ccccEsion/IMUG-Bench huggingface dataset:
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 dissolved sugar (sucrose) to the beaker and generate the state after it has completely and uniformly mixed.
output: evaluation_points: 1. The liquid remains colorless and transparent (as the added solute is a minority and dissolves completely).

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 0.7 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: Using a red laser pointer (chosen to be distinct from the liquid's color), shine it from the side into the beaker. Generate the resulting image.
output: evaluation_points: 1. There is no visible beam 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. The liquid must remain colorless and transparent, as established in Turn 1 and 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 transparent, colorless liquid (like clear 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 colored dye (representing dissolved salt) into the beaker. Generate the state after the dye has completely and uniformly mixed with the liquid.
output: evaluation_points: 1. The liquid color remains transparent and colorless (as the dissolved salt is a minority and does not change the liquid's visible color).

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

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

4. The image is clearly a modified version of the reference image from Turn 1.

turn: 3
modality: text
input: The dispersed particles in this mixed liquid have a diameter of 0.2 nm. What type of dispersion system does this belong to?

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

turn: 4
modality: image
input: Shine a red laser pointer (or a color distinct from the liquid) from the side of the beaker. Generate the resulting image.
output: evaluation_points: 1. The liquid shows no visible beam path inside; light spots are only visible at the entry and exit points (no Tyndall effect, as it is a solution).

The image background and liquid color are consistent with the Turn 2 output image (which should depict a beaker with a transparent, colorless liquid, as the dissolved salt does not change its visible color).

3. The image is clearly a modified version of the reference image from Turn 2.
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 soap solution (a clear, slightly viscous liquid) into the beaker from Turn 1. Generate the state after it has been completely and uniformly mixed.
output: evaluation_points: 1. The liquid remains clear and colorless (the soap solution is a clear additive and is a minority component).

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

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

The image is clearly recognizable as 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 60nm. 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 (to distinguish it from the colorless liquid) from the side into this 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 (clear and colorless) are consistent with the Turn 2 output image (the mixed liquid after adding soap solution).

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

turn: 1
modality: image
input: Generate a beaker half-filled with a transparent, pale yellow liquid.
output: evaluation_points: 1. The beaker and liquid are generated clearly.

2. The liquid appears transparent and pale yellow in color.

turn: 2
modality: image
input: Add white sugar (dissolved) to the beaker. Generate the state after it has completely and uniformly mixed.
output: evaluation_points: 1. The liquid color remains a transparent, pale yellow (as the dissolved sugar is colorless and a minority component), consistent with the liquid color specified in Turn 1.

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

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

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

turn: 3
modality: text
input: Given that the dispersed particles in this mixed liquid have a diameter of 0.5 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: Using a red laser pointer (to distinguish from the liquid color), shine it from the side of the beaker. Generate the resulting image.
output: evaluation_points: 1. The solution shows no visible beam path within the liquid; light spots are only visible at the entry and exit points.

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

3. 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 colorless, transparent 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: A few drops of soy milk (a white/off-white liquid) have been added to the beaker from Turn 1 and mixed completely. Generate the resulting uniform mixture.
output: evaluation_points: 1. The liquid color is a very light, uniform, milky-white/off-white tint (the soy milk is a minority component, so the mixture should remain largely transparent with a slight color change).

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

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 mixture, the dispersed particles have a diameter of 90 nm. What type of dispersion system is this?
Options:
A. True solution
B. Colloid
C. Suspension
D. Pure substance
E. None of the above.
output: answer: B

turn: 4
modality: image
input: A red laser pointer (chosen to contrast with the light milky-white liquid) is shining from the side into the beaker. Generate the image showing this.
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 are consistent with the `Turn 2 output image` (which contains the uniform, very light milky-white/off-white 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 clear, colorless liquid (like water).
output: evaluation_points: 1. The beaker and the liquid inside are generated clearly and distinctly.

2. The liquid appears colorless and transparent.

turn: 2
modality: image
input: Add a few drops of white vinegar (a clear liquid) into the beaker from Turn 1. Generate the final state after the vinegar has completely and uniformly mixed with the original liquid.
output: evaluation_points: 1. The liquid remains clear and colorless (as both original water and white vinegar are clear and colorless).

2. The liquid is uniformly mixed, with no visible layers, streaks, or separation.

The beaker's shape, size, 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: Using a red laser pointer (a color distinct from the colorless liquid), shine the laser from the side into the beaker from Turn 2. Generate the resulting image.
output: evaluation_points: 1. The liquid shows no visible beam path inside (no Tyndall effect), with light spots only at the entry and exit points.

The image background and the liquid's appearance (clear and colorless) 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 half-filled with a transparent, colorless liquid (like hot water).
output: evaluation_points: 1. The beaker and liquid are generated clearly.

2. The liquid appears transparent and colorless.

turn: 2
modality: image
input: Add a drop of starch paste (a white, opaque suspension) into the beaker from Turn 1. Generate the state after it has been stirred and mixed completely and uniformly.
output: evaluation_points: 1. The liquid appears as a uniform, slightly cloudy or milky white mixture (since the starch paste is a colloid and does not form a true solution).

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

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

The beaker shape and background are consistent with 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 40nm. 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: Using a red laser pointer, shine it from the side into the beaker from Turn 2. Generate the resulting image.
output: evaluation_points: 1. A bright, visible beam of light (the Tyndall effect) must be clearly shown passing through the liquid inside the beaker.

2. The image background and the liquid's color/appearance are consistent with the image from Turn 2.

The image background and the liquid's color/appearance (a uniform, slightly cloudy or milky white mixture) are consistent with the Turn 2 output image.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a small, ordinary sewing needle (made of carbon steel).
output: evaluation_points: 1. The object is small and has a metallic texture.

2. The object's appearance matches the typical features of a sewing needle (e.g., sharp point, elongated shape, eye at one end).

3. The background is simple and clean, ensuring the object is the focal point.

turn: 2
modality: text
input: To magnetize this object, which of the following methods should be used?

Options:
A. Place it in a strong electric field.
B. Heat it to a high temperature and let it cool slowly.
C. Repeatedly strike it with a non-magnetic hammer.
D. Stroke it repeatedly in one direction with a permanent magnet.
E. None of the above.
output: answer: D

turn: 3
modality: image
input: Generate the object suspended by a thin string. After it comes to rest, place a compass nearby. Assuming there is no magnetic interaction between the object and the compass, generate their stable positions.
output: evaluation_points: 1. The object is shown in a hanging/suspended state.

2. The direction the object points is aligned with the compass needle (i.e., they are parallel).

The image background is simple and clean, ensuring the object is the focal point. The object's appearance matches the typical features of a small, ordinary sewing needle made of carbon steel (e.g., sharp point, elongated shape, eye at one end, metallic texture).
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a small, thin insect pin made of ferromagnetic material.
output: evaluation_points: 1. The object is small, thin, and has a metallic sheen or texture.

2. The object's appearance matches the typical features of an insect pin: a thin, straight shaft with a sharp point at one end and a flat or rounded head at the other.

3. The background is simple and uncluttered, ensuring the pin is the clear focal point.

turn: 2
modality: text
input: To magnetize this object, which of the following methods should be used?
Options:
A. Place it in a strong electric field.
B. Rub it repeatedly with a piece of silk.
C. Strike it firmly with a non-magnetic hammer.
D. Stroke it repeatedly in one direction with one pole of a strong permanent magnet.
E. None of the above.
output: answer: D

turn: 3
modality: image
input: Generate the object suspended by a thin thread, hanging motionless. Next to it, generate a compass. Assuming there is no magnetic interaction between the object and the compass, depict their stable, final positions.
output: evaluation_points: 1. The object is clearly shown hanging from a thin thread, suspended in mid-air.

2. The hanging object's orientation (the direction its long axis points) is parallel to the needle of the compass. Both should point in the same direction (e.g., both aligned north-south).

The background style and the visual appearance of the object (its small, thin size, shape, and metallic sheen/texture) must be consistent with the object generated in Turn 1 output image.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Please generate a small, thin steel watch spring bar (a steel pin/axle).
output: evaluation_points: 1. The object is small and thin, with a metallic texture.

2. The object's appearance matches the typical features of a steel watch spring bar (a small, cylindrical metal pin).

3. The background is simple and clean, clearly highlighting the object itself.

turn: 2
modality: text
input: To magnetize this steel watch spring bar, which of the following methods should be used?

Options:
A. Place it in a strong electric field.
B. Strike it repeatedly with a non-magnetic hammer.
C. Rub it repeatedly in one direction along a permanent magnet.
D. Submerge it in salt water for an extended period.
E. None of the above.
output: answer: C

turn: 3
modality: image
input: Generate the steel watch spring bar suspended by a thin thread. After it comes to rest, generate a compass placed beside it. Assume there is no magnetic interaction between the bar and the compass. Show their stable, final positions.
output: evaluation_points: 1. The watch spring bar is shown hanging/suspended by a thin thread.

2. The direction the bar points (its long axis) is parallel to the direction the compass needle points (e.g., both aligned north-south).

The image background is simple and clean, and the appearance of the watch spring bar (a small, thin, cylindrical metal pin with a metallic texture) is consistent with the object generated in Turn 1 output image.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a small darning needle.
output: evaluation_points: 1. The object is small and has a metallic appearance.

2. The object's shape and features are typical of a darning needle (e.g., a thin, pointed metal rod with an eye at one end).

3. The background is simple and uncluttered, ensuring the object is the focal point.

turn: 2
modality: text
input: To magnetize this item, which of the following methods should be used?
Options:
A. Place it in a strong electric field.
B. Heat it to a high temperature and let it cool slowly.
C. Repeatedly strike it with a non-magnetic hammer.
D. Stroke it repeatedly in one direction with one pole of a permanent magnet.
E. None of the above.
output: answer: D

turn: 3
modality: image
input: Generate the item suspended by a thin thread. Next to it, generate a compass. Assuming there is no magnetic interaction between the item and the compass, generate their stable, final positions.
output: evaluation_points: 1. The item is shown hanging from a thin thread.

2. The direction the item points is the same as the compass needle's direction (i.e., they are parallel).

The image background is simple and uncluttered, and the item's appearance (small, metallic, with the shape and features of a darning needle) is consistent with the item generated in Turn 1.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a small, slender sewing needle made of steel.
output: evaluation_points: 1. The object is small and slender, with a metallic appearance.

2. The object's shape and features are typical of a standard steel sewing needle.

3. The background is simple and uncluttered, ensuring the needle is the focal point.

turn: 2
modality: text
input: To magnetize this steel needle, which of the following methods should be used?

Options:
A. Place it in a strong electric field.
B. Rub it repeatedly with a piece of silk.
C. Stroke it repeatedly in one direction with a permanent magnet.
D. Heat it to a high temperature and let it cool slowly.
E. None of the above.
output: answer: C

turn: 3
modality: image
input: Generate the same steel needle suspended by a thin thread, hanging motionless. Next to it, generate a compass. Assume there is no magnetic interaction between the needle and the compass. Show their stable, final positions.
output: evaluation_points: 1. The needle is clearly shown hanging from a thin thread.

2. The suspended needle and the compass needle are aligned parallel to each other, pointing in the same direction (e.g., both pointing north).

The background and the visual style (including its small, slender, metallic appearance) of the needle are consistent with the Turn 1 output image.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a small piece of a bicycle spoke (steel).
output: evaluation_points: 1. The object is small and has a metallic texture.

2. The object's appearance matches the typical characteristics of a bicycle spoke (a thin, cylindrical metal rod).

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

turn: 2
modality: text
input: To magnetize this object, which of the following methods should be used?
Options:
A. Place it in a strong electric field.
B. Heat it to a high temperature and let it cool slowly.
C. Strike it repeatedly with a non-magnetic hammer.
D. Rub it repeatedly in one direction with one pole of a strong magnet.
E. None of the above.
output: answer: D

turn: 3
modality: image
input: Generate the object suspended by a thin string. After it comes to rest, generate a compass placed next to it. Assume there is no magnetic interaction between the object and the compass. Show their stable, final positions.
output: evaluation_points: 1. The object is shown in a hanging/suspended state.

2. The direction the object points is aligned with the compass needle (i.e., the object and compass needle are parallel).

The image background is simple and clean, and the object's appearance (a small, thin, cylindrical metal rod with a metallic texture) is consistent with the object generated in Turn 1.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a small steel object: the steel needle leg of a compass.
output: evaluation_points: 1. The object is small and has a metallic texture.

2. The object's appearance matches the typical features of a compass's steel needle leg (e.g., thin, pointed, metallic).

3. The background is simple, focusing attention on the object itself.

turn: 2
modality: text
input: To magnetize this steel object, which of the following methods should be used?
Options:
A. Place it in a strong electric field.
B. Repeatedly strike it with a non-magnetic hammer.
C. Rub it repeatedly in one direction with a strong permanent magnet.
D. Heat it to a high temperature and let it cool slowly.
E. None of the above.
output: answer: C

turn: 3
modality: image
input: Generate the object suspended by a thin thread. Next to it, place a compass. Assuming there is no magnetic interaction between the object and the compass, generate their stable resting positions.
output: evaluation_points: 1. The object is shown in a hanging/suspended state.

2. The object's orientation aligns with the compass needle (they are parallel).

The image background and the object's original appearance (a small steel needle leg of a compass, thin, pointed, metallic) are consistent with Turn 1 output image.
Domain: Physics / magnetism_advanced

turn: 1
modality: image
input: Generate a slender, small fragment of a steel hacksaw blade.
output: evaluation_points: 1. The object is small and slender, with a metallic texture.

2. The object's appearance matches the typical characteristics of a steel hacksaw blade fragment (e.g., rectangular cross-section, possible teeth marks, broken edge).

3. The background is simple and uncluttered, focusing attention on the object itself.

turn: 2
modality: text
input: To magnetize this steel fragment, which of the following methods should be used?
Options:
A. Place it in a strong electric field.
B. Heat it to a high temperature and let it cool slowly.
C. Repeatedly strike it with a non-magnetic hammer.
D. Stroke it repeatedly in one direction with one pole of a permanent magnet.
E. None of the above.
output: answer: D

turn: 3
modality: image
input: Generate the same steel fragment suspended by a thin string. Next to it, generate a compass. Assuming there is no magnetic interaction between the fragment and the compass, depict their stable, final positions.
output: evaluation_points: 1. The steel fragment is shown hanging from a thin string.

2. The fragment's orientation (the direction it points) is parallel to the compass needle's orientation (e.g., both pointing roughly north-south).

The image background is simple and uncluttered, and the steel fragment maintains its slender, small appearance with a metallic texture, consistent with the Turn 1 output image.