Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the sequential stages of a black hole's formation from a collapsing star.All images share a realistic cosmic aesthetic, featuring a dark, star-filled background and scientifically inspired visual elements to unify the progression of stellar collapse. [TOP]-[LEFT]:A massive, aging star in its final phase, glowing intensely with a reddish-orange hue. Solar flares and eruptions ripple across its turbulent surface, while the surrounding space is dotted with distant stars and faint nebulae. The star appears unstable, with a core radiating ominous energy. [TOP]-[RIGHT]:The star implodes inward violently, its outer layers collapsing under gravity. Bright jets of plasma erupt from the poles as the core compresses into a dense, glowing sphere. Radiant shockwaves ripple outward, illuminating swirling debris and dust clouds in the vicinity. [BOTTOM]-[LEFT]:A dark sphere emerges at the center, surrounded by a faint, glowing accretion disk. Light near the sphere bends sharply, forming a defining ring of brightness around the event horizon. Distant starlight warps subtly around the gravitational pull, hinting at the singularity's power. [BOTTOM]-[RIGHT]:A fully formed black hole with a stark event horizon, surrounded by a luminous accretion disk spiraling inward. Background starlight curves dramatically around the singularity, creating visible gravitational lensing effects. The disk emits X-ray hues, contrasting with the inky void at the center.

Generate four images illustrating the process of a black hole forming. The first image shows a massive star in its final stages, about to collapse. The second image presents the star undergoing gravitational collapse, shrinking rapidly. The third image captures the formation of an event horizon as the collapsed star becomes a black hole. The fourth image shows a fully formed black hole with light bending around it, demonstrating gravitational lensing.

All images should maintain a consistent color scheme, predominantly featuring deep blues, purples, and intense reds/oranges to represent the star's temperature and energy states throughout its evolution to a black hole.  These colors should evolve logically across the sequence, becoming more concentrated as the black hole forms.

The lighting conditions should evolve realistically across the four images, starting with the bright illumination of a massive star and transitioning to the extreme gravitational bending of light around the black hole in the final image. Rendering quality should remain uniform to ensure a consistent visual experience.

The texture representing stellar matter and the visual distortions caused by gravity should be consistent across all stages. The depiction of space dust and surrounding celestial bodies should be rendered with a similar level of detail in each image to maintain visual coherence.

The depiction of gravitational collapse must adhere to known physical principles, showing a smooth and continuous shrinking of the star. The distortion of space-time should accurately reflect the extreme gravity near a black hole.

The formation of the event horizon must be visually and temporally consistent, demonstrating a clear progression from a collapsing star to a defined boundary beyond which nothing can escape. The size and sharpness of the event horizon should increase appropriately as the process unfolds.

The depiction of light bending (gravitational lensing) in the final image must realistically illustrate how light from distant objects is distorted and magnified around the black hole. The curvature and displacement of background objects should be physically plausible.

The initial mass of the star should be visually reflected in the size and intensity of the gravitational effects observed in the later stages. There should be a clear visual relationship between the collapsing star and the resulting black hole.

The energy emitted (in the form of light and radiation) should decrease and shift towards different wavelengths as the star collapses and forms a black hole. This shift should be visible as a color change in the images.


Prompt: FOUR-PANEL Images with a 2x2 grid layout documenting the sequential construction phases of a modern skyscraper.All images maintain a realistic style with technical precision, using a consistent color palette of industrial grays and blues. The skyscraper progresses visibly across stages, with evolving structural details and machinery. [TOP]-[LEFT]:A construction site with excavators digging deep trenches and workers laying concrete foundations. Piles of steel reinforcements and construction vehicles dominate the foreground, with temporary fencing and safety signage. The atmosphere is gritty, emphasizing raw earth tones and early structural outlines. [TOP]-[RIGHT]:A towering steel skeleton rises against a cloudy sky, with cranes lifting beams into place. Workers in harnesses weld and secure joints mid-air. The framework shows geometric precision, with diagonal bracings and unfinished floors creating a grid-like pattern against the horizon. [BOTTOM]-[LEFT]:Workers on suspended platforms install large glass panels onto the steel frame. The building’s facade begins to reflect sunlight, blending blue-tinted windows with metallic cladding. Semi-completed floors alternate between transparent and opaque sections, revealing interior scaffolding. [BOTTOM]-[RIGHT]:A completed skyscraper with a polished glass exterior reflecting a sunset sky. Landscapers plant trees and shrubs around the base, while clean walkways and modern benches frame the entrance. The scene exudes sleek professionalism, with final adjustments like window cleaning lifts and illuminated signage.

Generate a detailed 4-stage image series illustrating the construction process of a modern skyscraper.
- Stage 1: Foundation excavation and groundwork preparation.
- Stage 2: Erection of the steel framework.
- Stage 3: Installation of glass panels and cladding.
- Stage 4: Final finishing touches with landscaping and a sky backdrop.

All images should consistently depict the same modern architectural style (e.g., minimalist, high-tech), ensuring uniformity in the building's overall aesthetic across all stages of construction.

The color palette should be consistent across all four stages, particularly in the materials used (steel, concrete, glass), to maintain a cohesive visual representation of the skyscraper's evolution.

The rendering of materials like steel, glass, and concrete should remain uniform across the images. The textures, reflections, and overall appearance should consistently reflect the properties of these materials in a realistic or stylized manner as per the established style.

The images must accurately represent the logical order of skyscraper construction: excavation precedes framework, framework precedes cladding, and cladding precedes finishing touches. Any deviation from this sequence breaks logical coherence.

Each stage should depict a structurally sound progression. The framework must be able to logically support the subsequent cladding, and the foundation must appear capable of bearing the full weight of the completed structure.

The surrounding environment (e.g., adjacent buildings, sky conditions) should be logically consistent across all four stages. For instance, if stage 1 shows a sunny day, stage 4 should not depict a sudden storm without logical explanation.

The scale of the skyscraper relative to its surroundings and the proportion of its elements (e.g., window size, floor height) must remain consistent across all images, ensuring a realistic and believable depiction of the building's size and design.

Specific design features introduced in earlier stages (e.g., a unique framework design, a particular type of foundation reinforcement) should be maintained and visible in subsequent stages, ensuring a continuous identity of the building.

The building's location and orientation on the construction site should remain consistent across all four stages. The skyscraper should not appear to shift positions or angles between images.

The detailing level across all images should stay coherent. For example, If images 1 and 2 have high amount of details, image 3 and 4 should also have it.


Prompt: FOUR-PANEL Images with a 2x2 grid layout documenting the sequential construction phases of a modern suspension bridge.All images maintain a realistic, technical illustration style with consistent color schemes of steel gray, earthy tones, and construction equipment. The bridge's modern design and structural logic remain unified across stages, emphasizing engineering precision. [TOP]-[LEFT]:Heavy machinery excavates deep trenches at riverbanks, with workers reinforcing concrete foundations for bridge piers. Dust and scattered construction materials dominate the foreground, while cranes and temporary scaffolding frame the rugged landscape. [TOP]-[RIGHT]:Steel-reinforced main towers rise vertically, with cranes hoisting segments into place. Workers secure cable anchoring systems into the towers' peaks, surrounded by safety nets and rigging. The partially built structure casts long shadows under midday light. [BOTTOM]-[LEFT]:Parallel suspension cables arc between towers, connected to temporary support platforms. Prefabricated bridge deck sections are lifted into position below the cables, with welders securing joints. The skeletal framework reveals the bridge's sweeping curvature. [BOTTOM]-[RIGHT]:The completed bridge gleams with fresh paint and architectural lighting. Landscaped parks flank both ends, with trees and pedestrian walkways. A sunset backdrop highlights the structure's silhouette against a river reflecting warm hues.

Generate a detailed 4-stage image series showing the construction process of a modern suspension bridge.
- Stage 1: Excavation and foundation laying for bridge piers.
- Stage 2: Erection of main towers and placement of cable anchoring systems.
- Stage 3: Installation of suspension cables and the bridge deck.
- Stage 4: Final aesthetic finishing with scenic surroundings.

All images should consistently depict a modern architectural style in the bridge design, maintaining uniformity in structural elements and aesthetic details across all stages of construction.

The rendering of materials such as concrete, steel, and asphalt should remain consistent across all images, ensuring that the textures, reflectivity, and overall visual representation of these materials are uniform throughout the construction process.

The surrounding environment (e.g., weather conditions, vegetation density, water color) should maintain a consistent tone and quality across all four stages. For example, if Stage 1 is depicted on a sunny day, the subsequent stages should reflect similar lighting conditions unless a specific change is indicated.

Each stage should logically follow the previous one in terms of structural development. The components added in Stage 2 must build upon the foundation laid in Stage 1, and so forth, ensuring a seamless and coherent construction narrative.

The design of key components like the main towers, suspension cables, and bridge deck should remain consistent across all stages. Any changes must be clearly illustrative of the construction process (e.g., cable length increasing as the deck is installed), rather than design alterations.

The spatial relationship between the bridge components and the surrounding landscape (e.g., riverbanks, nearby buildings) should remain consistent. The bridge's position relative to these elements should not drastically change between stages unless necessitated by the simulated construction.

The sequence of construction should logically progress from foundation laying to tower erection, cable installation, and finally, deck placement and finishing. The images should not depict steps out of order or in a manner that defies standard construction practices.

The scale and presence of construction equipment (e.g., cranes, scaffolding) and the workforce should be appropriate for each stage of construction. The amount of equipment and personnel should logically increase or decrease depending on the activities being performed in each phase.

Each image should adhere to the basic principles of gravity and physics. The bridge components should appear stable and supported at each stage, with no elements floating or defying natural laws. The tension and support structure should be clearly depicted for each stage.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the progressive construction stages of a modern eco-friendly home.All images maintain a clean, technical illustration style with a focus on sustainability. Shared elements include modern architectural aesthetics, green technology integration, and a sequential narrative of construction phases. [TOP]-[LEFT]:An aerial view of a cleared construction site with marked boundaries and a team reviewing sustainable blueprints. Light machinery and preserved trees surround the area, with digital tablets displaying energy-efficient designs. Soft daylight emphasizes eco-conscious planning. [TOP]-[RIGHT]:Workers assembling a reinforced concrete-free foundation using recycled materials, with cranes lifting prefabricated wooden beams for the frame. Solar panel mounting points are visible on the roof structure. The scene highlights precision in creating an energy-efficient skeleton under a partly cloudy sky. [BOTTOM]-[LEFT]:Installation of triple-glazed windows and technicians mounting sleek solar panels on angled roofs. Recycled cellulose insulation is being fitted into walls, with geothermal piping visible at the base. The structure now resembles a modern home with visible green tech components under midday sun. [BOTTOM]-[RIGHT]:The completed house with vertical garden walls, rooftop solar arrays, and native drought-resistant plants in the yard. A technician programs a smart home panel near the entrance while rainwater collection systems and EV charging ports are visible. Twilight lighting showcases operational sustainability features.

Develop a detailed 4-stage image series showcasing the construction process of a modern eco-friendly home.
- Stage 1: Site clearing and sustainable design planning.
- Stage 2: Laying the foundation and constructing an energy-efficient frame.
- Stage 3: Installation of eco-friendly windows, solar panels, and insulation.
- Stage 4: Final touches including landscaping and smart home integrations.

The architectural design elements (e.g., roof lines, window shapes, exterior materials) should remain consistent across all four stages, maintaining a recognizable and coherent architectural style.

The materials used in construction (e.g., wood, concrete, glass, solar panels) should maintain a unified aesthetic and quality across all images, adhering to an eco-friendly design language.

The rendering style (e.g., photorealistic, architectural rendering, illustrative) and level of detail should be uniform across all four stages, providing a consistent visual representation of the building process.

The color scheme of the house and surrounding environment should be consistent, using natural and harmonious tones to reflect an eco-friendly theme throughout the construction stages.

The overall layout of the house, including the placement of key features like windows, doors, and the general footprint, should remain consistent across the different stages of construction.

The surrounding landscape and site topography should remain largely consistent across the four images, showing the house being built on the same plot of land with similar geographical features.

The visual appearance of materials, such as the wood grain, concrete texture, or solar panel finish, should remain consistent to ensure the same materials are depicted throughout the construction process.

The building's orientation (direction it faces) should remain consistent in all images so that lighting and shadows are logical across stages and that it looks like the same building.

The sequence of construction steps should be logically accurate, showing the progressive build from site clearing to the finished home. Each stage must depict a plausible progression from the previous one.

Elements like solar panels, insulation, and landscaping should be integrated into the building in a logically realistic manner according to construction standards. Installations and integrations should be coherent and functional.

Each image should clearly indicate the advancement of time and construction. For instance, the presence of scaffolding in stage 2, and its removal in stage 4, needs to be logical.

The scale and proportions of all building components (e.g., walls, windows, solar panels) must be consistent and realistic across the entire construction process. These should not be exaggerated or distorted.


Prompt: FOUR-PANEL Images with a 2x2 grid layout documenting the step-by-step construction of a modern library with glass-centric architecture.All images follow a cohesive architectural narrative, emphasizing clean lines, progressive development stages, and integration of natural light through glass elements. The style balances technical realism with aesthetic clarity. [TOP]-[LEFT]:An aerial view of a construction site with bulldozers leveling terrain and excavators digging trenches. Concrete foundations form geometric outlines, with construction markers and safety fences surrounding the area. The environment is dusty, with temporary site offices visible at the edges. [TOP]-[RIGHT]:Steel beams and columns rise to create the library's skeletal structure, with cranes lifting crossbeams into place. The open-plan layout reveals future spaces for halls and staircases. Workers in helmets weld joints under a clear sky, with partial glass panels hinting at the intended transparency. [BOTTOM]-[LEFT]:Crews install floor-to-ceiling glass windows along curved facades, reflecting sunlight. Inside, skeletal shelves and partitioned zones mark future reading areas. Scaffolding surrounds the building, with unfinished floors showing electrical conduits and raw structural surfaces. [BOTTOM]-[RIGHT]:The completed library features polished wooden reading tables, potted plants, and minimalist light fixtures. Sunlight streams through pristine windows onto a landscaped courtyard with stone paths and young trees. Visitors stroll near a glass-walled atrium filled with bookshelves.

Generate a detailed 4-stage image series illustrating the construction process of a modern library.
- Stage 1: Site clearing and foundation construction.
- Stage 2: Structural framework assembly with open design elements.
- Stage 3: Installation of large glass windows and reading areas.
- Stage 4: Final finishing touches including interior design and landscaped reading spaces.

All images should consistently reflect the same modern architectural style, with similar geometric forms, material choices (e.g., concrete, glass, steel), and overall aesthetic to create a unified design narrative.

The rendering of building materials (e.g., the texture of concrete, the reflectivity of glass, the finish of steel) should be consistent across all stages, maintaining a realistic and believable depiction of the library's construction.

The color palette used in each stage should complement each other, maintaining a consistent visual tone that aligns with the modern architectural style (e.g., neutral tones with accents of color in interior spaces).

The core structural elements (e.g., the shape and placement of support beams, the layout of the building's skeleton) established in Stage 2 must persist consistently throughout Stages 3 and 4, indicating a stable and progressing build.

Key design features and spatial arrangements introduced early in the construction, such as the integration of open spaces and the layout of reading areas, should be consistently visible and logically developed across the stages.

The sequence of construction events must follow a logical and realistic progression. Foundation work precedes structural assembly, which precedes window installation and interior finishing, without any illogical backtracking or omissions.

The surrounding environment should evolve realistically across the stages. For instance, landscaping elements should appear only in later stages and become more refined as the construction nears completion.

The relative sizes and proportions of the building elements (e.g., window sizes, room dimensions, furniture scales) must remain consistent across all stages to accurately depict a physically plausible structure.


Prompt: FOUR-PANEL Images with a 2x2 grid layout documenting the step-by-step construction of a community center from planning to completion.All images maintain a realistic style with sequential progression, emphasizing evolving structural details and consistent geographical context. Shared elements include construction equipment, worker presence, and the gradual transformation of the site. [TOP]-[LEFT]:A team of architects and community members reviewing blueprints outdoors, with bulldozers clearing overgrown land in the background. The scene features scattered trees, marked stakes, and a temporary planning tent, capturing the early energy of collaboration and preparation. [TOP]-[RIGHT]:Cranes lifting steel beams into place as workers pour concrete foundations under a partly cloudy sky. The skeletal framework of the building emerges, with scaffolding and construction materials organized around the site, illustrating the establishment of structural integrity. [BOTTOM]-[LEFT]:Completed exterior walls with roofing underway, featuring visible insulation and window installations. Workers assemble indoor partitions and utility systems, while signage indicates future spaces like a library and gym, highlighting functional diversity in progress. [BOTTOM]-[RIGHT]:The finished community center with vibrant murals on walls, furnished interiors with bookshelves and activity zones, and landscaped gardens with benches and playgrounds outside. Solar panels adorn the roof, and community members engage in various activities, symbolizing operational readiness.

Generate a detailed 4-stage image series illustrating the construction process of a community center.
- Stage 1: Community planning and site clearing.
- Stage 2: Laying the foundation and constructing the basic structural framework.
- Stage 3: Building multi-use spaces and facilities.
- Stage 4: Final interior design, landscaping, and installation of community features.

The rendering style (e.g., realistic, semi-realistic, blueprint-like) of the community center's structure and surrounding environment should be consistent across all four stages to ensure a unified visual narrative of the building's evolution.

The color palette representing building materials (concrete, steel, wood, glass) should remain consistent across all stages. For example, if the initial rendering shows grey concrete, this should be maintained in subsequent stages to avoid visual discrepancies.

The level of detail should progressively increase from Stage 1 to Stage 4. Stage 1 should show broader strokes of site clearing while Stage 4 shows fine details of interior design and landscaping. The incremental increase in detail across stages should be smooth and logical.

Each stage must accurately depict the logical progression of construction. Stage 2 must build upon Stage 1, Stage 3 upon Stage 2, and so forth. Elements present in an earlier stage (e.g., the foundation) must remain visible or logically incorporated in later stages.

The surrounding environment (e.g., adjacent buildings, landscape) should remain consistent across all stages, unless alterations are explicitly part of the construction process (e.g., new landscaping in Stage 4).

The scale and proportions of the community center relative to its environment and human figures (if present) should remain consistent across all four stages. The building should not suddenly appear larger or smaller than its established size.

The images should clearly convey a temporal progression. For example, Stage 1 should depict initial groundwork, while Stage 4 represents the final, completed building. Indicators of time, such as changing weather or growing landscaping, should be logical and consistent.

The architectural design of the community center (e.g., overall shape, roof style, window placement) should remain consistent across all four stages. Any changes must be attributable to the planned construction process.

The type of materials used for the core structure (e.g., type of concrete, steel beams) must remain constant across the images unless a change in material is part of the design and is represented as a clear, intentional change in a specific stage. In Stage 1 you might have concrete foundation blocks. The material for that building block shouldn't change between stages.

The landscaping style and basic layout established in earlier stages (if applicable) should inform the design and additions in later stages. For instance, if trees are planted in a particular arrangement in Stage 3, these should logically integrate with any additional landscaping in Stage 4.


Prompt: FOUR-PANEL Images with a 2x2 grid layout documenting the sequential development of a high-tech corporate headquarters construction.All images maintain a futuristic, semi-realistic style with clean lines and a cohesive color palette. The progression showcases the same site evolving from raw land to a polished structure, emphasizing technological innovation and architectural coherence. [TOP]-[LEFT]:An aerial view of bulldozers clearing a barren site, with engineers reviewing holographic blueprints. The ground is marked with grid lines, and a digital projection of the building’s design floats above the team. The palette features muted earth tones with glowing blue holograms. [TOP]-[RIGHT]:Cranes lift steel beams as workers pour concrete foundations. The skeletal framework of the building rises sharply, surrounded by robotic arms welding joints. The structure’s angular geometry begins to emerge against a cloudy sky, with metallic grays and industrial accents dominating. [BOTTOM]-[LEFT]:Translucent smart glass panels are installed on the curved facade, reflecting sunlight. Inside, modular office spaces with floating desks and holographic interfaces take shape. The exterior shows partial transparency revealing interior progress, blending silver and glass tones with warm interior lighting. [BOTTOM]-[RIGHT]:The completed glass tower glows with embedded LED branding logos. Lush vertical gardens adorn the perimeter, and solar-paneled pathways lead to the entrance. A drone delivers final equipment, while the building’s mirrored surface reflects a sunset, merging nature and technology.

Create a detailed 4-stage image series illustrating the construction process of a high-tech corporate headquarters.
- Stage 1: Site clearing and blueprint planning.
- Stage 2: Foundation work and structural framework erection.
- Stage 3: Installation of smart glass facades and interior office layouts.
- Stage 4: Final finishing touches including landscaping and corporate branding elements.

The rendering style, whether photorealistic, schematic, or illustrative, should remain consistent across all four stages to maintain a unified visual representation of the building's evolution.

The depiction of materials such as concrete, steel, glass, and landscaping elements should have consistent levels of detail and texture quality to ensure a cohesive visual experience.

Weather conditions (e.g., sunny, cloudy) and atmospheric perspectives (e.g., haze, clarity) should be consistent across the images, unless a specific weather effect is intentionally depicted as part of the construction process. The effect of different season might exist, like green trees in stage 4 rather than bare trees in stage 1

If corporate branding colors are present in Stage 4 (e.g., signage, landscaping), the underlying color scheme should be hinted at or aligned in earlier stages (e.g., equipment, temporary structures) to suggest a unified brand identity throughout the construction narrative.

The fundamental design and architectural features of the high-tech corporate headquarters (e.g., shape, proportions, key structural elements) must remain consistent and identifiable across all four stages, representing the same building at different phases of completion.

The surrounding geographic location, including landscape features, adjacent buildings, and infrastructure, should remain visually coherent across all stages. This ensures the building is consistently portrayed within the same environment, except for planned modification

The style and appearance of construction equipment (e.g., cranes, bulldozers) and personnel (e.g., workers, engineers) should maintain a visual consistency in each image. The number of personnel could be different to mirror construction phase.

Each stage should logically and sequentially depict the construction process as outlined in the instructions. Stage 1 should clearly precede Stage 2, and so on, without skipping or reversing steps.

The depicted construction techniques and structural elements should adhere to realistic architectural principles. For instance, the foundation must be laid before the framework is erected, and the smart glass facade can only be installed after the structural support is in place.

The presence and usage of construction resources and materials should be logically consistent with the construction stage. Materials needed for the foundation should be visible in Stage 2, whereas materials for interior finishing should appear in Stage 3 or 4.

Each stage must maintain internal temporal consistency. For example, within Stage 2, the foundation should be clearly set before a significant amount of framework is erected, avoiding a depiction where these processes seem to happen simultaneously without a clear order.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the chronological decomposition of a single leaf on a forest floor.All images maintain a realistic style with consistent lighting and environmental elements, focusing on the gradual transformation of the leaf while adhering to natural decay processes. The forest floor setting includes subtle elements like soil texture, scattered debris, and occasional fungi or insects. [TOP]-[LEFT]:A vibrant green leaf lies freshly fallen on damp soil, edges intact and surface glossy with morning dew. Sunlight filters through nearby foliage, casting soft dappled shadows. Tiny water droplets cling to the leaf's veins, emphasizing its vitality. [TOP]-[RIGHT]:The leaf displays early decay: yellowing patches and faint brown spots spread from the edges. Small holes appear where insects have nibbled, and the surface begins to curl. A mushroom sprouts nearby, hinting at fungal activity in the moist environment. [BOTTOM]-[LEFT]:The leaf is now predominantly brown, brittle, and fragmented. Veins protrude as the tissue thins, blending into the soil. White mycelium threads weave across its surface, and a beetle crawls over the decomposing matter under muted, overcast light. [BOTTOM]-[RIGHT]:Only skeletal remnants of the leaf remain, reduced to dark fibrous fragments merging with the soil. Earthworms burrow through the humus-rich ground, completing the cycle. The scene is shaded, with moss growing where the leaf once lay.

Please generate a scene of a leaf decaying on the forest floor, containing 4 images arranged in chronological order, showing the leaf’s progression from a fresh green state to a fully decomposed, brown state. All images must follow the natural laws of decomposition and decay.

The color palette should transition logically across the images, starting with vibrant greens and yellows in the initial image(s) and shifting towards browns, oranges, and muted tones in later images to reflect the decaying process.

The visual texture of the leaf should evolve consistently. Initially, the leaf should appear smooth and intact; later, it should display increasing signs of decay, such as cracks, tears, and decomposition, visible through changes in texture detail.

Lighting conditions, such as the angle and intensity of sunlight, should remain consistent across the sequence to maintain realism and avoid visual distractions unrelated to the decomposition process.

If fungal or mold growth is depicted, the style and appearance of these elements should be consistent across the images where they appear, ensuring they look natural and coherent with the decaying leaf.

Despite the progression of decay, the fundamental shape and venation pattern of the leaf should be recognizable across all four images, allowing the viewer to track the same leaf throughout the sequence.

If the initial fresh leaf has any specific blemishes, tears, or distinct markings, these features should persist and evolve naturally as the leaf decays, providing a visual anchor point.

Each image should accurately depict a sequential stage in the decomposition process, following the natural progression of color change, structural breakdown, and integration with the forest floor.

The interaction of the leaf with its surrounding environment (e.g., moisture, other decaying matter, insects) should be logically consistent. The later images should show the leaf interacting more closely with the forest floor environment (e.g., blending in with soil and other organic matter).

As the leaf decays, debris such as dirt, small pebbles, and other organic matter should progressively accumulate on and around the leaf in a manner consistent with a natural environment.

The structural integrity of the leaf should diminish sequentially. The initial image shows an intact structure; the subsequent images depict increasing levels of fragmentation, wrinkling, and eventual disintegration.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the gradual melting of ice under sunlight, adhering to thermodynamic principles.All images share a realistic style, consistent environmental elements (sunlight angle, surrounding terrain), and scientifically accurate phase transitions. The ice structure degrades progressively, with light reflections and water behavior following heat transfer dynamics. [TOP]-[LEFT]:A solid ice block rests on rocky terrain under midday sun. The surface shows minimal melting, with faint condensation and a smooth texture. Sunlight casts sharp highlights on the ice, while shadows emphasize its geometric edges. Distant grass hints at ambient warmth. [TOP]-[RIGHT]:The ice block displays surface irregularities with thin water streams trickling downward. Small pools form at the base, reflecting sunlight. Air bubbles become visible within partially translucent ice, and faint steam rises where sunlight concentrates. [BOTTOM]-[LEFT]:The ice fractures into smaller chunks, submerged in a growing pool of water. Rapid melting creates turbulent flows around submerged ice sections. Sunlight refracts through water, casting rippled shadows on the rocks below. Condensation fog lingers near remnants. [BOTTOM]-[RIGHT]:A shallow water pool dominates the scene, with residual ice fragments floating near dissolution. Reflections distort rocky textures on the water’s surface. Sunlight angle lowers, elongating shadows and emphasizing heat-induced evaporation mist above the water.

Please generate a scene of ice melting under the sun, containing 4 images arranged in chronological order, showing the ice transitioning from solid to liquid as it absorbs heat. All images must follow the physical laws of heat transfer and phase change.

The level of detail, sharpness, and realism in the rendering of ice, water, and surrounding environment should remain consistent across all four images, avoiding jarring shifts in visual quality.

The colors associated with ice (blues, whites), water (transparency, reflections), and sunlight (yellows, oranges) should maintain a consistent palette across all images to reflect temperature changes and material properties accurately.

The style of lighting, particularly the intensity and direction of sunlight, should be consistent across the sequence. This includes the way light interacts with the ice and water, producing reflections and refractions, and creating realistic shadows.

The initial size and overall shape of the ice should be visibly related across images, representing a continuous transformation rather than distinct ice formations. The progression should illustrate a gradual reduction in ice volume.

The location and extent of water pooling as the ice melts should be logically connected and incrementally increase across the images, reflecting the continuous process of phase transition.

Any static elements in the surrounding environment (rocks, ground, vegetation) must remain consistently positioned and visually similar across the images to provide a stable reference point for observing the melting process.

The depiction of the phase change must accurately reflect the physical properties of melting ice, showing the progression from solid ice to a mixture of ice and water, and finally to predominantly liquid water. This includes the formation of water droplets and thin films on the ice surface.

The visual elements should suggest realistic heat transfer, such as increased water runoff and diminishing ice mass over time. The intensity of sunlight and its impact on the ice must correlate with the melting rate depicted in each subsequent image.

The arrangement of images must clearly depict a sequential and unidirectional melting process. The amount of melted ice and the corresponding water volume must increase consistently from the first to the fourth image, presenting a coherent timeline.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a single rock undergoing progressive erosion from rain and wind.All images maintain realistic erosion physics, showing sequential weathering stages with consistent rock material composition and logical environmental interaction. Backgrounds include subtle rain streaks and wind patterns to unify the timeline. [TOP]-[LEFT]:A sharp-edged rock with rough, angular surfaces under light rain. Thin water trails trickle down its sides, while faint wind streaks carve initial shallow grooves. The surface shows minimal wear, retaining most original cracks and protrusions. [TOP]-[RIGHT]:Moderate erosion softens edges and deepens grooves. Wider channels form where water flows concentrate, exposing layered sediment patterns. Wind-polished areas emerge on windward surfaces, blending with rain-carved ridges. [BOTTOM]-[LEFT]:Advanced smoothing dominates the structure, with rounded contours and merged erosion channels. Sediment layers become prominently visible, and the rock’s base accumulates weathered debris. Rain intensity appears reduced, emphasizing wind’s abrasive role. [BOTTOM]-[RIGHT]:A fully weathered rock with a smooth, oval-like silhouette. Surface details are homogenized, leaving faint traces of original texture. Residual erosion patterns show delicate striations, with minimal debris remaining around the stabilized form.

Please generate a scene of a rock being gradually eroded by rain and wind, containing 4 images arranged in chronological order, showing the rock’s transformation from an intact surface to a weathered, smooth structure. All images must follow the physical laws of erosion and material wear.

The rock's surface texture should transition consistently from rough and jagged in the initial images to smoother and more rounded in later images, accurately reflecting the effects of erosion over time.

The visual depiction of weathering effects, such as the patterns of erosion and the deposition of sediment, should be consistent across all images, portraying a unified and believable natural process.

The overall aesthetic tone—whether vibrant or subdued—should be consistent across images, maintaining a unified feel for the environment despite the evolving rock formation.

While the rock's surface changes due to erosion, its basic shape and significant identifying features should remain recognizable across all four images, ensuring it's perceived as the same rock evolving over time.

The surrounding environment and relative positioning of the rock within that environment should remain constant, reinforcing the sense of continuous observation of a single location over time.

The sequence of erosion should follow a logical progression, with early images showing initial cracks and wear, leading to later images depicting more significant material loss and smoothing.

The visual effects of rain and wind on the rock should be consistent with the physical laws of erosion, depicting realistic patterns of water flow and material removal that align with environmental physics.

Any material removed from the rock through erosion should be accounted for visually, implying that the rock gradually changes into the surrounding environment.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a chronological progression of a storm's lifecycle in the sky.All images share a rural landscape with a barn and wheat fields, maintaining realistic atmospheric physics. Cloud formations, lighting, and color transitions adhere to fluid mechanics, ensuring logical continuity across the sequence. [TOP]-[LEFT]:A serene, sunlit sky with scattered cumulus clouds casting soft shadows over golden wheat fields. The barn stands undisturbed under bright blue hues, with faint wisps of cirrus clouds hinting at approaching instability. [TOP]-[RIGHT]:Darkening cumulonimbus clouds dominate the horizon, their anvil shapes expanding upward. The wheat fields sway in gusty winds, and the barn is lit by muted sunlight filtering through turbulent cloud layers. Distant rain curtains blur the mountain foothills. [BOTTOM]-[LEFT]:A violent storm peak: jagged lightning splits the sky amid chaotic, low-hanging clouds. Torrential rain obscures the landscape, with the barn barely visible under swirling winds. Updrafts and downdrafts shape the cloud structure dynamically. [BOTTOM]-[RIGHT]:Clearing skies with fragmented clouds retreating eastward. Sunbeams pierce through gaps, casting a rainbow over the rain-drenched barn and glistening fields. Stratocumulus clouds linger, flattened by stabilizing atmospheric layers.

Please generate a scene of a storm developing and then dissipating, containing 4 images arranged in chronological order, showing the sky progressing from clear, to stormy, and finally to calm. All images must follow the physical laws of atmospheric dynamics and fluid mechanics.

The color palette should evolve logically, starting with bright, clear blues and greens in the initial clear sky, transitioning to darker grays and blues during the storm phase, and then gradually returning to lighter, clearer hues as the storm dissipates. This color evolution must be consistent and harmonious across all four images.

The texture and level of detail in the clouds should progressively increase as the storm develops, showing formation and thickening of cloud masses. Conversely, as the storm dissipates, the clouds should gradually thin and break apart, with decreasing detail. This evolution of texture and detail needs to be uniform and believable across the sequence.

The lighting should shift from bright sunlight in the clear sky to darker, more diffuse lighting during the storm, with the potential for dramatic shadows and highlights during peak storm intensity. As the storm clears, the lighting should gradually brighten and shadows should soften. This lighting progression should be visually consistent and logically connected to the atmospheric conditions.

The landscape or horizon line depicted in all four images should remain consistent, implying the same geographic location throughout the storm's evolution. Prominent landmarks (mountains, trees, bodies of water) should remain fixed and recognizable.

The way objects and elements in the distance appear (e.g., haze, color desaturation) should be consistent across all four images, adhering to principles of atmospheric perspective. Distant mountains, for instance, should gradually fade in the initial scene and become more obscured during the storm and then reappear gradually as the storm dissipates.

The sequence of images must adhere to a believable and physically plausible chronological order: clear sky, storm formation, peak storm intensity, and storm dissipation. Skipping steps or reversing the order (e.g., going from dissipation to formation) would break logical coherence.

The cloud formations and their movements must align with basic principles of fluid dynamics and atmospheric processes. For example, cumulonimbus clouds should form during the storm phase, and cloud movement should reflect plausible wind patterns.

If precipitation (rain, snow, hail) is depicted, its intensity and distribution should correlate with the storm's stage. Light rain might appear during storm formation, intensify during peak intensity, and gradually diminish as the storm dissipates. The precipitation's visual depiction should also be coherent across images.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the same building progressing through stages of aging and structural decay.All images maintain a realistic style, adhering to physical degradation principles. The building's core structure remains identifiable, with consistent architectural features and gradual material wear. [TOP]-[LEFT]:A newly constructed building with crisp edges, uniform brickwork, and pristine windows. Fresh mortar lines the walls, and the roof tiles are evenly aligned. Subtle construction elements like scaffolding remnants or unused materials nearby hint at recent completion. [TOP]-[RIGHT]:Early weathering signs: faded paint on window frames, thin cracks along mortar joints, and slight discoloration on bricks. Ivy begins creeping up one wall, and a few roof tiles are misaligned. Puddles at the foundation suggest water erosion. [BOTTOM]-[LEFT]:Advanced decay with pronounced cracks in walls, moss covering sections of the roof, and broken windows. Rust stains streak from metal fixtures, and sagging beams distort the doorframe. Weathered wooden shutters hang askew, and vegetation encroaches the base. [BOTTOM]-[RIGHT]:Structural collapse: partial roof cave-in, exposed rusted rebar in fractured concrete, and collapsed walls revealing interior debris. Thick ivy blankets entire sections, and tree roots disrupt the foundation. Remaining walls bow under stress, emphasizing material fatigue.

Please generate a scene of a building aging over time, containing 4 images arranged in chronological order, showing the building transitioning from its newly constructed state to one that shows signs of weathering and decay. All images must follow the physical laws of material degradation and structural stress.

The texture of building materials (e.g., brick, concrete, wood) should evolve consistently across images, showing increasing signs of wear, cracks, and erosion corresponding to the building's age.

Colors of the building's surfaces should fade and become duller across the sequence, realistically reflecting the effects of sunlight, rain, and other environmental factors over time.

The presence and growth of vegetation (e.g., moss, vines, weeds) on and around the building should increase progressively in each image, reflecting natural colonization processes.

Key architectural features of the building (e.g., window shapes, door placements, roof design) should remain identifiable throughout the sequence, even as the building deteriorates.

Structural elements like walls, roof, and foundation should visibly degrade over time, showing consistent progression of damage (e.g., cracks widening, sections collapsing) in a realistic manner.

The depiction of weathering and decay should be logically consistent with plausible environmental influences (e.g., rust forming on metal components, water stains appearing under eaves).

The depiction of structural failures should adhere to the laws of physics; for example, collapsing sections of the building must fall downwards and create realistic debris patterns.

The sequence of images must clearly and unambiguously represent a logical progression of time, with damage increasing incrementally from one image to the next, without reversals or inconsistencies in the level of decay.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a water droplet undergoing phase changes in a thermodynamic cycle.All images maintain scientific accuracy in representing phase transitions, using a semi-realistic style with soft gradients to illustrate molecular behavior and environmental interactions. A muted blue-gray color palette unifies the scenes. [TOP]-[LEFT]:A dense cloud filled with microscopic water droplets coalescing under low pressure. A central droplet forms, highlighted with surface tension effects, surrounded by smaller droplets in a misty environment with faint light diffusion. [TOP]-[RIGHT]:The water droplet descends through warm air currents, its edges fraying into wispy vapor trails. Heat distortion lines rise around it, with shrinking droplet size and increased molecular motion visible through translucent rendering. [BOTTOM]-[LEFT]:Vapor molecules clustering at higher altitude where temperatures drop, forming microscopic ice nuclei and fog-like condensate. Delicate crystalline structures begin to form as the vapor transitions back into liquid suspension within a cloud layer. [BOTTOM]-[RIGHT]:A fully reformed raindrop accelerates downward through turbulent air, trailing smaller droplets. The environment shows streaks of wind resistance and gravity effects, with distant ground terrain subtly blurred in the background.

Please generate a scene of a raindrop evaporating and condensing, containing 4 images arranged in chronological order, showing the cycle from raindrop formation, evaporation into vapor, and eventual condensation into precipitation. All images must follow the physical laws of phase changes and thermodynamics.

All images should maintain a consistent level of visual clarity and detail in depicting the different stages of the water cycle, ensuring that the transitions between stages are easily understandable and visually coherent.

Atmospheric effects (e.g., haze, cloud density) should be rendered consistently across all four images to maintain a realistic portrayal of environmental conditions during evaporation and condensation.

The color temperature used to represent heat (during evaporation) and cold (during condensation) should be consistent across images, using warmer tones for evaporation and cooler tones for condensation to reinforce the thermal aspect of the process.

The visual representation of the raindrop's form and its transformation into vapor should be consistently depicted. The raindrop should have recognizable features that transition logically into less defined vapor shapes.

The structure and texture of the cloud during the condensation phase should be consistent, showing a progression from dispersed vapor to a denser, more defined cloud form.

Each image should accurately depict the phase of water (liquid, gas) according to thermodynamics. The transition from liquid raindrop to gaseous vapor and back to liquid precipitation must align with scientific principles of phase change.

The images should implicitly or explicitly represent the energy flow involved in evaporation (energy input) and condensation (energy release), such as showing sunlight interacting with the raindrop during evaporation.

The surrounding environment (e.g., sky, surrounding air) should logically support the depicted stage of the water cycle. For instance, the environment should appear warmer and drier during evaporation and cooler and more humid during condensation.

The progression of images must show a clear and logical direction from raindrop formation to evaporation, and then to condensation forming precipitation, avoiding any backward or illogical sequences.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a single tree transitioning through four distinct seasons.All images share the same central tree structure and artistic style, blending realism with subtle whimsy. The background transitions naturally with seasonal elements, maintaining consistent terrain and sky gradients to unify the chronological progression. [TOP]-[LEFT]:A tree with delicate pink blossoms and fresh green leaves, bathed in soft sunlight. A clear blue sky with wispy clouds highlights the scene, while sprouting wildflowers and dewdrops adorn the base, evoking the freshness of spring. [TOP]-[RIGHT]:The tree now dense with deep green foliage, casting dappled shadows on lush grass below. Sunlight filters brightly through leaves, with a vibrant blue sky and distant birds soaring, capturing summer's vitality. [BOTTOM]-[LEFT]:Golden and crimson leaves dominate the canopy, some drifting downward. A warm-hued sunset sky contrasts with scattered fallen leaves on amber-tinted grass, conveying autumn's tranquil decay. [BOTTOM]-[RIGHT]:Bare branches etched against a pale gray sky, dusted with snow. Frosted grass and a thin snow layer blanket the ground, with faint smoke rising from a distant cottage chimney, embodying winter's stillness.

Please generate a scene of a tree transitioning through the four seasons, containing 4 images arranged in chronological order, showing the tree’s evolution from vibrant spring blooms, through lush summer foliage, then to autumn with falling leaves, and finally a bare winter state. All images must follow natural seasonal change patterns.

The color palette must accurately reflect each season, transitioning from the vibrant greens and pinks of spring, to the deep greens of summer, the warm reds, oranges, and yellows of autumn, and the muted whites and browns of winter. This shift must be consistent and natural-looking across all four images.

The lighting should match the expected weather and time of year for each season. Spring should have bright, soft light; summer, strong sunlight; autumn, warm, golden light; and winter, cool, diffused light. The rendering style (e.g., realistic, painterly) should remain consistent across all images.

Each image should visually represent the typical atmospheric conditions of its respective season, such as blooming flowers in spring, clear skies in summer, falling leaves in autumn, and snow or frost in winter, ensuring visual coherence and seasonal authenticity.

The tree's overall shape, branch structure, and bark texture should remain largely the same across all four images, with only the foliage and seasonal elements changing to reflect the time of year. This maintains the tree's identity throughout its seasonal transformations.

The tree's position within the scene and its orientation relative to the background should remain constant across all images. The background also needs to keep the same perspective and angle. The same relative positioning will aid in maintaining a seamless transition between the seasons.

The sequence of images must accurately depict the natural order of the seasons: spring -> summer -> autumn -> winter. The progression of changes in the tree (e.g., bud formation, leaf growth, leaf color change, leaf drop) must align with this order.

The density and distribution of foliage should logically correspond to each season. Spring should show emerging leaves and blossoms; summer, full, dense foliage; autumn, thinning foliage with changing colors; and winter, bare branches or snow-covered limbs.

Elements within the background, such as surrounding vegetation and weather patterns, should logically align with the depicted season. For example, snow-covered ground in winter, or wildflowers in spring. All backgrounds need to keep same positioning and angle.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a glacier retreating in a mountainous region over time.All images maintain realistic geological and thermodynamic accuracy, with consistent mountain topography and gradual environmental changes. The glacier's recession follows erosion patterns, and lighting shifts subtly to reflect seasonal or temporal progression. [TOP]-[LEFT]:A glacier fills a valley between sharp, snow-capped peaks. Thick ice shows deep crevasses, with minimal meltwater streams. Bare rock and sparse vegetation frame the glacier's terminus, emphasizing a cold, pristine environment. [TOP]-[RIGHT]:The glacier has noticeably thinned, with wider crevasses and turbulent meltwater rivers carving channels through the ice. Exposed rocky moraines appear at the edges, and patches of grass emerge near the valley floor under softer sunlight. [BOTTOM]-[LEFT]:The glacier is fragmented, reduced to a narrow ice tongue surrounded by braided rivers and sediment-rich lakes. Vegetation spreads across lower slopes, and eroded cliffs reveal stratified rock layers. Warmer-hued lighting suggests prolonged exposure to sun. [BOTTOM]-[RIGHT]:A small ice remnant persists at high elevation, surrounded by a vibrant valley with dense shrubs and alpine flowers. Smooth, weathered rock formations dominate the foreground, and the remaining ice exhibits rounded edges from sustained melting.

Please generate a scene of a glacier retreating over time, containing 4 images arranged in chronological order, showing the glacier gradually receding from a mountainous region due to rising temperatures. All images must follow the physical laws of thermodynamics and erosion.

All four images should maintain a consistent level of realism or stylization (e.g., photorealistic, painterly) to avoid jarring visual discrepancies and enhance the chronological narrative.

The depiction of weather conditions (e.g., cloud cover, haze) and atmospheric perspective should be consistent across images, reflecting the gradual warming trend while ensuring visual coherence and believability. The sky should be consistent.

Distinctive landscape features (e.g., specific mountain peaks, rock formations, prominent landmarks) should be consistently identifiable across all four images, serving as visual anchors and reinforcing the continuous geographic context. The main features should not be moved drastically from one image to the next.

The glacier's shape, crevasse patterns, and overall morphology should evolve logically and gradually between images, reflecting realistic ice dynamics and melting processes. The visual depiction should align with scientific understanding of glacier behavior.

The visual depiction of melting ice, water runoff, and vegetation changes should adhere to the laws of thermodynamics, such as displaying increased water flow as the glacier recedes and vegetation spreading from bare rock due to erosion and nutrient availability. No ice should be forming.

The visual depiction of erosion patterns, sediment deposits (e.g., moraines, outwash plains), and exposed bedrock should be logically consistent with glacial retreat. Expect to see sediment and rock exposure increase as the glacier diminishes.

The direction and volume of meltwater streams and rivers should logically increase over time and flow consistently across images, reflecting realistic hydrological processes associated with glacial melt. Stream direction should be consistent.

The chronological order of the images should be visually apparent and aligned with the concept of a receding glacier. Indicators such as water level, vegetation growth, ice volume and position, and erosion should clearly illustrate a timeline of glacial retreat from initial to final state.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a volcano's lifecycle across four chronological stages.All images maintain a realistic geological style, adhering to thermodynamics and fluid dynamics, with consistent volcano structure and naturalistic color transitions between stages. [TOP]-[LEFT]:A dormant volcano with a snow-capped peak under a clear sky. The slopes show hardened lava layers and minimal vegetation. Subtle wisps of steam rise from fissures, hinting at latent geothermal activity beneath a stable crust. [TOP]-[RIGHT]:Magma churns beneath the volcano's surface, visible through glowing cracks in the ground. The terrain bulges slightly, with increased fumarole activity releasing dense smoke plumes. The sky adopts a reddish hue from subterranean heat distortion. [BOTTOM]-[LEFT]:A violent eruption with pyroclastic clouds exploding upward. Lava rivers cascade down the slopes, demonstrating realistic viscosity and cooling patterns. Ashfall blankets nearby areas, with lightning cutting through the dark eruption column. [BOTTOM]-[RIGHT]:The volcano smolders quietly under a hazy, orange-tinged sky. Fresh lava formations solidify into jagged black rock, with residual steam rising from crevices. A crater lake begins forming in the caldera, reflecting lingering atmospheric particulates.

Please generate a scene of a volcano's eruption cycle, containing 4 images arranged in chronological order, showing the volcano from a dormant state, through magma buildup, active eruption, and then a calm post-eruption state. All images must follow the physical laws of thermodynamics and fluid dynamics.

The overall atmosphere (e.g., hazy, smoky, clear) should evolve logically across the images, reflecting the changes from dormancy to eruption and subsequent settling. Consider haze increase during magma buildup and eruption stages.

The color palette should shift in intensity and tone to match the eruption cycle, with cooler tones in the dormant phase, vibrant reds and oranges during eruption, and muted browns and greys post-eruption. These shifts must be consistent across the 4 images, depicting a gradual process instead of an abrupt change.

The level of detail in landscape elements (e.g., vegetation, rock formations) should remain consistent in terms of rendering quality and style across all images to maintain a cohesive visual narrative. If stylistic changes are employed (e.g. from realistic to more abstract or symbolic), they must be gradual and justified by the process itself.

Key features of the volcano (e.g., crater shape, cone size, surrounding terrain) should remain identifiable across all images, ensuring that it is clearly the same volcano depicted at different stages.

The layout and position of surrounding geographic elements like mountains, valleys, or bodies of water should remain constant to anchor the volcano within a consistent geographic context. These reference points should maintain relative positions and appearance.

The transformation from dormant to eruption should logically depict magma accumulation, pre-eruption seismic activity (e.g. small smoke plumes), the violent eruption phase, and the gradual decrease in activity post-eruption. The transition from one stage to another must be realistic and follow a logical sequence.

The lava flow should adhere to realistic fluid dynamics. Lava should originate from the volcano's vent, flow downhill following gravity, and cool/solidify as it moves away from the heat source. The direction and spread of ash and smoke should be consistent with wind direction and eruption intensity.

Heat signatures should align with the eruption phase. The dormant phase should show minimal heat, magma buildup a gradual increase, eruption the highest heat signature around the vent and lava flows, and the post-eruption phase a gradual cooling with remaining heat in the solidified lava.

The environmental changes around the volcano should be logically portrayed; e.g., vegetation withering and ash accumulation during eruption, followed by slow regrowth and landscape modification in the post-eruption phase.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the chronological migration of a sand dune under wind influence.All images feature a realistic desert landscape with accurate aerodynamic shaping of sand. Consistent lighting from a midday sun highlights granular textures, and wind direction remains uniform to emphasize logical progression of dune movement. [TOP]-[LEFT]:A crescent-shaped barchan dune with a steep slipface on the leeward side. Gentle wind streaks lift fine sand particles from the windward slope, creating a faint haze. The foreground shows smaller ripples aligned with the dominant wind direction. [TOP]-[RIGHT]:The dune’s crest shifts forward as sustained winds erode the windward slope. A distinct sand avalanche cascades down the slipface, capturing granular flow dynamics. Wind-driven sand accumulates at the dune’s advancing edge. [BOTTOM]-[LEFT]:The dune’s form elongates, with the slipface now partially collapsed. Turbulent eddies sculpt parallel ridges on the windward side. A trailing sand plume extends downstream, blending with distant haze. [BOTTOM]-[RIGHT]:The dune has advanced significantly, leaving a flattened remnant of its original shape. Fresh deposition forms a new slipface further downwind. Undulating ripple patterns dominate the surrounding terrain, illustrating cumulative displacement.

Please generate a scene of a sand dune migrating over time, containing 4 images arranged in chronological order, showing the dune's gradual movement across a desert landscape under the influence of wind. All images must follow the physical laws of aerodynamics and granular physics.

The color palette of the desert landscape, including the sand, sky, and any other elements, should remain consistent across all four images to represent a continuous environment and time of day.

The lighting conditions, including the position of the sun and the intensity of light and shadows, should be consistent to indicate the same time of day and atmospheric conditions throughout the dune migration process.

The rendering style used to depict the sand, sky, and other elements should be uniform across all images to maintain a consistent visual appearance, whether photorealistic or stylized.

If atmospheric perspective is used (e.g., distant objects appearing fainter), it should be applied consistently across all images relative to the apparent distance and depth.

The overall shape and volume of the primary sand dune should evolve realistically over time, neither gaining nor losing significant mass without apparent cause (e.g., merging with another dune, eroding substantially). The crest shape of the sand dunes should evolve gradually across the four images.

The surface texture of the sand dune, including ripple patterns and smaller formations, should evolve logically and consistently with the direction and intensity of the wind over the depicted time period.

Features in the surrounding landscape (e.g., smaller dunes, vegetation patches, rock formations) should remain consistent in their relative positions and characteristics across the images, except where realistically affected by the dune's movement or erosion.

The visual cues indicating wind direction (e.g., ripple alignment, sand plume direction) should be coherent across the images and align with the depicted migration of the dune.

The sand dune must move in a consistent direction and at a realistic speed across the four images, showing a clear chronological progression of its migration over time.

The shape of the sand dune should evolve in a manner consistent with the prevailing wind direction, with the windward side being more gradual and the leeward side potentially exhibiting steeper slopes and sand avalanches (if applicable).

As the dune migrates, evidence of sand deposition (e.g., lee dunes, sand sheets) should be visible in the areas behind the dune, aligning with the wind direction and migration path.

The images should depict a realistic balance between erosion on the windward side of the dune and accretion on the leeward side, reflecting the ongoing movement of sand particles.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the chronological growth of a single flower from bud to full bloom.All images follow natural phototropism principles, with consistent botanical accuracy in structure and light orientation. The flower gradually turns toward a unified sunlight direction while maintaining cohesive stem and leaf development across stages. [TOP]-[LEFT]:A tightly closed flower bud with sepals clasped around undeveloped petals. Early morning light comes from the upper left, casting long shadows. Young leaves near the base show fresh green hues with visible veins, while the stem curves slightly toward the light source. [TOP]-[RIGHT]:The bud begins to separate at its tip, revealing hints of colorful petals within. Midday sunlight now shines directly above, straightened stem demonstrating phototropic adjustment. Leaves have expanded into mature ovate shapes with textured surfaces. [BOTTOM]-[LEFT]:Half-opened bloom with petals unfurling in spiral phyllotaxis. Afternoon light angles from the right, illuminating dewdrops on curved petals. The flower head tilts decisively toward the light, supported by a sturdy vertical stem. [BOTTOM]-[RIGHT]:Fully expanded blossom with symmetrically arranged petals in peak vibrancy. Golden hour light bathes the flower from the front-right, creating depth through petal translucency. Mature leaves frame the bloom while maintaining consistent vein patterns and natural imperfections.

Please generate a scene of a flower blooming from bud to full blossom, containing 4 images arranged in chronological order, showing the flower's evolution from a closed bud to a fully opened blossom. All images must follow the natural laws of plant growth and phototropism.

The colors of the flower, stem, leaves, and surrounding environment should remain consistent across all four images, depicting a natural and continuous progression. Avoid sudden or jarring color shifts that don't align with natural growth.

The lighting direction, intensity, and rendering style (e.g., soft, diffused, sharp) should be consistent across the images. This ensures that the lighting appears to progress naturally with the passage of time and doesn't introduce artificial or distracting changes.

The background should maintain a consistent artistic style (e.g., watercolor, photorealistic, impressionistic) across all images. If the background is blurred or simplified, it should remain so consistently to avoid visual discordance.

The flower type (e.g., rose, tulip, daisy) should be consistently represented across all images. The shape, size, and arrangement of petals, stem, and leaves should evolve realistically from bud to blossom without changing species or exhibiting improbable alterations.

The structural form of the flower must progressively evolve, but retain the same fundamental identity. For example, the stalk should maintain consistent appearance and should change only in size or angle following phototropism.

The images must accurately depict the natural sequence of a flower blooming. The bud should gradually open, petals unfurl, and the overall size increase in a logical and temporally consistent manner, avoiding reversed or disjointed stages.

The stem and flower should exhibit a consistent phototropic response towards a light source. As the flower blooms, its orientation should realistically adjust towards the light, remaining consistent across the sequence.

The growth stages depicted should align with accepted botanical knowledge. Petal arrangement, stem elongation, and the overall form of the flower must evolve in a manner consistent with natural plant biology.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the chronological growth of a crystal in a supersaturated solution.All images maintain scientific accuracy in crystallization physics, featuring a transparent solution environment with suspended particles. Sequential stages emphasize diffusion dynamics and geometric structural development. [TOP]-[LEFT]:A clear liquid solution with faintly visible solute particles dispersed randomly. A minuscule seed crystal floats centrally, showing rudimentary geometric edges under refracted light. Subtle particle motion hints at initial molecular attraction. [TOP]-[RIGHT]:The seed crystal grows into a symmetrical hexagonal prism, with layered translucency. Particles flow radially toward the crystal surface, creating faint concentration gradients in the solution. Micro-bubbles form near the growing edges from rapid ion integration. [BOTTOM]-[LEFT]:A complex dendritic structure emerges, with primary arms extending along crystallographic axes. Secondary branches develop perpendicularly, casting microscopic shadows. The surrounding solution shows distinct depletion zones with slower particle movement. [BOTTOM]-[RIGHT]:A fully formed crystal dominates the frame, exhibiting sharp facets and internal light refraction patterns. Residual particles settle at the container base, while the solution appears less dense. Surface imperfections and growth striations add textural realism.

Please generate a scene of a crystal forming in a supersaturated solution, containing 4 images arranged in chronological order, showing the process from a small seed crystal to a fully developed crystal structure. All images must follow the physical laws of crystallization and diffusion.

The level of detail and sharpness in rendering the crystal and its surrounding solution should be uniform across all four images, allowing clear visualization of the crystal's growth stages.

The color and transparency of the crystal and the surrounding solution should remain consistent across all stages, avoiding abrupt color changes or shifts in opacity that are not physically plausible.

The background (e.g., container, light source) should remain consistent in style and appearance throughout the series to focus attention on the crystallization process itself.

The rendering style (e.g., photorealistic, stylized) should be consistent across all images to maintain a unified visual narrative of the crystallization process.

The fundamental shape of the crystal (e.g., cubic, hexagonal) should be consistent across all stages of growth, reflecting the intrinsic crystalline structure of the material.

If defects or inclusions are present, their location and nature should evolve logically from one image to the next, reflecting the dynamics of crystal growth.

The crystal should demonstrably increase in size and complexity in a progressive and physically plausible manner across the sequence of images, adhering to expected crystallization rates and patterns.

The state of the surrounding solution should appropriately reflect the stage of crystal growth, such as exhibiting decreasing supersaturation as the crystal consumes the dissolved solute.

The diffusion of solute molecules towards the crystal should be visually represented in a manner consistent with diffusion principles, showing a gradient of concentration around the crystal that evolves over time.

Temperature or disturbance parameters that are not explicitly specified but are implicit to the physical conditions that the images show should be consistent, such as constant temperature or degree of mixing.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the chronological stages of the rock cycle transformation.All images follow geological accuracy, featuring a cohesive natural color palette and realistic textures. Shared elements include transitional geological features like erosion patterns, mineral veins, and layered formations to emphasize continuity. [TOP]-[LEFT]:A volcanic landscape with molten lava flowing and cooling into jagged igneous rock formations. Steam rises from cracks, and the surface glows faintly with residual heat, showcasing crystalline textures in shades of gray and crimson. [TOP]-[RIGHT]:Weathered igneous rocks fractured by wind and rain, with eroded fragments accumulating in a riverbed. Sedimentary layers begin to form in a delta, with fine sand and pebbles settling in horizontal bands under a cloudy sky. [BOTTOM]-[LEFT]:Compacted sedimentary layers under pressure, visible as striated cliffs with embedded fossils and mineral deposits. A river cuts through the strata, revealing cross-sectional details of cemented grains and organic imprints. [BOTTOM]-[RIGHT]:Metamorphic rock formations with folded and banded patterns, created by intense heat and pressure. A mountainous terrain displays schist and gneiss textures, with glittering mica flakes and quartz veins under angled sunlight.

Please generate a scene of the rock cycle, containing 4 images arranged in chronological order, showing the transformation of rock types over time—from the formation of igneous rock, through weathering and sedimentation, to metamorphic rock. All images must follow the geological laws of rock formation and transformation.

The overall visual style (e.g., realistic, illustrative, cartoonish) should be consistent across all four images. If one image uses a highly detailed rendering, the others should match that level of detail.

The color palette used to represent the different rock types and geological processes should be consistent across all images. For example, magma should consistently be depicted with similar shades of red and orange.

The artistic techniques, such as shading, line work, and texture rendering, should be uniformly applied across all images to maintain visual coherence.

The level of abstraction or realism should remain constant. If one image is highly realistic, the others should not be overly stylized or abstract.

Each rock type (igneous, sedimentary, metamorphic) should have a distinct and consistently applied visual identity across all stages. Their textures, colors, and general appearances should remain recognizable.

If specific minerals are depicted, their appearance (color, shape, luster) should be consistent across all images. For instance, quartz should always look like quartz.

Elements like water, wind, and sunlight which drive weathering and erosion should be represented consistently in terms of visual impact and stylistic execution across the images.

Each image must accurately depict the corresponding stage of the rock cycle according to geological principles. The processes of melting, cooling, weathering, erosion, compaction, cementation, heat, and pressure must be depicted with geological correctness.

The images must accurately follow the chronological order of the rock cycle, starting with igneous rock formation, progressing through weathering and sedimentation, and concluding with metamorphic rock formation.

The transitions between rock types should be visually represented. For example, the weathering of igneous rock should show physical breakdown and transport of materials that later form sedimentary rocks.

The environments depicted (e.g., volcanic area for igneous, riverbed for sedimentary, high-pressure zone for metamorphic) should be logical and appropriate for the geological processes occurring.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting a single candle in progressive stages of burning under realistic physical conditions.All images maintain a consistent candle design with a cream-colored wax body and a cotton wick, set against a plain dark background. The progression adheres to heat transfer principles, with wax melting patterns, flame dynamics, and smoke trails evolving logically over time. [TOP]-[LEFT]:A tall, pristine candle with a bright, steady flame emitting thin wisps of smoke. The wax surface near the wick begins to glisten slightly, showing initial melting. The base remains solid, with no drips yet visible. [TOP]-[RIGHT]:The candle height reduces moderately, with melted wax forming a small pool around the base. The flame flickers faintly, casting uneven light on thickened molten wax cascading in slow, gravity-driven drips down the sides. [BOTTOM]-[LEFT]:The candle is now half its original height, with a distorted, uneven top edge. The flame dims slightly, surrounded by a wider molten pool. Dried wax stalactites form on the candle's body, and smoke trails become more prominent. [BOTTOM]-[RIGHT]:A stub of wax remains, with a small, unstable flame hovering above a deep, wide pool of liquefied wax. The base shows layered drips hardened at different angles, and smoke disperses diffusely into the surroundings.

Please generate a scene of a candle burning down, containing 4 images arranged in chronological order, showing the candle gradually melting, shortening, and dripping wax as it burns. All images must follow the physical laws of heat transfer and combustion.

The level of detail, photorealism, or artistic style (e.g., painterly, illustrative) should be consistent across all four images to maintain a unified aesthetic representation of the candle burning.

The color palette used to depict the candle and its surroundings should remain consistent across the sequence, accounting for changes in lighting as the candle burns down. The glow and flame colors should evolve realistically but remain harmonized.

The texture of the candle wax (e.g., smooth, grainy, glossy) and the materials around it should be rendered consistently across all images. The rendering of melted wax and solidified drips must maintain consistent visual properties.

The basic shape and physical characteristics (e.g., diameter, initial height, specific details like patterns or embedded elements) of the candle should be consistently portrayed, only altering according to the burning process across the chronological sequence.

The appearance of the flame (color, shape, intensity) should be coherent across all stages, demonstrating a natural progression from a strong, bright flame to a smaller, dimmer one as the candle diminishes.

The depiction of the candle melting must follow realistic heat transfer principles. The wax should melt primarily near the flame, with drips forming and solidifying in a manner consistent with gravity and cooling effects.

The sequence of images should accurately depict the candle's gradual reduction in size, with the flame moving lower as the candle shortens. The amount of melted wax and drips should increase progressively in subsequent images.

The distribution of melted wax should be logically consistent, accumulating around the base and sides of the candle, flowing in a way that matches gravitational pull, and solidifying in realistic formations.

If the scene involves any soot or smoke, its development should be logically tied to the burning process, gradually appearing as the candle burns and potentially becoming more visible as the candle nears its end.


Prompt: FOUR-PANEL Images with a 2x2 grid layout documenting the ecological recovery of a forest landscape after wildfire devastation.All images follow a cohesive timeline of natural regeneration, maintaining scientific accuracy in depicting ecological succession stages. Consistent muted-to-vibrant color transitions and symbolic elements like resilient saplings anchor visual continuity. [TOP]-[LEFT]:A bleak panorama of freshly burned terrain with blackened tree skeletons against ashen soil. Smoke wisps linger near cracked earth, with no visible vegetation. Charred logs dominate the foreground under a hazy orange-gray sky, establishing the initial post-fire desolation. [TOP]-[RIGHT]:Emerging green shoots pierce charcoal-rich soil, forming patches of moss and fireweed. Young ferns unfurl near a rainwater pool reflecting sparse saplings. Beetles crawl over decaying wood, with distant birds circling in a clearing sky, signaling life's resurgence. [BOTTOM]-[LEFT]:Vibrant undergrowth thrives beneath recovering birch clusters, their white bark scarred by fire. Fox kits explore fallen logs covered in fungi, while wildflowers bloom near a trickling stream. Dappled sunlight filters through young canopy layers, showing habitat complexity. [BOTTOM]-[RIGHT]:A mature mixed forest with fire-resistant sequoias towering over diverse vegetation. Deer graze near berry bushes as birds nest in snag trees. New growth coexists with charcoal patterns on ancient bark, illustrating nature's cyclical renewal under a sunlit canopy.

Please generate a scene of a forest regenerating after a wildfire, containing 4 images arranged in chronological order, showing the progression from a charred landscape to the regrowth of vegetation and the return of wildlife. All images must follow the natural laws of ecological succession and regeneration.

The color palette should evolve consistently across the four images, starting with predominantly grayscale and black tones in the initial charred landscape, gradually introducing browns and tans, and culminating in vibrant greens and natural hues as vegetation recovers.

The rendering style (e.g., photorealistic, painterly, illustrative) should remain consistent across all four images to avoid jarring visual discrepancies and maintain a cohesive aesthetic.

The application of atmospheric perspective (e.g., blurring distant objects) should be consistent across the images to accurately depict depth and distance, enhancing the realism of the environmental transition.

The texture detail should gradually transition from emphasizing burnt and ashy surfaces in the first image to showcasing emerging plant textures (e.g., sprouts, leaves) and increasingly complex forest floor details in subsequent images.

Major geographic features like hills, rivers, or rock formations should maintain consistent shapes and positions across all four images to establish a stable landscape identity.

Identifiable tree stumps or unique rock formations, if present in the initial charred landscape, should persist and remain recognizable in later stages, serving as visual anchors and showing continuity over time.

The position and angle of the sun (or dominant light source) should be consistent across the images, with gradual changes in illumination perhaps suggesting time of day shifts, but maintaining overall lighting harmony.

The sequence of plant growth should adhere to natural ecological succession principles, showing appropriate early colonizers (e.g., grasses, ferns) followed by shrubs and then eventually trees, accurately depicting realistic plant species regeneration based on region.

The visual representation of ash and soil conditions should logically decrease and transform over time, starting with heavy ash cover and gradually revealing fertile soil as vegetation re-establishes and decomposes organic material.

The depiction of wildlife should follow a plausible timeline, with initial absence or limited presence in the charred landscape gradually increasing in diversity and abundance as the forest regenerates, reflecting ecological recovery.

The area of visible burn scars should progressively reduce across the images, indicating the natural healing process and the gradual concealing of damage by new vegetation.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the cyclical motion of ocean tides influenced by gravitational forces.All images maintain realistic fluid dynamics with consistent coastal geography, featuring jagged rock formations and a distant horizon. Lighting follows a uniform midday sun angle to emphasize tidal changes under stable environmental conditions. [TOP]-[LEFT]:Low tide revealing exposed wet sandbars and tide pools surrounded by barnacle-covered rocks. Gentle waves barely reach the shoreline, with shallow water reflecting sunlight in thin, rippling patterns. Stranded seaweed clusters dot the damp sand. [TOP]-[RIGHT]:Incoming tide with advancing waves forming curved crests that crash against partially submerged rocks. Foam trails spread across the deepening water as the sea encroaches further up the beach, erasing earlier tide pool outlines. [BOTTOM]-[LEFT]:Peak high tide submerging all coastal features under churning water. Powerful waves collide with cliff bases, creating vertical spray plumes. Floating debris and dense foam patches swirl in the turbulent currents. [BOTTOM]-[RIGHT]:Receding tide exposing freshly carved channels in the sand as water drains seaward. Diminished wave energy leaves residual pools between rocks, with thin streams reflecting the lowering sun's golden light.

Please generate a scene of the tide rising and receding, containing 4 images arranged in chronological order, showing the tide moving from low tide to high tide and returning to low tide. All images must follow the physical laws of fluid dynamics and gravitational forces.

The color scheme representing the water (e.g., shades of blue, green, and gray), sky, and land should remain consistent across all four images to maintain a unified visual narrative of the tide's progression.

The light source (e.g., sun position, cloud cover) and its effect on the water's surface (e.g., reflections, shadows) should be consistent and realistically rendered to reflect the time of day and atmospheric conditions as they would plausibly change over the tidal cycle.

The style and level of detail in representing the waves, ripples, and foam should be consistent across the images, ensuring a cohesive visual representation of the water's texture at different tidal stages.

The general aesthetic (e.g., photorealistic, painterly, stylized) should be uniform across all four images, preventing jarring shifts in visual presentation that disrupt the sense of chronological progression.

Identifiable landscape features (e.g., rock formations, specific vegetation, distant mountains) must remain consistent in appearance and relative position across all four images, acting as anchors to track the tide's movement.

Any fixed objects present in the scene (e.g., piers, boats anchored at the same spot) should maintain their position and appearance throughout the sequence, unaffected by the tidal changes in a physically plausible way.

The water level must realistically increase from low tide to high tide in the second and third images, and then decrease back to low tide in the final image, adhering to a logical chronological sequence. The change between each image should represent the passing of time.

Wave size and behavior should correlate with water depth. Waves should be smaller and break closer to the shore at low tide, becoming larger and extending further inland as the tide rises. The physical interaction between the water and the land should be believable.

Areas that are submerged at high tide should be exposed at low tide, following a logical progression of inundation and recession. The extent of submersion should match the depicted water level at each stage.

The direction of water flow should be consistent with the overall tidal movement. For example, during the rising tide, water should predominantly move inland; during the receding tide, it should primarily move seaward.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the metamorphosis of a butterfly from caterpillar to fully formed adult.All images follow natural biological progression with realistic details, set in a cohesive environment of foliage and branches to emphasize growth continuity. [TOP]-[LEFT]:A detailed caterpillar crawls on a green leaf, its striped body textured with tiny hairs. The background shows soft sunlight filtering through dense foliage, emphasizing the early stage of life. [TOP]-[RIGHT]:A chrysalis hangs from a sturdy twig, its translucent surface revealing faint outlines of developing wings. Dewdrops cling to the twig, and muted colors suggest the stillness of transformation. [BOTTOM]-[LEFT]:The chrysalis cracks open as the butterfly emerges, wings crumpled and damp. Delicate veins are visible on the wings, and the body glistens with moisture under gentle morning light. [BOTTOM]-[RIGHT]:A mature butterfly with vibrant, fully expanded wings rests on a flower. Intricate wing patterns contrast against blurred foliage, capturing the final stage of metamorphosis in a sunlit environment.

Please generate a scene of a butterfly emerging from its chrysalis, containing 4 images arranged in chronological order, showing the metamorphosis from a caterpillar, to a chrysalis, to an emerging butterfly, and finally a fully formed butterfly. All images must follow the natural laws of metamorphosis and growth.

All four images should exhibit a unified rendering style (e.g., photorealistic, painterly, illustrative). Maintaining a consistent artistic style across all stages of metamorphosis will enhance visual coherence.

The color palette used across the four images should be consistent to create a sense of visual unity. This includes the colors of the butterfly, chrysalis, and surrounding environment.

The level of detail in the surrounding environment (e.g., leaves, branches, background) should remain consistent across the sequence, providing a stable and unified backdrop for the butterfly's transformation.

The butterfly species depicted should be consistent throughout the sequence. Key identifiable features, such as wing patterns and body shape, must be preserved as it transforms from caterpillar to butterfly.

The caterpillar shown must have realistic features that can evolve into the chrysalis and butterfly features. For example, the legs number and location has to lead to butterfly's legs.

The chrysalis should display characteristics indicative of the butterfly species within, showing credible transition markers (pattern hints, emerging wing shape hints) from the caterpillar form to the anticipated butterfly form.

The sequence of images must accurately depict the natural order of metamorphosis, with a clear progression from caterpillar to chrysalis, then to emerging butterfly, and finally to a fully formed butterfly.

Each stage of the transformation should adhere to the biological realities of butterfly metamorphosis, showing realistic changes in form, color, and structure between stages.

The environment depicted in each image should be logically consistent with the butterfly's life cycle. The presence of suitable food sources for the caterpillar and appropriate habitat for the butterfly should be maintained.

The relative size and proportion of the butterfly at each stage (caterpillar, chrysalis, emerging, and fully formed) should remain consistent and realistic within the scene. There should be no sudden or inexplicable changes in scale.


Prompt: FOUR-PANEL Images with a 2x2 grid layout depicting the chronological stages of a glacier calving event.All images maintain scientific accuracy in thermodynamics, buoyancy, and fluid dynamics, featuring consistent glacial textures, cold color palettes, and environmental elements like seawater and ice debris. [TOP]-[LEFT]:A massive glacier wall with emerging fissures under atmospheric pressure. Sunlight reflects off crystalline ice surfaces while meltwater streams cascade down crevasses. The foreground shows tension lines radiating through the ice structure. [TOP]-[RIGHT]:A triangular ice chunk partially detached from the glacier main body, suspended mid-fall. Spraying water droplets and cascading ice fragments capture the moment of separation. The surrounding seawater churns with initial displacement waves. [BOTTOM]-[LEFT]:The ice block fully submerged in turbulent seawater, creating a dramatic splash plume. Foaming waves radiate outward with floating brash ice. The glacier face shows freshly exposed blue-hued ice layers post-calving. [BOTTOM]-[RIGHT]:The iceberg floating steadily in calm waters, rounded edges from melting. Smaller ice fragments disperse around it, with subtle water ripples and condensation mist rising from its surface. Distant glacier face appears reduced in size.

Please generate a scene of glacier calving, containing 4 images arranged in chronological order, showing a chunk of ice breaking off from a glacier and floating away into the sea. All images must follow the physical laws of thermodynamics, buoyancy, and fluid dynamics.

All four images should share a similar environmental tone, ensuring visual cohesion across the evolving scene. Factors such as light temperatures (cool to indicate ice), and the overall colour grading of the scene should be unified.

The level of detail in the environment (glacier texture, sea surface) should be consistent across all four images. Maintaining a similar level of realism throughout will enhance the credibility of the scene's progression.

The composition and framing of each image should maintain consistency (e.g., camera angle, subject placement) to ensure smooth visual storytelling of the calving event.

The water in all images must show the same level of detail and render. If the images were presented in a video format it would appear as if the water rendering changed radically.

The glacier should have consistent visual properties (e.g., color, texture, ice composition) across all four images, ensuring it is recognizably the same body of ice.

The specific ice chunk that breaks off should be identifiable across all images, maintaining its unique shape and internal features (e.g., sediment layers, cracks). Its physical characteristics must not abruptly change.

The water that the ice is calving into should look like the same body of water across the images. The water should not appear dirty in one image, and clean in another for example.

As the ice chunk detaches and drifts away, the total mass/volume of the glacier should noticeably decrease, and the volume of the sea should show a subtle increase when the ice melts. Total mass must remain constant to adhere to fundamental physical laws.

The ice chunk, once separated, must float realistically in the water according to buoyancy principles. The portion of ice submerged should correspond to its density relative to the water, ensuring logical floating behavior.

The sea around the calving event should show realistic fluid dynamics. This includes disturbances of water with the correct displacement and flow direction, ripples and waves emanating from the ice chunk's movement, and meltwater effects, all following natural behavior of fluids under such conditions.

The images must respect thermodynamic principles. The depiction of melting should correlate with ambient temperatures. The ice chunk may melt over the series of images, with meltwater realistically mixing into the sea. Energy must be conserved between images.