Mosquitoes such as Aedes aegypti and Aedes albopictus, which are known to transmit diseases like dengue, Zika, and chikungunya, may carry more than just viruses that affect humans. They also host insect-specific viruses that do not infect people, some of which may even inhibit the multiplication of disease-causing viruses. This implies that mosquitoes can serve as valuable tools for detecting both known and emerging viruses that may impact public health.

Ang mga biological process na tulad ng Wnt signaling pathway—na nangangasiwa sa critical development at makakatulong na panatilihing normal at balanse ang mga tissue ng katawan—ay kadalasang inilalarawan ng mga siyentipiko gamit ang mga mathematical map na tinatawag na mga reaction network, na nagsisilbing pundasyon ng mga mathematical model. Nagbibigay-daan ito sa mga siyentipiko na suriin at paghambingin ang mga modelo batay lamang sa kanilang istruktura nang hindi nangangailangan man ng o bahagyang may mga specific parameter value. Bagaman may ilan ng Wnt models, nagkakaiba sila sa kung paano nila kinakatawan ang iisang underlying biological system. Upang matugunan ito, may ilang Filipino mathematicians ang nagpakilala ng isang bagong paraan upang matumbok ang common ground sa pagitan ng mga mathematical map na ito.

Biological processes like the Wnt signaling pathway—which regulates crucial development and helps keep the body’s tissues functioning normally and in balance—are often described by scientists using mathematical maps called reaction networks, which serve as the foundation of mathematical models. These allow scientists to examine and compare models based on their structure alone without needing or with minimal specific parameter values. Although several Wnt models exist, they differ in how they represent the same underlying biological system. To address this, Filipino mathematicians introduced a new method to find the common ground between these different maps.