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Create a publication-quality BioRender-inspired scientific schematic showing GABA metabolism and synaptic signaling. Use a 16:9 landscape white canvas with four regions: presynaptic neuron, synaptic cleft, postsynaptic neuron, and astrocyte. Depict glucose- and glutamine-derived glutamate converted to GABA via GAD; astrocytic glutamate uptake and GAD-mediated GABA synthesis; glutamate-to-glutamine conversion via GS; VIAAT-mediated vesicular loading and action-potential-dependent release; GAT-mediated GABA reuptake and vesicular recycling or mitochondrial degradation; putrescine-associated metabolism with DAO and PAO; ethanol → acetaldehyde → acetate → a separate indirect GABA-associated metabolic pathway; postsynaptic GABA_A receptors mediating Cl⁻ influx and GABA_B receptors signaling through Gi/o and GIRK-mediated K⁺ efflux. Use pastel blue neurons, a pale-green astrocyte, purple GABA, orange glutamate, green glutamine, clean arrows, accurate compartments, concise English labels, and publication-quality vector aesthetics. Avoid incorrect direct conversions, ambiguous arrows, clutter, and photorealism. Ensure all scientific labels are legible and all transport directions are correct.

Create a publication-quality BioRender-inspired scientific schematic showing GABA metabolism and synaptic signaling. Use a 16:9 landscape white canvas with four regions: presynaptic neuron, synaptic cleft, postsynaptic neuron, and astrocyte. Depict glucose- and glutamine-derived glutamate converted to GABA via GAD; astrocytic glutamate uptake and GAD-mediated GABA synthesis; glutamate-to-glutamine conversion via GS; VIAAT-mediated vesicular loading and action-potential-dependent release; GAT-mediated GABA reuptake and vesicular recycling or mitochondrial degradation; putrescine-associated metabolism with DAO and PAO; ethanol → acetaldehyde → acetate → a separate indirect GABA-associated metabolic pathway; postsynaptic GABA_A receptors mediating Cl⁻ influx and GABA_B receptors signaling through Gi/o and GIRK-mediated K⁺ efflux. Use pastel blue neurons, a pale-green astrocyte, purple GABA, orange glutamate, green glutamine, clean arrows, accurate compartments, concise English labels, and publication-quality vector aesthetics. Avoid incorrect direct conversions, ambiguous arrows, clutter, and photorealism. Ensure all scientific labels are legible and all transport directions are correct.
Jingyang Hu

@Jingyang Hu

Prompt

Create a publication-quality BioRender-inspired scientific schematic showing GABA metabolism and synaptic signaling. Use a 16:9 landscape white canvas with four regions: presynaptic neuron, synaptic cleft, postsynaptic neuron, and astrocyte. Depict glucose- and glutamine-derived glutamate converted to GABA via GAD; astrocytic glutamate uptake and GAD-mediated GABA synthesis; glutamate-to-glutamine conversion via GS; VIAAT-mediated vesicular loading and action-potential-dependent release; GAT-mediated GABA reuptake and vesicular recycling or mitochondrial degradation; putrescine-associated metabolism with DAO and PAO; ethanol → acetaldehyde → acetate → a separate indirect GABA-associated metabolic pathway; postsynaptic GABA_A receptors mediating Cl⁻ influx and GABA_B receptors signaling through Gi/o and GIRK-mediated K⁺ efflux. Use pastel blue neurons, a pale-green astrocyte, purple GABA, orange glutamate, green glutamine, clean arrows, accurate compartments, concise English labels, and publication-quality vector aesthetics. Avoid incorrect direct conversions, ambiguous arrows, clutter, and photorealism. Ensure all scientific labels are legible and all transport directions are correct.

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