Engineering
Supashock’s engineering prowess spans multiple industries, from automotive and motorsport to defense, mining, commercial, and aftermarket. Renowned for innovation and precision, Supashock delivers bespoke engineering solutions that redefine vehicle dynamics, enhance performance, and ensure durability in diverse operating environments.
Trusted by leading manufacturers, racing teams, Defence industry primes, and mining operations worldwide, Supashock’s ruggedised suspension systems provide unparalleled reliability, mobility, and safety, while its aftermarket offerings empower enthusiasts to enhance their driving experience. With a relentless commitment to excellence and a track record of success, Supashock continues to shape the future of engineering across a broad spectrum of industries.
Defence Engineering Projects
Supashock has successfully delivered a range of Defence projects spanning a range of categories, from tank suspension systems, to logistics handling systems, to missile launchers, and more. Supashock utilises advanced engineering techniques including CAD, CAE and computer simulations to create world-class solutions for customers around the globe.
ALHS (Automated Load Handling System)
Lynx KF41 IFV Running Gear
ATGM (Anti-Tank Guided Missile Launcher)
Engineering Capabilities
Supashock has engineering staff and capabilities spanning a range of disciplines, including mechanical design, control systems, software, electronics, analysis, industrial and manufacturing.
Finite Element Analysis (FEA)
Finite Element Analysis (FEA) is a powerful engineering technique used to simulate and analyze the behavior of complex structures or systems under various loading conditions.
In FEA, a structure is divided into smaller, finite-sized elements, each with defined material properties and geometric characteristics. By applying mathematical models and numerical methods, FEA calculates the response of these elements to applied forces, allowing engineers to predict factors such as stress, strain, displacement, and deformation throughout the structure.
This analysis enables engineers to assess the performance, strength, and safety of components or systems, optimize designs, identify potential failure points, and validate designs before physical prototyping or production.
FEA plays a crucial role in a wide range of engineering disciplines, including mechanical, aerospace, civil, automotive, and structural engineering, providing valuable insights into the behavior of complex systems and facilitating informed design decisions.
Multi-body Dynamics Simulation
Multi-body dynamics simulation is a computational technique used in engineering to analyze the motion and interactions of multiple interconnected bodies within a system. These bodies can represent various mechanical components such as rigid bodies, flexible bodies, joints, springs, dampers, and actuators.
Through mathematical modeling and numerical algorithms, multi-body dynamics simulations simulate the dynamic behavior of the system over time, accounting for forces, moments, constraints, and interactions between the bodies. This simulation technique enables engineers to study complex mechanical systems, predict their dynamic responses to different inputs (such as forces, torques, or motions), evaluate performance, optimize designs, and identify potential issues such as vibration, instability, or component fatigue.
Multi-body dynamics simulations find applications in diverse industries, including automotive, aerospace, robotics, biomechanics, machinery, and manufacturing, providing valuable insights into the behavior and performance of complex mechanical systems.
FINITE ELEMENT ANALYSIS
CAPABILITIES
ANSYS structural analysis software enables Supashock engineers to solve complex structural engineering problems and make better, faster design decisions.
FEA BENEFITS
Comprehensive result sets, generating the physical response of the system at location, including some which might have been neglected and in an analytical approach.
Safe simulation of potentially dangerous, destructive or impractical load conditions and failure modes.
The simultaneous calculation and visual representation of a wide variety of physical parameters such as stress or temperature, enabling us to rapidly analyse performance and possible modifications.
Extrapolation of existing experimental results via parametric analyses of validated models.
MULTI-BODY DYNAMICS SIMULATION
CAPABILITIES
With MBD Supashock engineers can easily create and test virtual prototypes of mechanical systems in a fraction of the time and cost required to build and test physical prototypes.
MBD BENEFITS
MBD helps Supashock engineers to study the dynamics of moving parts and how loads and forces are distributed throughout mechanical systems.
MBD provides accurate load predictions earlier in the design process that make it possible to accurately predict the life of a particular design prior to the prototype phase.
In Summary: FEA and MBD make it possible to simulate the performance of the complete product early in the design process to improve and optimise the performance of the products while reducing time to market and engineering costs.
ADVANCED ENGINEERING
KEY FEATURES
Vehicle Systems Engineering
Complete System Analysis
Form Fit Function Design
Multi-platform CAD (NX-Spaceclaim)
Vehicle Dynamic Analysis (Chassisim)
Advanced System Design (Siemens NX)
Advanced Simulation Analysis (ANSYS)
Full Multi Body Simulation (MSC Adams)
Control System Design (Software & Hardware)