Revolutionary Holotomography opens a new era in label-free 3D live cell imaging
In the field of advanced imaging technology, Tomocube's very first generation of Holotomography stands out as a symbol of innovation. Leveraging groundbreaking 3D quantitative phase imaging technology, the HT-2H employs diffraction tomography to produce high-resolution 3D holographic images of unlabeled live cells and tissues. This innovative imaging series enables the rapid and straightforward acquisition of real-time, nanoscale images of individual cells, without the need for sample preparation.
By reconstructing a 3D distribution map of the refractive index of biological specimen from multiple 2D holograms, HT-2H provides researchers with essential insights into various cellular and subcellular organelle characteristics, such as volume, shape, cytoplasmic density, surface area, or deformability. Meanwhile, its long-term time-lapse imaging capability enables researchers to observe dynamic changes within samples over extended periods.
Additionally, the HT-2H seamlessly integrates the two complementary modalities of Holotomography and fluorescence imaging, excelling in its ability to offer long-term tracking of specific targets while minimizing unwanted stress to cells. Winner of the Microscopy Today 2019 Innovation Award, the HT-2H facilitates broader access for researchers and clinicians to quantitatively investigate cell pathophysiology and assess the effectiveness of drug interventions.
The Tomocube HT-2H is a powerful tool for researchers in various fields due to its label-free, high-resolution 3D imaging capabilities. By eliminating the need for sample labeling or staining, the HT-2H preserves the integrity of the sample and simplifies the imaging process, providing an excellent experience for researchers. With an optical resolution that surpasses that of conventional microscopes, the HT-2H delivers unmatched clarity, allowing researchers to visualize structures with exceptional precision.
Features
Label-free 3D live cell imaging
Rapid image acquisition speed
Correlative fluorescence
Providing a stable culture environment
Quantitative analysis
Revolutionary Holotomography opens a new era in label-free 3D live cell imaging
In the field of advanced imaging technology, Tomocube's very first generation of Holotomography stands out as a symbol of innovation. Leveraging groundbreaking 3D quantitative phase imaging technology, the HT-2H employs diffraction tomography to produce high-resolution 3D holographic images of unlabeled live cells and tissues. This innovative imaging series enables the rapid and straightforward acquisition of real-time, nanoscale images of individual cells, without the need for sample preparation.
By reconstructing a 3D distribution map of the refractive index of biological specimen from multiple 2D holograms, HT-2H provides researchers with essential insights into various cellular and subcellular organelle characteristics, such as volume, shape, cytoplasmic density, surface area, or deformability. Meanwhile, its long-term time-lapse imaging capability enables researchers to observe dynamic changes within samples over extended periods.
Additionally, the HT-2H seamlessly integrates the two complementary modalities of Holotomography and fluorescence imaging, excelling in its ability to offer long-term tracking of specific targets while minimizing unwanted stress to cells. Winner of the Microscopy Today 2019 Innovation Award, the HT-2H facilitates broader access for researchers and clinicians to quantitatively investigate cell pathophysiology and assess the effectiveness of drug interventions.
The Tomocube HT-2H is a powerful tool for researchers in various fields due to its label-free, high-resolution 3D imaging capabilities. By eliminating the need for sample labeling or staining, the HT-2H preserves the integrity of the sample and simplifies the imaging process, providing an excellent experience for researchers. With an optical resolution that surpasses that of conventional microscopes, the HT-2H delivers unmatched clarity, allowing researchers to visualize structures with exceptional precision.
Features
Label-free 3D live cell imaging
Rapid image acquisition speed
Correlative fluorescence
Providing a stable culture environment
Quantitative analysis
