Live imaging is a valuable approach for investigating cell biology questions. The Drosophila
larva is particularly suited for in vivo live imaging because the larval body wall and most …

Recent improvements in optical imaging, genetically encoded fluorophores and genetic
tools allowing efficient establishment of desired transgenic animal lines have enabled …

Drosophila is an important model system to study a vast range of biological questions.
Various organs and tissues from different developmental stages of the fly such as imaginal …

Quantitative live imaging is a valuable tool that offers insights into cellular dynamics.
However, many fundamental biological processes are incompatible with current live imaging …

Time-lapse imaging is an essential tool to study dynamic biological processes that cannot
be discerned from fixed samples alone. However, imaging cell-and tissue-level processes in …

The Drosophila larva has been used to investigate many processes in cell biology, including
morphogenesis, physiology and responses to drugs and new therapeutic compounds …

Several well-known morphogenetic gradients and cellular movements occur along the
dorsal/ventral axis of the Drosophila embryo. However, the current techniques used to view …

Live imaging is an important technique for studying cell biological processes, however this
can be challenging in live animals. The translucent cuticle of the Drosophila larva makes it …

Live cell imaging is an important technique applied to a number of Drosophila tissues used
as models to investigate topics such as axis specification, cell differentiation and …

Drosophila larval dendritic arborization (da) neurons are a popular model for investigating
mechanisms of neuronal morphogenesis. Da neurons develop in communication with the …