🛰️
The Satellite Cookbook
  • The Satellite Cookbook: Or How To Build A Satellite
  • Index
  • 🔧Part I: Space Mission Engineering
    • Introduction
      • What is Space Mission Engineering?
      • History
      • Technology, Applications, Economics
      • Key Players
    • Concurrent Engineering
      • Process
      • Objectives, Constraints, Requirements
      • Concept Definition
      • Mission Analysis & Utility
      • Formal Requirements
    • Space Environment
      • Space Environment and Space Weather
      • Earth's Magnetic Field
      • Radiation Belts
      • Microgravity
      • Orbital Debris
    • Astrodynamics & Mission Analysis
      • Space Geometry
        • Applications
        • Parameter Computation
        • Relative Motion
      • Orbits & Astrodynamics
        • Keplerian Orbits
        • Orbits of the Moon and Planets
        • Terminology
        • Orbit Perturbations, Geopotential Models, and Satellite Decay
        • Specialised Orbits
        • Orbit Maneuvers
        • Summary: Rules of Practical Astrodynamics
      • Orbit Design
        • Orbit Selection and Design Process
        • Orbit Performance
        • Orbit Cost
        • Selecting Earth-Referenced Orbits
        • Selecting Transfer, Parking, and Space-Referenced Orbits
        • Constellation Design
        • Interplanetary Orbits
    • Cost Estimating
      • Introduction to Cost Estimating
      • Estimating Tools
        • Botto-up Cost Estimator
        • Parametric Cost Estimators
        • Experience Based Cost Estimators
    • Financing & Law
      • Sources
        • Africa
        • Asia
        • Europe
        • North America
        • Oceania
        • South America
      • GAAP, Amortization and Return on Investment (ROI)
      • Law and Policy Considerations
  • 🛰️Part II: Spacecraft & Payload Design
    • Overview of Spacecraft Design
      • Spacecraft Design Process
      • Space System Design Drivers
      • Spacecraft Configuration Alternatives
      • Partitioning Spacecraft into Subsystems
      • Preliminary Spacecraft Budgets
        • Spacecraft Budget Tools
      • Design Evolution
      • Future of Spacecraft Design
    • Payload
      • Overview of Payload Design
        • Types of Space Payloads
        • Tradeoffs
        • Payload Design
        • Electromagnetic Spectrum
      • Communication Payloads
        • Space Mission Communications Architecture
        • Link Analysis
        • Payload Design
      • Observation Payloads
        • Payload Design
        • Payload Sizing
        • Evolution
    • Propulsion
      • Basic Rocket Equations
      • Staging
      • Chemical Propulsion Systems
      • Plume Considerations
      • System Design Elements
      • Electric Propulsion
      • Alternative Propulsion Systems
    • Subsystems
      • Control Systems
        • Attitude Determination and Control
        • Trajectory Navigation and Control
      • On Board Data Handling
        • Computer System Baseline
        • Preliminary Design
      • Communications
        • Power
        • Telemetry, Tracking, and Command (TT&C)
      • Power
      • Structure & Configuration
      • Thermal
    • Logistics and Manufacturing
    • Risk
    • Alternative Designs
  • 🚀Part III: Launch & Operations
    • Launch Vehicles
      • Vehicle Selection
      • History
      • Basic Mechanics of Launch
      • Launch Environments
      • Available Vehicles
    • Launch Operations
      • Launch Sites and Launch Restrictions
      • Launch Site Preparation
      • Readiness Reviews
      • Launch Site Access
      • Launch Site Training
      • Transporting the Spacecraft to the Launch Site
      • Launch Site Processing
      • Launch Day
      • Post Launch and Early Operations
      • Modernising Launch Operations
      • Common Mistakes
    • Ground System
      • Antenna Services
      • Data Accounting and Distribution Services
      • Ground System Driving Requirements and Sizing
      • Technology Trends
    • Mission Operations
      • Mission Planning and Operations Development
      • Mission Execution
      • Mission Termination and Post-Mission Activities
      • Best Practices
      • Future of Mission Operations
    • End of Mission
      • IADC End of Mission Guidelines
      • LEO Disposal Options
      • Non-LEO Disposal Options
      • Passivation
      • Disposal Planning
  • Ethics & Philosophy
    • Space exploration
    • Vanity projects
    • Is it worth it?
  • Additional reference material
    • ESA and ECSS documents
    • Satellite orbit and range parameters
    • Example mass and power budgets
    • Satellite Missions Catalogue
  • Build Your Own
  • Databases
    • CEOS ESA Database - Catalogue of Satellite Missions
  • Case study's
    • Radar Constellation
    • On-Orbit Servicing and Debris Removal
    • Mars
    • Starlink
  • Contact
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  1. Part I: Space Mission Engineering
  2. Cost Estimating

Introduction to Cost Estimating

As a program manager at a spaceflight company, you are responsible for planning, managing, and executing spaceflight programs. Part of your job is to ensure that your projects are completed on time and within budget. Cost estimating is a critical tool that can help you achieve these goals.

Cost estimating is the process of predicting the cost of a project. It involves identifying and quantifying all the resources that will be required to complete the project. This includes labor, materials, equipment, and other costs. The goal of cost estimating is to develop an accurate estimate of the total cost of the project.

There are two types of cost estimates: detailed and rough order of magnitude (ROM). Detailed cost estimates are more accurate than ROM estimates, but they are also more time-consuming and expensive to produce. As a program manager, you need to decide which type of estimate is appropriate for your project.

Cost estimating is important for several reasons. First, it helps you develop a realistic budget for your project. Second, it allows you to identify potential cost overruns early in the project so that you can take corrective action. Finally, it provides a basis for comparing actual costs with estimated costs, which can help you improve your cost estimating skills over time.

The cost estimating process typically consists of four steps:

  • Identifying the resources that will be required to complete the project

  • Estimating the cost of each resource

  • Summarizing the total cost estimate

  • Validating the accuracy of the estimate

As the program manager, you are responsible for ensuring that the cost estimate is accurate and credible. There are several ways to do this, including using independent cost estimators and establishing a peer review process. You should also consider factors such as risk and uncertainty when developing your estimate.

In addition to estimating the cost of individual projects, you also need to estimate the cost of the entire program. This is important because it allows you to identify potential cost savings and economies of scale. It also helps you develop a realistic program budget.

The key takeaways for program managers at spaceflight companies are as follows:

  • Cost estimating is a critical tool for planning, managing, and executing spaceflight programs.

  • Cost estimates can be either detailed or rough order of magnitude (ROM).

  • Cost estimating is important for several reasons, including developing a realistic project budget, identifying potential cost overruns, and providing a basis for comparing actual costs with estimated costs.

  • The cost estimating process typically consists of four steps: identifying resources, estimating costs, summarizing the total estimate, and validating accuracy.

How Cost Estimating Can Help Program Managers Achieve Project Goals

Cost estimating is a critical tool that can help program managers plan and manage projects effectively. By understanding the costs associated with a project, program managers can make better decisions about how to allocate resources and control costs throughout the project life cycle. Cost estimating can also help program managers identify potential cost overruns and take corrective action to avoid them.

The challenges associated with cost estimation in the space industry are significant, but so are the potential rewards. With careful planning and execution, cost estimating can help program managers achieve their goals and deliver successful spaceflight programs.

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Last updated 2 years ago

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