ccccEsion/IMUG-Bench huggingface dataset:
Domain: Physics / deformation

turn: 1
modality: text
input: text: Observe this image. What is the primary material of the object shown (referred to as Object A)?
Options:
A. Ebony wood
B. Pure gold
C. Stainless steel
D. Porcelain
E. None of the above.
output: answer: A

turn: 2
modality: image
input: Generate a completely new image showing an object of the same type as the one in the previous round, but made of pure gold. This new object is referred to as Object B.
output: evaluation_points: 1. The image contains exactly one hairpin (the same type of object as the hairpin in Turn 1 input image).

2. The hairpin in the image is made of pure gold.

3. The background is simple and clean, focusing attention on the item itself.

turn: 3
modality: image
input: Apply a sufficiently large force to both Object A and Object B to cause significant bending (ensuring they do not break), then release the force and let them rest for a period. Generate the final state of both objects in the same image.
output: evaluation_points: 1. Object A (the hairpin made of ebony wood) must have returned to its original, unbent shape as shown in Turn 1 input image.

2. Object B (the hairpin made of pure gold) must remain in its deformed, bent state without recovering.

3. Both objects are shown together in the same image with a consistent background.

4. Object A (the hairpin) retains the same color, texture, and material characteristics (ebony wood) as shown in Turn 1 input image. Object B (the hairpin) retains the same color, texture, and material characteristics (pure gold) as shown in Turn 2 output image.
Domain: Physics / deformation

turn: 1
modality: text
input: text: Please observe this image. What is the primary material of the object shown (referred to as Object A)?
Options:
A. Copper
B. Fiberglass
C. Steel
D. Plastic
E. None of the above.
output: answer: A

turn: 2
modality: image
input: Please generate a new image showing an object of the same type as in the previous round, but made of fiberglass. This new object is referred to as Object B.
output: evaluation_points: 1. The image must contain exactly one stirring rod (the same type of object as the stirring rod shown in Turn 1 input image).

2. The stirring rod in the image must be made of fiberglass.

3. The background should be simple and clean, clearly highlighting the object.

turn: 3
modality: image
input: Apply a sufficiently large force to both Object A and Object B to cause a noticeable bend (ensuring they do not break), then release and let them rest for a period. Please generate the final state of both objects in the same image.
output: evaluation_points: 1. The object made of fiberglass (Object B) must have returned to its original, unbent shape.

2. The object made of copper (Object A) must remain in its bent, deformed state and not have recovered. Object A's material, color, and texture must match the 'copper' material as depicted in the Turn 1 input image.

3. Both objects must be shown together in the same image with a consistent background.

4. Each object must retain the same color, texture, and material characteristics as shown in Turn 1 input image (for the copper stirring rod, Object A) and Turn 2 output image (for the fiberglass stirring rod, Object B), respectively.
Domain: Physics / deformation

turn: 1
modality: text
input: text: Please observe the image. What is the primary material of the object shown (referred to as Object A)?

Options:
A. Plastic
B. Polymer Clay
C. Metal
D. Wood
E. None of the above.
output: answer: A

turn: 2
modality: image
input: Please generate a completely new image showing an object of the same type as in the previous round, but made of polymer clay. This new object is referred to as Object B.
output: evaluation_points: 1. The image must contain exactly one bracelet.

2. The bracelet in the image must be made of polymer clay.

3. The image background should be simple and clean, clearly highlighting the object itself.

turn: 3
modality: image
input: Apply a sufficiently large force to both Object A and Object B to cause significant bending (ensuring neither object breaks). Then release the force and let them sit for a period of time. Please generate the final state of both objects in a single image.
output: evaluation_points: 1. Object A (made of plastic) must have returned to its original, unbent shape.

2. Object B (made of polymer clay) must remain in its deformed, bent state and not have recovered.

3. Both objects must be shown together in the same image with a consistent background.

4. Object A (plastic bracelet) must retain the same color, texture, and material appearance as shown in the Turn 1 input image. Object B (polymer clay bracelet) must retain the same color, texture, and material appearance as shown in the Turn 2 output image.
Domain: Physics / deformation

turn: 1
modality: text
input: text: Observe the image. What is the primary material of the object shown (referred to as Object A)?
Options:
A. Lead
B. Hard plastic (PP)
C. Steel
D. Rubber
E. None of the above.
output: answer: A

turn: 2
modality: image
input: Generate a new image showing a straw/tube of the same type as in the previous round, but this one is made of hard plastic (PP). Refer to this as Object B.
output: evaluation_points: 1. The image must contain exactly one straw/tube.

2. The straw/tube in the image must be made of hard plastic (PP).

3. The background should be simple and clean, focusing attention on the object.

turn: 3
modality: image
input: Apply a sufficiently large force to both Object A and Object B to cause a clear, significant bend in each (ensuring they do not break). Then, release the force and let them sit for a while. Generate the final state of both objects in a single image.
output: evaluation_points: 1. Object B (made of hard plastic PP) must have returned to its original, straight shape.

2. Object A (made of lead) must remain in its bent, deformed state and not have recovered.

3. Both objects must be shown together in the same image with a consistent background.

4. Object A must retain the same color, texture, and material appearance as shown in the Turn 1 input image. Object B must retain the same color, texture, and material appearance as shown in the Turn 2 output image.
Domain: Physics / deformation

turn: 1
modality: text
input: text: Observe this image. What is the primary material of the object shown (referred to as Object A)?
Options:
A. Melamine
B. Stainless Steel
C. Plastic
D. Ceramic
E. None of the above.
output: answer: A

turn: 2
modality: image
input: Generate a completely new image showing an object of the same type as the one in the previous round, but made of pure silver. This new object is referred to as Object B.
output: evaluation_points: 1. The image must contain exactly one object of the same type as the spoon (Object A) from Turn 1.

2. The object in the image must be clearly depicted as being made of pure silver.

3. The background should be simple and clean, focusing attention on the object itself.

turn: 3
modality: image
input: Apply a sufficiently large force to both Object A and Object B to cause a significant bend in each (ensuring they do not break). Then, release the force and let them sit for a period of time. Generate the final state of both objects in a single image.
output: evaluation_points: 1. The object made of melamine (Object A) must be shown fully restored to its original, unbent shape (as it appeared in the Turn 1 input image).

2. The object made of pure silver (Object B) must be shown remaining in its bent, deformed state and not having recovered.

3. Both objects must be shown together in the same image with a consistent background.

4. Each object must retain the same color, texture, and material appearance as they had in Turn 1 and Turn 2, respectively. Specifically, Object A must appear as melamine (as per Turn 1 answer), and Object B must appear as pure silver (as per Turn 2 instruction).
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a clear, colorless liquid (like water).
output: evaluation_points: 1. The beaker and the liquid inside are generated clearly and recognizably.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add red ink into the beaker from Turn 1. Generate the state after the ink has been completely and uniformly mixed in.
output: evaluation_points: 1. The liquid color changes to a uniform, transparent reddish hue (as the added ink is a minority component).

2. The liquid is homogeneous overall, with no visible layers, streaks, or clumps.

The beaker shape and background are consistent with the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: It is known that the dispersed particles in this mixed liquid have a diameter of 0.1 nm. What category does this dispersion system belong to?

Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: A

turn: 4
modality: image
input: Shine a green laser pointer from the side into this beaker. Generate the resulting image.
output: evaluation_points: 1. The liquid shows no bright beam of light passing through it (no Tyndall effect), with light spots only visible at the entry and exit points.

The image background and liquid color are consistent with the Turn 2 output image (which contains a beaker with a uniform, transparent reddish liquid).

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a transparent, colorless liquid (like clear water).
output: evaluation_points: 1. The beaker and liquid are clearly generated.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a few drops of alcohol (dye) into the beaker and generate the state after it has completely and uniformly mixed.
output: evaluation_points: 1. The liquid color remains essentially unchanged (colorless and transparent), as the added alcohol is a clear minority and does not significantly alter the appearance.

2. The liquid is uniform throughout, with no visible layers or streaks.

The beaker shape and background are consistent with the `Turn 1 output image`.

The image is clearly a modified version of the `Turn 1 output image`.

turn: 3
modality: text
input: In this mixed liquid, the diameter of the dispersed particles is 0.2 nm. What category does this dispersion system belong to?

Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: A

turn: 4
modality: image
input: Shine a red laser pointer (choose a color distinct from the liquid) from the side into the beaker. Generate the resulting image.
output: evaluation_points: 1. There is no visible light path through the liquid (no Tyndall effect), only light spots at the entry and exit points.

The image background and liquid color are consistent with the `Turn 2 output image`. Specifically, the liquid must remain colorless and transparent, as established in Turn 1 and maintained in Turn 2.

The image is clearly a modified version of the `Turn 2 output image`.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a clear, colorless liquid (like water).
output: evaluation_points: 1. The beaker and liquid are generated clearly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a few drops of egg white solution (a slightly opaque, pale liquid) into the beaker and generate the state after it is completely and uniformly mixed.
output: evaluation_points: 1. The liquid color becomes a very pale, slightly opaque mixture (the egg white is a minority component).

2. The liquid is uniform overall, with no obvious layering or fibrous strands.

The beaker shape and background are consistent with Turn 1 output image (which depicted a beaker filled halfway with a clear, colorless liquid).

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the diameter of the dispersed particles is 55 nm. What category does this dispersion system belong to?
Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: B

turn: 4
modality: image
input: Shine a red laser pointer (choose a color distinct from the liquid) from the side into the beaker. Generate the resulting image.
output: evaluation_points: 1. A bright, straight beam of light (Tyndall effect) must be visible within the liquid.

The image background and liquid color are consistent with Turn 2 output image (which depicted a uniform, very pale, slightly opaque mixture).

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a transparent, colorless liquid (like clear water).
output: evaluation_points: 1. The beaker and liquid are generated clearly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a few drops of dissolved baking soda (sodium bicarbonate) to the beaker from Turn 1. Generate the state after it has completely and uniformly mixed. (Note: The baking soda is dissolved, so it should not appear as solid particles).
output: evaluation_points: 1. The liquid remains transparent and colorless, as the dissolved baking soda is a clear, colorless solution and is the minority component.

2. The liquid is uniform throughout with no visible layers, streaks, or particles.

The beaker shape and background are consistent with the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the diameter of the dispersed particles is 0.4 nm. What category does this dispersion system belong to?

Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: A

turn: 4
modality: image
input: Shine a red laser pointer (or another color distinct from the liquid) sideways through the beaker from Turn 2. Generate the resulting image.
output: evaluation_points: 1. There is no visible beam of light through the liquid (no Tyndall effect), only light spots at the entry and exit points, as this is a solution.

The image background and liquid color are consistent with the Turn 2 output image (which should contain a transparent, colorless liquid, uniformly mixed with dissolved baking soda).

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker that is half-filled with a transparent, colorless liquid (like boiling water).
output: evaluation_points: 1. The beaker and the liquid inside are generated clearly.

2. The liquid appears transparent and colorless.

turn: 2
modality: image
input: Add a few drops of a saturated ferric chloride solution (a reddish-brown dye) into the beaker from Turn 1. Generate the state after the liquid is completely and uniformly mixed.
output: evaluation_points: 1. The liquid color changes to a uniform, transparent reddish-brown hue (as the added dye is a minority).

2. The liquid is homogeneous overall, with no obvious layering or streaks.

The beaker shape and background are consistent with the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the dispersed particles have a diameter of 30nm. What category does this dispersion system belong to?
Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: B

turn: 4
modality: image
input: Using a green laser pointer (a color distinct from the liquid's reddish-brown), shine it from the side into the beaker. Generate the resulting image.
output: evaluation_points: 1. A bright, straight beam of light (the Tyndall effect) must be visible passing through the liquid.

The image background and liquid color (uniform, transparent reddish-brown hue) are consistent with the Turn 2 output image.

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a clear, colorless liquid (like water).
output: evaluation_points: 1. The beaker and the liquid inside are generated clearly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a dissolved glucose powder solution (colorless) to the beaker and generate the state after it is completely and uniformly mixed.
output: evaluation_points: 1. The liquid remains colorless and transparent (as both the base liquid and the added solution are colorless).

2. The liquid is uniform throughout with no visible layering or streaks.

The beaker shape and background are consistent with the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the diameter of the dispersed particles is 0.6 nm. What category does this dispersion system belong to?
Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: A

turn: 4
modality: image
input: Shine a red laser pointer from the side into this beaker. Generate the resulting image.
output: evaluation_points: 1. The solution shows no visible light path within the liquid, with light spots only at the entry and exit points (no Tyndall effect).

The image background and liquid color are consistent with the Turn 2 output image. The liquid must remain colorless and transparent, as specified in Turn 2's requirement for a 'dissolved glucose powder solution (colorless)'.

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a clear, colorless liquid (like water).
output: evaluation_points: 1. The beaker and liquid are generated clearly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: In the beaker, add a drop of blood (as a dye) and generate the state after it has completely and uniformly mixed.
output: evaluation_points: 1. The liquid color changes to a uniform, very pale pinkish-red tint (since the drop of blood is a minority and the base is clear). The mixture must remain transparent.

2. The liquid is uniform overall, with no obvious layering or streaks.

The beaker shape and background are consistent with the Turn 1 output image (which depicted a beaker filled halfway with a clear, colorless liquid).

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the diameter of the dispersed particles is 70 nm. What category does this dispersion system belong to?
Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: B

turn: 4
modality: image
input: Using a green laser pointer (a color distinct from the liquid's pale pinkish-red), shine it from the side into the beaker. Generate the resulting image.
output: evaluation_points: 1. A bright, straight beam of light (the Tyndall effect) must be visible passing through the liquid.

The image background and liquid color (uniform, very pale pinkish-red tint, transparent) are consistent with the Turn 2 output image.

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a transparent, colorless liquid (like water).
output: evaluation_points: 1. The beaker and the liquid inside are generated clearly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a few drops of a yellow dye (representing dissolved citric acid) into the beaker from Turn 1. Generate the state after the dye has completely and uniformly mixed with the liquid.
output: evaluation_points: 1. The liquid color changes to a very pale, uniform yellow (transparent, as the dye is a minority).

2. The liquid is completely uniform, with no visible layers, streaks, or particles.

The beaker shape and background are consistent with the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the diameter of the dispersed particles is 0.3 nm. What category does this dispersion system belong to?

Options:
A. Solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: A

turn: 4
modality: image
input: Shine a red laser pointer from the side into the beaker from Turn 2. Generate the resulting image.
output: evaluation_points: 1. The liquid shows no visible beam path (no Tyndall effect). Only the entry and exit points of the laser on the beaker wall should be visible as bright spots.

The image background and the pale yellow liquid color are consistent with the Turn 2 output image.

The image is clearly a modified version of the Turn 2 output image.
Domain: Physics / diffusion_tyndall

turn: 1
modality: image
input: Generate a beaker filled halfway with a transparent, colorless liquid (like clear water).
output: evaluation_points: 1. The beaker and liquid are generated clearly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a few drops of diluted black ink into the beaker from Turn 1. Generate the state after the ink has completely and uniformly mixed with the liquid.
output: evaluation_points: 1. The liquid color changes to a very light, uniform gray (transparent, as the ink is a minority component).

2. The mixture is homogeneous, with no visible layers, streaks, or clumps.

The beaker shape and background are consistent with the beaker and background in the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image.

turn: 3
modality: text
input: In this mixed liquid, the dispersed particles have a diameter of 85 nm. What category does this dispersion system belong to?
Options:
A. True Solution
B. Colloid
C. Suspension
D. Pure Substance
E. None of the above.
output: answer: B

turn: 4
modality: image
input: Shine a red laser pointer from the side into this beaker. Generate the resulting image.
output: evaluation_points: 1. A bright, straight beam of light (Tyndall effect) must be visible passing through the liquid.

The image background and the liquid's uniform, very light gray color (as specified in Turn 2) are consistent with the Turn 2 output image.

The image is clearly a modified version of the Turn 2 output image.