This morning, while sipping my coffee and scrolling through SpaceNews like I do every day, an update hit my screen that made me set the mug down.

CAS Space, a private Chinese space company, just launched another five satellites aboard their “Lijian-1” solid rocket. Nothing unusual there—China launches rockets all the time.

But then I saw the cumulative numbers.

That launch marked the 14th flight of the Lijian series. And with it, these rockets have now successfully delivered exactly 100 satellites into orbit, with a total payload mass exceeding 18 metric tons.

In China’s commercial space race, Lijian-1 just became the first private rocket to hit the “100 satellites” milestone.

For years, the only rockets in China that could claim numbers like that belonged to the state-run Long March family. Now, a private company has quietly joined that club. And as someone who tracks global commercial space developments for a living, I have to admit—this caught me completely off guard.

Not Just a Number—A Strategic Leap Forward

Let’s break down what actually happened.

On May 15, 2026, at 12:33 PM Beijing time, the Lijian-1 Y13 rocket lifted off from the Dongfeng Commercial Space Innovation Pilot Zone in Inner Mongolia. This wasn’t a test flight. This was a routine commercial launch: five satellites precisely delivered into their planned orbits.

But one of those satellites stood out from the rest.

“Youxi Hao” (literally “Got Game”) isn’t your average imaging or telecom satellite. According to CAS Space, it’s the world’s first space-ground integrated interactive cultural communication satellite. It carries two 4K high-definition displays and multiple cameras, designed to broadcast video signals into space and—here’s the clever part—back down to Earth in a real-time two-way link. The satellite’s screen will showcase content sourced from global social media platforms, offering a participatory experience that bridges everyday users and the orbital vantage point.

When SpaceX is busy deploying Starlink and Blue Origin is still testing New Shepard, a Chinese commercial rocket company just put a cultural broadcasting platform into orbit. I’m not saying this is a game-changer for the industry. But it’s exactly the kind of unexpected creativity that emerges when launch becomes affordable and accessible.

The cumulative numbers tell the real story. Before this mission, Lijian-1 had already completed 12 flights. Y13 was the 13th for Lijian-1 and the 14th for the entire Lijian series. And the total scorecard now stands at 100 satellites, 18 tons of payload.

This isn’t just a ceremonial achievement. It marks the point where a Chinese commercial rocket has officially transitioned from experimental validation to industrialized mass production and regular operations.

The Secret Sauce: From “Custom Showpiece” to “Industrial Commodity”

Here’s why this matters to the global launch market.

When I first read that CAS Space claims Lijian-1 can already support a “weekly launch” cadence, I assumed it was corporate puffery. Building, testing, and launching orbital-class rockets takes time. Nobody in the commercial space industry outside of SpaceX is launching weekly.

But after digging into their operational approach, I realized I was wrong.

“We have fundamentally shifted from treating rockets as custom-made artifacts to industrialized mass-produced commodities,” Meng Xiangfu, deputy commander of Lijian-1, told financial media Caixin.

That’s not just a nice slogan. He explained that the team borrowed from automotive industry practices, adopting a pulsed-flow assembly line model. Multiple rockets can be assembled in parallel, and their current manufacturing capacity has reached 30 rockets per year.

Let that sink in for a moment.

Thirty orbital-class solid rockets—per year.

That’s the kind of production volume that fundamentally changes the economics of launch services. When you can mass-produce rockets like Toyota mass-produces Camrys, the per-unit cost drops dramatically. And when combined with dedicated integration facilities and launch pads that allow for rolling assembly and rapid turnaround, “weekly launch” stops sounding like a stretch goal and starts sounding like a realistic operational target.

Meng further explained that CAS Space has built dedicated hangars and launch pads specifically for Lijian-1, optimizing workflows to enable “rolling assembly and launch of multiple rockets”. The entire ground support system can complete pre-launch preparations within just 2 hours after receiving a mission order.

Sun Liangjie, deputy chief designer of Lijian-1, articulated an even more intriguing vision: “We want to reach a point where the launch vehicle provides standardized seats, satellite passengers come and take their seats, and when the seats are full—we launch”.

This is the same kind of rideshare thinking that made SpaceX’s Transporter missions so successful. But whereas SpaceX achieves it through software and logistics, CAS Space is attempting to bake it directly into the hardware standardization.

The International Ambition—More Real Than You Think

Now let’s talk about international customers, because this is where things get genuinely interesting.

As a Western observer, I’ve often assumed that Chinese commercial rockets would struggle to attract foreign satellite operators. But CAS Space has quietly been building a global clientele that’s more impressive than I expected.

In October 2025, Lijian-1 Y8 successfully launched Pakistan’s PRSC-EO1 remote sensing satellite into orbit. That was a fully dedicated international mission—not just a secondary piggyback ride. Then in August 2025, Lijian-1 Y10 conducted a seven-satellite mission that included two Mexican satellites.

But the most eye-catching international mission came in December 2025. Lijian-1 Y11 performed a rideshare launch carrying nine satellites, including the UAE’s 813 satellite, a satellite developed by the Egyptian Space Agency, and an education satellite from Nepal.

According to CAS Space’s official filings, the company has now expanded its international customer base to six foreign entities, with launch services covering Europe, North America, South Asia, the Middle East, and North Africa.

And here’s the stat that really caught my attention: CAS Space’s prospectus reveals that in 2025, the company captured 100% of China’s private commercial rocket international launch market. Every single international satellite launch that used a Chinese commercial rocket last year—every one of them—was handled by CAS Space.

That’s not a trivial footnote. That’s market dominance in a strategically important niche.

Market Share: The Numbers Don’t Lie

Let me give you the raw data.

According to Frost & Sullivan, CAS Space’s market share of China’s private commercial rocket sector (measured by launch payload mass) reached approximately 50% in 2024 and climbed to 63% in 2025. The company leads both in payload mass delivered and in total revenue.

This isn’t just being “a player” in the Chinese market. This is being the dominant player by a substantial margin.

Yes, there are other Chinese commercial rocket companies. Landspace (Zhuque series), Galactic Energy, Deep Blue Aerospace—they’re all making progress. But when it comes to actual deliveries, completed missions, and international credibility, CAS Space is in a league of its own.

The company’s prospectus states that by the end of 2025, it had served nearly 30 satellite customers, including China’s leading satellite internet companies, national research institutes, and major state engineering programs. That’s a broad and deep customer base that spans both domestic and international markets.

But How Does It Stack Up Against SpaceX?

Now, I can already hear what some readers are thinking.

One hundred satellites is impressive. Eighteen tons of payload is respectable. But the Falcon 9 launched 165 missions in 2025 alone. Single Falcon 9 boosters have been reused more than 30 times. The recovery success rate is over 98%. How does Lijian-1 possibly compete with that?

Let me be completely transparent about the gap.

The Falcon 9 has become a statistical anomaly in human spaceflight history. Its flight rate, reusability metrics, and cumulative payload are so far ahead of any other orbital rocket ever built that comparing anything else to it almost seems unfair. China’s commercial rockets are not there yet—and they themselves will be the first to admit it.

But that’s not the point.

The point is that CAS Space is playing a fundamentally different game—for now.

Lijian-1 is a solid-fuel rocket. It’s not designed for vertical landing reusability. It’s designed for rapid response, minimal pad infrastructure, and mass production. Solid rockets have distinct advantages: they require no propellant loading on the pad, can be stored for extended periods, and can launch on extremely short notice.

For applications like emergency constellation replenishment, responsive space missions, or launches from remote sites without complex fluid handling infrastructure, solid rockets have a clear role.

And critically, CAS Space hasn’t painted itself into a corner.

The Liquid Future Is Already Here

On March 30, 2026, just six weeks before Lijian-1 hit the 100-satellite milestone, CAS Space successfully conducted the maiden flight of its Lijian-2—a large liquid-propellant rocket designed for entirely different mission classes.

This rocket is a beast.

Lijian-2 stands 53 meters tall, with a core diameter of 3.35 meters. Takeoff mass is 625 tons, with takeoff thrust of 753 tons. It can deliver 8 tons to 500km Sun-synchronous orbit and 12 tons to low Earth orbit.

Those numbers put it in an entirely different weight class than Lijian-1. This is a serious medium-to-heavy lift vehicle, capable of deploying large satellite constellations and supporting space station cargo missions.

And here’s the part that should get your attention: Lijian-2 is designed for reusability from the outset.

The maiden flight didn’t yet use reusable engines, but CAS Space has made it clear that future versions will swap in their in-house “Liqing-2” (LQ-2) engine—a 110-ton-thrust LOX/kerosene reusable engine already in advanced development. The company has already conducted substantial testing on its 30-ton-class Liqing-1 engine, with cumulative test firings exceeding 1,500 seconds.

The reusability approach is also innovative. CAS Space has proposed a clustered recovery scheme for Lijian-2, where the core stage and two boosters would be recovered as an integrated cluster, reducing the number of separation mechanisms and simplifying the overall recovery architecture. If this works, it could significantly lower the cost of reusability compared to the Falcon 9’s approach of landing each core separately.

Here’s the bottom line: CAS Space has now established a dual-track strategy. Lijian-1 provides reliable, mass-produced, high-cadence solid rocket capability for smaller payloads and quick-response missions. Lijian-2 provides heavy-lift liquid capability with a clear pathway to reusability. And the company’s Liqing engine family is building the critical reusable propulsion technology that will eventually power both platforms.

This isn’t a company that lucked into a single good rocket. This is a company methodically building out a full-spectrum launch portfolio.

Where the Cost Battle Stands

Let me share some numbers that will put this in stark perspective.

According to publicly available data, Lijian-2’s single-launch cost without reusability is already around $4,200 per kilogram—which puts it in the same ballpark as a Falcon 9’s quoted commercial price (approximately $5,000-$6,000/kg). CAS Space has achieved this through aggressive supply chain optimization and manufacturing scale.

But here’s the part that keeps me up at night: SpaceX’s internal marginal cost after reuse is estimated at only $1,500-$2,700 per kilogram. That’s a staggering price advantage. And if Starship achieves full reusability with its targeted fuel cost of $200/kg or less, the gap could become even more extreme.

However, Lijian-2’s cost story is still unfolding. Yang Haoliang, the rocket’s chief commander, has stated that once Lijian-2 achieves reusability, its cost could fall to half of Falcon 9’s current level. Even if that’s optimistic, it suggests that Chinese commercial rockets are on a credible trajectory toward global cost competitiveness.

The Broader Context—China’s Commercial Space Revolution

What we’re witnessing isn’t just about one rocket company. It’s about an entire ecosystem.

On the day before Lijian-1’s 100th satellite launch, Landspace successfully launched its Zhuque-2 improved Y5 rocket from the same Dongfeng Commercial Space Innovation Pilot Zone. Two successful commercial launches from two different companies, within 24 hours.

In January 2026, Galactic Energy conducted a sea launch of its Ceres-1 rocket off the coast of Shandong. Later that same month, the maiden flight of their Ceres-2 ended in failure—which is exactly what the test-and-learn phase of commercial space development looks like.

In April 2026, Space Pioneer’s Tianlong-3 attempted its maiden flight. It didn’t fully succeed either. But the company is already working on the fix.

The point is this: China now has multiple private rocket companies actively flying, failing, iterating, and improving. This is what a healthy commercial space industry looks like.

And the overall flight rates reflect this growth. At a China Space Day forum in April 2026, academician Yu Dengyun projected that China’s total annual orbital launches could exceed 100 in 2026, with over 60 commercial launches—more than 30 of them by private companies.

Thirty-plus commercial launches by private Chinese companies in a single year. Let that number sit with you for a moment.

What Keeps Me Up at Night

I’ve been tracking global commercial space developments for years. And what I’m seeing from China’s private space sector genuinely concerns me—not in a fearful way, but in a professionally alert way.

Here’s why.

For a long time, the standard narrative in Western space circles was that China’s “state-owned enterprise space” was formidable, but their commercial space sector was immature—full of hype but lacking real operational capability.

That narrative is now demonstrably false.

A Chinese private rocket company has quietly accumulated 14 successful flights, 100 satellites deployed, and 18 tons of payload delivered. It has captured 63% of its domestic private launch market and 100% of its international commercial launch market. It has established manufacturing capacity of 30 rockets per year and a claimed “weekly launch” operational cadence. And it has already flown a heavy-lift liquid rocket with a clear reusability roadmap.

This isn’t a “commercial space newcomer” story anymore. This is a legitimate global competitor story.

The key question for Western space companies and policymakers isn’t whether China’s commercial space sector will become competitive. It already is. The question is how fast they will close the remaining gaps in reusability, heavy lift, and operational experience.

Lijian-1 hitting 100 satellites isn’t the end of a story. It’s the beginning of a new one. And as someone who watches this industry for a living, I’ll be paying very close attention to what comes next.

The scales of global commercial launch competition are tilting. And the weight on the other side just got a lot heavier.

Folks, let’s talk about something that’ll get your heart pounding.

Right now, as you’re reading this, a NASA spacecraft called Psyche is screaming past the planet Mars at nearly 12,000 miles per hour — and missing the surface by a hair. About 2,800 miles, to be exact. That’s roughly the distance from New York to Los Angeles. When you’re dealing with an entire planet, you’re basically shaving the atmosphere.

You might be thinking: Has NASA lost its mind? They spent all that time and money to launch a spacecraft just so it could do a fly-by of Mars?

Hold on. The story behind this maneuver is way more insane than any Hollywood blockbuster.

Cosmic Slingshot: How Mars Is Kicking Psyche Into High Gear

First, let’s get one thing straight. Psyche is not going to Mars. It’s headed for a bizarre metal world in the asteroid belt, also named Psyche, that orbits the Sun three times farther out than Earth does. Trying to get there with a straight shot would be a fuel nightmare. We’d never make it.

So NASA’s orbital engineers came up with an absolutely genius move: let Mars do the heavy lifting.

Here’s the idea. As Psyche swoops close to the Red Planet, Mars’s gravity grabs the spacecraft and flings it forward, like a slingshot. The planet’s gravity doesn’t just bend the spacecraft’s path — it gives it a free speed boost. In spaceflight lingo, this is a gravity assist. You let a planet act as a giant, cosmic gas station. No fuel required.

To nail this maneuver down to the millisecond, Psyche fired its thrusters back on February 23 for a 12-hour trajectory correction. Mission planning lead Sarah Bairstow said the computers onboard had already scripted every single move for May. Lindy Elkins-Tanton, the mission’s principal investigator, was even more blunt: “The number one priority is to get that kick from Mars and go. If the instruments pick up some bonus science along the way, that’s just gravy.”

The closest approach happened on May 15, 2026, at 3:28 p.m. Eastern, with every science instrument wide awake and snapping images of Mars. But here’s the really cool part — Psyche is approaching from the night side, so it’s seeing Mars as a thin crescent, not the big red disk you’re used to. Jim Bell, who runs the imaging team, summed it up perfectly: the photos are useful for calibrating the cameras, but they’re also “just plain pretty.”

What Is This $1 Quadrillion Asteroid, Anyway?

Alright, the spacecraft’s move is cool. But the destination is mind-blowing.

Asteroid 16 Psyche was first spotted back in 1852 by an Italian astronomer named Annibale de Gasparis. It sits in the main asteroid belt between Mars and Jupiter. It’s shaped like a giant potato — about 173 miles long and 144 miles wide.

But the shape isn’t the headline. This thing is made almost entirely of metal.

Using ultraviolet data from the Hubble Space Telescope, scientists have figured out that Psyche’s surface is loaded with iron and nickel, laced with traces of gold, platinum, and other precious metals. We’re talking about metal concentrations somewhere between 30 and 60 percent. Imagine an entire mountain range made of iron. Imagine a world that’s basically one giant, floating slab of ore.

So someone did the math: if you could haul all that metal back to Earth and sell it at today’s market prices, what would it be worth? Roughly $1 quadrillion. That’s a one with fifteen zeros. To wrap your head around it, that’s about 10,000 times the entire global economy. If you dropped that much gold on the market, you’d crash everything. Gold would become cheaper than gravel.

And no, NASA is not planning to land on Psyche, dig it up, or bring any of it home. Psyche is going to slip into orbit around the asteroid in 2029 and study it for two years with a whole suite of instruments. This isn’t a mining mission. It’s a time machine.

Something Far More Precious Than Gold: The Exposed Core of a Dead Planet

So if we’re not mining it, why in the world are we spending over a billion dollars to go stare at a lump of metal?

The answer is way cooler than any “trillion-dollar space rock” headline.

Scientists think 16 Psyche isn’t just some random chunk of metal. It’s the naked core of a failed planet — an ancient protoplanet that got its outer layers violently ripped off billions of years ago.

Here’s the picture: about 4.6 billion years ago, when the solar system was just getting started, space was full of baby planets smashing together. One of them was growing, pulling in rock and metal, forming a crust and a hot iron core, just like the Earth. But before it could finish, a series of catastrophic collisions blasted away all the rocky outer layers, leaving the heavy metal core exposed and drifting in the cold. That’s 16 Psyche.

If this theory is right, Psyche is the only planetary core humanity will ever get to visit. Earth’s own core is made of iron and nickel, but we will never, ever drill down to see it. Too deep, too hot, insanely high pressure. Psyche is nature’s gift — a planetary core that’s already been dissected and left out in space for us to study.

As Lindy Elkins-Tanton puts it, this is a window into how planets form and how their cores come together. It’s tied directly to that biggest of questions: how did Earth end up able to support life? The surface is just the skin. Psyche could show us the heart.

Three Years Down, Three More to Go

Psyche launched from Kennedy Space Center on October 13, 2023, riding a SpaceX Falcon Heavy rocket. The spacecraft is about the size of a van, and its engine is weirdly quiet — it uses solar electric propulsion. It takes xenon gas, runs it through Hall-effect thrusters, and spits out a gentle blue glow to push itself forward. Super efficient, but slow. That’s why the whole journey from Earth to the asteroid will take nearly six years.

From Earth to Mars to the asteroid belt, Psyche is traveling some 2.2 billion miles. It’s expected to arrive in August 2029.

Oh, and as a little side hustle, Psyche is testing some next-gen tech. It carries an experimental system called Deep Space Optical Communications — basically a space laser for sending data instead of old-school radio waves. Back in November 2023, it fired a laser signal to Earth from 10 million miles away. That was the first time anyone had ever demonstrated laser communication across deep space. So while Psyche is chasing a dead planet’s core, it’s also paving the way for the next era of cosmic internet.

Why We Go This Far

Honestly, 99 percent of people probably won’t even notice Psyche’s Mars flyby today. There’s no astronaut in danger, no explosions, and we won’t get a crisp picture of Mars for a few days. It’s quiet and patient, this kind of spaceflight.

But that quiet patience is exactly what makes it so human and so extraordinary.

We spent over a decade planning this. We committed more than a billion dollars. We launched a spacecraft into the void and told it to fly for six years, alone, just so it could go look at a 140-mile-wide metal rock. Why? Because we absolutely need to know what a planetary core looks like. What Earth’s childhood was like. How a searing ball of iron and nickel turned into this blue jewel that made us.

Back in 1969, humans first set foot on the Moon. Today, a machine named Psyche is racing toward a 4.6-billion-year-old remnant of a shattered world. Next year, it’ll be deep in the asteroid belt, closing the gap on that metal world.

See you in 2029. If you’re still reading our stories then, we’ll pick this right back up.