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

turn: 1
modality: text
input: Three objects A, B, and C have densities of 7.9, 2.7, and 1.2, and volumes of 20, 80, and 100, respectively. Please arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. C, B, A
C. C, A, B
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 lower 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 range of '10N' must be clearly labeled in an appropriate location on the scale.

The pointer's position must correctly indicate the calculated weight of the lightest object from Turn 1, which is object C (density 1.2, volume 100) with a mass of 120 kg, resulting in a weight of 1.2 Newtons (using g = 10 N/kg).

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

turn: 3
modality: image
input: Change the experimental condition to: accelerating the scale upward by hand. Please generate the new image of the spring scale.
output: evaluation_points: 1. The spring's elongation and the direction of change in the pointer's reading must be consistent with the physics of upward acceleration (the reading should increase).

2. The image must clearly depict a change in the experimental setup that corresponds to 'accelerating the scale upward by hand'.

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

The main body of the spring scale (including其风格、颜色和关键特征) and the background must remain visually consistent with the Turn 2 output image.

turn: 4
modality: image
input: Replace the hanging object with a 5-kilogram bag of rice (a mass far exceeding the scale's capacity). Please generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, potentially showing signs of deformation.

2. The scale's pointer is at or beyond the maximum marked value (e.g., past 10N), indicating it is 'pegged' or overloaded.

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

turn: 1
modality: text
input: Three objects A, B, and C have densities of 2.7, 7.9, and 0.8, and volumes of 150, 60, and 450, respectively. Please arrange them in order from smallest to largest mass.
Options:
A. C, A, B
B. B, C, A
C. A, B, C
D. C, B, A
E. None of the above.
output: answer: A

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N. 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 at the appropriate position on the scale.

The pointer's position accurately indicates a force of 3.6 Newtons, corresponding to the calculated weight of the lightest object from Turn 1 (object C with density 0.8 and volume 450).

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 helium balloon (providing lift) to the object. Please generate the new image of the spring scale.
output: evaluation_points: 1. The spring's extension is reduced, and the pointer's reading has decreased compared to the previous turn, consistent with the upward buoyant force from the helium balloon.

The image clearly shows a helium balloon attached to the object (the lightest object from Turn 1: object C), creating a visual difference from the setup in Turn 2 that matches the described operation.

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 reference image from Turn 2 output image, not a completely new generating.

turn: 4
modality: image
input: Replace the hanging object with a full gas cylinder (a mass far exceeding the scale's capacity). Please generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, showing significant deformation or strain.

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

3. Irrelevant background elements and the basic colors/features of the spring scale remain consistent, and the image is evidently a further modification of the previous turn's image.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 0.8, 7.9, and 11.3, and volumes of 250, 40, and 20, respectively. Please arrange them in order of increasing mass.
Options:
A. A, B, C
B. C, B, A
C. C, A, B
D. B, A, C
E. None of the above.
output: answer: C

turn: 2
modality: image
input: Generate a laboratory spring scale with a range of 10N, suspending the lightest object from the previous round 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 in a logical position on the scale.

The pointer's position accurately indicates a reading of 2.0 Newtons, corresponding to the calculated weight of the lightest object (Object A, with density 0.8 and volume 250) from Turn 1.

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

turn: 3
modality: image
input: Change the experimental condition: Suppose the experiment is moved to the surface of the Moon (where gravity is 1/6th of Earth's). Please generate the new image of the spring scale.
output: evaluation_points: The spring's extension and the pointer's reading have decreased compared to Turn 2 output image, consistent with the reduced gravitational force (1/6th of Earth's).

2. The image clearly depicts a change in the experimental condition that matches the description of being on the Moon's surface (e.g., a different background or label).

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

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 suspended object with a heavy item that far exceeds the scale's capacity: a backpack full of books. Please generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, potentially showing signs of deformation or over-extension.

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

Irrelevant background elements and the basic color scheme and features of the spring scale remain consistent with the Turn 2 output image. The image is a modification of a prior one.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three blocks, A, B, and C, have densities of 2.7 g/cm³, 0.9 g/cm³, and 8.9 g/cm³, and volumes of 100 cm³, 400 cm³, and 20 cm³, respectively. Arrange them in order from smallest to largest mass.

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

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' must be clearly labeled in a logical position on the scale face.

The pointer's position must accurately indicate a force of 1.78 Newtons, corresponding to the calculated weight of the lightest object from Turn 1 (object B with density 0.9 g/cm³ and volume 400 cm³).

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

turn: 3
modality: image
input: Change the experimental condition by applying an upward force with your hand to support the bottom of the hanging object. Generate the new image of the spring scale.
output: evaluation_points: The spring's extension must be reduced, and the pointer must show a lower reading compared to the pointer position in the Turn 2 output image, consistent with the object being partially supported.

2. The image must clearly depict the new experimental condition, such as a hand visibly applying upward force to the bottom of the object.

The main body of the spring scale (including its standard style, clear markings, and maximum '10N' range label) 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, not a completely new generating.

turn: 4
modality: image
input: Replace the hanging object with a standard red construction brick (which far exceeds the scale's capacity). Generate the resulting image.
output: evaluation_points: 1. The spring must be shown stretched to its mechanical limit, potentially with visual cues suggesting deformation or over-extension.

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

The irrelevant background and the basic color and structural features of the spring scale (including its standard style, clear markings, and maximum '10N' range label) must remain consistent with the Turn 2 output image. The image must appear to be a further modification of the Turn 3 output image.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three blocks, A, B, and C, have densities of 1.5, 0.5, and 7.9, respectively, and volumes of 100, 200, and 30, respectively. Arrange them in order from smallest to largest mass.

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

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' must be clearly labeled at the appropriate position on the scale.

The pointer's position must accurately indicate a force of 1.0 Newton, corresponding to the calculated weight of the lightest object (block B with density 0.5 and volume 200) from Turn 1.

3. The spring must be visibly stretched, indicating it is under load.

turn: 3
modality: image
input: Change the experimental condition by submerging the hanging block in concentrated salt water. Generate the new image of the spring scale.
output: evaluation_points: 1. The change in spring extension and the direction of the pointer's movement (upward/less force) must be consistent with the physics of buoyancy in a dense liquid.

2. The image must clearly show a visual difference from Turn 2 that corresponds to the block being submerged in a liquid (e.g., a container of liquid around the block).

3. The main body of the spring 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.

turn: 4
modality: image
input: Replace the hanging object with a car battery (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 deformation or an unnaturally extended state.

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

3. Unrelated background elements and the basic color/features of the spring scale body must remain consistent. The image must appear to be a modification of the previous one.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three blocks, A, B, and C, have densities of 19.3 g/cm³, 2.7 g/cm³, and 0.6 g/cm³, and volumes of 10 cm³, 50 cm³, and 150 cm³, 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, 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 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 scale has a standard design with clear, legible markings. The maximum range '10N' is clearly labeled at the appropriate position on the scale face.

2. The pointer's position accurately indicates a force of 0.9 Newtons, corresponding to the calculated weight of the lightest object (object C with density 0.6 g/cm³ and volume 150 cm³ 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 setup by hanging a much heavier iron block underneath the original object. 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 (increased total weight).

2. The image clearly shows a visual difference from Turn 2, specifically depicting an additional, heavier iron block attached below the original object.

3. The main body of the scale (including its design and markings) and the background environment remain visually consistent with the Turn 2 output image.

4. The image is 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 large watermelon, which far exceeds the scale's maximum 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 pinned at or beyond the maximum '10N' mark, indicating an overload or 'pegged' condition.

3. Irrelevant background elements and the basic color scheme/features of the scale body remain consistent. The image should appear to be a further modification of the previous scene.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 8.9, 7.9, and 2.7, and volumes of 40, 60, and 200, 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 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 '10N' is clearly labeled in a logical position (e.g., at the top of the scale).

The pointer's position accurately indicates a force of 3.56 Newtons, corresponding to the calculated weight of the lightest object (object C with density 2.7 and volume 200) 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 to: the person holding the scale accelerates it downward. Please generate the new image of the scale.
output: evaluation_points: 1. The spring's extension and the direction of the pointer's movement (e.g., showing a lower reading) are consistent with the physics of accelerating downward (resulting in an apparent weight less than the actual weight).

2. The image clearly depicts a change from the previous condition, visually representing the action of 'accelerating the scale downward' (e.g., motion lines, a hand in a different position, or a contextual cue).

3. The core design, colors, and background elements of the spring scale remain 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 from scratch.

turn: 4
modality: image
input: Replace the hanging object with a desktop computer tower (a mass far exceeding the scale's capacity). Please generate the resulting image.
output: evaluation_points: 1. The spring is stretched to its mechanical limit, potentially showing deformation (e.g., coils pulled apart, a stretched appearance).

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

3. Irrelevant background details and the fundamental colors/features of the scale body remain consistent with previous images. The image should appear to be a modification of a prior generating.
Domain: Physics / mass_measurement

turn: 1
modality: text
input: Three objects A, B, and C have densities of 0.9, 1.2, and 7.9, and volumes of 300, 200, and 25, respectively. Please arrange them in order from smallest to largest mass.
Options:
A. A, B, C
B. A, C, B
C. C, A, B
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. Hang 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' must be clearly labeled at the appropriate position on the scale.

The pointer's position must accurately indicate a force of 1.975 Newtons, corresponding to the calculated weight of the lightest object from Turn 1 (object A, with density 0.9 and volume 300).

3. The spring must be visibly stretched, indicating it is under load.

turn: 3
modality: image
input: Change the experimental setup by inverting the spring scale so that its outer casing is used to hang the object. Generate the new image of the scale.
output: evaluation_points: 1. The spring's extension and the direction of the pointer's movement (or lack thereof) must be consistent with the physics of an inverted scale.

2. The image must clearly show a different experimental condition from Turn 2, specifically depicting the scale inverted with its casing used for hanging.

3. The basic appearance, colors, and background of the spring scale must remain consistent with the image from Turn 2.

The basic appearance, colors, and background of the spring scale must remain consistent with the Turn 2 output image.

turn: 4
modality: image
input: Replace the hanging object with a solid sports shot put. Generate the resulting image.
output: evaluation_points: 1. The spring must be shown stretched to its mechanical limit, potentially with visual cues suggesting deformation.

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

3. The irrelevant background and the fundamental colors/features of the scale must remain consistent, and the image must appear to be a modification of the previous one.
Domain: Physics / refraction_multi_layer

turn: 1
modality: image
input: Generate a transparent glass (empty). Inside the glass, place a silver metal spoon, either standing upright or leaning against the side of the glass.
output: evaluation_points: 1. The glass is transparent and empty, with a simple background.

2. The silver metal spoon is clearly visible, with a straight, elongated form, showing no bends or breaks.

3. The spoon is placed reasonably inside the glass, leaning against the inner wall.

turn: 2
modality: text
input: There are two transparent liquids: cooking oil and water. Please select the correct description of the relationship between their refractive indices.
Options:
A. The refractive index of cooking oil is greater than that of water.
B. The refractive index of cooking oil is less than that of water.
C. The refractive index of cooking oil is equal to that of water.
D. It cannot be determined.
E. None of the above.
output: answer: A

turn: 3
modality: text
input: Please select the correct description of the relationship between the densities of cooking oil and water.
Options:
A. The density of cooking oil is greater than that of water.
B. The density of cooking oil is less than that of water.
C. The density of cooking oil is equal to that of water.
D. It cannot be determined.
E. None of the above.
output: answer: B

turn: 4
modality: image
input: Based on the image from Turn 1, simultaneously add 1/3 cup of cooking oil and 1/3 cup of water to the glass. Generate the final resting state of the liquids based on their physical properties.
output: evaluation_points: 1. The liquids show a clear stratification (layering) phenomenon, as they are immiscible.

2. The color distribution is correct: the cooking oil (typically pale yellow/clear) forms the top layer, and the water (clear) forms the bottom layer.

3. The spoon shows a refractive displacement at both the interface between the two liquids and at the top surface of the oil layer.

The image background, glass style (transparent, empty), and spoon details (silver metal spoon, placed inside the glass) are consistent with the Turn 1 output image.

The image is clearly a modified version of the Turn 1 output image, not a completely new generation.
Domain: Physics / refraction_multi_layer

turn: 1
modality: image
input: Generate a transparent, empty glass. Inside the glass, place a plastic ruler, either vertically or leaning against the side.
output: evaluation_points: 1. The glass is transparent and empty, with a simple background.

2. The plastic ruler is clearly visible, straight in form, with no bending or breaking.

3. The ruler is placed reasonably inside the glass, leaning against the inner wall.

turn: 2
modality: text
input: There are two transparent liquids: syrup and alcohol. Choose the correct description of their refractive index relationship from the following options:
Options:
A. The refractive index of syrup is greater than that of alcohol.
B. The refractive index of syrup is less than that of alcohol.
C. The refractive index of syrup is equal to that of alcohol.
D. It cannot be determined.
E. None of the above.
output: answer: A

turn: 3
modality: text
input: Choose the correct description of the density relationship between syrup and alcohol from the following options:
Options:
A. The density of syrup is greater than that of alcohol.
B. The density of syrup is less than that of alcohol.
C. The density of syrup is equal to that of alcohol.
D. It cannot be determined.
E. None of the above.
output: answer: A

turn: 4
modality: image
input: Based on the image from Turn 1, simultaneously add syrup to fill 1/3 of the glass and alcohol to fill another 1/3 of the glass. Generate the final resting state of the liquids based on their physical properties.
output: evaluation_points: 1. The liquids show stratification (layering).

2. The color distribution is correct: the denser syrup (typically darker/amber) forms the bottom layer, and the less dense, clear alcohol forms the top layer.

3. The plastic ruler shows refractive displacement at both the interface between the two liquids and at the top surface of the alcohol layer.

The background, glass style (transparent, empty), and ruler details (plastic ruler, straight, placed inside leaning against the inner wall) are consistent with the Turn 1 output image.

The image is clearly a modification of the Turn 1 output image, not a completely new generation.