Source 1primary paper2019
Toolkit/light activation at variable amplitudes (LAVA)
light activation at variable amplitudes (LAVA)
Also known as: engineered illumination devices, LAVA
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
LAVA is a set of engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes. It delivers user-defined light intensity, temporal sequences, and spatial patterns to control signaling responses, including optogenetic Wnt/beta-catenin pathway activation.
Usefulness & Problems
Why this is useful
LAVA is useful for imposing controlled optical input waveforms on cells, enabling systematic interrogation of how signaling pathways respond to light dose, timing, and spatial patterning. Its optical design was optimized for uniform illumination of multi-well cell culture plates, supporting high-throughput optogenetic activation of signaling pathways and protein-protein interactions.
Problem solved
LAVA addresses the need for illumination hardware that can deliver reproducible, user-defined, and spatially patterned optogenetic stimulation across multi-well culture formats. This is particularly relevant for studying signaling dynamics where pathway output depends on light amplitude and temporal structure.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A delivery strategy grouped with the mechanism branch because it determines how a system is instantiated and deployed in context.
Mechanisms
dose-dependent optogenetic activationoptical stimulationspatiotemporal modulation of light inputTechniques
Computational DesignTarget processes
signalingInput: Light
Implementation Constraints
LAVA was designed as an illumination platform for cell culture experiments, with optical optimization for uniform illumination of multi-well plates. The available evidence supports use in optogenetic assays requiring control over light intensity, timing, and spatial patterning, but does not provide further practical details on construction, electronics, or operating parameters.
The supplied evidence is limited to a single 2019 source and focuses on device capability and one application in optoWnt signaling. The evidence provided does not specify hardware components, wavelength ranges, calibration procedures, or validation across multiple optogenetic systems beyond signaling pathways and protein-protein interactions.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
Approval Evidence
1 source5 linked approval claimsfirst-pass slug light-activation-at-variable-amplitudes-lava
novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
Source:
control capabilitysupports
LAVA devices enable optogenetic Wnt/beta-catenin pathway activation at user-defined intensities, temporal sequences, and spatial patterns.
optogenetic Wnt/β-catenin pathway activation can be controlled at user-defined intensities, temporal sequences, and spatial patterns using novel engineered illumination devices for optogenetic photostimulation and light activation at variable amplitudes (LAVA)
Source:
design optimizationsupports
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
The optical design of LAVA devices was optimized for uniform illumination of multi-well cell culture plates to enable high-throughput, spatiotemporal optogenetic activation of signaling pathways and protein-protein interactions.
Source:
dose responsesupports
In human embryonic stem cells, variation in light intensity using LAVA induced a dose-dependent response in optoWnt activation and downstream Brachyury expression.
Using the LAVA devices, variation in light intensity induced a dose-dependent response in optoWnt activation and downstream Brachyury expression in human embryonic stem cells (hESCs).
Source:
patterning resultsupports
Time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro.
time-varying and spatially localized patterns of light revealed tissue patterning that models embryonic presentation of Wnt signals in vitro
Source:
practicalitysupports
LAVA devices provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling.
The engineered LAVA devices thus provide a low-cost, user-friendly method for high-throughput and spatiotemporal optogenetic control of cell signaling
Source:
Comparisons
Source-backed strengths
The reported strengths are variable-amplitude light delivery, programmable temporal and spatial stimulation, and optimization for uniform illumination of multi-well plates. In human embryonic stem cells, changing light intensity with LAVA produced a dose-dependent optoWnt response and downstream Brachyury expression, providing functional validation in a developmental signaling context.
Ranked Citations
- 1.