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INFORMATION FOR

    Nanoparticles, Genome Therapy & Antibodies - The Zhou Research Lab at Yale School of Medicine

    February 09, 2026

    Transcript

    • 00:03My lab is a biomedical
    • 00:04engineering lab. Our chemistry and
    • 00:06engineering group, and, work on
    • 00:09developing a ray of tachology,
    • 00:12mainly for,
    • 00:13drug delivery to the brain
    • 00:15and also for non viral
    • 00:16delivery gene therapy.
    • 00:18And our biology team,
    • 00:20work together with, our engineering
    • 00:22team, you know, to apply,
    • 00:24this new technology
    • 00:26for treatment of selective neurological
    • 00:28disease.
    • 00:32We focus on developing three
    • 00:34major platform technology,
    • 00:36you know, for different applications.
    • 00:38The first one, is nanoparticles,
    • 00:40you know, because we use
    • 00:41a lot of nanoparticles. We
    • 00:43engineer particles,
    • 00:45blood brain barrier, for delivering
    • 00:46drugs into the brain for
    • 00:47brain cancer or stroke treatment.
    • 00:50The second technology we call
    • 00:51step engineering,
    • 00:52so which we pioneered,
    • 00:55the development. And, we are
    • 00:56the only group still now,
    • 00:58in the world in, working
    • 00:59on delivering genome editing therapy
    • 01:01for,
    • 01:02many new genetic disease. The
    • 01:04third topic actually is the
    • 01:06antibody, is a new technology,
    • 01:07which are the development in
    • 01:09the lab. So we are
    • 01:10working on, engineering, developing
    • 01:13a group of antibodies
    • 01:15which can penetrate cells for
    • 01:17treatment now, like Parkinson disease
    • 01:19or Huntington disease.
    • 01:21But on the biology side,
    • 01:23we try to use the
    • 01:24established, you know, procedural techniques.
    • 01:27We don't want to innovate
    • 01:29on the biology side because
    • 01:30we our major innovation is
    • 01:32on technology, you know, development.
    • 01:38My goal is that, you
    • 01:39know, translate all research into
    • 01:41clinical applications.
    • 01:42And for example, for step
    • 01:44engineering and, our first,
    • 01:46genomic team program, we are
    • 01:48more to clinical and, translation.
    • 01:50And then nanoparticles,
    • 01:52we have a program focused
    • 01:54on clinical trials in the
    • 01:55next two years.
    • 01:56And we also anticipate the
    • 01:57antibody work will be, applied
    • 01:59into, clinical, you know, for
    • 02:01disease treatment in the very
    • 02:02near future.
    • 02:04Most of my work cannot
    • 02:05be carried out without, the
    • 02:07collaboration,
    • 02:09particularly this collaboration with our
    • 02:10physician colleagues. For example, for
    • 02:12Geelong Medicine,
    • 02:14we closely collaborated with Yong
    • 02:15Heizhan's group. You know, for
    • 02:18antibody, we, closely work with,
    • 02:20Professor James Hansen.
    • 02:22And then for stroke, you
    • 02:23know, we work with, chemo
    • 02:24chairs. For brain cancer, we
    • 02:26work in a chair monitor.
    • 02:28That's actually how make our
    • 02:30research unique and, translational.