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Printable Handouts
Navigable Slide Index
- Introduction
- Model vector-borne disease systems
- Purpose of vector-borne disease surveillance
- Vector-borne pathogen detection
- Spatial distribution of a vector-borne pathogen
- Distribution of SLE virus 1978-2004
- Human dengue 1934
- Temporal distribution of a vector-borne pathogen
- Human case epicurve - WNV: Colorado, 2003
- Transmission risk of a vector-borne pathogen
- Florida arboviral transmission risk for May 2005
- Vector-borne disease surveillance techniques
- Indirect pathogen surveillance
- Chickens as sentinel animals
- Direct pathogen surveillance
- Amplification, reservoir and secondary hosts
- Northern cardinals as an amplification host
- Isolation from arthropod vector species
- Exit traps
- Vector surveillance
- Species composition
- The Florida arbovirus vector: Culex nigripalpus
- Vector abundance
- Vector abundance in terms of risk assessment
- Vector population age structure
- Emergence patterns of Culex nigripalpus
- Nulliparous Culex quinquefasciatus
- Parous Culex quinquefasciatus
- Amplification/reservoir host surveillance
- Identifying the avian amplification hosts
- Common grackle - a major host of SLE virus
- Birds positive for SLE antibody
- Susceptibility of young birds
- Monitoring avian reproductive success
- Secondary host surveillance
- Syndromic surveillance
- Application of syndromic surveillance
- Incidence of human SLE & WN
- Exotic species as a risk indicator
- Environmental surveillance
- Rainfall drives mosquito reproductive behavior
- Modeled water table data curve
- 1977 modeled water table depth
- 1990 modeled water table depth
- Modeled water table depth analysis
- Modeled water table depth tracking
- GIS risk maps
- Pinellas County Florida: 2005 case study
- Environmental surveillance - temperature
- Mosquito viral infection
- Effect of temperature on the environment
- Effect of winter freeze on vegetation
- Environmental surveillance - photoperiod
- Reduced photoperiod affects mosquito activity
- Prevention and control of vector-borne disease
- Mosquito avoidance
- Mosquito control
- Use of pesticides
- Disease control - vaccinations
- Conclusions (1)
- Conclusions (2)
- Summary
- Acknowledgments
Topics Covered
- Vector-borne disease surveillance
- Pathogen detection
- Spatial distribution of vector-borne diseases
- Temporal distribution of vector-borne diseases
- Measurement of vector-borne disease transmission risk
- Vector-borne disease prevention
- Vector avoidance, vector control, and disease control
Talk Citation
Day, J. (2014, October 1). Surveillance, prevention and control of vector-borne infections [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved December 26, 2024, from https://doi.org/10.69645/PKXQ9248.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Jonathan Day has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.
Surveillance, prevention and control of vector-borne infections
A selection of talks on Infectious Diseases
Transcript
Please wait while the transcript is being prepared...
0:00
Welcome to our
study of surveillance, prevention,
and control of
vector-borne diseases.
My name is Jonathan Day.
And I'm a professor of medical
entomology at the University
of Florida, Florida Medical
Entomology Laboratory.
And I will be your guide
through this module.
0:17
We will use five
vector-borne disease
model systems for our discussion.
Certainly, there are many
other vector-borne diseases
that we could discuss.
But our focus in this module
will include these five disease
systems-- St. Louis encephalitis
virus in Florida, dengue
and Chikungunya viruses in Florida,
West Nile virus in North America,
and finally, Eastern
equine encephalitis virus
in North America.
0:47
We will begin our study by asking
the question, what is the purpose
of vector-borne
disease surveillance?
And first, we'll talk about
vector-borne pathogen detection.
0:59
The first purpose of
vector-borne disease surveillance
is to detect a new virus or a
reintroduced virus in an area.
As you can see from
this 2002 news clip
from the Stuart News
in Stuart, Florida,
there are a number of different
ways that scientists look
for the reemergence
of a virus in an area
where it's known that that
virus occurred previously.
In this case, they're talking
about sentinel chickens, the use
of sentinel chickens, and the use
of tracking meteorological events
to forecast virus transmission.
So surveillance techniques-- and
we'll get into these surveillance
techniques in detail later in the
module-- surveillance techniques
allow the identification of
the emergence or reemergence
of a vector-borne disease
in a particular area.