March 2, 2018 - China Announces Expansion of Its National Space Program

On March 2, 2018, China announced a dramatic expansion of its national space program, signaling its intent to lead — not follow — in the global space race. You can see the scale of that ambition in the numbers: China conducted 39 orbital launches in 2018, outpacing the U.S. for the first time. Plans included Beidou constellation completion, Tiangong space lab support, and new rapid-launch rocket capabilities. There's far more to this story than a single announcement.

Key Takeaways

• China planned to double its 2018 launch cadence, driven by Beidou constellation expansion and Tiangong space lab resupply requirements.
• The expansion coordinated multiple Long March rocket variants across four spaceports to meet satellite deployment and crewed mission schedules.
• Economic incentives underpinned the surge, as a robust navigation system attracts commercial contracts and reduces foreign GPS dependence.
• Solid-fueled Kuaizhou rockets provided rapid-launch flexibility, enabling mobile satellite deployment across rough terrain at approximately $5,000 per kilogram.
• China's 2018 expansion aligned with Made in China 2025 policy, targeting indigenous advances across launch technology and space infrastructure.

Why China Planned to Double Its Launches in 2018

China's ambitious 2018 launch expansion stemmed from two pressing operational needs: scaling up its Beidou navigation satellite fleet and supporting Tiangong space lab activities. You can see how both priorities created undeniable economic incentives—a robust navigation system attracts commercial contracts while reducing dependence on foreign GPS infrastructure.

The launch logistics behind doubling missions weren't simple. China had to coordinate its Long March family of rockets across four spaceports, ensuring each launch window aligned with constellation deployment schedules and Tiangong resupply requirements. Beidou's growth demanded rapid satellite replacement and network completion, while Tiangong needed consistent cargo and crew transport runs. This trajectory toward independent orbital infrastructure mirrors the broader global shift toward private and national operators exerting low Earth orbit control rather than relying on shared multinational arrangements.

Together, these operational pressures forced China to accelerate its launch cadence, transforming a theoretical ambition into a structured, executable plan with measurable national and commercial payoffs. China's space expenditures have since grown to approximately twenty billion dollars annually, placing it second only to the United States in total space spending. China has also set a target of a crewed Moon landing by 2030, with systematic progress made across its rocket, crewed spacecraft, and lunar lander systems.

The Long March 5's Comeback and What It Unlocks

After a 28-month grounding, the Long March 5 roared back to life on December 27, 2019, successfully lifting the 8-tonne Shijian-20 satellite into orbit from Wenchang Space Launch Center.

The 2017 failure traced back to a turbopump fault on a YF-77 engine, forcing engineers into a complete engine redesign of the turbine exhaust structure. That fix made mission enablement possible for China's most ambitious projects:

• Tianwen-1: China's first Mars rover launched in 2020
• Chang'e 5 & 6: Lunar sample return missions, including far-side surface collection
• China Space Station: The Long March 5B variant launched all three core modules

You're watching China leverage one rocket's comeback to fundamentally reshape its deep space and orbital construction capabilities. Standing 187 feet tall, the Long March 5 generates nearly 2.4 million pounds of liftoff thrust from ten liquid-fueled engines, making it China's most powerful operational launcher.

The Long March 5's development spanned more than a decade and drew on the expertise of over 10,000 space engineers, reflecting the scale of national investment required to bring the program to this milestone. Much like graphene research, where breakthroughs required scalable production techniques to bridge laboratory achievements and real-world industrial application, space programs depend on closing the gap between scientific promise and manufacturing reality.

How Long March 5 Sets Up China's Deep Space Ambitions

With the Long March 5 back in service, it's not just fixing a broken rocket—it's building the backbone of China's deep space program.

Its payload architecture supports everything from Mars sample return to Jupiter orbiters, giving China's missions the mass margins they need to carry full scientific packages.

You're looking at Tianwen-3 reaching Mars in 2028, Tianwen-4 heading to Jupiter in 2029, and Chang'e missions pushing lunar exploration further than ever.

That kind of mission autonomy—launching ambitious probes without depending on foreign hardware—defines China's strategic edge.

Paired with upper stages, the Long March 5 reaches beyond the inner solar system entirely. CASC has confirmed that this configuration gives the rocket the capability to send probes to Jupiter and other planets.

It's not one mission. It's a platform that sustains China's deep space presence for the next two to three decades. The rocket's core stage is powered by two YF-77 engines, producing a vacuum thrust of 1,400 kN each to deliver the performance these interplanetary trajectories demand.

Chang'e 4 and the Race to the Moon's South Pole

On January 3, 2019, China's Chang'e-4 made history by sticking the first soft landing on the Moon's far side, touching down in Von Kármán crater inside the South Pole-Aitken Basin. A relay satellite named Queqiao was essential to the mission, bridging communications between probe and Earth across the lunar far side.

You're watching China position itself strategically for the lunar south pole race by exploiting unique far side resources and radio quietness benefits that no other mission has accessed.

Chang'e-4's mission priorities include:

• Scientific isolation: Far side radio quietness benefits astronomical observations, shielding instruments from Earth's electromagnetic interference
• Resource mapping: Yutu-2's radar and spectrometer survey mineral compositions and subsurface structure, identifying far side resources
• Long-term durability: Exceeding 1,000 operational days by 2022, validating survival technologies for China's planned 2030s crewed south pole landing

The biological experiment aboard the lander saw cotton seeds germinate on the lunar far side, though the sprouts perished after the spacecraft powered down during the lunar night. Similar to how NASA partnered with the European Space Agency to share costs and expand scientific capabilities on the Hubble Space Telescope, China has pursued international collaborations to strengthen the scientific scope of its lunar missions.

Beidou Satellites and China's Push for GPS Independence

China's 1996 Taiwan Strait Crisis wake-up call set off a decades-long push to break free from GPS dependency, ultimately producing BeiDou — a navigation system that's now outpacing its American rival. BeiDou Sovereignty wasn't built overnight. China deployed its first regional satellites in 2000, expanded to Asia-Pacific coverage by 2012, and achieved full global operation in 2020 with 45 satellites — surpassing GPS's 31.

You're looking at a system offering 10 cm military precision, 10-nanosecond timing accuracy, and unique short-message communication capabilities GPS can't match. Navigation Independence now extends across Belt and Road nations, with BeiDou integrated into smartphones and critical infrastructure. A March 2025 upgrade will further consolidate the constellation, signaling China's intent to push global adoption far beyond Asia-Pacific.

Industry professionals have assessed that there are no inherent risks to products receiving data from BeiDou, with smartphones receiving BeiDou data considered safe for consumer use. The upgrade will reduce the active constellation from 50 to 37 active satellites, consolidating coverage through a combination of medium Earth orbit, inclined geosynchronous orbit, and geostationary orbit satellites. Much like the U.S. decision to end Selective Availability in 2000, China's ongoing BeiDou enhancements reflect a broader strategic shift toward making precise navigation accessible to civilian and commercial users worldwide.

Tianhe-1: China's First Space Station Module Targeting 2018

While BeiDou gave China independence in navigation, the country set its sights even higher — literally. You're watching China build its own space station, beginning with Tianhe, the core module announced in October 2013.

The launch timeline originally targeted 2018, with full station completion by 2022 — exactly three decades after Project 921's 1992 approval.

Tianhe's specifications explain why this module matters:

• Management hub: Controls power, propulsion, and life support for the entire station
• Living space: Provides 50 cubic meters for three astronauts
• Engineering milestone: China's largest, heaviest, most complex spacecraft ever built

When China released Project 921-3 funding in 2010, it committed to a modular station rivaling anything in low Earth orbit. Tianhe was just the beginning. The station was designed to operate for 10 years, extendable to 15 years with proper repair and maintenance. Like Axiom Space's commercial modules, Tianhe was engineered as an independent spacecraft with its own propulsion, power, and life support systems capable of operating without reliance on external infrastructure. Tianhe would ultimately launch atop a Long March 5B rocket from the Wenchang Spacecraft Launch Site on April 29, 2021.

Could China Operate the Only Space Station by 2024?

The three-module Tiangong station reached full operational status on November 29, 2022 — years ahead of the ISS's projected 2028–2030 decommissioning. That gap matters. Once the ISS retires, you're looking at a window where China could operate the only crewed orbital station on the planet.

Tiangong's crew capacity supports six astronauts simultaneously, with six-month rotation cycles maintaining a permanent presence. It's roughly 20% of the ISS's mass, but it's operational, expanding, and built for a minimum 10-year lifespan.

Post-2030, China's planned six-module expansion and new spacecraft developments position Tiangong as the dominant — possibly exclusive — orbital platform. Complementing the station, the Chinese Space Station Telescope is a Hubble-class observatory sharing Tiangong's orbit, capable of docking for maintenance and equipped to survey roughly 40% of the sky over its 10-year lifetime. Whether that concerns or excites you depends on your perspective, but the timeline makes it a realistic scenario worth watching. China's lunar ambitions further underscore this trajectory, with the government targeting crewed Moon landing by 2030 and the construction of a permanent lunar base. Much like Apple's first retail stores were designed to build long-term customer relationships rather than chase short-term transactions, China's space program appears structured around sustained presence and incremental expansion rather than isolated milestone achievements.

CASIC and the Kuaizhou Rockets Joining China's 2018 Launch Push

Solid-fueled rockets are reshaping China's 2018 launch push, and CASIC's Kuaizhou-11 sits at the center of that shift.

Built for rapid mobilization, it launches from mobile platforms with minimal infrastructure, making it a serious commercial competitor at just $5,000 per kg.

You'll want to note what sets the Kuaizhou-11 apart:

• Payload capacity: Delivers 1,000–1,500 kg to Sun-synchronous orbit at 700 km
• Commercial competitiveness: Undercuts international rivals with a 78-tonne, solid-fuel design
• Strategic flexibility: PLA Rocket Force operates it across rough terrain for rapid satellite replacement

Manufactured by ExPace, CASIC's subsidiary, the Kuaizhou family has evolved since its first truck-launched success in 2013, positioning China aggressively in today's global launch market. Its first planned mission is set to carry six satellites into orbit, demonstrating the rocket's capacity to serve multiple commercial clients in a single flight. The Kuaizhou-11's inaugural launch was announced by CASIC following reports that preparation work had been fully completed ahead of the first half of 2018 target window.

How China's 2018 Launch Surge Reshapes the Global Space Race

China's 39 orbital launches in 2018 didn't just break records—they redrew the competitive map of the global space race. You can see it in the numbers: China outpaced the US 39 to 31, pushing Asia's share of global launches to 40% and cracking the old US-Russia duopoly. That surge crowded commercial launchpads across Jiuquan, Xichang, and Taiyuan, intensifying space traffic while signaling China's intent to dominate multi-orbit operations.

India and Japan accelerated their own programs in direct response. BeiDou's expansion reduced PLA dependence on GPS, and Chang'e-4's 2019 lunar success traced back to 2018 preparations. Western governments took notice, fast-tracking the US Space Force and boosting commercial incentives to counter China's rapidly expanding footprint. China's broader ambitions also extended to long-term infrastructure, with the Tiangong space station representing a cornerstone of its strategy to build fully independent orbital capabilities beyond Western control.

Underlying these ambitions was a robust policy framework driving industrial expansion, with Made in China 2025 explicitly targeting indigenous advances in space launch technologies as part of a broader push to dominate ten critical sectors. Meanwhile, American commercial competitors like SpaceX were simultaneously demonstrating that reusable rocket boosters could dramatically reduce the cost of access to space, adding further urgency to China's push for launch vehicle innovation.