Tag Archive for: Space

The emerging market for satellite connectivity directly to devices, such as smartphones, has generated varying opinions on its growth potential:

  1. AST SpaceMobile’s Perspective: AST SpaceMobile, a company developing a satellite constellation for direct-to-device services, expressed optimism about the market’s rapid growth. The interest is being driven by consumers’ strong desire to remain connected. According to Scott Wisniewski, the executive vice president and chief strategy officer of AST SpaceMobile, customers are likely willing to pay for such connectivity, which might not require a substantial cost.
  2. Lynk Global’s Estimate: Lynk Global, another player in the market, expects the direct-to-device market to grow swiftly. Charles Miller, the CEO of Lynk Global, estimated that it would take less than five years for the market to reach $1 billion in annual revenues.

These estimates highlight a general sentiment that there is a growing demand for satellite connectivity directly to devices. The exact rate of growth and the time it takes to reach specific revenue milestones, however, remains a topic of debate within the industry.

There is a range of opinions regarding the timeline for the direct-to-device satellite market’s growth:

  1. Optimistic Outlook: AST SpaceMobile and Lynk Global are optimistic about the rapid growth of this market. They emphasize the critical differentiator is speed and expect it to become a significant opportunity more quickly.
  2. Cautious Approach: Iridium’s COO, Suzi McBride, offers a more cautious perspective based on Iridium’s experience of offering satellite phone service for over two decades. She believes that it will take a decade for the market to develop due to the time required for deploying the necessary infrastructure and ensuring proper service adoption.
  3. Middle Ground: Jassem Nasser, Chief Business Development Officer at Thuraya, anticipates the market could take 7-10 years to reach $1 billion in annual revenue. He suggests that the biggest opportunity lies in broadband data rather than voice or messaging services, which will require advanced technologies and significant capital investments.

This debate reflects the industry’s uncertainty about the exact pace of growth for direct-to-device satellite services. Some participants advocate rapid development, while others emphasize a more cautious, long-term approach to ensure success.

Regarding terminology, the industry is still grappling with what to call this market. While it is often referred to as “direct-to-device,” engineers commonly use the term “non-terrestrial networks (NTN).” The industry might need to establish a consensus on the appropriate nomenclature to describe this emerging sector.

The panel also touched on the issue of terminology for the direct-to-device satellite market:

  • Charles Miller, CEO of Lynk Global, believes that industry buzzwords like “direct-to-device” and “non-terrestrial networks” are too technical and don’t effectively communicate the capabilities of the technology to the public. He proposed the term “sat-to-phone” as a more descriptive alternative, emphasizing that the industry needs to speak the language of its customers, the billions of people with phones.
  • Suzi McBride, COO of Iridium, expressed a more consumer-focused view, stating that consumers care more about connectivity than the specific name of the technology.

This debate highlights the need for clear and consumer-friendly terminology to describe these emerging satellite services. While some advocate for more descriptive terminology like “sat-to-phone,” others believe that the technical jargon matters less to consumers than the practical benefits of connectivity.

The U.S. Space Force has awarded L3Harris Technologies a $29 million contract to design a sensor payload for tracking hypersonic missiles from medium Earth orbit. This contract positions L3Harris as a potential third vendor in the MTC Epoch 1 program, which focuses on missile warning, missile tracking, and missile track custody.

Millennium Space Systems and Raytheon Technologies have already been selected by the Space Force to design sensors for MTC Epoch 1. The inclusion of missile-detection satellites in medium Earth orbit is part of the layered missile defense system of the United States, which currently involves ground, sea-based, and space sensors. The low Earth orbit layer is the responsibility of the Space Development Agency and the Missile Defense Agency.

L3Harris is already contracted to produce low Earth orbit missile-tracking satellites for the Space Development Agency and the Missile Defense Agency. The addition of a third vendor like L3Harris helps reduce risk and non-recurring engineering not only for MTC Epoch 1 but also for future epochs, as stated by Col. Heather Bogstie, senior materiel leader for resilient missile warning, tracking, and defense at Space Systems Command.

The agreement between the Space Systems Command and L3Harris Technologies for the design of a sensor payload was funded by a congressional add-on. The one-year “Other Transaction” agreement allows L3Harris to design the sensor payload, and if successful, the Space Systems Command will have the option to purchase up to three payloads and satellites.

Millennium Space Systems and Raytheon Technologies are already under contract for one initial satellite each, with the option to acquire up to three additional satellites once their designs are proven and matured.

Additionally, Parsons was awarded a $55 million contract for the Epoch 1 ground system last month.

The planned constellation for MTC Epoch 1 consists of at least six satellites, which will be deployed in medium Earth orbit starting in late 2026.

The European Space Agency (ESA) has initiated a demonstration project in collaboration with Marple, a German technology firm, to utilize artificial intelligence (AI) and satellite data for certifying organic cotton farms in India and preventing fraud. The project aims to train Marple’s software to analyze imagery from ESA’s Sentinel-2 satellites, which orbit the Earth in a polar trajectory, to identify cotton fields across India and classify them based on their cultivation method.

Marple previously tested this software in Uzbekistan, achieving a 98% accuracy in distinguishing between organic and conventional cotton. Now, the project will be conducted in partnership with the Global Organic Textile Standard (GOTS), a non-profit organization that sets a voluntary global standard for the textile industry.

The demonstration in India is particularly important for enhancing the accuracy of the software, as the country has diverse climatic conditions, a prevalence of small fields, and intercropping practices that can make distinguishing organic cotton more challenging. The software leverages a range of sensors to collect data on vegetation, water, soil, and other indices such as the Normalized Difference Vegetation Index (NDVI), which measures the health and density of vegetation.

The project aims to demonstrate how AI and satellite data can streamline the certification process for organic cotton farms, ensuring the authenticity of organic produce and combating fraud in the industry.

The initial outcomes from the project in India are anticipated to be available by the end of the year, and the Global Organic Textile Standard (GOTS) intends to utilize these results to enhance yield estimations. The project aims to identify cotton fields with traditional and environmentally friendly farming practices, including smaller farms that may operate without organic certification. If fields certified as organic are found to have failed to meet the required criteria, they will be flagged for investigation prior to harvesting their cotton.

One of the challenges in the organic sector is the lack of knowledge regarding the extent to which fraudulent practices have impacted the industry. Additionally, there is currently no reliable data source regarding the number of organic cotton farms in India, making it difficult to accurately assess the quantity of organic cotton being cultivated and its origins.

The European Space Agency (ESA) is co-financing the project in India through its Business Applications and Space Solutions (BASS) program in collaboration with GOTS. They have allocated approximately 500,000 euros ($535,000) to support the demonstration, which utilizes satellite data and artificial intelligence to verify organic cotton farms and address fraud within the industry.

The U.S. Space Force has received the 10th and final GPS 3 satellite manufactured by Lockheed Martin under a contract dating back to 2008. Out of the 10 satellites produced, six have already been launched, while the remaining four are stored at a Lockheed Martin facility in Waterton, Colorado, awaiting future launch opportunities.

On February 16, the Space Systems Command announced that it had declared the 10th satellite “available for launch.” GPS 3 satellites are an upgraded version of the U.S. military’s Global Positioning System, providing enhanced positioning, navigation, and timing signals. They offer improved protection against jamming attacks for military users and feature an advanced L1C signal that is compatible with Europe’s Galileo navigation satellites, benefiting civilian users.

Scott Thomas, the GPS 3 program manager at the Space Systems Command, highlighted the significance of completing the 10th satellite, emphasizing its role in modernizing the GPS system. He acknowledged the program’s importance in meeting U.S. national security needs for both military personnel and the billions of users worldwide who rely on GPS services.

The GPS 3 program faced challenges during its production. Lockheed Martin won the competition against Boeing in 2008, but later encountered technical issues with the primary payload, causing production delays. Despite these setbacks, the delivery of the final GPS 3 satellite marks a notable milestone in the ongoing modernization of GPS technology.

Indeed, the GPS 3 satellite program experienced delays in its launch schedule, with the first satellite launching in 2018 instead of the originally projected 2014. Subsequent launches followed in 2019, 2020, 2021, and most recently last month. The launches were conducted using SpaceX Falcon 9 vehicles for five satellites, while the sixth satellite was launched on a United Launch Alliance Atlas 5 rocket.

As for the seventh GPS 3 satellite, no specific launch date has been announced yet. It is assigned to ULA’s upcoming Vulcan Centaur rocket, which is expected to replace the Atlas 5 in future launches.

Lockheed Martin, the primary contractor for the GPS 3 program, is currently working on an advanced version called GPS 3F. The company’s dominant role in the program led its only competitor, Boeing, to withdraw from the competition to build GPS 3F satellites.

In 2018, Lockheed Martin was awarded a contract worth $7.2 billion for the production of up to 22 GPS 3F satellites. As of now, ten satellites have been ordered under this contract.