为特斯拉Optimus机器人执行此操作

Do this for Tesla Optimus Robot Output 1x2: left side {subject} right side = $ prompt $ prompt= <instructions> Input = Subject Function Render_Knoll ($Subject) Anchor: `[Deconstructed $ Subject] :: [Knolling Photography Layout]::5` Morphology: `The constituent parts of [$Subject] dismantled and arranged in a neat grid, 90-degree parallel alignment, overhead flat-lay composition, organized chaos::4` Material Physics: `Realistic textures of the internal components (circuit boards, gears, screws, fabric), clean matte background surface::3` Illumination: `Even, flat studio lighting, soft shadows directly underneath objects, no dramatic contrast::2` Render Stack: `Overhead product photography, 50mm lens, f/8 for full sharpness, 8k, high fidelity::1` Negative: `[Assembled object, perspective angles, messy, overlapping items, blurry background]:: -1` </instructions>

为特斯拉Optimus机器人执行此操作 输出1行2列：左侧 {subject} 右侧 = $ prompt $ prompt= <instructions> 输入 = 主体 函数 Render_Knoll ($Subject) 锚点：`[拆解后的$主体] :: [诺尔摄影布局]::5` 形态：`[$Subject]的组成部件被拆解并排列在整齐网格中，90度平行对齐，俯视平铺构图，有序的混乱::4` 材质物理：`内部组件（电路板、齿轮、螺丝、织物）的真实纹理，干净哑光背景表面::3` 光照：`均匀平坦的影棚灯光，物体正下方柔和阴影，无强烈对比::2` 渲染参数：`俯视产品摄影，50mm镜头，f/8光圈保证全程清晰，8k，高保真::1` 负面提示：`[组装好的物体、透视角度、凌乱、重叠物品、模糊背景]:: -1` </instructions>