Jörg Enderlein

This paper demonstrates that self-blinking dye JF635b improves nanobody performance in single-molecule localization microscopy, enabling reliable imaging across multiple modalities with high precision.

This paper introduces a universal method for wave-optical PSF calculations in microscopy, supported by a MATLAB software package, and demonstrates its application across multiple imaging techniques.

This paper introduces dynaMIET, a method to measure 3D membrane dynamics in live cells, and shows it can track lateral diffusion and vertical fluctuations simultaneously.

This study uses metal-induced energy transfer to reveal that cytokine receptor intracellular domains compact upon activation.

The paper introduces nanobody-HaloTag constructs for multiplexed immunofluorescence imaging, enabling up to eight targets with lifetime and spectral encoding in a single step.

This study uses super-resolution imaging to reveal the dynamic nanoscale architecture of CaV1.3 channel clusters in cardiac myocytes, showing mobile channels within nanodomains rather than dense packing.

This paper introduces a microfluidics platform for multiplexed super-resolution microscopy, demonstrating its use in imaging cancer and cardiac cells with high reproducibility.

This study develops MIET-MTP to measure axial integrin traction forces in live cells with nanometer precision, revealing detailed structural insights into force transmission.

This paper introduces a plasmonic nanocavity-based method to measure electric charges in solution with high sensitivity and demonstrates its feasibility using fluorescent dye molecules.

This paper introduces scattering-based super-resolution optical fluctuation imaging (sSOFI) to enable label-free super-resolution imaging of live cells using coherent scattering from rotating nanoparticles.

The paper introduces bacteriophage T4 as a 3D bio-ruler for super-resolution imaging, demonstrating its structure and potential as a benchmark.

This paper derives Zernike polynomials using variational calculus and applies them to model optical aberrations in fluorescence microscopy.

The paper studies the conformational dynamics of highly charged intrinsically disordered proteins using a computational model and experimental measurements, finding slower loop-closing rates compared to uncharged IDPs.

This paper introduces MIET-PAINT, a method combining DNA-PAINT and Metal-Induced Energy Transfer to achieve nanometer-scale 3D imaging with high multiplexing capability.