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Printable Handouts
Navigable Slide Index
- Introduction
- Complex networks are found throughout biology
- Defining the basic building blocks of networks?
- Database of transcription interactions in E. coli
- Algorithm that finds n-node network motifs
- The thirteen 3-node connected subgraphs
- The feedforward loop (1)
- 8 types of FFL regulation sign combinations
- Only two types of feed-forward loops are significant
- Dynamics of the feed-forward loop system
- FFL is a filter
- GFP reporter plasmid system for promoter activity
- Construct strains, reporting for a different promoter
- Each well reports for a different promoter
- FFL in vivo results
- Day-day reproducibility of better than 10%
- Response to brief pulses of X is filtered by FFL
- Arabinose system FFL
- Feedforward loop is a sign-sensitive filter
- Single input module (SIM)
- Single input module functions
- Flagella operons are activated in temporal order
- Arginin biosynthesis system
- 199 4-node directed connected subgraphs
- 4-node motifs in E. coli network
- Dense overlapping regulons (DOR)
- Mapping logic gates
- Drawing a complex network (1)
- Drawing a complex network (2)
- E. coli and yeast transcriptional networks
- Incoherent FFL is a pulse generator
- B. subtilis sporulation
- FFL drive temporal pattern of pulses
- Network motifs in human organ development
- Network motifs in growth factor signaling
- microRNAs in network motifs
- Looking for network motifs in other fields
- Foodwebs have "consensus motifs"
- Links between WWW pages
- Reverse engineering of electronic circuit
- Map of synaptic connections
- FFL in C. elegans avoidance reflex circuit
- Summary
- Acknowledgments
Topics Covered
- Complex networks are found throughout biology
- Can we define the basic building blocks of networks?
- Database of direct transcription interactions in E. coli
- Algorithm that finds n-node network motifs
- Feedforward loop (FFL)
- Dynamics of the feed-forward loop system
- The feed-forward loop is a filter for transient signals allowing fast shutdown
- GFP reporter plasmid system for promoter activity
- Response to brief pulses of X is filtered by FFL
- Sign-sensitive filtering by arabinose feed-forward loop
- Single input module (SIM)
- Dense overlapping regulons (DOR)
- Incoherent FFL is a pulse generator
- Network motifs in human organ development
- Network motifs in growth factor signalling
- High-accuracy promoter activity measurements in living cells
Talk Citation
Alon, U. (2012, February 2). Network motifs: basic building blocks of biological networks [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved November 14, 2024, from https://doi.org/10.69645/HWRD4658.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Uri Alon has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.