Foxconn Showcases an End-to-End Low-Earth-Orbit Satellite Strategy at TASTI 2026

Table of Contents

• You might want to know
• Foxconn’s TASTI 2026 Showcase and Satellite Strategy
• Key Insights Table
• Afterwards...

You might want to know

• How do Foxconn’s second-generation Pearl satellites differ from its first-generation mission?
• How could satellite communications technologies support future space computing and AI applications?

Foxconn’s TASTI 2026 Showcase and Satellite Strategy

Foxconn (鴻海, 2317-TW) announced that it will participate in the Taiwan Space International Conference 2026 (TASTI 2026) from November 8 to 10. With next-generation satellite communications as its central theme, the company plans to present a model of its second-generation Pearl low-Earth-orbit satellites alongside technologies developed with group partners. The exhibits include satellite communications modules, phased-array antennas, low-Earth-orbit user terminals, and key cables. Together, they illustrate an approach that spans satellite platforms, communications equipment, and system integration.

The showcase also reflects a progression in Foxconn’s stated space ambitions: from in-orbit validation of a single satellite to cooperative communications between two satellites, and from communications demonstrations toward space computing and next-generation space infrastructure. Rather than focusing on a single device, the company is presenting a connected set of capabilities that includes satellite design, radio-frequency components, antennas, terminals, and supporting systems.

The second-generation Pearl satellites, PEARL-1A and PEARL-1B, launched at 5:03 a.m. Taipei time on May 3 this year aboard a SpaceX Falcon 9 rocket and entered their planned orbit approximately 600 kilometers above Earth. The pair retains the 6U XL architecture used by the first-generation Pearl satellite. Each satellite weighs approximately 9.5 kilograms and is designed primarily to validate payload technologies for communications and space science. Their planned in-orbit mission is 5 years.

Foxconn Research Institute’s Institute of Next-Generation Communications director, Wu Ren-Ming (吳仁銘), said the successful placement of the second-generation pair into their planned orbit marks a further step for the company’s satellite technology. In his account, the effort advances from first-generation, single-satellite system validation toward cooperative communications between two satellites and space science missions. The distinction is significant because a two-satellite mission can test functions that a single platform cannot demonstrate in the same way, including direct data transfer between spacecraft.

Wu also described the value of the experiments planned for the satellites. Through in-orbit tests involving inter-satellite links, ionospheric observation, and broadband communications between satellites and ground stations, Foxconn expects to build flight heritage and practical operating experience for its independently developed satellite capabilities. The company’s stated objective is to translate mission experience into industrial capabilities that can be extended and integrated with other technologies.

The first-generation Pearl mission focused on broadband communications experiments between a satellite and ground stations, as well as system validation. The second-generation satellites add a Ka-band inter-satellite link (ISL) payload. This addition allows the mission to continue testing broadband links between satellites and ground stations while also validating data transmission between the two satellites. The experiments therefore broaden the communications scope from a spacecraft-to-ground connection to include spacecraft-to-spacecraft communication.

The second-generation satellites also carry a compact ionospheric sounder and a solar-cell payload for observations of the space environment and scientific experiments. These payloads add research tasks alongside communications testing. Foxconn says the mission is intended to build experience across satellite design, system integration, in-orbit operations, and mission management. Taken together, the work provides an opportunity to evaluate both technical performance and the practical processes required to operate a satellite mission.

Beyond its satellite platforms, Foxconn is bringing together communications technology, hardware design, and system-integration capabilities to exhibit several satellite communications products. One is a 5G terrestrial network/non-terrestrial network user-terminal modem module (5G TN/NTN UT Modem Module). It uses a 5G communications chip from MediaTek (聯發科, 2454-TW), combined with Foxconn’s hardware design and system-integration capabilities. The module is positioned for 5G non-terrestrial network (NTN) applications, including communications associated with low-Earth-orbit satellites.

Other products address antenna and radio-frequency functions. The phased-array module uses RF high-frequency beamforming technology to improve low-Earth-orbit satellite communications performance. The RF up/down converter module uses a modular design and is compatible with different generations of analog modems. These exhibits illustrate the range of technologies Foxconn is assembling, from communications modules and radio-frequency equipment to antennas and integrated systems. The company’s presentation thus links individual components to the broader challenge of building usable satellite communications solutions.

Foxconn is also looking ahead to space computing and AI applications. The company says it will continue to draw on capabilities in AI, computing, communications, key components, precision manufacturing, system integration, and advanced thermal management. It has begun early research into important challenges such as high-efficiency heat dissipation and heat transfer. These topics matter because technologies developed for AI data centers may need to be adapted if computing workloads are extended to satellites or other space environments.

Preparing for that possible extension requires more than computing hardware alone. The company’s stated areas of strength—manufacturing, components, integration, and thermal management—address different parts of the technical problem. Early research into heat management is intended to help prepare for conditions in which equipment must operate in space, while the satellite and communications work provides a foundation for connecting systems across orbital and ground-based environments. Foxconn has not presented this as a completed space-computing deployment; rather, it describes preparatory work and an opportunity to extend existing capabilities into a new setting.

Foxconn also plans to deepen cooperation with industry, government, academia, research institutions, and international partners. Such collaboration is presented as a way to develop the technical capabilities required for next-generation space communications and infrastructure. The company’s TASTI 2026 participation brings together current satellite demonstrations, communications products, and longer-term preparation for space computing. Its strategy, as described, is to build from validated satellite missions and integrated communications technology toward broader infrastructure opportunities.

The central milestone is the transition from a single-satellite validation effort to a two-satellite mission that can test inter-satellite data transmission alongside satellite-to-ground broadband communications. The value of the work will depend on what the satellites demonstrate in orbit and on how effectively those results can be translated into repeatable, integrated technologies. The exhibition provides a view of both the mission itself and the products Foxconn and its partners are developing around it.

Key Insights Table

Afterwards...

Foxconn’s TASTI 2026 presentation connects an in-orbit satellite program with a broader portfolio of communications hardware and system capabilities. The second-generation Pearl mission is intended to build on first-generation validation by testing dual-satellite cooperation, inter-satellite data links, and additional space science payloads. Its planned results could help inform future satellite design, integration, and operations, while the exhibited modules and antennas show how the company is approaching communications beyond the satellite platform itself.

The longer-term opportunity is to adapt capabilities in AI, computing, communications, manufacturing, and thermal management for space-based infrastructure. That development will depend on technical validation, operational experience, and continued cooperation with partners across industry, government, academia, and research. For now, Foxconn’s stated direction is a stepwise one: build experience through satellite missions, integrate supporting technologies, and use that foundation to explore next-generation space communications and computing.