Crash 5 — Virtual
Virtual CRASH 5 does not just simulate a collision; it brings it to life. It addresses the two pillars of accident reconstruction: for the experts and visual clarity for the layperson. By combining state-of-the-art rendering with rigorous physics modeling, VC5 empowers reconstructionists to tell the story of an accident with a level of detail and authority that was previously impossible.
: Seamlessly imports massive 3D laser scanning data (LiDAR) and UAV photogrammetry meshes.
Integration with 3D scanning technologies allows users to create precise digital replicas of accident scenes. 2. Powerful Physics Engine
Input the initial conditions discovered during your physical investigation: Pre-impact travel speeds. Braking percentages and exact timing. Steer angle inputs. Surface friction values ( ) for separate segments of the roadway. Step 4: Running and Refining the Simulation Virtual Crash 5
Users can use path animation tools or the kinematics tool to propagate vehicles through a scene, which is particularly useful for modeling unstable systems like motorcycles. Virtual CRASH The Reconstruction Workflow
Users can input GPS coordinates to fetch high-resolution aerial imagery directly inside the software.
Reconstructing crashes involving pedestrians or cyclists is historically difficult. Virtual Crash 5 simplifies this with its integrated multibody occupant model. Virtual CRASH 5 does not just simulate a
Virtual Crash 5 is a professional used primarily by accident reconstructionists, forensic engineers, and law enforcement. It combines a multi-body dynamics solver with an extensive vehicle database to simulate pre-crash, crash, and post-crash motion for cars, trucks, motorcycles, pedestrians, and other road users.
You can "feature-link" secondary objects to move with your primary simulated vehicle: 2D CAD Elements
views with a single click to place viewers directly inside the crash environment. 4. Create Linked Elements : Seamlessly imports massive 3D laser scanning data
Review the kinetic energy graph, momentum conservation data, and delta-V readouts to ensure the simulation is scientifically sound.
Users set the initial conditions, such as travel speeds, steering inputs, and braking percentages. The physics engine is run, and the software calculates the trajectories.