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Creator:: Dalziel, Benjamin D., Bjørnstad, Ottar N., van Panhuis, Willem G., Burke, Donald S., Metcalf, C. Jessica E., and Grenfell, Bryan T.
Abstract:: Epidemics of infectious diseases often occur in predictable limit cycles. Theory suggests these cycles can be disrupted by high amplitude seasonal fluctuations in transmission rates, resulting in deterministic chaos. However, persistent deterministic chaos has never been observed, in part because sufficiently large oscillations in transmission rates are uncommon. Where they...

Creator:: Dalziel, Benjamin D., Bjørnstad, Ottar N., van Panhuis, Willem G., Burke, Donald S., Metcalf, C. Jessica E., and Grenfell, Bryan T.
Abstract:: Epidemics of infectious diseases often occur in predictable limit cycles. Theory suggests these cycles can be disrupted by high amplitude seasonal fluctuations in transmission rates, resulting in deterministic chaos. However, persistent deterministic chaos has never been observed, in part because sufficiently large oscillations in transmission rates are uncommon. Where they...
Full Text:: Transmission Patterns Benjamin D. Dalziel1¤, Ottar N. Bjørnstad2, Willem G. van Panhuis3, Donald S. Burke4, C

Creator:: Dalziel, Benjamin D., Bjørnstad, Ottar N., van Panhuis, Willem G., Burke, Donald S., Metcalf, C. Jessica E., and Grenfell, Bryan T.
Abstract:: Epidemics of infectious diseases often occur in predictable limit cycles. Theory suggests these cycles can be disrupted by high amplitude seasonal fluctuations in transmission rates, resulting in deterministic chaos. However, persistent deterministic chaos has never been observed, in part because sufficiently large oscillations in transmission rates are uncommon. Where they...
Resource Type:: Article

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