Super Resolution Microscope

N-STORM

  1. Key Features
  2. Specifications/Dimensions
  3. Principle
  4. Sample Images

Achieving resolution 10 times greater than a conventional optical microscope enables molecular level understanding

STochastic Optical Reconstruction Microscopy (STORM) reconstructs a super-resolution fluorescent image by combining precise localization information for individual
fluorophores in complex fluorescent microscope specimens. N-STORM takes advantage of Nikon's powerful Ti2-E inverted microscope and applies high-accuracy, multi-color localization and reconstruction in three dimensions (xyz) to enable super-resolution imaging at tenfold the resolution of conventional optical microscopes (up to approximately 20 nm in xy)
This powerful technology enables the visualization of molecular interactions at the nanoscopic level, opening up new worlds of scientific understanding.

Tenfold improvement of lateral resolution up to 20nm

N-STORM utilizes high accuracy localization information for thousands of individual fluorophores present in a field of view to create breathtaking "super-resolution" images, exhibiting spatial resolution that is 10 times greater than conventional optical microscopes.

Human cervical cancer cells (HeLa S3) labeled with Alexa Fluor® 647 (NUP153) and ATTO 488 (TPR)
Photos courtesy of: Dr. Michael W. Davidson, National High Magnetic Field Laboratory, Florida State University

Tenfold improvement of axial resolution up to 50 nm

In addition to lateral super-resolution, N-STORM utilizes proprietary methods to achieve a tenfold enhancement in axial resolution over conventional optical microscopes, and effectively provide 3D information at the nanoscale.
3D-Stack function allows multiple 3D STORM images in different Z positions to be captured and merged into one image to create thicker STORM image.

3D volume rendering image

Projection image

3D-Stack STORM image of tubulin of BSC-1 cell labeled with Alexa Fluor® 647 with image depth of 4µm.

Dynamic super resolution imaging at the nanoscale level

Image acquisition speed has been significantly improved, increasing from minutes to seconds* for a single shot, due to newly developed optics and illumination systems optimized for the sCMOS camera, which is capable of approximately 10 times faster image acquisition than before. Thanks to this improvement, it is now possible to acquire dynamics of living specimens at a resolution 10 times greater than that of conventional optical microscopes.

  • *Using high-speed mode (20µm x 20µm imaging area)

Imaging speed: 350 fps
30 min time-lapse imaging with 1 min interval

Multi-color imaging capability

Multi-color super-resolution imaging can be carried out using both activator-reporter pairs for sequential activation imaging and activator-free labels for continuous activation imaging. This flexibility allows users to easily gain critical insights into the localization and interaction properties of multiple proteins at the molecular level.

Dual color STORM image of microtubule (Alexa Fluor® 405-Alexa Fluor® 647) and mitochondria (Cy3-Alexa Fluor® 647) in a mammalian cell.
Objective: CFI Plan Apochromat VC 100X Oil (NA 1.40)

High definition, high density images

The newly developed illumination magnifying lens, improved laser excitation efficiency, and increased image acquisition rate successfully enhance the density of molecules per unit area and provide much clearer images with high molecule counts.

Left: Improved image quality, Right: Before improvement
Scale bar: 5µm
Super-resolution image quality is significantly improved in the same imaging time.
Sample: Tubulin of BSC-1 cell labeled with Alexa Fluor® 647, acquisition time: 20 seconds

Large image acquisition area

Intermediate zoom lenses in the imaging system have been newly developed and optimized for a wide field of view.
The wide-view mode is achieved at 80 µm x 80 µm, which is an imaging area 4 times wider than before.

Left: 4 times wider imaging area, 80 µm x 80 µm (wide-view mode)
Right: Imaging area of conventional model, 40 µm x 40 µm
Sample: Mitochondria TOM20 conjugated with Alexa Fluor® 647

Simple imaging method switching

N-STORM can be simultaneously configured with a confocal microscope system such as the A1+, and can easily switch between confocal imaging and super resolution imaging. A desired location in a sample can be selected from a low-magnification/large FOV confocal image and captured in ultra-high resolution by simply switching the imaging method.

Objectives designed for N-STORM

Silicone immersion objective

Silicone immersion objective uses high viscosity silicone oil for immersion liquid, which has a refractive index that closely matches with those of the live cells. It allows capturing high-resolution, multi-color 3D images up to the apical side of a cell during long-term, time-lapse imaging. Superior chromatic aberration correction and high transmittance are ensured through broad wavelength range.

CFI SR HP Plan Apochromat Lambda S 100XC Sil
Acquired using the CFI SR HP Plan Apochromat Lambda S 100XC Sil (approx. 6.5 μm depth)
Acquired using the CFI SR HP Apochromat TIRF 100XC Oil (approx. 6.5 μm depth)

SR HP series objectives

The SR HP series of objectives are compatible with the ultra-high powered lasers required for inducing rapid photoswitching of fluorophores. They provide improved axial chromatic aberration correction to achieve the highest level of precision in localization and image alignment for 3D multi-color STORM imaging.

CFI SR HP Apochromat TIRF 100XC Oil
CFI HP Plan Apochromat VC 100X Oil

Research Papers

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