🛰️
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. Financing & Law

GAAP, Amortization and Return on Investment (ROI)

GAAP, Amortization and Return on Investment (ROI) in the Space Industry

Introduction

This essay will provide an overview of GAAP, amortization and return on investment (ROI) within the space industry and how they affect a space industry executive.

Overview of GAAP, Amortization and ROI within the Space Industry

Brief background on industry

The space industry is a rapidly growing industry with immense potential. It is estimated that the global space economy will be worth $1.4 trillion by 2030. The United States is the largest player in the space industry, followed by China and Russia. The space industry is comprised of many different sectors, including satellite manufacturing, satellite services, ground infrastructure, launch services and space tourism.

GAAP and the Space Industry

GAAP is the accounting standard used in the United States. GAAP is overseen by the Financial Accounting Standards Board (FASB). The FASB is a private, non-profit organization that sets accounting standards in the United States. GAAP is used by publicly traded companies in the United States to report their financial results. GAAP is also used by many private companies and nonprofit organizations.

How GAAP affects the space industry

The space industry is affected by GAAP in a number of ways. First, GAAP requires companies to disclose their research and development costs. This is important for the space industry because many companies are investing heavily in research and development in order to bring new products and services to market. Second, GAAP requires companies to amortize their intangible assets. Intangible assets are important in the space industry because many companies have invested heavily in intangible assets such as patents and copyrights. Third, GAAP requires companies to expense their stock options. This is important for the space industry because many companies use stock options to attract and retain employees.

Examples of GAAP principles in the space industry

  • Research and development costs must be disclosed.

  • Intangible assets must be amortized.

  • Stock options must be expensed.

Amortization and the Space Industry

Amortization is the process of spreading the cost of an intangible asset over its useful life. Amortization is important for the space industry because many companies have invested heavily in intangible assets such as patents and copyrights. Amortization allows companies to recover the cost of their intangible assets over time.

How amortization affects the space industry

Amortization affects the space industry in a number of ways. First, amortization reduces a company's taxable income. This is important for the space industry because many companies are investing heavily in research and development and are therefore subject to high taxes. Second, amortization allows companies to recover the cost of their intangible assets over time. This is important for the space industry because many companies have invested heavily in intangible assets such as patents and copyrights.

Examples of amortization processes in the space industry

  • Patents are amortized over their 20-year life.

  • Copyrights are amortized over their 70-year life.

  • Trademarks are amortized over their 10-year life.

Return on Investment (ROI) in the Space Industry

How ROI affects the space industry

ROI is a measure of how much money a company makes from its investment. ROI is important for the space industry because many companies are investing heavily in research and development and are therefore looking for a high return on their investment. ROI is also important for the space industry because many companies are looking to reduce their costs.

Examples of ROI in the space industry

  • A company that invests $100 million in research and development and earns $200 million in revenue has a ROI of 2.

  • A company that invests $100 million in research and development and earns $50 million in revenue has a ROI of 0.5.

  • A company that invests $100 million in research and development and earns $10 million in revenue has a ROI of 0.1.

Conclusion

Summary of key points

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Last updated 2 years ago

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