microfluidic device standard neuron device cat Search Results


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Xona Microfluidics microfluidic devices xona microfluidics cat#snd450
Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of <t>microfluidic</t> device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel
Microfluidic Devices Xona Microfluidics Cat#Snd450, supplied by Xona Microfluidics, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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fluidigm microfluidic chips
Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of <t>microfluidic</t> device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel
Microfluidic Chips, supplied by fluidigm, used in various techniques. Bioz Stars score: 96/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Xona Microfluidics microfluidic chamber rd450
Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of <t>microfluidic</t> device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel
Microfluidic Chamber Rd450, supplied by Xona Microfluidics, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Avantor superfrost® plus microslides
Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of <t>microfluidic</t> device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel
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Xona Microfluidics compartmentalised microfluidic devices mfd
Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of <t>microfluidic</t> device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel
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DYNEX tech microfluor 2 u-bottom black 96-well plates
Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of <t>microfluidic</t> device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel
Microfluor 2 U Bottom Black 96 Well Plates, supplied by DYNEX tech, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Xona Microfluidics xc450

Xc450, supplied by Xona Microfluidics, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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AIM Biotech microfluidic chip dax-1

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Eppendorf AG microfluidic chamber chip

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Microfluidic ChipShop staggered herringbone micromixer

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Xona Microfluidics microfluidic device standard neuron device cat# snd150
CEC‐sEVs promote axonal growth of DRG neurons with the presence of oxaliplatin. [Representative confocal microscopic images (a) show CECs are CD31 (green, CD31) and ZO1 positive (red, ZO‐1). Characterization of CEC‐sEVs by TEM (b), NTA (c) and Western blots (d), respectively. Schematic figure of the standard <t>microfluidic</t> device <t>(SND150)</t> along with an immunofluorescent image captured in the box area (e) shows DRG neurons grown in the cell body compartment (DRG soma) and their axons in 150 μm long microgrooves and in the axonal compartment (Axon). Representative time‐lapse microscopic images (f) of growth cone extension within 60 min and corresponding quantitative data of growth cone extension during a 24 h period (g), respectively, under control (con), CEC‐sEVs (sEV), oxaliplatin (oxa) and CEC‐sEVs in combination with oxaliplatin (sEV+oxa) conditions. Yellow and red arrows in panel G indicate the start (0′) and end positions (60′), respectively. One‐way ANOVA with Tukey's multiple comparisons test was used. *** P < 0.001 vs. control. N indicates the number of axonal growth cones. In panel D, NCM = the particles isolated from non‐conditioned medium, sEVs = CEC‐sEVs, Ept = the intentionally empty lanes, Cell = CEC lysate, K = the molecular weight Kda. Error bars indicate the standard error of the mean (SEM)]
Microfluidic Device Standard Neuron Device Cat# Snd150, supplied by Xona Microfluidics, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Image Search Results


Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of microfluidic device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel

Journal: Journal of Neurovirology

Article Title: SARS-CoV and SARS-CoV-2 display limited neuronal infection and lack the ability to transmit within synaptically connected axons in stem cell–derived human neurons

doi: 10.1007/s13365-023-01187-3

Figure Lengend Snippet: Sarbecovirus infection of ex vivo model of interconnected human neural network to assess trans-synaptic transmission. A Stem cell–derived NPCs were seeded in both panels of microfluidic device separated by microchannels which allows only the neurites to pass through. After seeding, NPCs were differentiated for 20 (RABV) to 21 days (sarbecoviruses) to generate neurons in both panels interconnected by neurites through the microchannels. The neuronal network is identified by TUJ1 staining (red) and F-actin stain to visualise the neural architecture (magenta). The ex vivo models were infected MOI 1 with RABV for 48 h, which served as a positive control for trans-synaptic transmission ( B ) or different strains of sarbecoviruses ( C, D, E ) at for 24 h. To prevent passive diffusion of virus from the infected panel into the non-infected panel, a higher volume of media is maintained in the non-infected panel. After 24 h of infection, neural cultures were fixed, stained, and imaged in the microfluidic device. Tile images were taken with 20 × objective with Z-stacks and stitched together. Image B shows trans-synaptic spread of RABV from the infected to non-infected panel identified by staining with a rabies anti-nucleoprotein antibody (green). Images C, D, and E show SARS and SARS-CoV-2 infections stained with anti-SARS2-S1 antibody (green) in a subset of neurons in the infected panel (boxed area) but viral antigen was not observed in the non-infected panel

Article Snippet: Xona microfluidic devices (Xona Microfluidics, Cat#SND450) were sterilised and plasma bonded to glass coverslips (24 × 40 mm; Menzel Glaser) using a plasma cleaner (PDC-32G-2, Harrick Plasma).

Techniques: Infection, Ex Vivo, Transmission Assay, Derivative Assay, Staining, Positive Control, Diffusion-based Assay, Virus

Journal: eLife

Article Title: Burst mitofusin activation reverses neuromuscular dysfunction in murine CMT2A

doi: 10.7554/eLife.61119

Figure Lengend Snippet:

Article Snippet: Other , XonaChips , Xona Microfluidics , Cat#: XC450 , .

Techniques: Knock-Out, Transfection, Construct, Plasmid Preparation, Recombinant, Sequencing, Mutagenesis, Electron Microscopy, Software

CEC‐sEVs promote axonal growth of DRG neurons with the presence of oxaliplatin. [Representative confocal microscopic images (a) show CECs are CD31 (green, CD31) and ZO1 positive (red, ZO‐1). Characterization of CEC‐sEVs by TEM (b), NTA (c) and Western blots (d), respectively. Schematic figure of the standard microfluidic device (SND150) along with an immunofluorescent image captured in the box area (e) shows DRG neurons grown in the cell body compartment (DRG soma) and their axons in 150 μm long microgrooves and in the axonal compartment (Axon). Representative time‐lapse microscopic images (f) of growth cone extension within 60 min and corresponding quantitative data of growth cone extension during a 24 h period (g), respectively, under control (con), CEC‐sEVs (sEV), oxaliplatin (oxa) and CEC‐sEVs in combination with oxaliplatin (sEV+oxa) conditions. Yellow and red arrows in panel G indicate the start (0′) and end positions (60′), respectively. One‐way ANOVA with Tukey's multiple comparisons test was used. *** P < 0.001 vs. control. N indicates the number of axonal growth cones. In panel D, NCM = the particles isolated from non‐conditioned medium, sEVs = CEC‐sEVs, Ept = the intentionally empty lanes, Cell = CEC lysate, K = the molecular weight Kda. Error bars indicate the standard error of the mean (SEM)]

Journal: Journal of Extracellular Vesicles

Article Title: Small extracellular vesicles ameliorate peripheral neuropathy and enhance chemotherapy of oxaliplatin on ovarian cancer

doi: 10.1002/jev2.12073

Figure Lengend Snippet: CEC‐sEVs promote axonal growth of DRG neurons with the presence of oxaliplatin. [Representative confocal microscopic images (a) show CECs are CD31 (green, CD31) and ZO1 positive (red, ZO‐1). Characterization of CEC‐sEVs by TEM (b), NTA (c) and Western blots (d), respectively. Schematic figure of the standard microfluidic device (SND150) along with an immunofluorescent image captured in the box area (e) shows DRG neurons grown in the cell body compartment (DRG soma) and their axons in 150 μm long microgrooves and in the axonal compartment (Axon). Representative time‐lapse microscopic images (f) of growth cone extension within 60 min and corresponding quantitative data of growth cone extension during a 24 h period (g), respectively, under control (con), CEC‐sEVs (sEV), oxaliplatin (oxa) and CEC‐sEVs in combination with oxaliplatin (sEV+oxa) conditions. Yellow and red arrows in panel G indicate the start (0′) and end positions (60′), respectively. One‐way ANOVA with Tukey's multiple comparisons test was used. *** P < 0.001 vs. control. N indicates the number of axonal growth cones. In panel D, NCM = the particles isolated from non‐conditioned medium, sEVs = CEC‐sEVs, Ept = the intentionally empty lanes, Cell = CEC lysate, K = the molecular weight Kda. Error bars indicate the standard error of the mean (SEM)]

Article Snippet: To separate axons from neuronal soma and examine the effects of oxaliplatin/CEC‐sEVs on axons of DRG neurons, a microfluidic device (Standard Neuron Device, Cat# SND150, Xona Microfluidics, Temecula, CA) was employed (Figure ) (Jia et al., ; Wang et al., ; Zhang et al., ).

Techniques: Western Blot, Control, Isolation, Molecular Weight