Abstract: Techniques are described for reducing the number of angles needed in structured illumination imaging of biological samples through the use of patterned flowcells, where nanowells of the patterned flowcells are arranged in, e.g., a square array, or an asymmetrical array. Accordingly, the number of images needed to resolve details of the biological samples is reduced. Techniques are also described for combining structured illumination imaging with line scanning using the patterned flowcells.

Abstract: The disclosure provides for structured illumination microscopy (SIM) imaging systems. In one set of implementations, a SIM imaging system may be implemented as a multi-arm SIM imaging system, whereby each arm of the system includes a light emitter and a beam splitter (e.g., a transmissive diffraction grating) having a specific, fixed orientation with respect to the system's optical axis. In a second set of implementations, a SIM imaging system may be implemented as a multiple beam splitter slide SIM imaging system, where one linear motion stage is mounted with multiple beam splitters having a corresponding, fixed orientation with respect to the system's optical axis. In a third set of implementations, a SIM imaging system may be implemented as a pattern angle spatial selection SIM imaging system, whereby a fixed two-dimensional diffraction grating is used in combination with a spatial filter wheel to project one-dimensional fringe patterns on a sample.

Abstract: Techniques are described for reducing the number of angles needed in structured illumination imaging of biological samples through the use of patterned flowcells, where nanowells of the patterned flowcells are arranged in, e.g., a square array, or an asymmetrical array. Accordingly, the number of images needed to resolve details of the biological samples is reduced. Techniques are also described for combining structured illumination imaging with line scanning using the patterned flowcells.

Abstract: A method of sequencing a plurality of polynucleotides includes: attaching a single DNA template molecule to each of a plurality of attachment elements on a sample container, wherein the average distance between adjacent elements is less than Abbe's limit; applying a stochastic photo-switching chemistry to all of the molecules at the same time to cause the attached molecules to fluoresce in on and off events in up to four different colors by stochastic photo-switching; and imaging the on and off events in a color channel for each color in real-time as the on and off events are occurring for the attached molecules.

Abstract: Techniques are described for reducing the number of angles needed in structured illumination imaging of biological samples through the use of patterned flowcells, where nanowells of the patterned flowcells are arranged in, e.g., a square array, or an asymmetrical array. Accordingly, the number of images needed to resolve details of the biological samples is reduced. Techniques are also described for combining structured illumination imaging with line scanning using the patterned flowcells.

Abstract: Techniques are described for reducing the number of angles needed in structured illumination imaging of biological samples through the use of patterned flowcells, where nanowells of the patterned flowcells are arranged in, e.g., a square array, or an asymmetrical array. Accordingly, the number of images needed to resolve details of the biological samples is reduced. Techniques are also described for combining structured illumination imaging with line scanning using the patterned flowcells.

Abstract: A method of sequencing a plurality of polynucleotides includes: attaching a single DNA template molecule to each of a plurality of attachment elements on a sample container, wherein the average distance between adjacent elements is less than Abbe's limit; applying a stochastic photo-switching chemistry to all of the molecules at the same time to cause the attached molecules to fluoresce in on and off events in up to four different colors by stochastic photo-switching; and imaging the on and off events in a color channel for each color in real-time as the on and off events are occurring for the attached molecules.

Abstract: Example super-resolution microscopy systems are described herein that are configured for relatively high throughput. The disclosed microscopy systems can be to generate an array of sub-diffraction activated areas for imaging. The microscopy systems can be to utilize imaging techniques that employ time delay integration to build up super-resolution images over time. The disclosed microscopy systems can utilize long-lived fluorophores in conjunction with wide field and patterned illumination to generate super-resolution images of a sample with relatively high throughput.

Abstract: The disclosure provides for structured illumination microscopy (SIM) imaging systems. In one set of implementations, a SIM imaging system may be implemented as a multi-arm SIM imaging system, whereby each arm of the system includes a light emitter and a beam splitter (e.g., a transmissive diffraction grating) having a specific, fixed orientation with respect to the system's optical axis. In a second set of implementations, a SIM imaging system may be implemented as a multiple beam splitter slide SIM imaging system, where one linear motion stage is mounted with multiple beam splitters having a corresponding, fixed orientation with respect to the system's optical axis. In a third set of implementations, a SIM imaging system may be implemented as a pattern angle spatial selection SIM imaging system, whereby a fixed two-dimensional diffraction grating is used in combination with a spatial filter wheel to project one-dimensional fringe patterns on a sample.

Abstract: Techniques are described for reducing the number of angles needed in structured illumination imaging of biological samples through the use of patterned flowcells, where nanowells of the patterned flowcells are arranged in, e.g., a square array, or an asymmetrical array. Accordingly, the number of images needed to resolve details of the biological samples is reduced. Techniques are also described for combining structured illumination imaging with line scanning using the patterned flowcells.

Abstract: A method of sequencing a plurality of polynucleotides includes: attaching a single DNA template molecule to each of a plurality of attachment elements on a sample container, wherein the average distance between adjacent elements is less than Abbe's limit; applying a stochastic photo-switching chemistry to all of the molecules at the same time to cause the attached molecules to fluoresce in on and off events in up to four different colors by stochastic photo-switching; and imaging the on and off events in a color channel for each color in real-time as the on and off events are occurring for the attached molecules.

Abstract: Example super-resolution microscopy systems are described herein that are configured for relatively high throughput. The disclosed microscopy systems can be to generate an array of sub-diffraction activated areas for imaging. The microscopy systems can be to utilize imaging techniques that employ time delay integration to build up super-resolution images over time. The disclosed microscopy systems can utilize long-lived fluorophores in conjunction with wide field and patterned illumination to generate super-resolution images of a sample with relatively high throughput.