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

turn: 1
modality: text
input: Three objects A, B, and C have densities of 0.6 g/cm³, 1.5 g/cm³, and 7.9 g/cm³, and volumes of 500 cm³, 150 cm³, and 40 cm³, respectively. Arrange them in order from smallest to largest mass.
Options:
A. A < B < C
B. A < C < B
C. B < A < C
D. C < B < A
E. None of the above.
output: answer: C

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N, hanging the lightest object from the previous question from its lower hook. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range of '10N' is clearly labeled at the appropriate position on the scale.

The pointer's position accurately indicates a force of 2.25 Newtons, corresponding to the calculated weight of the lightest object from Turn 1 (Object A with density 0.6 g/cm³ and volume 500 cm³).

3. The spring is visibly stretched under the load, indicating it is in a state of tension.

turn: 3
modality: image
input: Change the experimental conditions: the elevator containing the setup comes to an abrupt, emergency stop. Generate the new image of the spring scale under this condition.
output: evaluation_points: 1. The spring's extension and the direction of the pointer's movement (e.g., a decrease in reading indicating apparent weight loss) are consistent with the physics of sudden deceleration in an elevator.

2. The image clearly depicts a change in experimental conditions from Turn 2 that is consistent with the scenario of 'an elevator coming to an abrupt, emergency stop' (e.g., visual cues suggesting motion or a different context).

3. The core structure, colors, and background elements of the spring scale itself remain consistent with the image from Turn 2.

The core structure, colors, and background elements of the spring scale itself remain consistent with the Turn 2 output image.

turn: 4
modality: image
input: Replace the hanging object with a piggy bank full of coins (a mass far exceeding the scale's capacity). Generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, potentially showing signs of deformation or being fully extended.

2. The scale's pointer is at or beyond the maximum '10N' mark, indicating it is 'pegged' or overloaded.

3. The irrelevant background and the fundamental colors/features of the spring scale body remain consistent with previous turns. The image is recognizably a modification of the prior image.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 2.7, 8.9, and 0.9, and volumes of 80, 30, and 200, respectively. Arrange them in order of increasing mass.
Options:
A. A < B < C
B. B < C < A
C. C < A < B
D. C < B < A
E. None of the above.
output: answer: C

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N. Hanging from its hook is the object with the smallest mass from the previous question. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range of '10N' must be clearly labeled at the appropriate position on the scale.

The pointer's position must accurately indicate a force of 1.8 Newtons, corresponding to the calculated weight of the lightest object from Turn 1 (object C with density 0.9 and volume 200).

3. The spring must be visibly stretched, indicating it is under tension from the hanging weight.

turn: 3
modality: image
input: Change the experimental conditions: replace the object with a cotton bale of equal mass (its volume will be larger, and you should consider the tiny change in air buoyancy). Generate the new image of the spring scale.
output: evaluation_points: 1. The spring's elongation and the direction of the pointer's movement (if any) must be consistent with the physical principles of buoyancy and equal mass.

The image must clearly show a visual difference from Turn 2 that corresponds to the described change: the hanging object should appear significantly larger (cotton bale) than the previous object (the lightest object from Turn 1, object C).

The main body of the spring scale and the background must remain visually consistent with the Turn 2 output image.

The image must be clearly recognizable as a modified version of the Turn 2 output image.

turn: 4
modality: image
input: Replace the hanging item with a household electric rice cooker (an object far exceeding the scale's capacity). Generate the resulting image.
output: evaluation_points: 1. The spring must be depicted as stretched to its mechanical limit, potentially showing deformation.

2. The scale's pointer must be at or beyond the maximum '10N' mark, indicating it is 'pegged' or overloaded.

The irrelevant background and the basic colors/features of the spring scale must remain visually consistent with the Turn 2 output image. The image must appear to be a modification of the previous one.

4. The hanging object must be clearly identifiable as a household electric rice cooker.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 1.2, 0.4, and 7.9, and volumes of 100, 400, and 20, respectively. Arrange them in order of increasing mass.
Options:
A. A, B, C
B. B, A, C
C. C, A, B
D. B, C, A
E. None of the above.
output: answer: B

turn: 2
modality: image
input: Generate a laboratory spring scale with a 10N range, hanging the lightest object from the previous question from its bottom hook. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range '10N' is clearly labeled at the appropriate position on the scale.

The pointer's position accurately indicates a reading of 1.2 Newtons, corresponding to the calculated weight of the lightest object (object B with density 0.4 and volume 400 from Turn 1).

3. The spring is visibly stretched, indicating it is under tension from the hanging weight.

turn: 3
modality: image
input: Change the experimental condition by completely submerging the hanging object in mercury (which has a very high density). Generate the new image of the spring scale.
output: evaluation_points: 1. The spring's elongation and the direction of the pointer's movement (decrease in reading) are consistent with the physics of buoyancy in a dense fluid.

The image clearly shows a visual difference from Turn 2 output image that corresponds to the object being submerged in mercury (a dense fluid).

3. The main body of the spring scale and the background elements remain visually consistent with the image from Turn 2.

The image is clearly a modified version of the Turn 2 output image, not a completely new generation.

turn: 4
modality: image
input: Replace the hanging object with a thick stack of hardcover dictionaries (a mass far exceeding the scale's capacity). Generate the resulting image.
output: evaluation_points: 1. The spring is depicted as stretched to its mechanical limit, potentially showing signs of deformation or over-extension.

2. The scale's pointer is shown at or beyond the maximum '10N' mark, indicating it is 'pegged' or 'off the scale'.

Irrelevant background details and the basic color and structural features of the spring scale remain consistent with the Turn 2 output image. The image appears to be a modification of a prior image.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 10.5, 2.7, and 0.8, and volumes of 10, 60, and 150, respectively. Please arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. C, A, B
C. B, A, C
D. C, B, A
E. None of the above.
output: answer: D

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N, hanging the lightest object from the previous question from its bottom hook. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range '10N' is clearly labeled in a reasonable location on the scale.

The pointer's position correctly indicates a force of 1.05 Newtons, matching the calculated weight of the lightest object (object C with density 0.8 and volume 150) from Turn 1.

3. The spring is visibly stretched under the load, indicating it is in a state of tension.

turn: 3
modality: image
input: Change the experimental conditions by pulling the object horizontally while it rests on a rough tabletop. Generate the new image of the spring scale.
output: evaluation_points: 1. The spring's extension and the direction of the pointer's movement (or lack thereof) are consistent with the physics of applying a horizontal force to an object on a rough surface (e.g., the reading may decrease or become zero if friction is overcome, or remain the same if static friction holds).

2. The image clearly shows a visual difference from Turn 2 that aligns with the described action of 'pulling the object horizontally while it rests on a rough tabletop' (e.g., a hand pulling a string, the object on a textured surface).

3. The main body of the spring scale and the overall background remain visually consistent with the image from Turn 2.

The image is clearly a modified version of the Turn 2 output image, not a completely new generation.

turn: 4
modality: image
input: Replace the hanging object with a large ceramic flowerpot (with soil), a mass far exceeding the scale's capacity. Generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, showing significant deformation (e.g., coils are widely separated, the spring appears taut or even distorted).

2. The scale's pointer is positioned at or beyond the maximum '10N' mark, indicating an 'off-scale' or 'overload' reading.

3. Irrelevant background elements and the fundamental colors/features of the spring scale body remain consistent with previous turns. The image is evidently a further modification of the prior image.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 8.9, 1.4, and 0.5 respectively, and volumes of 35, 200, and 500 respectively. Please arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. A, C, B
C. C, B, A
D. B, C, A
E. None of the above.
output: answer: C

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N. Hanging from its bottom hook is the object with the smallest mass from the previous question. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range of '10N' must be clearly labeled at the appropriate position on the scale.

The pointer's position must correctly indicate a force of 2.5 Newtons, corresponding to the weight of object C (density 0.5, volume 500) which was identified as having the smallest mass in Turn 1.

3. The spring must be visibly stretched, indicating it is under tension from the hanging weight.

turn: 3
modality: image
input: Change the experimental conditions so that the spring scale and the hanging object are both in free fall. Generate the new image of the scale under this condition.
output: evaluation_points: 1. The spring's extension and the pointer's reading must change in a way that is physically consistent with free fall (e.g., the spring is fully relaxed/compressed, and the pointer reads zero).

2. The image must clearly depict a change from the previous condition, visually representing the system in free fall as described.

3. The main body of the scale and the background must remain visually consistent with the image from Turn 2.

The image must be clearly recognizable as a modified version of the Turn 2 output image (the spring scale with a 10N range and a hanging object indicating 2.5N).

turn: 4
modality: image
input: Replace the hanging object with a toolbox filled with metal tools, which far exceeds the scale's capacity. Generate the image of the scale in this state.
output: evaluation_points: 1. The spring must be depicted as stretched to its mechanical limit, potentially showing deformation.

2. The pointer must be shown at or beyond the maximum scale marking (e.g., '10N'), indicating it is 'pegged' or 'overloaded'.

3. Irrelevant background elements, the basic color scheme, and key features of the scale must remain consistent, and the image must appear to be a modification of a previous version.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three blocks, A, B, and C, have densities of 7.9, 2.7, and 1.1, respectively, and volumes of 60, 150, and 300, respectively. Arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. A, C, B
C. B, A, C
D. C, B, A
E. None of the above.
output: answer: D

turn: 2
modality: image
input: Generate a laboratory spring scale with a 10N range. Hanging from its hook is the lightest object from the previous question. The scale's reading must accurately correspond to its weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range of '10N' is clearly labeled in a reasonable location (e.g., at the top of the scale face).

2. The pointer's position correctly indicates a force of 3.3 Newtons, corresponding to the calculated weight of the lightest object (object C with density 1.1 and volume 300, from Turn 1).

3. The spring is visibly stretched under the load, indicating it is under tension.

turn: 3
modality: image
input: Change the experimental condition by attaching a magnet to the block (increasing its mass). Generate the new image of the spring scale.
output: evaluation_points: 1. The spring's elongation and the pointer's reading have increased compared to Turn 2, consistent with the physical law that greater mass causes greater force and extension.

2. The image clearly shows a visual difference from Turn 2 that matches the described operation 'attaching a magnet to the block' (e.g., a magnet is visibly attached to the hanging object, which is the lightest object from Turn 1, i.e., object C).

3. The main body of the spring scale and the background environment remain visually consistent with the image from Turn 2.

4. The image is clearly a modified version of the Turn 2 output image, not a completely new generating.

turn: 4
modality: image
input: Replace the hanging object with a large plaster head used for sketching (an object whose mass far exceeds the scale's capacity). Generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit. It may appear fully extended, coiled tightly, or even slightly deformed to visually convey overload.

2. The pointer is positioned at or beyond the maximum '10N' mark, indicating it is 'pegged' or 'off the scale'.

3. Irrelevant background elements and the basic color scheme/features of the spring scale remain consistent with previous turns. The image is evidently a further modification of the prior image.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three blocks, A, B, and C, have densities of 0.9, 19.3, and 7.9 respectively, and volumes of 120, 8, and 25 respectively. Arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. A, C, B
C. B, C, A
D. C, A, B
E. None of the above.
output: answer: B

turn: 2
modality: image
input: Generate a laboratory spring scale with a 10N range. Hanging from its bottom hook is the lightest object from the previous question. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range of '10N' is clearly labeled in a reasonable position on the scale.

2. The pointer's position accurately indicates a force of 1.08 Newtons, corresponding to the calculated weight of the lightest object (Block A, with density 0.9 and volume 120) from Turn 1.

3. The spring is visibly stretched under the load, showing it is in a state of tension.

turn: 3
modality: image
input: Change the experimental condition: the object is now fully submerged in alcohol. Please generate the new image of the spring scale.
output: evaluation_points: 1. The spring's extension and the pointer's reading show a decrease compared to Turn 2, correctly reflecting the buoyant force from the alcohol.

2. The image clearly shows the object (Block A, the lightest object from Turn 1) submerged in a liquid, visually differentiating it from Turn 2 and matching the described operation of 'fully submerged in alcohol'.

3. The main body of the spring scale and the background environment remain visually consistent with the image from Turn 2.

4. The image is clearly a modified version of the Turn 2 output image, not a completely new generating.

turn: 4
modality: image
input: Replace the hanging object with a 5kg bag of cat food. Please generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, showing significant deformation or appearing fully extended.

2. The pointer is at or beyond the maximum '10N' mark on the scale, indicating it is overloaded or 'pegged'.

3. The background and the basic colors/features of the spring scale remain consistent with the Turn 2 output image. The image is clearly derived from modifying a prior version.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 1.0 g/cm³, 8.9 g/cm³, and 0.5 g/cm³, and volumes of 200 cm³, 50 cm³, and 300 cm³, respectively. Arrange them in order from smallest to largest mass.

Options:
A. A, B, C
B. C, A, B
C. B, A, C
D. C, B, A
E. None of the above.
output: answer: B

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N. Hanging from its hook is the lightest object from the previous question. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The spring scale is generated in a standard style with clear, legible markings. The maximum range of '10N' is clearly labeled in a reasonable location on the scale.

The pointer's position accurately indicates a force of 1.5 Newtons, corresponding to the calculated weight of the lightest object (object C, with density 0.5 g/cm³ and volume 300 cm³) from Turn 1.

3. The spring is visibly stretched from its resting position, indicating it is under tension.

turn: 3
modality: image
input: Change the experimental setup by hanging an identical object on the same hook as the first one. Generate the new image of the spring scale.
output: evaluation_points: 1. The spring's elongation and the direction of the pointer's movement (increased reading) are consistent with the laws of physics (doubled force).

The image clearly shows a visual difference from Turn 2 that matches the described operation: a second, identical object (identical to the lightest object from Turn 1, i.e., object C) is now attached to the hook alongside the first.

3. The main body of the spring scale and the background environment remain visually consistent with the image from Turn 2.

The image is clearly a modified version of the Turn 2 output image, not a completely new generating.

turn: 4
modality: image
input: Replace the hanging object with a heavy gym dumbbell whose mass far exceeds the scale's capacity. Generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, showing significant deformation or a state of being fully extended.

2. The scale's pointer is positioned at or beyond the maximum '10N' mark, indicating an overload or 'pegged' condition.

3. Irrelevant background elements and the basic color and structural features of the spring scale remain consistent, and the image is evidently a further modification of the previous one.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects, A, B, and C, have densities of 1.3, 8.9, and 2.7, and volumes of 200, 40, and 100, respectively. Please arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. A, C, B
C. B, C, A
D. C, B, A
E. None of the above.
output: answer: B

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N. The lightest object from the previous question is hanging from its hook. The scale's reading must accurately correspond to the object's weight (use g = 10 N/kg).
output: evaluation_points: 1. The scale has a standard design with clear, legible markings. The maximum range of '10N' must be clearly labeled at the appropriate position on the scale face.

2. The pointer's position must accurately indicate a force of 2.6 Newtons, corresponding to the calculated weight of the lightest object (object A with mass 0.26 kg, based on Turn 1's given density of 1.3 and volume of 200).

3. The spring must be visibly stretched, indicating it is under tension from the hanging weight.

turn: 3
modality: image
input: Change the experimental setup: two people are simultaneously pulling on opposite ends of the spring scale. Please generate the new image of the scale under this condition.
output: evaluation_points: 1. The spring's elongation and the direction of the pointer's movement (e.g., increased reading) must be consistent with the physical principle of forces adding together when two people pull.

2. The image must clearly depict a change from the previous setup, showing two people pulling on the scale, as described in the instruction.

3. The core design, colors, and background of the spring scale must remain visually consistent with the image from Turn 2.

4. The image must be clearly recognizable as a modified version of the Turn 2 output image, not a completely new generation.

turn: 4
modality: image
input: Replace the hanging object with a microwave oven (an object far exceeding the scale's capacity). Please generate the image of the scale in this state.
output: evaluation_points: 1. The spring must be shown stretched to its mechanical limit, potentially with visual cues of deformation or over-extension.

2. The pointer must be at or beyond the maximum '10N' mark, indicating the scale is overloaded or 'pegged'.

3. The background and the fundamental colors and features of the scale body must remain consistent with previous images. The image must appear to be a modification of a prior version.

4. The background and the fundamental colors and features of the scale body must remain visually consistent with the Turn 2 output image. The image must appear to be a modification of that prior version.