Follow rising oil droplets into a continuous upper layer

Original, untested video brief. No input image or generated result is supplied.

1. Task and boundary

Follow dispersed oil droplets upward through water until they meet an existing thin oil layer at the top. The useful sequence combines travel through the lower liquid with an observable arrival at the interface. The layer becomes more continuous as the lower region contains fewer distinct droplets.

Treat the sequence as an untested, time-compressed illustration. Exclude shaking, pouring, heating and a draining vessel. Preserve water beneath the oil; do not convert the entire column into one uniformly colored liquid.

2. Authorized first frame

Use a photo or drawing you own or are authorized to use. Show a transparent vessel with a thin amber upper layer and several separated amber droplets below it. Leave clear water between the droplets, the sidewalls and the upper interface.

Choose an oblique front view with both liquid boundaries visible. Include a fixed background line behind the vessel and one distinctive larger droplet. Do not start with foam, an opaque emulsion or droplets already touching the surface.

3. Use the generator

Open the image-to-video generator in a mode accepting your authorized first frame. Paste the prompt and review settings and cost before submission. Nothing runs automatically.

4. Prompt and timing

Start from my authorized image of amber oil droplets dispersed beneath a thin oil layer in clear water. Lock the camera, vessel, background line and overall liquid surface. Let the existing droplets rise through the water along readable continuous paths. When a droplet reaches the underside of the upper oil layer, show contact there before its separate outline joins that layer. Keep clear water below the interface and preserve a few smaller droplets still rising. Do not teleport droplets upward, dissolve them midway, merge everything into one floating ball or recolor the whole vessel. No pouring, shaking, heating, bubbles, cut or zoom. Finish with a smoother upper layer and fewer distinct droplets beneath it.

1. Opening fifth: identify the upper layer, larger droplet and clear gaps around it.
2. Middle three fifths: follow upward travel, first contact and loss of the separate outline at that contact.
3. Final fifth: hold the rebuilt layer with water still below. These timing shares describe presentation, not a measured separation rate.

5. Inspect the output

For each check, record a frame or time, observation, and pass, fail or inconclusive judgment.

• The vessel and overall surface stay aligned with the background reference.
• The selected larger droplet rises through visible water before touching the upper layer.
• Its outline joins the layer at the contact point instead of vanishing remotely.
• A recognizable water region remains below the upper oil boundary throughout.
• The final lower region contains fewer distinct droplets without a blanket color transition.
• If glare hides contact or overlapping droplets cannot be tracked separately, mark that arrival inconclusive; the final layering alone is insufficient.

6. Fix one failure

• Droplets vanish midway: shorten their travel and emphasize contact before joining.
• Everything becomes one ball: preserve a broad layer meeting both visible sidewalls.
• The entire vessel turns amber: fix the lower water appearance and simplify lighting.
• Bubbles appear instead: remove fizz language and retain the original droplet color and filled outlines.

7. Ending and limits

End with a continuous upper oil region, clear water below and a few remaining separate droplets.

Save your authorized input, exact prompt, settings, result and review notes.

No H3 run or experiment is supplied. Images cannot verify oil identity, density, separation efficiency, volume conservation or a real settling schedule. Requested appearance and timing are creative instructions without a model-performance guarantee.

The two-droplet task joins two neighboring regions on one plane. This task first requires upward transport through another liquid, then arrival at an extended layer. Changing oil color or vessel shape alone would not change that task.