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To create a crack or ground destruction effect in tyFlow, you typically use a combination of fracturing operators and physics solvers to simulate realistic surface breaking. Key Features for Creating Cracks

Voronoi Fracture: This is the primary operator used to break a mesh into smaller, realistic-looking pieces.

Edge Fracturing: For more detailed or "top-down" crack propagation, you can use edge-based fracturing to initiate small breaks that spread across a surface.

PhysX Shape & Bind: These operators allow fractured pieces to interact with each other and stay connected until a specific force (like a "bomb" or collision) breaks the bindings. tyflow crack top

Kintsugi Effect (Fill the Cracks): You can create a "filled crack" look by using a Push modifier to create self-intersections on your flow, then using VDB particles to convert those intersections into a new mesh. Standard Workflow for Ground Destruction

Fracture the Mesh: Use the Voronoi Fracture operator to define the initial break patterns on your object.

Initialize Physics: Add a PhysX Shape operator to give the pieces physical properties and a PhysX Bind operator to keep them together. To create a crack or ground destruction effect

Trigger the Break: Use a Surface Test or a "Bomb" object with a distance threshold to determine when and where the bindings should break, causing the cracks to appear.

Add Detail: You can apply displacement to the inner faces of the fractured pieces after caching to create more organic, jagged edges.

To learn how to fill cracks and create the Kintsugi look using VDBs: Fill the Cracks "Kintsugi" | tyFlow FXPear Studio YouTube• Jul 10, 2021 Fill the Cracks "Kintsugi" | tyFlow Fragment count (medium-sized roof slab): 200–600 pieces

Example param presets (starting points)

Quick checklist before render

Conclusion With TyFlow, crack creation becomes procedural, controllable, and efficient for VFX and motion design. The key is combining particle-driven spline generation with well-crafted masks and layered shading. Start with a single impact crack, iterate mask resolution and particle timing, then scale complexity (branching, debris, secondary dust) as needed.

If you want, tell me what surface and style you’re targeting (concrete wall, glass windshield, ceramic tile, subtle hairline vs. explosive fracture) and I’ll produce a tailored node list and values for TyFlow and material settings.

1. Introduction

In the field of Visual Effects (VFX) and architectural visualization, the simulation of destructive events—such as building collapses or shattering glass—requires a robust handling of geometric topology. The primary challenge lies in transforming a single contiguous mesh into thousands of independent rigid bodies while maintaining spatial coherence and physical plausibility.

TyFlow addresses this through a dedicated "Fragment" operator and a dynamic topology management system. This paper details how the software handles the "Crack" and "Topology" aspects of simulation, specifically looking at how vertices, edges, and faces are managed during the transition from a static object to a dynamic debris field.

Creative variations

Required tools and assets

To create a crack or ground destruction effect in tyFlow, you typically use a combination of fracturing operators and physics solvers to simulate realistic surface breaking. Key Features for Creating Cracks

Voronoi Fracture: This is the primary operator used to break a mesh into smaller, realistic-looking pieces.

Edge Fracturing: For more detailed or "top-down" crack propagation, you can use edge-based fracturing to initiate small breaks that spread across a surface.

PhysX Shape & Bind: These operators allow fractured pieces to interact with each other and stay connected until a specific force (like a "bomb" or collision) breaks the bindings.

Kintsugi Effect (Fill the Cracks): You can create a "filled crack" look by using a Push modifier to create self-intersections on your flow, then using VDB particles to convert those intersections into a new mesh. Standard Workflow for Ground Destruction

Fracture the Mesh: Use the Voronoi Fracture operator to define the initial break patterns on your object.

Initialize Physics: Add a PhysX Shape operator to give the pieces physical properties and a PhysX Bind operator to keep them together.

Trigger the Break: Use a Surface Test or a "Bomb" object with a distance threshold to determine when and where the bindings should break, causing the cracks to appear.

Add Detail: You can apply displacement to the inner faces of the fractured pieces after caching to create more organic, jagged edges.

To learn how to fill cracks and create the Kintsugi look using VDBs: Fill the Cracks "Kintsugi" | tyFlow FXPear Studio YouTube• Jul 10, 2021 Fill the Cracks "Kintsugi" | tyFlow

Example param presets (starting points)

Quick checklist before render

Conclusion With TyFlow, crack creation becomes procedural, controllable, and efficient for VFX and motion design. The key is combining particle-driven spline generation with well-crafted masks and layered shading. Start with a single impact crack, iterate mask resolution and particle timing, then scale complexity (branching, debris, secondary dust) as needed.

If you want, tell me what surface and style you’re targeting (concrete wall, glass windshield, ceramic tile, subtle hairline vs. explosive fracture) and I’ll produce a tailored node list and values for TyFlow and material settings.

1. Introduction

In the field of Visual Effects (VFX) and architectural visualization, the simulation of destructive events—such as building collapses or shattering glass—requires a robust handling of geometric topology. The primary challenge lies in transforming a single contiguous mesh into thousands of independent rigid bodies while maintaining spatial coherence and physical plausibility.

TyFlow addresses this through a dedicated "Fragment" operator and a dynamic topology management system. This paper details how the software handles the "Crack" and "Topology" aspects of simulation, specifically looking at how vertices, edges, and faces are managed during the transition from a static object to a dynamic debris field.

Creative variations

Required tools and assets