AS9100 CERTIFIED ITAR REGISTERED DFARS COMPLIANT
REQUEST A QUOTE
ENGINEERING SERVICES

Beyond machining.
Behind the math.

Mission-critical hardware is engineered long before the first chip flies. Our in-house simulation team models, analyzes, and validates the parts we make — building deployable digital twins that follow your hardware from prototype to field.

01

DIGITAL TWIN DEVELOPMENT

Deployable, real-time-capable digital twins built in Ansys Twin Builder and cross-validated with MATLAB/Simulink. FMU export for HIL rigs and field-deployable twins that run alongside your physical hardware.

02

MULTI-PHYSICS FEA & CFD

Structural, fatigue, and seat-contact analysis in Ansys Mechanical Enterprise. Hydraulic and fluid-dynamics modeling in Ansys CFD Enterprise. Impact, surge, and extreme-event simulation in LS-DYNA.

03

CONTROLS & SYSTEM MODELING

Bottom-up multi-domain modeling in Simscape Fluids, Electrical, and Multibody. Supervisory logic in Stateflow. Closed-loop control design in Simulink Control Design. Motor-side modeling with Motor Control Blockset.

04

HIL & SIL-READY VALIDATION

Hardware-in-the-loop test benches driven by Simulink Coder auto-generated C. Verification campaigns in Simulink Test, SimEvents, and Simulink Design Optimization. SIL 2-3 evidence packages with full traceability through Simulink Report Generator.

CASE STUDY / DEFENSE

Digital twin of a UAS landing-gear actuator.

A defense client needed to qualify a new electro-hydraulic landing-gear actuator for a Group 3 unmanned aerial system under tight cert timelines. We delivered a deployable digital twin in 14 weeks, cross-validated across MATLAB and Ansys, with an FMU ready for their HIL rig and field fleet.

Drone landing gear assembly machined by LOMFG
01 / PHYSICAL HARDWARE Machined Ti-6Al-4V strut, drag brace, and pivot fittings.
FEA stress contour simulation of the landing gear
02 / SIMULATION Multi-physics digital twin in Ansys + Simscape.
Hardware-in-the-loop test bench for the landing gear actuator
03 / HIL VALIDATION FMU-driven HIL rig with auto-generated controller code.

A FOURTEEN-WEEK WORKFLOW — FROM SPEC TO DEPLOYED TWIN

  1. 01

    REQUIREMENTS CAPTURE & ARCHITECTURE

    Translate the client’s spec into machine-readable requirements. Lock fidelity ladder: functional, engineering, and high-fidelity model variants sharing the same I/O.

    Simulink Requirements · Stateflow

  2. 02

    HYDRAULIC POWER & FLUID NETWORK

    Model the actuator hydraulic circuit, accumulator energy, and surge response. Validate against client flow / pressure curves.

    Simscape Fluids · Ansys CFD Enterprise

  3. 03

    SERVO DRIVE & ELECTRICAL BUS

    Brushless servo motor, drive electronics, and 28 V DC bus dynamics. Capture inrush, regen, and thermal headroom for the gear-up / gear-down duty cycle.

    Simscape Electrical · Motor Control Blockset

  4. 04

    MECHANICAL DOMAIN & KINEMATICS

    Multibody dynamics of the strut, drag brace, pivot joints, and shock absorber. Touchdown loads, retraction kinematics, drop-test prediction.

    Simscape Multibody · Ansys Motion

  5. 05

    STRUCTURAL FEA & FATIGUE

    Static stress, modal, fatigue, and seat-contact analysis on every load-bearing component. Identify margins, lightweight opportunities, and crack-initiation sites.

    Ansys Mechanical Enterprise

  6. 06

    IMPACT & EXTREME EVENTS

    Hard-landing, asymmetric touchdown, foreign-object strike. Explicit dynamics with full nonlinear material models for survivability and safe-failure modes.

    LS-DYNA

  7. 07

    CONTROL LAW & VERIFICATION

    Closed-loop position and force control. Supervisory logic, fault detection, fail-safe sequencing. Automated regression with requirement-linked test cases and Monte-Carlo design optimization.

    Simulink Control Design · Simulink Test · SimEvents · Simulink Design Optimization · Parallel Computing

  8. 08

    SYSTEM-LEVEL DIGITAL TWIN ASSEMBLY

    Co-simulation of all physics layers + control inside Ansys Twin Builder. Reduced-order models for real-time fidelity. Cross-validation against Simulink twin.

    Ansys Twin Builder

  9. 09

    CODE-GEN & HIL DEPLOYMENT

    Production C/C++ for the client’s flight-computer target. FMU export from Twin Builder to their HIL rig. Side-by-side bench validation of physical actuator versus twin.

    Simulink Coder · MATLAB Coder · Ansys HPC

  10. 10

    SIL EVIDENCE & CUSTOMER REPORTING

    Auto-generated requirements-to-test traceability, simulation reports, FAI / PPAP-compatible documentation. Submission-ready SIL 2-3 evidence package.

    Simulink Report Generator · MATLAB Report Generator

14wk
Spec to deployable twin
SIL 3
Evidence package submitted
−32%
Mass reduction vs. baseline strut
FMU
Real-time twin running on client HIL

OUR TOOLCHAIN Cross-validation end to end.

MATLAB / SIMULINK
  • Simscape Fluids
  • Simscape Electrical
  • Simscape Multibody
  • Motor Control Blockset
  • Simulink Control Design
  • Stateflow
  • Simulink Test
  • SimEvents
  • Simulink Design Optimization
  • Parallel Computing
  • Simulink Coder
  • MATLAB Coder
  • Simulink Report Generator
  • MATLAB Report Generator
ANSYS
  • Ansys CFD Enterprise
  • Ansys Mechanical Enterprise
  • LS-DYNA
  • Ansys Motion
  • Ansys Twin Builder
  • High-Performance Computing (HPC)