Source 1primary paper2025MED
Toolkit/near-infrared light activatable chemically induced split-Cas9/dCas9 system
near-infrared light activatable chemically induced split-Cas9/dCas9 system
Also known as: near-infrared photocleavable dimerization complex-activated split-Cas9/dCas9 system, split-Cas9/dCas9 system
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
The near-infrared light activatable chemically induced split-Cas9/dCas9 system is a multi-component CRISPR switch in which split Cas9 or dCas9 is activated through a near-infrared photocleavable dimerization complex. It is intended to provide near-infrared light-gated control of CRISPR genome editing-related activity.
Usefulness & Problems
Why this is useful
This system is useful because it aims to control CRISPR activity with near-infrared light rather than UV or blue light. The cited motivation is to improve tissue penetration and reduce the safety concerns associated with UV-dependent light-activatable CRISPR systems.
Source:
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
Problem solved
It is designed to address the limitation that most light-activatable CRISPR systems require UV or blue light, which constrains tissue penetration and raises safety concerns. It also targets shortcomings of some longer-wavelength CRISPR systems that are reported to have slow activation or toxicity and biocompatibility issues in humans.
Problem links
Need controllable genome or transcript editing
DerivedThe near-infrared light activatable chemically induced split-Cas9/dCas9 system is a multi-component CRISPR switch in which split Cas9 or dCas9 is activated through a near-infrared photocleavable dimerization complex. It is intended to enable light-gated control of genome editing-related CRISPR activity using near-infrared input.
Need precise spatiotemporal control with light input
DerivedThe near-infrared light activatable chemically induced split-Cas9/dCas9 system is a multi-component CRISPR switch in which split Cas9 or dCas9 is activated through a near-infrared photocleavable dimerization complex. It is intended to enable light-gated control of genome editing-related CRISPR activity using near-infrared input.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A composed arrangement of multiple parts that instantiates one or more mechanisms.
Mechanisms
HeterodimerizationHeterodimerizationHeterodimerizationPhotocleavagePhotocleavagePhotocleavageTechniques
No technique tags yet.
Target processes
editingInput: Light
Implementation Constraints
activation modality: near-infrared lightcofactor dependency: cofactor requirement unknowncontrol mode: chemically induced photoactivationencoding mode: genetically encodedimplementation constraint: context specific validationimplementation constraint: multi component delivery burdenimplementation constraint: spectral hardware requirementoperating role: actuatoroperating role: regulatorswitch architecture: cleavageswitch architecture: multi componentswitch architecture: recruitmentswitch architecture: splitsystem scope: split Cas9 and split dCas9
The available evidence indicates a multi-component design involving split Cas9 or dCas9 and a near-infrared photocleavable dimerization complex. Specific construct architecture, chromophore or cofactor requirements, delivery method, expression system, and irradiation parameters are not described in the supplied evidence.
The provided evidence does not report quantitative performance, activation kinetics, editing efficiency, reversibility, or validation context for this specific split-Cas9/dCas9 implementation. Independent replication and breadth of biological testing are also not documented in the supplied material.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
Approval Evidence
1 source5 linked approval claimsfirst-pass slug near-infrared-light-activatable-chemically-induced-split-cas9-dcas9-system
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
Source:
comparative limitationsupports
A small number of longer-wavelength CRISPR activation systems are limited by slow activation or toxicity and biocompatibility issues in humans.
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
Source:
comparative limitationsupports
Most recently introduced light-activatable CRISPR systems require UV or blue light, which limits tissue penetration and raises safety concerns for UV light.
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Source:
design intentsupports
Activating CRISPR primarily in targeted cells could minimize off-target effects by reducing unintended genetic modifications in non-target tissues.
These effects could, in principle, be minimized by ensuring that CRISPR is activated primarily in the targeted cells, thereby reducing the likelihood of unintended genetic modifications in non-target tissues.
Source:
performance claimsupports
The photoactivation method is described as safely usable in humans in vivo, easily adaptable to different split-Cas9/dCas9 systems, and capable of rapid spatially precise light activation across various cell types.
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
Source:
tool descriptionsupports
The paper reports a split-Cas9/dCas9 system activated through a near-infrared photocleavable dimerization complex.
To address this, we developed a split-Cas9/dCas9 system in which activation is achieved through a near-infrared photocleavable dimerization complex.
Source:
Comparisons
Source-backed strengths
The main stated strength is the use of near-infrared input in a chemically induced split-Cas9/dCas9 architecture. Based on the source claims, this design is positioned to address wavelength-related penetration and safety limitations seen in prior UV-, blue-, or some longer-wavelength CRISPR activation systems.
Source:
A small number of systems that activate CRISPR using longer wavelengths are hindered by either slow light activation or issues related to toxicity and biocompatibility of the proposed techniques in humans.
Source:
A drawback is that the overwhelming majority of recently introduced light activatable CRISPR systems require UV or blue light exposure, severely limiting the penetration depth of light in tissue at which CRISPR can be activated, and, in the case of UV light, raising safety concerns.
Source:
This photoactivation method can be safely used in humans in vivo, easily adapted to different split-Cas9/dCas9 systems, and enables rapid, spatially precise light activation across various cell types.
Compared with LITEs (Light-inducible transcriptional effectors)
near-infrared light activatable chemically induced split-Cas9/dCas9 system and LITEs (Light-inducible transcriptional effectors) address a similar problem space because they share editing.
Shared frame: same top-level item type; shared target processes: editing; shared mechanisms: heterodimerization; same primary input modality: light
Compared with NIR light-activated CRISPR-dCas9/Cas9 system
near-infrared light activatable chemically induced split-Cas9/dCas9 system and NIR light-activated CRISPR-dCas9/Cas9 system address a similar problem space because they share editing.
Shared frame: same top-level item type; shared target processes: editing; shared mechanisms: heterodimerization, photocleavage; same primary input modality: light
Compared with photoactivated CRISPR/Cas12a strategy
near-infrared light activatable chemically induced split-Cas9/dCas9 system and photoactivated CRISPR/Cas12a strategy address a similar problem space because they share editing.
Shared frame: same top-level item type; shared target processes: editing; shared mechanisms: photocleavage; same primary input modality: light
Ranked Citations
- 1.