Space-Based Solar Power Market Size, Share, Opportunities, And Trends By Technology (Microwave Transmitting Satellite, Laser Transmitting Satellite), By Material (Silicon, Gallium Arsenide, Others), By End User (Residential, Commercial, Industrial), And By Geography - Forecasts From 2023 To 2028

The space-based solar power market is projected to grow at a constant rate during the forecast period. Space-based solar power is a groundbreaking approach to harnessing solar energy from space and transmitting it to earth, thereby effectively eliminating the intermittency issues faced by traditional terrestrial renewable energy sources. This innovative concept offers numerous advantages, including the generation of clean, uninterrupted base-load energy, all while requiring significantly less land compared to conventional renewable energy solutions. The space-based solar power industry growth is being fuelled by an increase in electricity demand, and a reduction in the costs associated with space launches followed by favorable initiatives and investments.

Rise in electricity demand bolster the space-based solar power market growth.

Space-based solar power provides an innovative solution by offering constant, uninterrupted energy production, unlike traditional renewable sources that are subject to fluctuations due to day-night cycles and weather conditions. This constant energy provision aligns with the continuously growing demand for electricity which is spurred by population growth, industrialization, and the rapid proliferation of digital technologies, all of which require reliable and continuous power supply. According to the Central Electricity Authority, India anticipates annual growth of 7.2% in its electricity demand, projecting it to escalate from 1,320 billion units in the fiscal year 2021/22 to 1,874 billion units by March 2027.

Declining cost of space launches drives the space-based solar power market.

The decreasing cost of space launches is a significant enabler for the growth of the space-based solar power industry. In the past, one of the main hurdles for space-based solar power was the prohibitive expense associated with launching and installing infrastructure in space. However, with advancements in space technology and the advent of private space companies investing in reusable rockets and more efficient launch systems, these costs are gradually diminishing. Lower launch costs make it economically feasible to place the necessary solar power collection and transmission equipment in orbit. For instance, according to the NASA Technical Reports, the launch cost to Low Earth Orbit (LEO) from NASA's space shuttle amounts to $54,500 per kilogram whereas SpaceX’s Falcon’s launch cost amount to $2,720 per kilogram.

Favorable initiatives and investments drive space-based solar power market growth.

Space-Based Solar Power is being pursued as an innovative solution to harness solar energy directly from space, offering a continuous and virtually inexhaustible source of clean power. The growth of space-based solar power is significantly influenced by government initiatives and global support thereby ultimately contributing to its growing prominence in the global energy landscape. For instance, in June 2023, UK innovators had been granted £4.3 million in funding to advance the development of space-based solar power. Also, in 2022, Japan initiated the launch of solar panels for space-based solar power systems, The government is focused on resolving technical challenges, including the development of larger panels, and cost management. The goal is to achieve the practical application of this system by 2050.

Europe is predicted to dominate the space-based solar power market.

Europe will hold a significant market share of the space-based solar power market as the governments in the region are actively supporting the development of space-based solar power through funding, regulatory support, and the fostering of public-private collaborations. For instance, in 2021, 50 leading British technology organizations, aligned under the UK Space Energy Initiative which seeks to explore the potential of developing a space-based solar power plant in the U.K. Also, in 2022, the European Space Agency unveiled an innovative program named Solaris whose primary objective was to determine the technological and economic viability of deploying solar structures into orbit. These structures would be designed to capture solar energy and transmit the harvested power back to Earth.

Increasing space debris may restrain the space-based solar power market.

The surge in launches of satellites and other necessary infrastructure to establish space-based solar power systems might inadvertently exacerbate an already growing space debris. This accumulation presents a multi-faceted risk. On one hand, it could jeopardize the functionality and operational longevity of the space-based solar power systems themselves, as collisions with debris could damage or destroy these costly and complex facilities. On the other hand, the proliferation of space debris could also threaten other satellites, both those related to space-based solar power and unrelated ones.

Key Developments

• April 2023: The European Space Agency (ESA) made substantial advancements in the pursuit of space-based solar power plants. The agency successfully signed contracts for two parallel concept studies, both aimed at exploring the feasibility and design of large-scale, commercial space-based solar power facilities. This marks a pivotal development in the progression of space-sourced renewable energy.
• January 2023: Caltech's Space Solar Power Project (SSPP) made a major milestone with the successful launch of its prototype satellite into orbit. Known as the Space Solar Power Demonstrator (SSPD), this prototype forms a crucial part of an ambitious initiative to capture solar power in space and transmit this energy back to Earth. The SSPD's primary role will be to test several fundamental elements critical to the success of this innovative space-based solar power plant.

Company Products

• Solar Power Satellites: Solaren's Solar Power Satellites, stationed in geostationary earth orbit (GEO), harness the Sun's energy. This energy is converted into electricity by high-efficiency solar cells. The electricity is then transformed into a radio frequency (RF) energy beam by the solid-state power amplifier array. This RF energy beam is aligned and directed towards Earth by the RF antenna, aiming specifically at Solaren's ground receive station. Here, the energy is received and can be used for various applications.
• Space Solar Cells: CESI S.p.A provides state-of-the-art Space Solar Cells that boast a typical efficiency of 30%. These cells are designed and qualified to operate in diverse space environments, specifically for satellites in both Low Earth Orbit (LEO) and Geostationary Orbit (GEO), in compliance with the standard ECSS E ST20-08C.

Segmentation

• By Technology
  • Microwave Transmitting Satellite
  • Laser Transmitting Satellite
• By Material
  • Silicon
  • Gallium Arsenide
  • Others
• By End User
  • Residential
  • Commercial
  • Industrial
• By Geography
  • Americas
    • USA
    • Others
  • Europe, Middle East and Africa
    • Germany
    • UK
    • France
    • Saudi Arabia
    • UAE
    • Others
  • Asia Pacific
    • China
    • Japan
    • South Korea
    • India
    • Others

1. INTRODUCTION

1.1. Energy Transition Status

1.2. Sector-wise Analysis: Examination of Key Industries and Their Implications

1.2.1. Transport

1.2.2. Buildings

1.2.3. Industry

1.2.4. Power

1.3. Socio-Economic Impact of Energy Transition

2. RESEARCH METHODOLOGY  

2.1. Research Data

2.2. Assumptions

3. EXECUTIVE SUMMARY

3.1. Research Highlights

4. ENERGY AND POWER INDUSTRY OVERVIEW

4.1. Introduction

4.2. Energy Industry Overview

4.2.1. Global Energy Production (in EJ)

4.2.1.1. Americas

4.2.1.2. Europe

4.2.1.3. Middle East & Africa

4.2.1.4. Asia Pacific

4.2.2. Energy Mix, By Fuel

4.3. Power Industry Overview

4.3.1. Global Power Generation (in TWh)

4.3.2. Power Mix

4.3.2.1. Renewable

4.3.2.2. Non-Renewable

4.4. Russian-Ukraine War Impact

4.4.1. Supply Shocks

4.4.2. Rising Energy Prices

4.4.3. Repercussions On Economic Policy

5. MARKET DYNAMICS

5.1. Market Drivers

5.2. Market Restraints

5.3. CO2 Emissions

5.3.1. Coal

5.3.2. Oil

5.3.3. Natural Gas

5.4. Clean Energy Investment

5.4.1. Electricity Generation

5.4.2. Energy Infrastructure

5.4.3. End-Use

5.5. Recommendations

6. GOVERNMENT REGULATIONS/POLICIES

6.1. Introduction

6.1. Net Zero Commitments

6.2. Remuneration Schemes

7. SPACE-BASED SOLAR POWER market, BY TECHNOLOGY

7.1. Introduction

7.2. Microwave Transmitting Satellite

7.3. Laser Transmitting Satellite 

8. SPACE-BASED SOLAR POWER market, BY MATERIAL

8.1. Introduction

8.2. Silicon

8.3. Gallium Arsenide

8.4. Others

9. SPACE-BASED SOLAR POWER MARKET, by END-USER

9.1. Introduction

9.2. Residential

9.3. Commercial

9.4. Industrial

10. SPACED-BASED SOLAR POWER MARKET, by GEOGRAPHY

10.1. Introduction

10.2. Americas

10.2.1. USA

10.2.2. Others

10.3. Europe, Middle East and Africa

10.3.1. Germany

10.3.2. UK

10.3.3. France

10.3.4. Saudi Arabia

10.3.5. UAE

10.3.6. Others

10.4. Asia Pacific

10.4.1. China

10.4.2. Japan

10.4.3. South Korea

10.4.4. India

10.4.5. Others

11. RECENT DEVELOPMENT AND INVESTMENTS

12. COMPETITIVE ENVIRONMENT AND ANALYSIS

12.1. Major Players and Strategy Analysis

12.2. Market Share Analysis

12.3. Vendor Competitiveness Matrix

13. COMPANY PROFILES

13.1. Solaren Corporation

13.2. Northrop Grumman Corporation

13.3. AZUR SPACE Solar Power GmbH (5N Plus Inc)

13.4. CESI S.p.A

13.5. SPACETECH GmbH

Solaren Corporation

Northrop Grumman Corporation

AZUR SPACE Solar Power GmbH (5N Plus Inc)

CESI S.p.A

SPACETECH GmbH