Japan’s First Commercial Rocket Debuts With A Bang

Though it suffered through decades of naysayers, these days you’d be hard pressed to find anyone who would still argue that the commercialization of space has been anything but a resounding success for the United States. SpaceX has completely disrupted what was a stagnant industry — of the 108 US rocket launches in 2023, 98 of them were performed by the Falcon 9. Even the smaller players, such as Rocket Lab and Blue Origin, are innovating and bringing new technologies to market at a rate which the legacy aerospace companies haven’t been able to achieve since the Space Race.

So it’s no surprise that other countries are looking to replicate that success. Japan in particular has been following NASA’s playbook by offering lucrative space contracts to major domestic tech companies such as Mitsubishi, Honda, NEC, Toyota, Canon, Kyocera, and Sumitomo. Over the last several years this has resulted in the development of a number spacecraft and missions, such as the Hakuto-R Moon lander. It’s also laid the groundwork for exciting future projects, like the crewed lunar rover Toyota and Honda are jointly developing for the Artemis program.

But so far there’s been a crucial element missing from Japan’s commercial space aspirations, an orbital booster rocket. While the country has state-funded launch vehicles such as the H-IIA and H3 rockets, they come with the usual bureaucracy one would expect from a government program. In comparison, a privately developed and operated booster holds the promise of reduced costs and a higher launch cadence, especially if there are multiple competing vehicles on the market.

With the recent test flight of Space One’s KAIROS rocket, that final piece of the puzzle may finally be falling into place. While the launch unfortunately failed shortly after liftoff, the fact that the private rocket was able to get off the ground — literally and figuratively — is a promising sign of what’s to come.

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Crippled Peregrine Lander To Make Fiery Return Home

Within a few hours of this post going live, Astrobotic’s Peregrine spacecraft is expected to burn up in the Earth’s atmosphere — a disappointing end to a mission that was supposed to put the first US lander on the Moon since the Apollo program ended in 1972.

In their twentieth mission update since Peregrine was carried into space on the inaugural flight of the United Launch Alliance Vulcan Centaur rocket, Astrobotic explains that the craft has been put on a trajectory designed to ensure it breaks up over a remote area of the South Pacific.

Predicted re-renty point for the Peregrine lander.

It was previously hoped the lander, which suffered a severe system malfunction just hours after liftoff, could have at least made a close pass of the Moon in lieu of touching down. But mission controllers felt the more responsible approach was to have Peregrine make a controlled re-entry while they still had the ability to maneuver it. The alternative, allowing the craft to remain in an uncontrolled orbit between the Earth and Moon, could potentially have caused problems for future Artemis missions.

Over the last ten days, ground controllers at Astrobotic have been working to piece together what happened to the doomed lander, while at the same time demonstrating a remarkable level of transparency by keeping the public informed along the way. It’s now believed that the stream of gas being expelled from a rupture in one of the craft’s propellant tanks was acting as a sort of impromptu thruster. This not only made the craft difficult to keep oriented, but also wasted the propellants that were necessary to perform a soft landing on the lunar surface.

Although the craft was eventually brought under control, the damage to the mission had already been done. While this obviously isn’t the ending that Astrobotic was hoping for, we have no doubt that the company collected valuable data during the craft’s flight through space, which took it approximately 390,000 kilometers (242,000 miles) from Earth.

As for us space nerds, we won’t have to wait long before another lunar lander makes its attempt. Japan’s Smart Lander for Investigating Moon (SLIM) should be touching down at around 10 AM Eastern on Friday (YouTube Live Stream), and the Nova-C lander from Intuitive Machines is scheduled to be launched aboard a Falcon 9 rocket sometime next month.

Democratizing Space, One Picosatellite At A Time

There was a time when putting an object into low Earth orbit was the absolute pinnacle of human achievement. It was such an outrageously expensive and complex undertaking that only a world superpower was capable of it, and even then, success wasn’t guaranteed. As the unforgiving physics involved are a constant, and the number of entities that could build space-capable vehicles remained low, this situation remained largely the same for the remainder of the 20th century.

Nathaniel Evry

But over the last couple of decades, the needle has finally started to move. Of course spaceflight is still just as unforgiving today as it was when Sputnik first streaked through the sky in 1957, but the vast technical improvements that have been made since then means space is increasingly becoming a public resource.

Thanks to increased commercial competition, putting a payload into orbit now costs a fraction of what it did even ten years ago, while at the same time, the general miniaturization of electronic components has dramatically changed what can be accomplished in even a meager amount of mass. The end result are launches that don’t just carry one or two large satellites into orbit, but dozens of small ones simultaneously.

To find out more about this brave new world of space exploration, we invited Nathaniel Evry, Chief Research Officer at Quub, to host last week’s DIY Picosatellites Hack Chat.

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Bankruptcy Sale Scatters Virgin Orbit To The Winds

When Virgin Orbit filed for bankruptcy in April, it was clear the commercial launch provider was in serious trouble. Despite successfully putting four payloads into low Earth orbit, the spin-off of Richard Branson’s Virgin Galactic space tourism company had struggled to achieve a high enough launch cadence to become profitable, and had recently suffered a highly-publicized failure when their first launch from the UK from the newly-completed Spaceport Cornwall ended in a complete loss of the vehicle.

There was some hope that a buyer would swoop in and save them at the last minute, but now that the bankruptcy auction has spread out the company’s assets among several other players in the commercial launch industry, Virgin Orbital is officially no more. With future launches now off the table, the company’s remaining employees are set to be let go as operations wind down over the coming weeks.

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Virgin Orbit Pauses Operations, Seeks Funding

It looks as though things may have gone from bad to worse at Virgin Orbit, the satellite carrying spin-off of Richard Branson’s space tourism company Virgin Galactic. After a disappointing launch failure earlier in the year, CNBC is now reporting the company will halt operations and furlough most employees for at least a week as it seeks new funding.

It’s no secret that company has struggled to find its footing since it was formed in 2017. On paper, it was an obvious venture — Virgin Galactic already had the White Knight Two carrier aircraft and put plenty of R&D into air-launched rockets, it would simply be a matter of swapping the crewed SpaceShipTwo vehicle for the LauncherOne orbital booster. But upgrades to the rocket eventually made it too large for the existing carrier aircraft, so the company instead purchased a Boeing 747 and modified it to lift their two-stage rocket out of the thick lower atmosphere. Continue reading “Virgin Orbit Pauses Operations, Seeks Funding”

Blue Origin Loses Rocket, Gains Abort System Test

Even if you’re just making a brief hop over the Kármán line to gain a few minutes of weightlessness, getting to space is hard. Just in case any of their engineers were getting complacent, Blue Origin just got a big reminder of that fact this afternoon with the destruction of their New Shepard 3 (NS3) rocket during a suborbital research flight.

But while the rocket itself was lost, the New Shepard’s automated abort systems were able to push the capsule H. G. Wells away from the fireball, saving the dozens of scientific experiments which had been loaded onto the un-crewed vehicle. While there’s been no public word yet on the condition of these experiments, it’s reasonable to assume that at least some portion of them can be re-flown in the future — a fact that will likely come as a great relief to the researchers who designed them. It will be interesting to see who picks up the tab for the do-over flight; while launch insurance is a must-have for billion dollar satellites, it seems unlikely these small suborbital experiments would have been covered under a similar policy.

A spurt of flame can be seen in the otherwise invisible exhaust moments before engine failure.

We’re also still in the dark about what caused the in-flight breakup of NS3, other than the fact that the engine was clearly sputtering in the seconds before it blew apart. This could be a sign that the engine’s nominal fuel-to-oxidizer ratio was faltering, or perhaps even indicative of foreign debris becoming dislodged and burning in the combustion chamber. But really, without official word from Blue Origin, it’s impossible to say what happened.

This is especially true when you consider that we’re talking about a vehicle that’s pushing the envelope to begin with. Remember, the New Shepard is a reusable booster, and NS3 is specifically a veteran of eight flights — with all but one of them taking the booster above the 100 kilometer altitude, which is generally accepted to be the boundary of space.

For those worried that celebrities and assorted millionaires will no longer have access to space, fear not. Blue Origin’s crewed flights have flown exclusively on the newer NS4 and its associated capsule First Step. This does however mean that Blue Origin no longer has a spare booster on which to fly commercial payloads, potentially putting into jeopardy any semblance of scientific value the program may have had.

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SpinLaunch And The History Of Hurling Stuff Into Space

It’s fair to say that there’s really no phase of spaceflight that could be considered easy. But the case could be made that the most difficult part of a spacecraft’s journey is right at the very beginning, within the first few minutes of flight. At this point the vehicle’s booster rocket will be fighting with all its might against its own immense propellant-laden mass, a battle that it’s been engineered to win by the smallest of margins. Assuming the balance was struck properly and the vehicle makes its way off of the launch pad, it will still need to contend with the thick sea-level atmosphere as it accelerates, a building dynamic pressure that culminates with a point known as “Max q” — the moment where the air density imposes the maximum structural load on the rocket before quickly dropping off as the vehicle continues to ascend and the atmosphere thins.

Air-launched rockets avoid flying through dense sea level air.

While the vast majority of rocket launches have to contend with the realities of flying through the lower atmosphere, there are some exceptions. By launching a rocket from an aircraft, it can avoid having to power itself up from sea level. This allows the rocket to be smaller and lighter, as it doesn’t require as much propellant nor do its engines need to be as powerful.

The downside of this approach however is that even a relatively small rocket needs a very large aircraft to carry it. For example, Virgin Orbit’s LauncherOne rocket must be carried to launch altitude by a Boeing 747-400 airliner in order to place a 500 kg (1,100 lb) payload into orbit.

But what if there was another way? What if you could get all the benefits of starting your rocket from a higher altitude, without the cost and logistical issues involved in carrying it with a massive airplane? It might sound impossible, but the answer is actually quite simple…all you have to do it throw it hard enough.

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