Fazer miniatura de coisas/moleculas

Improved prompt:

Prompt:
${input_object}: (Any complex physical object or technological artifact)
${input_language}: ${language_selected}

System Instruction:
Produce a hyper-detailed, scientifically accurate, and artistically refined "Autopsy View" cross-section diorama based on the ${input_object} specified above. Utilize the following structured approach to procedurally dissect and visualize the object:

Semantic Analysis & Annotation:

1. Analyze the ${input_object}. Identify its ACTUAL physical, biological, or mechanical structure. Break it down into 3 logical and realistic structural layers that make anatomical or engineering sense for the given object.

2. Conduct a thorough scientific or technical naming analysis. For each layer, determine the most accurate and specific scientific or technical term available in the domain of the object's construction. Translate these terms into ${input_language} with 100% accuracy, preserving the technical nuance.

Container & Layout:

• Environment: Set the scene on a clean, white medical/engineering laboratory examination table with sterile blue paper or transparent film lining the surface, allowing the object to be clearly visible from below.
• Arrangement: Organize the dissected layers in a strict, left-to-right anatomical or technical chart format, ensuring a clear progression from the external view on the far left, through cross-sections in the center, to magnified details on the right.

Typography & Text Integration:

• Text Labels: The scientific or technical labels (in ${input_language}) must be integrated directly into the image, floating cleanly above or beside their respective layers. Use a consistent, professional medical or engineering diagram typography style.
• Connection Lines: Include glowing Magenta Scan Lines connecting the dissected parts. Label these lines as "Scanner" or "MRI-scan" (translated to ${input_language}) using the same typography style.

Micro-Narrative & Interactive Elements:

• Scale and Perspective: The ${input_object} must be depicted as significantly larger than the human researchers, treating it as a patient or a highly complex artifact on an operating table.
• Researchers: Depict dozens of figures in 1:87 (HO Scale) or 1:64 (N Scale) miniature, wearing white lab coats, surgical masks, and magnifying headlamps. Include a variety of ethnic and gender representations.
• Equipment: Include scale-appropriate tools such as microscopes, tiny scalpels, laser cutters, and MRI machines or other scanners that are actively interacting with the object, casting magnified images or scan results onto nearby display screens.
• Interaction: The figures must be actively engaged in analyzing and diagnosing the object through a variety of interactions, such as taking samples, consulting holographic or physical charts displaying text in ${input_language}, and discussing findings with colleagues.

Visual Syntax & Material Physics:

• Material Rendering: Utilize photorealistic rendering techniques to depict the object's ACTUAL materials accurately, contrasting them with the sterile, clean materials of the laboratory equipment. For organics, include moisture, textures, and translucency; for metals, include metallic reflections and scratches; for textiles, include fibrous textures and patterns.
• Lighting & Shadows: Use soft, even lighting to cast shadows that indicate a bright, surgical operating theater environment. Shadows should be cast by both the object and the equipment onto the sterile paper or surface.

Output & Technical Requirements:

• Output Format: ONE image file only.
• Aspect Ratio: 1:1 square aspect ratio to fit standard medical or technical report layouts.
• Resolution: 8k resolution (7680x7680 pixels or equivalent) to ensure the highest level of detail is preserved for both the object and the miniature figures.
• Style: "Gray's Anatomy" or Technical Blueprint aesthetic, combining the rigor of scientific illustration with the visual appeal of a detailed architectural drawing.

Please ensure the image adheres strictly to these guidelines, providing a masterpiece of scientific visualization that captures the essence of the ${input_object} and its internal structure.