Recent global developments in space science and industry are flourishing across multiple fronts, with nations demonstrating a high level of commitment to the space sector through policy formulation, infrastructure expansion, cutting-edge observation technology, and talent cultivation. The U.S. government recently signed an executive order to officially launch the establishment of the "United States Space Academy," aimed at building a talent pipeline for the rapidly expanding Space Force and commercial space industry. Simultaneously, to enhance its autonomous transport capabilities, the Japanese government plans to invest significantly in expanding the production capacity of its H3 rocket. Regarding scientific observation, a team from NASA and MIT has proposed the "Starshade" concept, attempting to overcome existing technical limitations to directly observe Earth-like planets.

In the field of education, the Hsinchu County Government in Taiwan has promoted an international exchange program, leading high school students to France for internships at the forefront of aerospace, reflecting a shared global concern for building a pipeline of space talent.

Regarding policy and industrial progress, U.S. President Trump signed an executive order on August 28, 2026, at the NASA Johnson Space Center in Houston, officially initiating the establishment of the "United States Space Academy." The institution is positioned as a federal academy combining high-level technical education, leadership training, and public service, with the goal of training military personnel, engineers, scientists, and astronauts for the Space Force, NASA, and the private space industry. According to the executive order, the U.S. will establish a "Presidential Commission on the United States Space Academy," led by NASA Administrator Isaacman, with a requirement to submit concrete site selection and governance plans within 120 days.

On the other hand, Japan’s Ministry of Education, Culture, Sports, Science and Technology (MEXT) plans to request a budget of 23.5 billion yen in the next fiscal year to expand production and launch facilities for its flagship H3 rocket. The goal of this initiative is to increase the annual launch capacity of the H3 rocket from 3 in 2025 to 6 to 8 per year, in order to narrow the competitive gap with private space companies such as SpaceX.

In terms of scientific breakthroughs and educational exchanges, a team from NASA and the California Institute of Technology (Caltech) announced the "Hybrid Observatory for Earth-like Exoplanets" (HOEE) proposal in September 2026. The core of the project lies in using a giant "Starshade" to block the light of host stars, combined with ground-based extremely large telescopes, to capture the faint light of rocky, Earth-like exoplanets. The research team pointed out that the existing James Webb Space Telescope (JWST) and the planned coronagraph for the Roman Space Telescope still face technical thresholds in directly observing rocky planets, and this technology is expected to fill the observation gap.

Meanwhile, the Hsinchu County Government in Taiwan, in collaboration with the Youth Development Administration of the Ministry of Education, selected 19 high school students for an 18-day aerospace internship in France starting August 15, and presented their results in Paris on August 30, showing that Taiwan is actively rooting space education at the grassroots level and aligning with international aerospace innovation frontiers.

These developments have had a profound impact on the global space industry chain. Through the establishment of a national-level academy, the U.S. is attempting to establish the stability of its talent supply chain at the policy level; Japan is strengthening its competitiveness in the commercial launch market by increasing rocket launch frequency. These measures reflect that governments are viewing space exploration as a core national strategy, not only for scientific discovery but also involving long-term planning for national defense, security, and economic interests. For educational systems, governments have recently been promoting integrated space talent cultivation systems from elementary to high school, indicating that the space industry has become a key battlefield for future technological talent competition.

However, there are still different perspectives and limitations regarding these projects. For example, while Japan's decision to expand H3 rocket production aims to catch up with SpaceX, it still faces the challenge of balancing rocket launch costs with market demand; whether a consensus can be reached on the site selection and governance model of the U.S. Space Academy within the 120-day deadline remains to be seen. Furthermore, although NASA's "Starshade" proposal is forward-looking, the technology for coordination with ground-based telescopes is still in the research and development stage, and its effectiveness requires subsequent verification. The public should avoid over-interpreting the short-term effects of these plans; space exploration is inherently a long-term accumulation of science and engineering, and the implementation of various policies and technologies requires time to be tested.

Key points for follow-up observation include: whether the U.S. Space Academy can submit a concrete plan within the four-month deadline as scheduled, and how its curriculum design will integrate with the existing university system; whether Japan can effectively reduce launch costs and increase its commercial market share after expanding H3 rocket production capacity; when NASA's Starshade technology will enter the physical testing stage; and how Taiwan will translate these experiences into substantive R&D momentum for its domestic space industry after promoting international aerospace exchanges. These cross-border space dynamics will continue to influence the global space strategic landscape over the next decade.