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              Printable Handouts
Navigable Slide Index
- Introduction
- Cancer
- The central dogma of molecular biology.
- Genome and non-coding RNA
- microRNAs
- microRNA nomenclature
- microRNAs in cancer
- microRNA biogenesis
- Aberrant microRNA biogenesis in cancer -TGFβ
- Aberrant microRNA biogenesis in cancer - p53
- Aberrant microRNA biogenesis in cancer - EGFR
- microRNAs in the hallmarks of cancer
- OncomiRs
- miR-17~92 cluster
- miR-21
- miR-155
- Tumor suppressive microRNAs
- let-7 family
- miR-15a and miR-16-1 cluster
- miR-34 family
- metastamiRs
- miR-200 family
- miR-9
- miR-31
- miR-10b
- miR-181a
- Utilizing microRNAs for cancer treatment
- Antisense oligonucleotides and LNAs
- miRNA sponges and masks
- Small-molecule inhibitors for microRNAs
- Overexpression of tumor suppressor microRNA
- microRNAs as biomarkers
- Take home messages
Topics Covered
- microRNAs in Cancer
- microRNA biogenesis
- OncomiRs
- Tumor Suppressor microRNAs
- metastamiRs
- microRNAs as drug targets
- microRNAs as biomarkers
Talk Citation
Taylor, M. (2015, December 31). Targeting microRNAs in cancer [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved October 30, 2025, from https://doi.org/10.69645/MPSP3008.Export Citation (RIS)
Publication History
- Published on December 31, 2015
Financial Disclosures
- Dr. Molly Taylor has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
Transcript
Please wait while the transcript is being prepared...
      
      
        
                  0:00
                
                
                  
                    Hi, my name is Molly Taylor,
                  
                    I'm a Postdoctoral Scientist
at AstraZeneca,
                  
                    and I'm going to be
talking today about the role
                  
                    that microRNAs play in cancer,
                  
                    and how we might be able
to target microRNAs
                  
                    for developing
a cancer therapeutic.
                  
                
              
                  0:19
                
                
                  
                    So, cancer is a leading
cause of death worldwide.
                  
                    For example, in 2012
there were approximately
                  
                    14 million new cases
of cancer diagnosed
                  
                    and 8.2 million
cancer-related deaths.
                  
                    In 2000, Hanahan and Weinberg
eloquently proposed this model
                  
                    through which cancer cells
gain their proliferative
                  
                    and metastasic properties
                  
                    that make them
really malignant.
                  
                    And these properties are
                  
                    sustaining
proliferative signaling,
                  
                    evading growth suppression,
                  
                    activating invasion
and metastasis,
                  
                    enabling replicative
immortality,
                  
                    inducing angiogenesis,
and resisting cell death.
                  
                    And the collective
efforts of science
                  
                    and medicine have
dramatically reduced
                  
                    the annual cancer death rate
by about 20 percent
                  
                    over the last two decades by
developing targeted inhibitors
                  
                    that hit each of these various
different hallmarks of cancer.
                  
                    So today,
I'm going to talk about
                  
                    how microRNAs function
in these hallmarks of cancer
                  
                    and how we might
be able to develop
                  
                    new therapeutics
to target microRNAs
                  
                    and thus develop
new therapies.
                  
                
              
                  1:33
                
                
                  
                    So the central dogma
of molecular biology states
                  
                    that genetic information
is transferred sequentially
                  
                    from DNA to RNA to protein.
                  
                    So we go from the blueprint
of genetic information
                  
                    contained in DNA to a transient
copy of that information
                  
                    contained in RNA to the protein
                  
                    that carries out
a function in the cell.
                  
                    However, this model
only accounts for about
                  
                    1.5-2 percent
of the human genome.
                  
                    So what is the rest
of the genome doing?
                  
                
               
       
     
                    
                     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
     
        
      
    