2. Network theory 101

6. Temporal effects

8. What we are interested in What kind of relevant temporal /topological structures are there? Why? How does temporal structures in empirical networks affect disease spreading? Can we exploit these structures to slow down disease spreading?

9. Our datasets E-mail: 3,188 nodes, 309,125 contacts over 83 days Internet dating: 29,341 nodes, 536,276 contacts over 512 d Hospital: 295,107 nodes, 64,625,283 contacts over 8,521 d Prostitution: 16,730 nodes, 50,632 contacts over 2,232 d

10. Worst case scenario vs. null- model

11. Threshold in transmission probability

12. Threshold in disease dynamics

13. Two stage HIV model

14. A society-wide context

15. Temporal correlations speed up the outbreaks on a short time scale & slows it down on a longer time scale Temporal effects create distinct and comparatively high epidemic thresholds HIV can not spread in the prostitution data alone and probably does not serve as a reservoir of HIV in a society-wide perspective Half time summary

16. Temporal vaccination strategies Simulation setup

17. Temporal vaccination strategies Simulation setup

18. Temporal vaccination strategies Strategy “Recent”

19. Temporal vaccination strategies Strategy “Weight”

20. Relative efficiency, worst case

21. Relative efficiency, SIR model

22. Explanatory model

23. Temporal correlations do affect disease spreading and can be exploited in targeted vaccination The best vaccination strategy depends on the type of temporal structure Until more structural information is available, we recommend the strategy Recent Summary

24. deadline March 10 March 28 – April 20 nordita.org/network2011 March 28 – April 20 nordita.org/network2011 http://www.tp.umu.se/~holme/

25. SI model, vs ρ = 1

26. Parameter dependence, relative efficiency

27. Outbreak diversity

28. Contact sequence vs other types of models