Propulsion System Design, Analysis and Optimization

Resistance and Power Analysis

CALCULATING PROPULSION POWER WITH UNMATCHED PRECISION

MILPOD offers unparalleled expertise in determining the precise propulsion power requirements for amphibious land vehicles. Our resistance and power analysis services are grounded in accuracy and tailored to meet the exacting demands of the defense industry.

Advanced CFD Methods for Resistance and Efficiency

We conduct in-depth analyses using:

  • Customized Computational Fluid Dynamics (CFD): Employing the latest in CFD technology to predict resistance and efficiency with exceptional accuracy.
  • Power and Resistance Curve Predictions: Assessing how different speeds impact the power needs and resistance levels of the vehicle.

Two-Phase Domain and Free Surface Capturing

Our approach encompasses:

  • Complex Two-Phase Domain Setup: Analyzing both the vehicle and the surrounding fluid for comprehensive understanding of interaction dynamics.
  • Free Surface Capturing Methods: Employing sophisticated techniques to track and simulate the interface between liquid and air around the vehicle.

Imposed and Solved Motion Calculations

MILPOD’s resistance and power analysis ensures:

  • Accurate Motion Simulation: Considering up to six degrees of freedom to simulate how a vehicle will move and react in various conditions.
  • Wave Generation for Realistic Scenarios: Creating simulations that reflect a range of sea states and weather conditions to ensure real-world applicability.

Closing Statement

For amphibious land vehicles that demand robust and efficient propulsion power, MILPOD’s resistance and power analysis is the definitive solution. Our commitment to precision, coupled with advanced CFD techniques, provides a solid foundation for vehicle design and operational excellence.

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Comparison Studies

MILPOD offers unparalleled expertise in determining the precise propulsion power requirements for amphibious land vehicles. Our resistance and power analysis services are grounded in accuracy and tailored to meet the exacting demands of the defense industry.

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Sea-Shore Transaction Analysis (Landing-Beaching)

MILPOD’s sea-shore transition analysis is essential for the seamless operation of customer-owned amphibious land vehicles during critical landing and beaching maneuvers. Our specialized analysis delivers valuable insights into the interaction between water and the vehicle body, as well as the effectiveness of the propulsion system in varied coastal conditions.

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Hydrostatics and Stability Analysis

At MILPOD, our services in hydrostatics and stability analysis are tailored to ensure that everycustomer-owned amphibious vehicle achieves the highest level of integrity and safety. Wemeticulously calculate characteristic parameters that are crucial for assessing the vehicle’sstability post-modification.

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Crash Stop Analysis

MILPOD is committed to mastering crash stop maneuvers, a vital component in the navigation and tactical operations of customer-owned amphibious land vehicles. Our analysis is specially tailored to address both emergency situations and tactical requirements with precision and reliability.

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Self-righting Analysis

At MILPOD, we specialize in ensuring that customer-owned amphibious land vehicles possess robust self-righting capabilities. Our analysis is essential for evaluating recovery time and dynamic positional changes, ensuring vehicles are optimally prepared for critical operations.

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Turning Circle

At MILPOD, we’re not just about creating water jets; we’re experts in transforming your land vehicles into state-of-the-art amphibious machines. A crucial aspect of this transformation is mastering the Turning Circle, a fundamental maneuver in vehicle operations. We excel in this through our advanced hydrodynamic analysis and cutting-edge simulation techniques tailored to each vehicle we modify.

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Vehicle Geometry Optimization

At MILPOD, our vehicle geometry optimization service focuses on reducing drag and enhancing the hydrodynamic efficiency of amphibious land vehicles. Our advanced analysis pinpoints the potential for drag reduction and propels design improvements.

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