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Reference: https://app.jove.com/t/2636/fabricati... The development of micropatterned hydrogels intended for neural culture systems represents a significant advancement in the field of tissue engineering and regenerative medicine. This innovative approach is primarily facilitated by the cutting-edge technique of dynamic mask projection photolithography, which has revolutionized the way researchers can fabricate complex structures at the microscale. Dynamic mask projection photolithography is an advanced fabrication method that leverages the principles of photolithography to create highly detailed and intricate patterns within hydrogel materials. This technique involves the use of a digital light processing system that can project light patterns dynamically onto a photosensitive hydrogel precursor. By precisely controlling the exposure of light, researchers can selectively polymerize specific regions of the hydrogel, allowing for the formation of customized microenvironments that are crucial for supporting and guiding neural cell growth and organization. The ability to create micropatterns within hydrogels is essential for mimicking the natural extracellular matrix (ECM), which plays a vital role in cellular behavior. The ECM provides structural and biochemical support to surrounding cells, influencing their growth, migration, and differentiation. By replicating the complex architecture and biochemical cues of the ECM, micropatterned hydrogels can significantly enhance the functionality of neural culture systems. This is particularly important for studying neural cells, as their behavior is often influenced by the physical and chemical properties of their environment.