development
  • Quality control data and troubleshoot radiosyntheses
  • Method development and optimization
  • Inventory, shipment, and containment management

Molecular Biology

  • Functional (biological) assay development (e.g. MTT/MTS, ELISA, lentivirus, binding assays)
  • Culturing (bacterial, mammalian) and sterile workflows
  • Enzymology (specialty in nucleic acid-modifying enzymes)
  • Oligonucleotide (DNA/ RNA) manipulation and purification (includes HPLC)
  • Microscopy
  • Lentivirus manipulation
  • I also teach some of these topics in UBC Biochemistry course BIOC301.

Pre-clinical Comparative Nuclear Medicine

  • PET scan processing and analysis
  • Rodent restraint
  • Subcutaneous and intraperitoneal injections
  • Biodistribution analysis

Academic Communication

  • Scientific artwork (Adobe Illustrator + InDesign)
  • Webpage design (WordPress)
  • Technical writing
    • Peer-reviewed articles
    • Technology transfer documents
  • Scientific instruction at university level

Personal Attributes

  • Project leadership and collaboration across multi-disciplinary boundaries
  • Autonomous experimental design and execution
  • Robust collaboration, negotiation, and problem solving
  • Coaching and advising young scientists through facilitation
  • Fluency in English

Knowledge Areas/ Professional Development

  • Chemical biology
  • Biochemistry
  • Radiation oncology (specialty in nuclear medicine)
  • PK/PD
  • Pharmaceutical industry and business translation (specialty in radiopharmaceuticals)
  • Health economics and regulatory science in US, Canadian, and European markets
  • Biopharmaceutical manufacturing and GMP
Key Skills and Knowledge Areas

Modification of Nucleotides for Biological Recognition

My research focuses on the chemical biology of nucleotides, exploring modifications to enhance their molecular targeting capacities and biological stability. This work is particularly relevant in advancing medical applications, as exemplified by approval of nucleic acid-based medicines such as vaccines, aptamer drugs, and nucleotide analogs.

Development of Peptide Inhibitor Theranostics for Pre-clinical Cancer Care

In response to the persistent public health challenge posed by cancer, our research team is developing peptide inhibitor radiopharmaceuticals by integrating diagnostic and therapeutic radioisotopes (i.e. theranostics). Building on the FDA approval of Prostate Membrane Specific Antigen (PSMA)-specific radiotracers, we aim to enhance the chemical libraries of PSMA and Fibroblast Activation Protein (FAP) inhibitors (FAPI) to optimize in vivo performance. This collaborative holds promising potential for translation to human clinical trials, such as prostate and colorectal cancer.

Structural Activity Relationship of Small Molecule Inhibitors

My work delves into the structural activity relationship of small molecule inhibitors, with a focus on α-amanitin, a potent neurotoxin isolated from the death cap mushroom Amanita phalloides. Leveraging the first total synthesis of amanitin, I aim to explore its close analogs to identify more potent toxins for targeted cancer therapy, tapping into the immense potential of natural products as potent drugs.

Complete list of publications is available here.

 

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