Skip to main content
100%

Gist b44b034e2ab3689f897d3c0d9d41569a

✓ Published0🌍 Public
Aandybak
Last edited May 25, 2018
Created on May 25, 2018

This example shows a Unity script that animates a post-processing vignette effect on a camera, smoothly fading its intensity in or out based on a boolean input. The code uses the DOTween tweening library to interpolate a `vignIntensity` field over a specified duration, while a `PostProcessingBehaviour` component references its attached `PostProcessingProfile` to update the vignette settings in real time. The animation updates the profile’s `VignetteModel.Settings` each frame, and on completion clears the tween reference. The script reads the profile directly from the camera’s behavior, making it suitable for runtime effects.

AI-generated description

Similar vizzes

Loading thumbnail…

Gist ae31ce5b693d662b3add4af2919cea65

This example shows a Unity application that captures frames from a camera, sends them to a remote machine-learning API, and displays the stylized result in a UI Image component. It uses MiniJSON to serialize the image as base64-encoded PNG data into a JSON payload for a POST request to a RunwayML-style endpoint. The script repeatedly captures the camera’s RenderTexture at a set interval, uploads it, and updates a Preview sprite with the returned stylized image. It demonstrates real-time image processing through an external model with a simple polling loop to keep the remote service active.

Aandybak
63% match
Loading thumbnail…

Gist 117c6f1a891bf4503093a2e35d73a593

This example presents a Unity Visual Effect Graph block that blends particle colors using 16 different Photoshop-style blend modes, including Screen, Multiply, Overlay, and Difference. It shows how the block reads and writes the particle color attribute through the VFXAttributeInfo API, while exposing a blend color input and a mode selector via VFXSetting. The code implements each mode as a custom HLSL snippet, with conditional expressions for modes like SoftLight and HardLight, applied directly to the color value in the particle update or output context.

Aandybak
61% match
Loading thumbnail…

Gist 3ea286941ac2e64f1214744f80b99beb

This example demonstrates a VR player controller that manages a timeline-driven animation sequence. It uses Unity’s PlayableDirector to play and pause a timeline, while calibrating the player’s position based on XR headset tracking via UnityEngine.XR. The script checks XRDevice.userPresence to automatically start the timeline when a headset is worn, and rewinds it when removed. It also supports manual control through the Submit input button, toggling between rewind-and-pause and rewind-and-play states.

Aandybak
60% match
Loading thumbnail…

Gist e8a05cce9a76090a14ba06fd8f53a274

This example demonstrates a minimal Unity camera control utility through a static C# class. It exposes the main camera’s position as a property and provides a method to move it by an offset vector, while also offering a property to read or set the global time scale. The code uses Unity’s `Camera.main`, `Transform.position`, and `Time.timeScale` APIs. It shows how to encapsulate common scene-level operations in a reusable static helper, with no rendering or data visualization logic beyond the camera manipulation itself.

Aandybak
60% match
Loading thumbnail…

Gist 163847197f2c33368934a7c89ba711bc

This example visualizes a particle system and its interactions, built with the Unity game engine. It uses Unity's built-in modules for rendering, physics, and user interface elements, including the TextMeshPro and UI systems. The visualization is driven by Unity's component-based architecture, with a manifest that declares the package dependencies. The work does not use typical JavaScript data-visualization libraries like D3 or Three.js; instead, it leverages Unity's own animation, audio, and particle system modules to create the interactive scene.

Aandybak
59% match
Loading thumbnail…

Gist 3743ce0f15cabc0331dce136e0db4168

This example demonstrates a custom outline effect for the Unity Universal Render Pipeline (URP). It consists of a `ScriptableRendererFeature` that injects a depth-normals prepass, which renders the scene’s depth and normal information into a texture. A Shader Graph custom node exposes this `_CameraDepthNormalsTexture` as an input, and an HLSL function compares depth and normal values at neighboring screen-space texels to detect edges. The effect produces a stylized outline by thresholding depth discontinuities and normal differences, with adjustable scale, depth threshold, normal threshold, and texel size.

Aandybak
59% match
Loading thumbnail…

Gist 6e56678993df5a603e27787a7af84f9c

This visualization shows a virtual reality scene of an open brush painting environment, with a headset and controllers rendered in 3D space. The configuration file sets up video capture parameters for exporting the scene, including resolution, frame rate, and camera smoothing. It uses Three.js for 3D rendering and specifies post-processing effects, FBX export options, and audio settings. The data originates from a Full of Eyes YouTube channel and is configured for both online and offline video output, with camera path saving enabled.

Aandybak
56% match
Loading thumbnail…

Gist 19bd71e9136ab748f798122cfea72440

This example shows how to control a camera’s pitch and yaw using mouse input in the Unity editor, enabling a first-person-style view without a headset. The code reads raw horizontal and vertical mouse axes via `Input.GetAxisRaw("Mouse X")` and `Input.GetAxisRaw("Mouse Y")`, then applies those values to rotation speeds. Pitch is clamped between -90 and 90 degrees to prevent flipping, while yaw rotates freely. The script relies on `Quaternion.Euler` to set the local rotation and uses a `KeyCode` modifier to optionally require a held key. It is disabled outside the editor, as indicated by the `#if !UNITY_EDITOR` directive.

Aandybak
56% match