生成 html,一个以鹈鹕骑自行车为主题的 3D 网页跑酷游戏, 所有中间文件一并保留不要丢弃,最终...

创建于:2026年9月6日

使用 GPT-6 Pro 回答 Chat01

问题

生成 html,一个以鹈鹕骑自行车为主题的 3D 网页跑酷游戏,
所有中间文件一并保留不要丢弃,最终输出的 HTML 只要编译成单 HTML 即可。
没有要求和限制,请向我展现你的能力上限,效果越好我越满意,不用限制最终生成 html 文件的大小。

思考

Evaluating tools

I’m gathering info on technical tools like Playwright, Three.js, and web search strategies, ensuring they meet the game’s ambitious goals.

Crafting visual details

Coding for a pelican on a bike. Designing a vibrant 3D scene with a pelican, bicycle, and eye-catching animations.

Evaluating timeout scenarios

I'm working through a timeout issue that occurs after 200 seconds. This seems to stem from installation delays or updates, suggesting room for process optimization.

Identifying container constraints

Noting disabled features and potential file system adjustments.

Streamlining the process

I’m thinking through efficiently accessing the library through the exact URL for web open unpkg. This approach should streamline the process effectively.

Evaluating options

I'm thinking about implementing a WebGL engine manually, but managing resources and offline handling can be tricky.

Inspecting files
I’m analyzing the gradio bundle files, especially those with minified exports. This involves opening and examining the contents carefully to understand their functionality and structure.

Evaluating routing options

I'm mapping out the best route library for a Plotly bundle, considering Gradio 3D and Babylon for consolidation.

Evaluating alternatives

Creating a custom WebGL engine is tempting, but integrating Babylon.js seems more efficient.

Extracting Babylon core

I'm extracting the Babylon core using an inlined module loader, recursively embedding dynamic dependencies and resources with data URLs, and mapping imports and classes dynamically to collect main and reachable dependencies.

Consulting trimesh resources

I'm piecing together THREE-related info. Using Babylon offline with automatic alias extraction and importmap bundling. Progressing through dependencies and static methods.

Addressing engine approach

The conversation is about finalizing the engine approach by appending export named classes to bypass existing libraries, transforming ESM all dependencies, and ensuring sphere builder definitions on Mesh static stub import.

Reflecting on bundle limits

Wondering how Babylon's bundle size impacts import inclusions and the future potential of defining builder spheres inline.

Crafting shader exports

I'm digging into constructing shaders with the Babylon engine. This means pulling out core modules and refining export specifics like V Engine and tt Scene for precision.

Testing Babylon features

Mapping out Babylon's advanced graphics, including custom geometry, shadows, and shaders. I’m ensuring efficient module handling and visual quality through detailed aspect analysis.

Navigating offline content

OK, let's explore using a local HTTP server through Python to test offline file restrictions. Need to confirm browser management of policy and file size limits.

Evaluating budget strategies

I’m mapping out how to stretch a hefty budget to efficiently manage and review URLs, even contemplating about:blank for alignment.

Examining Chromium flags

Taking a closer look at Chromium flags, assessing their impact on environment policies, and ensuring security constraints are met with alternative binaries.

Assessing WebGL testing

Wondering about WebGL testing and policy constraints. Considering offline testing to avoid policy conflicts.

Adjusting system priorities

Ensuring timely delivery remains the focus, setting aside token budget concerns.

Ensuring environment readiness

I'm checking if the display is set or needs Xvfb.

Piecing together the strategy

I'm implementing code with Babylon, confirming shader imports, and ensuring all third-party licenses are intact. Prioritizing offline functionality and optimizing performance. Progress is steady and focused.

Mapping out shadow dynamics

Aligning cylinder shadows to light, tweaking positions, and fine-tuning camera views and angles to capture the game's aesthetic essence.

Mapping scenic routes

I'm planning a seaside escape with a wooden pier road. The path will curve gracefully, blending seamlessly with the coastal beauty and thoughtfully spaced structures.

Creating a dynamic sky

I’m crafting a dynamic sky system with four biomes, each displaying unique colors during morning, afternoon, sunset, and night. Techniques like smooth color interpolation, sphere shaders, and procedural cloud distribution are being implemented to enhance atmospheric realism.

Crafting shaders

Focusing on creating a standard shaderMaterial for Babylon, covering vertex and fragment sources, uniforms, and custom shaders for water and sky.

Crafting the update
actively working on finalizing the necessary updates.

Combining game elements

Piecing together game.js to import geometry and audio, then merging static and dynamic meshes using Babylon's Mesh.MergeMeshes for optimal performance.

Crafting beach props

I’m piecing together a lifeguard station, adding candy-striped awnings, mooring posts, and a lighthouse. Creating a captivating boardwalk with dynamic vertices, intersecting lanes, and turquoise trim. Prominently displaying a textured "SURF CLUB" sign.

Mapping the system

Piecing together the technical elements, focusing on mesh instancing, audio management, and procedural synthesis for optimal performance. Integration of sound controls ensures intuitive user experience.

Crafting the game

I’m scripting the game mechanics, including sound effects and volume control. Next, working on geometry and audio!

Setting up the engine

I’m finalizing the game scene by configuring graphics. This involves setting anti-aliasing, screen resolution, and hardware scaling. I’m also focusing on dynamic object optimization and camera adjustments for optimal tracking.

Mapping camera angles

I’m tweaking the camera to get the player and pelican in view, adjusting the field of view and placement to ensure a clear, engaging perspective.

Mapping out bird model

I’m detailing a pelican model with intricate geometry and scaled parts. Adjusting limb dynamics and rig alignment for lifelike movement.

Mapping the setup

I’m setting up textured shapes and colors, aligning them with a bicycle ring and coordinated feathers. Each element is purposefully placed to match its form.

Mapping out configurations

Piecing together the bike's components: crank ring, pedals, handlebar, front basket, rear rack, and accessories like the tail lamp and flag mast, all carefully positioned for optimal alignment.

Developing game mechanics

I'm outlining detailed gameplay entities, spawn patterns, and collision dynamics, ensuring a smooth and engaging user experience by considering various factors such as biomes, achievements, obstacles, and player actions.

Trying different tactics

Coins are collected when an object is within specific x-coordinate thresholds or crossing them, with conditions on vertical and horizontal differences.

Testing the state

I’m gathering info on using window.PelicanCoast to inspect game states, ensure fairness, and capture screenshots.

Managing jump mechanics

Adapting to key dynamics, setting up boost, and handling states.

**Examining visuals

I'm curious about the end-scene slowdown and score mechanics.

Refining visuals

Thinking through road safety with fog and distant views. Spawning entities carefully to avoid non-lane crossings, ensuring animations stay precise and theme colors blend smoothly.

Crafting simulation dynamics

Setting up motion dynamics for obstacles, coding loop rendering events, and refining shadow and lighting effects for a simulation.

Cracking the code

I’m analyzing how objects and collisions affect gameplay. The system handles paused states, input updates, and physics simulations, ensuring smooth movement and collision detection.

Incorporating gameplay mechanics

I'm combining collision checks with lane positioning. Dynamic hints refueling options and lane state consistency ensure smooth transitions and clear progress tracking.

Mapping out event responders

I'm thinking through controlling modal start behavior with touch gestures and pointer events, ensuring accessibility and responsiveness.

Testing configurations

I'm exploring various settings, analyzing log outputs, and ensuring diagnostic captures are effective. Progressing through different components to validate functionality.

Testing scene breaks

I’m thinking through the issue by testing different scenes, including a heavy shader compile and loop-rich options, to identify the problem.

Tackling potential issues

I'm working through debugging mesh explosions and baking performance. It involves using tools like Mesh.MergeMeshes and managing console logging to avoid overload.

Evaluating initial frame

I’m focusing on the first frame rendering performance, considering factors like shadow casters, mesh counts, and shader compilation to identify stalls and optimize GPU efficiency.

Navigating image textures

It's interesting to see how texture errors impact page display, keeping me focused on debugging strategies.

Extracting visual insights

Taking a closer look at the sea engine's design and functionality.

Engineering the character's appearance

Scaling and cloning shapes impact the character's unique features, leading to issues like enlarged rings and distorted shapes. Micro adjustments are key to achieving a cohesive look.

Investigating mesh issues

I’m digging into problems with merged fish meshes, checking if scaling before baking affects vertex sizes and positions. It seems the native merge might use the first mesh as the root, causing unexpected transformations and potential GPU errors.

Adjusting camera settings

Piecing together camera position and target adjustments to avoid overlapping and ensure clear, visually appealing imagery within the constraints of aspect ratios and projection details.

Testing shadow settings
I’m adjusting the shadow settings to avoid overexposure and achieve a more natural look for the scene. Progressing towards better lighting with Sun1.75 and hemi.9.

Evaluating visual aspects
Examining colors, normals, and lighting for prototype rendering. Progressing through adjustments and examining clones.

Evaluating shadow mechanics

Considering adjustments to shadow hangs for diagnosing node issues. Freezing smoke and rendering with true shadows are options worth exploring.

Evaluating budget options
I'm working through extensive budget levels, ensuring they align with current needs.

Model issues and geometry bugs

Analyzing render issues

I’m piecing together ongoing GPU performance and optimizing complex render tasks by conducting manual frame tests and employing high-quality settings.

Monitoring performance

Setting up a console.log in the frame variable updates every frame. This helps analyze the rendering loop and browser timeout efficiently.

Analyzing optimization needs
Evaluating current 3D rendering issues, focusing on GPU load, frame rate, and screenshot tactics. Considering dynamic shadow management and disabling animations temporarily for better visuals.

Mapping strategy

  • I’m organizing geometry, using static batching for efficient mesh management, and considering fog settings to balance performance and visibility.

Refining bake normalize

I’m working on enhancing bake normalize root parent, focusing on ensuring local coordinate preservation and optimizing child updates. Adjustments like transforming root position/rotation temporarily and updating world root matrix post-temp zero are key strategies.

Tweaking the view

OK, I’m adjusting lighting and shadows for a sharp, dramatic look. Trying out different exposures and sky colors to find the best match.

Testing GPU performance

OK, let me see. I'm digging into Active Test's GPU endurance. The recompile's pace and first image save's progress, gauging response to high workloads.

Investigating rendering issues

I’m digging into artifacts like large white black triangles and shadow problems. File data suggests issues with shadow maps, light projection, and geometry clipping. Progressing through these aspects to pinpoint the root cause.

Optimizing geometry and performance

OK, let me see: tweaking cylinder geometries, fine-tuning indices, and tweaking debug flags. Each step boosts reclaiming elements and managing GPU demands.

Analyzing system tokens

I'm digging into special system tokens that reset with time-bound user waits, checking snapshot positions, verifying list index issues, and analyzing mesh scaling problems.

Handling mesh distortion

I'm focused on adjusting vertex data references in meshes. Ensuring consistency of template shared vertices prevents distortion and maintains performance.

Consulting policies

I'm consulting OpenAI's policies to see if more detailed insights can be applied here.

Tracking progress
OK, let me see: URL works, taking screenshots after 1.5 seconds, saving with timestamps.

Enhancing bird details

Refining lighting and positioning for improved clarity. Birds now shine brightly, surrounded by a vibrant sky, creating a more captivating scene.

Evaluating shadow options

I'm working through shadow generation, weighing the pros and cons of PCF and Poisson methods for optimal visual quality and efficiency.

Blending features

Mixing pelican wings, bike handlebars, and a cyclist character with a geometric ocean scene, aiming for a unique and cohesive design.

Taking a closer look

I'm reevaluating the design elements, focusing on warmth, readability, and visual balance. Adjustments are considering layout, color accuracy, and spatial organization.

Adjusting camera angles

I’m piecing together the camera's vertical position to better align the tire and head in view, ensuring they occupy optimal screen space.

Adjusting camera angles

I'm refining the camera settings to enhance the view of the hero character. Adjusting the field of view (FOV), shift, and height to ensure optimal framing and visibility.

Enhancing game performance

I'm digging into optimizing responsiveness and performance, focusing on draw calls and ecological quality. Testing adaptive scaling, shadows off after 3 seconds, and integrating real-time performance analytics.

Piecing together road segments

I’m combining road chunks into a single dynamic mesh and updating their positions and structures efficiently for each frame, considering the necessary transformations and render optimizations.

Analyzing active mesh and shadows

I'm focusing on managing active meshes and shadow updates for the old road chunk meshes, considering performance impacts and GPU utilization.

Mapping out improvement

I’m working on enhancing road and shore geometry in the game for better performance and visuals, targeting faster GPU processes and lower CPU load.

Evaluating screenshots

I’m assessing screenshots of reviewall4 to ensure they meet organizational standards and guidelines.

Evaluating visuals

I'm examining the coloring of the pelican's body and its contrast with the ocean. Adding effects like glow or depth of field could enhance visual appeal. Progressing beyond aesthetics, addressing gameplay issues is crucial.

Adjusting camera angles

OK, let me see. Positioning the pelican camera carefully to prevent vanishing objects. The aim is steady, minimally intrusive adjustments.

Adjusting for optimal fit

I’m tweaking the postcard layout for mobile view: reducing height to 131px, adjusting bottom margin to 17%, and ensuring the character and elements align seamlessly with the mobile screen, preserving the landscape format.

Enhancing readability

I’m working on boosting the character's visibility and ensuring fonts are clear and readable, adjusting UI elements for better aesthetics.

Piecing together technical details

I'm gathering information on software licenses, specifically Apache 2.0 and BSD 3, and their requirements for code attribution and use.

Noticing progress

Interestingly, the player's movement isn't yet halted when the spawn conditions are met. The initial spawn order needs tweaking.

metaphorically setting up

I'm initializing objects, setting max fish, and adjusting rotation. Considering shadow mapping, particle settings, and accessibility features for a smooth user experience.

Capturing screenshots

It's interesting to see that no explicit options were provided for a screenshot, but it was added to showcase light and architecture.

Retaining key assets
I'm retaining all critical assets like source code, dependencies, build scripts, and test records.

Mapping out shader use

I’m working through per pixel caustics on canvas with 60% coverage, which could be pricey on mobile. Implementing the button now.

Crafting the atmosphere

I’m working on a presentation detailing the star shader's actual frame rendering, particle boosts, and starlayer effects, while ensuring it accurately represents the real game pipeline.

Enhancing visibility

I’m tweaking the lighthouse appearance by updating material colors, ajustarig sails, and adding visual elements like sea buoys and a pelican logo.

Revisiting project documentation

I'm piecing together project instructions, focusing on clear English components paired with consistent Chinese content. I’m making sure the file tree uses ASCII bullets and highlights the design concept and statistics.

Mapping out script essentials

I’m charting the script's components, ensuring it handles different file formats and URLs, and stays compliant with licensing and user preferences. Progress is steady and the script's structure is becoming clear.

Ensuring proper licenses

I'm gathering info on confirming licenses, including multiple embedded ones, and inspecting the imported module library for compliance.

Verifying script details

Checking the script's specifics and ensuring the UI controls' descriptions match the final file with accurate licenses.

Tracking computations

I'm mapping out the use of significant computational resources and ensuring no code artifacts are lost during this process.

Clarifying project details

OK, let me see. I’m noting the need for clarity. Ensuring technical precision and operational readiness is crucial.

Versioning options

Tracking packages and runtime status, contemplating WebRO interface preferences, optimizing visual elements, and ensuring accurate lighting and particle effects.

Creating README

I’m working on a README for a Python-and-Unicode project, focusing on encoding Chinese strings with \u escapes to ensure compatibility with all-ASCII container requirements.

Final adjustments

OK, let's finalize the mobile home setup, ensuring the highest quality screenshots and avoiding fake input. Checking for functional issues and layout adjustments.

Compiling files

I’m gathering all intermediate files, including source codes and old snapshots, to archive and ensure availability. This includes final version and lost intermediates, maintaining file completeness.

Pinpointing user needs
OK, let me see. Highlighting key features and adding a preview image. Emphasizing essential links and controls, ensuring clarity and purpose.

Worked for 31m 32s

回答

PELICAN COAST · 鹈鹕海岸

一只鹈鹕,一辆单车,一整个不想结束的夏天。

成品与完整工程

下载单文件 HTML,开始骑行
所有代码、3D 模型、界面和声音都已内联,无需安装、无需联网、无需另外下载素材

下载完整工程 ZIP:源码、全部中间文件与测试材料
保留了 50 个文件,包括模块化源码、构建脚本、编译中间产物、历次 HTML 快照、各阶段截图、测试脚本、日志和中文说明。

鹈鹕海岸实际浏览器画面

这次做进了什么

真正实时运行的 3D 海岸。 原生 WebGL2 渲染,程序化海面、棕榈、彩色建筑、灯塔、帆船与栈道。随着骑行距离推进,场景会从晨光港湾走向棕榈小径、落日海角,再进入星光灯塔。

一只认真骑车的鹈鹕。 主角 PIP 有长喙、喉囊、薄荷帽和珊瑚围巾;脚掌随踏板转动,车轮旋转,腾空时展开双翼。自行车提供三种配色,还可以导出当前场景的明信片截图。

完整的跑酷循环。 三车道变道、跳跃、二段振翅、低头穿杆、收鱼连击,以及护盾、磁吸、羽毛道具。攒满能量后发动尾风冲刺,进入短暂的加速无敌状态。另有单局任务、渐进难度、结算面板与本地纪录。

挑战与放松都能玩。 「海岸挑战」用三颗爱心争取更远纪录;「自在漫游」不扣爱心,适合一路看海。配有程序合成的海浪、轻音乐与交互音效,并支持触屏、画质设置和减少镜头运动。

操作

动作键盘
左右变道A / D← / →
跳跃/空中再次振翅SpaceW
低头/空中快速下落S
满能量尾风冲刺Shift
暂停/继续PEsc

手机端提供屏幕按钮,也支持左右滑动换道、上滑跳跃、下滑低头。

验证结果:37 项集成检查全部通过,覆盖真实 WebGL2 初始化、键盘与触控输入、碰撞、道具、暂停、重开、长时间对象回收等;测试中未发现外部资源请求或未处理的脚本异常。测试采用 Chromium 桌面与触控模拟视口,实机手机兼容性和持久化存储仍会受浏览器策略影响,详细边界已写入工程说明。

下载 HTML 后,用支持 WebGL2 的浏览器打开即可。聊天窗口内的文件预览可能不执行游戏脚本,应保存后在浏览器中打开。

分享这个问答