paav gfp mcs 3flag wpre pa expression backbone (Addgene inc)
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Paav Gfp Mcs 3flag Wpre Pa Expression Backbone, supplied by Addgene inc, used in various techniques. Bioz Stars score: 94/100, based on 73 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Average 94 stars, based on 73 article reviews
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Plasmid Preparation:Article Title: Epigenetic function during heroin self-administration controls future relapse-associated behavior in a cell type-specific manner. Article Snippet: Opioid use disorder (OUD) is a chronic, relapsing disease that impacts public health substantially.. Understanding how active opioid use creates future relapse vulnerability could lead to treatments for people that suffer from OUD.. Here, we show how an epigenetic factor, HDAC5, limits the vulnerability to relapse-associated behavior in a rodent model of OUD. Cloning:Article Title: Epigenetic function during heroin self-administration controls future relapse-associated behavior in a cell type-specific manner. Article Snippet: Opioid use disorder (OUD) is a chronic, relapsing disease that impacts public health substantially.. Understanding how active opioid use creates future relapse vulnerability could lead to treatments for people that suffer from OUD.. Here, we show how an epigenetic factor, HDAC5, limits the vulnerability to relapse-associated behavior in a rodent model of OUD. Virus:Article Title: Epigenetic function during heroin self-administration controls future relapse-associated behavior in a cell type-specific manner. Article Snippet: Opioid use disorder (OUD) is a chronic, relapsing disease that impacts public health substantially.. Understanding how active opioid use creates future relapse vulnerability could lead to treatments for people that suffer from OUD.. Here, we show how an epigenetic factor, HDAC5, limits the vulnerability to relapse-associated behavior in a rodent model of OUD. |
![(A) Schematic of TRACR. A presynaptic Sender neuron (green) displays an NRX–GFP ligand enriched at synaptic terminals. A postsynaptic Receiver neuron (magenta) expresses synNotch receptors comprising an extracellular GFP nanobody (LaG17), the Notch core regulatory and transmembrane domains (grey), and the intracellular transcriptional activator tTA. Ligand binding across the synapse [1] triggers intramembrane proteolysis of synNotch [2] and release of tTA, which translocates to the nucleus to activate a TRE-responsive Reporter [3], labeling the postsynaptic neuron with RFP. (B) TRACR components. Sender AAVs encode NRX-GFP, a 2A peptide, and a marker or effector transgene. Sender expression is driven by either a cell-type-specific promoter (Pro) or a pan-neuronal promoter (hSyn), and can be restricted by Cre-dependent DIO. Receiver AAVs encode two synNotch-tTA variants with an N-terminal Myc. TRE-driven reporters used here include AAV-TRE-mRuby2 and Ai63 (TIT-tdTomato) mice. (C) Sender-GFP localization in cultured DIV14 cortical neurons co-infected with AAV-hSyn-Cre and <t>AAV-hSyn-DIO-NRXGFP-T2A-Flpo.</t> Surface staining (green; no Triton X-100 (-TX) shows NRX–GFP at the plasma membrane and at presynaptic sites overlapping with Synapsin1 (red, with sequential permeabilization; inset enlarged at right). (D) synNotch localization in cultured neurons infected with Receiver AAV-hSyn-myc-LaG17-synNotch-tTA. Immunostaining for Myc (white) shows synNotch along neurites and at the cell surface (right, no Triton X-100). (E) Strategy to visualize Sender-GFP within presynaptic terminals of retinal ganglion cells (RGCs) in dorsal lateral geniculate nuclei (dLGN). AAVs encoding Sender (hSyn-DIO-NRXGFP-T2A-Flpo) and synaptic vesicle marker (hSyn-DIO-HA-SV-2A-tdTomato) were delivered to retinas of vGluT2-Cre mice. (F) Confocal image of dLGN (dashed outline) shows NRX-GFP (green) overlap with RGC terminal axons (TdTomato, magenta). Inverted images of tdTomato (middle) and GFP channels (right) show lack GFP along TdTomato+ axon tracts (black arrows). (G) Localization of NRX-GFP ligand (green) within RGC terminal boutons, and overlapping with HA-tagged synaptic vesicle (SV) marker (magenta). (H) AAV strategy to express Sender (hSyn-DIO-NRXGFP-T2A-ChR2-YFP) in the retina, and Receiver (hSyn-synNotch) and Reporter (TRE-mRuby2) in the thalamus of vGluT2-Cre mice. Mice were injected at 3-4 postnatal weeks and harvested at 2 months of age. (I) Section of thalamus showing TRACR labeled retinothalamic connections. Receiver neurons (Myc, orange) are broadly distributed across thalamic nuclei, whereas Reporter expression (RFP, magenta) is restricted to Myc+ Receiver cells within the target region (dLGN) and is absent from non-target nuclei, including laterodorsal (LD) and ventral posteromedial (VPM). Right: enlarged insets. Scale bars: 50 µm (C,D); 200 µm (F, top) and 20µm (F, bottom); 200 µm (H, left) and 10 µm (H, right).](https://bio-rxiv-images-cdn.bioz.com/dois_ending_with_59/10__64898_slash_2026__02__08__704659/10__64898_slash_2026__02__08__704659___F1.large.jpg)