Source 1primary paper2026PMC
Toolkit/lattice lightsheet microscopy
lattice lightsheet microscopy
Also known as: LLSM
Taxonomy: Technique Branch / Method. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
Lattice lightsheet microscopy (LLSM) is a modified light-sheet imaging platform used for three-dimensional optogenetic activation with subcellular resolution. In the cited 2022 study, it enabled high-spatiotemporal-resolution manipulation of cellular behavior, including membrane ruffling and guided cell migration.
Usefulness & Problems
Why this is useful
This method is useful for coupling volumetric imaging with spatially localized optogenetic stimulation in living cells. The cited work shows that it can direct cell behavior over time while maintaining subcellular precision and extended imaging acquisition.
Source:
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
Source:
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Source:
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
Problem solved
LLSM helps solve the problem of delivering three-dimensional, spatially confined optogenetic stimulation while simultaneously observing dynamic cellular responses with high spatiotemporal resolution. The reported application specifically addressed controlled manipulation of membrane ruffling and cell migration.
Source:
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
Source:
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Source:
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
Problem links
This is the strongest direct imaging method in the set for 3D specimens, and its summary explicitly references subcellular-resolution work in three dimensions. That makes it a plausible tool for improving high-resolution in situ imaging in more native tissue-like contexts.
This is a concrete assay platform for capturing cellular behavior with 3D subcellular and time-resolved readout, which directly helps with the spatial and temporal aspects of complex cell state. The summary supports dynamic cellular-state observation, even though multimodal omics integration is not shown.
Taxonomy & Function
Primary hierarchy
Technique Branch
Method: A concrete measurement method used to characterize an engineered system.
Mechanisms
optogenetic photoactivationoptogenetic photoactivationthree-dimensional spatially localized light stimulationthree-dimensional spatially localized light stimulationTechniques
Functional AssayTarget processes
No target processes tagged yet.
Input: Light
Implementation Constraints
cofactor dependency: cofactor requirement unknownencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: spectral hardware requirementmethod role: core imaging platformoperating role: sensor
The method is described as a modified lattice light-sheet microscopy platform adapted for three-dimensional optogenetic activation. The supplied evidence supports use as an integrated optical system for simultaneous manipulation and imaging, but it does not provide construct design, illumination wavelengths, hardware configuration, or sample preparation details.
The supplied evidence is limited to a 2022 application study and does not provide broader benchmarking against other microscopy or stimulation platforms. The evidence also does not specify optical parameters, compatible optogenetic actuators, cell types, or performance across multiple biological systems.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Source 2primary paper2022
Source 3primary paper2022Communications Biology
Ranked Claims
BLIMPS is a technique for tandem biosensor imaging across multiple populations of presynaptic terminals using lattice light-sheet microscopy.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
guided cell migration duration 6 himaging volumes collected 463 imaging volumes
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
The energy power required for optogenetic reactions was lower than 1 nW or 24 mW/cm2.
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
required energy power for optogenetic reactions 1 nWrequired power density for optogenetic reactions 24 mW/cm 2
Approval Evidence
3 sources6 linked approval claimsfirst-pass slugs lattice-light-sheet-microscopy, lattice-lightsheet-microscopy
using lattice light sheet microscopy
Source:
Optogenetic manipulation of cell migration with high spatiotemporal resolution using lattice lightsheet microscopy
Source:
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Source:
method capabilitysupports
BLIMPS is a technique for tandem biosensor imaging across multiple populations of presynaptic terminals using lattice light-sheet microscopy.
Source:
application capabilitysupports
The paper reports optogenetic manipulation of cell migration using lattice lightsheet microscopy with high spatiotemporal resolution.
Source:
application resultsupports
Membrane ruffling could be activated at different locations within a cell with subcellular resolution.
membrane ruffling can be activated at different locations within a cell with subcellular resolution
Source:
application resultsupports
Optogenetic stimulation enabled guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage.
We also demonstrate guided cell migration using optogenetic stimulation for up to 6 h, where 463 imaging volumes are collected, without noticeable damage to cells.
Source:
implementationsupports
A Bessel beam stimulation source was integrated into LLSM without changing the optical configuration, improving spatiotemporal control of photoactivation.
As a result, a Bessel beam as a stimulation source is integrated into the LLSM without changing the optical configuration, achieving better spatiotemporal control of photoactivation.
Source:
method modificationsupports
Lattice lightsheet microscopy was modified to enable three-dimensional optogenetic activation with subcellular resolution for manipulation of cellular behavior.
Lattice lightsheet microscopy (LLSM) is modified with the aim of manipulating cellular behavior with subcellular resolution through three-dimensional (3D) optogenetic activation.
Source:
Comparisons
Source-backed strengths
The cited study reports subcellular-resolution activation of membrane ruffling at different intracellular locations. It also reports guided cell migration for up to 6 hours while collecting 463 imaging volumes without noticeable cell damage, supporting sustained and relatively gentle live-cell operation.
Source:
We show that the energy power required for optogenetic reactions is lower than 1 nW (or 24 mW/cm 2 )
Compared with Bessel beam stimulation source integrated into LLSM
lattice lightsheet microscopy and Bessel beam stimulation source integrated into LLSM address a similar problem space.
Shared frame: same top-level item type; shared mechanisms: optogenetic photoactivation; same primary input modality: light
Strengths here: appears more independently replicated; looks easier to implement in practice.
Compared with native green gel system
lattice lightsheet microscopy and native green gel system address a similar problem space.
Shared frame: same top-level item type; same primary input modality: light
Strengths here: appears more independently replicated; looks easier to implement in practice.
Compared with plant transcriptome profiling
lattice lightsheet microscopy and plant transcriptome profiling address a similar problem space.
Shared frame: same top-level item type; same primary input modality: light
Strengths here: appears more independently replicated; looks easier to implement in practice.
Ranked Citations
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