CARLOS HERNANDEZ

Dr. CARLOS HERNANDEZ

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Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2021 in Public Health
Verified
Journal Article
Closed access
Efrén Murillo-ZamoraEfrén Murillo-Zamora
Efrén Murillo-Zamora
CHCARLOS HERNANDEZ
CARLOS HERNANDEZ

1 April 2021 in Public Health
Verified
Journal Article
Closed access
Efrén Murillo-ZamoraEfrén Murillo-Zamora
Efrén Murillo-Zamora
OMOliver Mendoza-Cano
Oliver Mendoza-Cano
Ivan Delgado-EncisoIvan Delgado-Enciso
Ivan Delgado-Enciso
CHCARLOS HERNANDEZ
CARLOS HERNANDEZ

1 December 2020 in Public Health
Verified
Journal Article
Closed access
Efrén Murillo-ZamoraEfrén Murillo-Zamora
Efrén Murillo-Zamora
FAF. Aguilar-Sollano
F. Aguilar-Sollano
Ivan Delgado-EncisoIvan Delgado-Enciso
Ivan Delgado-Enciso
CHCARLOS HERNANDEZ
CARLOS HERNANDEZ

1 January 2010 in Mathematical Biosciences and Engineering
Verified
Journal Article
Open access
CHCARLOS HERNANDEZ
CARLOS HERNANDEZ
CCCarlos Castillo-Chavez
Carlos Castillo-Chavez
OMOsval Antonio Antonio Montesinos-López
Osval Antonio Antonio Montesinos-López
KHKarla Hernández-Cuevas
Karla Hernández-Cuevas
In this work we consider every individual of a population to be a server whose state can be either busy (infected) or idle (susceptible). This server approach allows to consider a general distribution for the duration of the infectious state, instead of being restricted to exponential distributions. In order to achieve this we first derive new approximations to quasistationary distribution (QSD) of SIS (Susceptible- Infected- Susceptible) and SEIS (Susceptible- Latent- Infected- Susceptible) stochastic epidemic models. We give an expression that relates the basic reproductive number, R0 and the server utilization,p.

6 January 2016 in Global Health Action
Verified
Journal Article
Open access
CHCARLOS HERNANDEZ
CARLOS HERNANDEZ
OMOliver Mendoza-Cano
Oliver Mendoza-Cano
IntroductionDengue fever is an important vector-transmitted disease that affects more than 100 countries worldwide. Locations where individuals tend to gather may play an important role in disease transmission in the presence of the vector. By controlling mosquitoes’ breeding places, this study aims to analyze the effect of reducing transmission in elementary schools (grades 1–9) on the dynamics of the epidemic at a regional level.Materials and methodsIn 2007, we implemented a massive campaign in a region of México (Colima state, 5,191 km2, population 568,000) focused on training janitors to locate and avoid mosquitoes’ breeding places, the objective being to maintain elementary schools free of mosquitoes.ResultsWe observed 45% reduction in dengue incidence compared to the previous year. In contrast, the rest of Mexico observed an 81% increase in incidence on average.DiscussionCosts associated with campaigns focusing on cleaning schools are very low and results seem to be promising. Nevertheless, more con...

OMOliver Mendoza-Cano
Oliver Mendoza-Cano
CHCARLOS HERNANDEZ
CARLOS HERNANDEZ
XTXóchitl Trujillo
Xóchitl Trujillo
ESEL COLEGIO DE LA FRONTERA SUR
EL COLEGIO DE LA FRONTERA SUR
ALAGUSTIN LUGO-RADILLO
AGUSTIN LUGO-RADILLO
Efrén Murillo-ZamoraEfrén Murillo-Zamora
Efrén Murillo-Zamora
Dengue fever is considered to be one of the most important arboviral diseases globally. Unsuccessful vector-control strategies might be due to the lack of sustainable community participation. The state of Colima, located in the Western region of Mexico, is a dengue-endemic area despite vector-control activities implemented, which may be due to an insufficient health economic analysis of these interventions. A randomized controlled community trial took place in five urban municipalities where 24 clusters were included. The study groups (n = 4) included an intervention to improve the community participation in vector control (A), ultra-low volume (ULV) spraying (B), both interventions (AB), and a control group. The main outcomes investigated were dengue cumulative incidence, disability-adjusted life years (DALYs), and the direct costs per intervention. The cumulative incidence of dengue was 17.4%, A; 14.3%, B; 14.4%, AB; and 30.2% in the control group. The highest efficiency and effectiveness were observed in group B (0.526 and 6.97, respectively) and intervention A was more likely to be cost-effective ($3952.84 per DALY avoided) followed by intervention B ($4472.09 per DALY avoided). Our findings suggest that efforts to improve community participation in vector control and ULV-spraying alone are cost-effective and may be useful to reduce the vector density and dengue incidence.