Hari Shroff

The paper shows that organelle volume in C. elegans oocytes influences spindle positioning during meiosis by affecting the central ball of organelles.

The paper shows how transient morphogenetic structures and stochastic innervation models shape reproducible yet flexible wiring in C. elegans nervous systems through a trade-off between physical constraints and molecular specificity.

The paper shows that the CENP-A chaperone complex forms shell-like structures around centromeres in interphase, essential for centromere architecture and genome stability.

WHaloForce is a chemigenetic tension sensor that images molecular forces in living cells and animals, revealing tissue-specific force patterns and ovulation-related molecular loading.

The paper shows how thermosensory neurons in C. elegans use gain modulation based on experience to encode temperature changes relevant for navigation.

This paper introduces an algorithm to reconstruct 3D molecular orientation and density from polarized fluorescence microscopy data, demonstrating its application on biological structures and dynamics.

This study uses live-cell single-molecule fluorescence microscopy to investigate MYO7A trafficking in stereocilia, revealing its dimeric form and movement restrictions mediated by plasma membrane and F-actin interactions.

HD2Net improves fluorescence microscopy image quality by simultaneously denoising and correcting aberrations without additional hardware, outperforming existing methods in resolution and contrast.

The paper introduces a polarized dual-view light-sheet microscope to recover 3D orientations and positions of fluorescent dipoles, validated with experiments on biological samples.

This paper introduces a fluorophore for imaging extracellular matrix in live tissues and organisms by binding to glycans, enabling nonperturbative and wash-free visualization.

This paper introduces a deep learning method to correct optical aberrations in fluorescence microscopy, improving image quality and enabling better downstream analysis.

This study shows that bacterial differentiation through altruistic feeding and cell-cell signaling increases phenotypic heterogeneity, enhancing population resilience to environmental changes.

This paper introduces a phase diversity-based wavefront sensing method for fluorescence microscopy to correct optical aberrations efficiently and accurately.

The paper shows that the cell division machinery in Bacillus subtilis drives asymmetric localization of DivIVA and SpoIIE, leading to cell-specific activation of σF during sporulation.

The paper describes the stereotyped behavioral maturation of C. elegans embryos, identifying a rhythmic quiescence phase driven by a specific neuron.

The paper shows that cytonemes mediate asymmetric signaling and organization in Drosophila muscle progenitor niches by facilitating FGF receptor localization and contact-dependent signaling.

The paper investigates how differential adhesion controls neurite placement in C. elegans brain neuropils through a retrograde zippering mechanism.

The paper describes a multiphasic behavioral sequence in Drosophila by analyzing muscle activity and identifies neuromodulation-sensitive muscle patterns.

The paper uses diffusion condensation to analyze the C. elegans nerve ring neuropil, revealing its stratified structure and developmental principles.

The paper shows multicellular rosettes organize the nerve ring neuropil in C. elegans by guiding axon outgrowth and structural formation.

This paper introduces faster deconvolution and multiview fusion methods, achieving speedups of 10 to several thousand-fold over previous approaches.