Optimizing VLS Firing Policy: An Enumeration of Heterogeneous Sequences to Inform Expenditure

Abstract

The U.S. Navy (USN) utilizes the Vertical Launch System (VLS) to store and launch both theiroffensive and defensive missiles. Since the number of VLS silos on a given ship is fixed, tomaximize offensive capability, the USN needs to minimize the number of interceptors required tocombat incoming anti-surface missiles. Current firing policies may be overly conservative and expend toomany interceptors per incoming threat, which results in a substantial fraction of VLS silos dedicated todefensive missiles. Decision makers need an analysis tool to explore the trade-off between missileconsumption and probability of raid annihilation (PRA) for various firing policies and would also benefitfrom a prescriptive algorithm to help inform missile expenditure. This thesis provides a model to optimizeVLS firing policy using a set of multiple interceptor types while accounting for range limitations, traveltime, multi-interceptor salvos, battle damage assessment, and range dependent probability of kill.Additionally, the thesis derives analytical results for the optimal, lowest-cost allocation of interceptorsin the single interceptor case, which, in turn, generates insight into how to structure sequential salvos.

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Document Details

Document Type
Technical Report
Publication Date
Dec 01, 2021
Accession Number
AD1165020

Entities

People

  • Steel J Templin

Organizations

  • Naval Postgraduate School

Tags

Communities of Interest

  • Energy and Power Technologies
  • Ground and Sea Platforms
  • Space
  • Weapons Technologies

DTIC Thesaurus Topics

  • Algorithms
  • Ballistic Missiles
  • Battle Damage Assessment
  • Computational Complexity
  • Control Systems
  • Damage Assessment
  • Detection
  • Munitions
  • Naval Warfare
  • Navy
  • Operations Research
  • Probability
  • Radar
  • Random Variables
  • Statistical Analysis
  • United States Naval Academy
  • Unmanned Systems
  • Warfare
  • Weapon Control

Readers

  • Applied Combinatorial Optimization and Logic Circuit Design.
  • Marksmanship and Weaponry.
  • Systems Analysis and Design