STEM SVG Animation Generator

Create a high-tech educational SVG animation centered on a three-dimensional cross-section of an NPN transistor. The emitter, base, and collector should appear as semi-transparent silicon modules with a frosted-glass and holographic material mix, subtle fluorescent chamfered edges, and clearly visible internal structure. Use a cool deep blue tone for N-type semiconductor regions and a warm dark orange tone for the P-type region. Place everything against a deep dark background with ultra-fine grid lines and faint circuit textures, using strong contrast to emphasize glowing particles. Stage 1: idle state. Electrons appear as bright cyan-blue glowing particles, while holes appear as hollow rings with a soft golden halo. All particles perform only very subtle Brownian motion inside their regions, with no macroscopic flow. The overall lighting should breathe gently. Stage 2: apply a forward voltage between the base and emitter. External metallic wires light up with flowing neon energy. The depletion layer at the PN junction between the base and emitter gradually thins visually. A small number of cyan-blue electrons begin moving slowly from the emitter through the base, forming a weak base current with delicate pulse-like flickers. Stage 3: demonstrate the current amplification principle. Apply a reverse high voltage at the collector. The scene should flare brighter instantly. Because the base region is extremely thin, massive numbers of cyan-blue electrons surge across it like a luminous digital waterfall and are swept rapidly into the collector by the strong electric field. Increase density and speed dramatically, with dynamic motion blur and light trails to make the amplification effect obvious. Use slow panning and macro push-pull camera motion. At the moment of amplification, add a slight camera tremor and strong local bloom. The overall rhythm should transition smoothly from calm setup to explosive technological energy, then return to the initial quiet loop.

Create a four-level binary tree centered on a deep dark background with a strong modern tech aesthetic and minimalist data-visualization style. Each node should begin as a refined circular form with frosted-glass texture, semi-transparent dark gray-blue fill, and subtle cool edge reflections. Connect nodes with thin dark-silver lines. Animate the structure using the rhythm of depth-first traversal. At the beginning, a neon cyan energy stream should travel along the edges from the root downward, leaving a luminous trail. Whenever the energy stream touches and visits a node, trigger a crisp visual beat: the node elastically scales up to 120%, then flashes with an intense electric-yellow glow and emits a soft outward halo. After a short 0.5-second highlighted state, the node should smoothly settle back to normal size, then transition into a bright emerald green that locks in to indicate it has been completed. The material should shift from translucent to a more solid glowing finish. As traversal progresses, the edges connected to visited nodes should light up and remain softly green. Keep the full timing mechanically precise, like a clockwork system: travel, flash, settle, and persist. By the end, the entire binary tree should transform from a dim topological skeleton into a luminous energy tree.

Create a cyberpunk-style educational SVG animation that explains C++ virtual tables and dynamic dispatch inside a deep midnight-blue background with glowing grid particles, evoking the microscopic world of computer memory. In the center, place two semi-transparent frosted-glass memory blocks representing a base-class object and a derived-class object. The base class should glow in cold cyan-blue, and the derived class in vivid magenta-purple. At the top of each object block, gradually illuminate a bright core node representing the virtual table pointer (vptr), with a subtle pulse-breathing effect. With a brisk rhythmic pace, both virtual pointers should emit bright fiber-optic-like beams toward two hovering holographic virtual function tables (vtables) on the right. Represent each vtable as a luminous matrix grid filled with glowing function pointer addresses. The base-class table points to foundational code blocks, while the derived-class table highlights overwritten entries in orange and redirects them toward a new derived-class code block below. Then begin the dynamic binding demonstration. A golden flowing data orb representing a function call enters the derived object through a base-class pointer. The orb races along the magenta virtual-pointer path to the derived vtable, locks onto the overridden function address, and then jumps into the target function code area, bursting into brilliant golden particle sparks. Use smooth push-ins and lateral camera motion, with macro closeups at object creation, pointer lookup, and function execution. Combine flowing connection lines and pulsing nodes so the abstract memory-routing principle becomes a vivid high-tech visual explanation.