Except that doesn't work, you can't throw something into orbit without another burn at the far end to circularize the orbit (Hohmann transfer) otherwise the object goes all the way around and comes back to the exact same spot you threw it from like a boomerang and crashes into Earth. You need to throw a rocket so you can get that added burn once at altitude.
@@wally7856 I don't think it's that challenging from an orbital mechanics standpoint. I think it's more a problem of designing functional satellites that can survive the rotational acceleration necessary for an exit velocity well above their target orbital velocity (~17k mph), and developing materials that will protect the satellite from compression heating within Earth's atmosphere. The latter is orders of magnitude more difficult than atmospheric re-entry, which is already reasonably challenging.
@@mifune9634 The electronics in the Excalibur artillery shell are designed to withstand +20,000g's and -8,000 g's. Same with Canada's HARP program in the 60's that would fire space going payloads from a gun (largest artillery in the world) to about 187 km (116 miles) high hitting 20,000 g's. They never achieved orbital velocity (which would have been achieved using an on board rocket in the shell, not from the launch itself) before funding was cut.
The issue is the projectiles are limited in payload as the payload has to be designed to withstand the launch system, rather than it's primary mission upon delivery.
You're 100% correct. Hypersonic speed will put tremendous G force on any payload, so much so that unlike shells which are designed to destroy using kinetic energy, any delicate payload would be destroyed upon leaving the centrifuge vacuum.
There are a ton of issues. To mark the most important ones: 1st - the same force the projectile gets at the moment it gets yeeted, the same force goes to the opposite direction through the mechanic of this machine into the ground. The only way around this is to also release a counter weight which of course would also hit like a bomb. 2nd - The moment the projectile hits the outside air around the vacuum chamber this will be with several times the speed of sound. Now hitting a column of air at that speed goes out not too well for anything. Regardless how pointy it is. And I've not even mentioned friction heat now. :)
AEROSPACE ENGINEER HERE: That's actually a sensible comment unlike so many others. My preferred option for smaller satellites is air launching. Its simply a well proven method for smaller payloads. It also has the issue that the vehicle and payload need careful structural design to handle the transition from level to vertical flight. People need to be a lot more sceptical about novel technologies and even more so for ones promoted as "game changers." There's so many "game changers" these days its hard to keep up. One thing for people to look for is if something like it appeared in a sci-fi film. For example Elizabeth Holmes idea for the 1 drop of blood Theranos technology was copied from the 1997 film Gattaca that starred Ethan Hawke and Uma Thurman.
@@diymicha2 You know the Greeks, the Spartans were short stature just like this inventor and they believed that height affects smartness, the intelligence was poured into molds with a same sized jug and so didn't fill up the tall people so completely. The idea of big lunkheads is very old. You know, don't be a big lunkhead yourself. The man has done it, save your Doubting Tom breath.
There is a lot of wasted energy in this system. to transfer 100% of the rotational kinetic energy into the projectile, the moment arm would stop completely. The fact that the arm keeps spinning around the same rpm after release indicates that this safety factor has obviously been considered into the projectile design.
This video doesn't show it, but there is a counter weight on the other side of the arm that releases when the payload is released. So there is no unbalance. In the future if they ever get the system working they will have payloads on each side of the arm, and they will be released one after the other. They say the bearings should be able to handle the unbalanced spinning for until the second payload is shot out.
At this point I am beginning to think that this is really a stealth pitch to the military instead of a space launch system. Change the launch arm to a wheel so you can launch multiple projectiles at once, spin it up to sub orbital speeds and you could deliver a dozen or more payloads weighting multiple tons each to any point on the planet. Even if you can only get the range up to a thousand miles or something along those lines it would still make for one hell of an artillery piece.
well, they wouldnt need to be stealth about it as there arnt many providers. Even the contracting done for jets is a mere formality. It would also simultaneously advertise to adversaries or competitors, for that matter. There is zero benefit to be public about it if the intent is purely military use. Military also coulnt care any less about green tech and they're not scraping for funding, since war is one of the greatest businesses. If they wanna advertise, its indeed commercial space
It'd have the same problem every previous space gun (Nazi's V-3, Project Babylon gun) would have - it's easily targeted and blown up because it's immobile. We have a gazillion smallsat rocket launch companies the military could tap at any time for launching large suborbital payloads.
As large as that structure is, I find it hard to believe it contains 2.2 million tons of steel. That would be about 30% of the total annual UK steel output and be worth at least 4 billion dollars, without cost of construction.
Yes I wish the news would proof their facts but the spokesperson did say "that's right" in response to the amount. If the news would have thought for a moment when reading it back before publishing, they would have known 2.2 million tons would be impossible. It doesn't sound edited or cut even the you can't see them talking at that moment. He probably meant to say pounds. And the spokesperson probably thinking about his next point when he said that's right.
There is so far zero evidence that this approach can scale to the speeds and masses needed to be useful. SpinLaunch doesn't talk or outright bullies anyone who tries to question the necessary engineering breakthroughs to make this work.
@@djb5320 there comes a point where the monetary expense and engineering requirements outweigh the potential benefits in projects. It’s just not worth it.
Begs the question......the projectile and payload must both withstand immense G-loading, so that would seriously limit the types of permissible payload and also require intense engineering of the projectile and any systems/components carried. Seems like a very limited scope launch system albeit much lower cost per mission. Most of the G-load concerns would go away if this was a linear launch system but would require an extremely long distance.....about 400 miles if acceleration is 5g to reach 5000 mph (guestimated velocity to reach low-earth orbit as per this video) which likely explains his circular launch concept.
Tragically this design limits the type of cargo to VERY simple configurations. Additionally, people can NEVER be in this. It's a nice way to sling up a few random things but a linear inclined accelerator with beamed power to the in-flight projectile IS likely the only way forward. Just need to find a nice 2 mile long 40+ degree incline that is tectonically stable, not important to the ecosystem, and can have a small city of support staff......yeah it's going to be a WHILE.
31 miles for 5,000 mph The problem is getting it at a decent final launch angle. Might want a gentle curved slope up the Andes. Brazil might object to the shock-wave.
@@-danR Peru was always my estimate, nice being close to the Panama canal too. However, no way to have it all done on ground, will NEED to beam power to the projectile (or maybe a second support/transfer projectile). So that's why I am not convinced of the 31 miles thing.
Believe or not, Spinlaunch did actually consider this. . Your average smartphone or gopro can handle Spinlaunch G forces - they tested it. So can the solid state memory and electronics of most modern satellites. Otherwise there would be no point in developing this concept. They've spent a LOT of time testing and working out what can and can't be sent into space this way before they bothered to go ahead with the project. They think ahead a lot more than some CEOs one could name!
Looking at this system there many issues: 1. How out of balance with the system be at full size when you release the mass? The higher the rotational velocity the greater the force applied. This is a V^2 relationship, where when you double the velocity the force increases by 4. When the mass is released, the force for the counterbalance will be in the opposite direction will be the same and unless there is somewhere to either drop the mass or stop the rotation rapidly, the system will fly apart. 2. At 5,000 files per hour debris from the breakable seal holding the vacuum with be very damaging to the projectile launched. At 5,000mph that is the equivalent to 7,333 feet per second. Anything capable of holding 14psi of pressure out in an opening that large is going to cause a lot of damage. Having the projectile breaking through it may look cool, but it is a disaster for the object traveling at that speed. 3. When the projectile encounters the atmosphere at 5,000mph both the shock and ram pressure heating will be tremendous. The only materials to be able to survive that are either ceramic, and or Carbon/Carbon structures. The carbon structures do not do well with impacts, and the ceramic's are very heavy. This is nothing more than snake oil being sold to low resolution thinking individuals. Just these three issues alone make this implausible, and there are many more. Any time someone tells me that this is ecologically sound, alarm bell go foo saying "Scam Alert".
For number one, you might be able to fire two projectiles in close succession, located at opposing sides of the launching arm. Sure, you have to release them in sequence, so that will still put stress on the system, but you are doing it in VERY quick succession, and once the second projectile leaves the cannon, the majority of the stored energy leaves the system with it. number two and three might be solvable in the same go by making a staggered air lock. as in, you make the release chimney longer and have the projectile pass through several chambers of increasing pressure on its way out. I personally don't think the latter is feasible, becuase it requires you to be even more precise on your launch release to not damage your facility, but who knows. End of the day, I think the larger problem is something else: WHat the hell are you going to launch with this? Satelite engineers already face hurdles desingning payloads that can withstand a rocket launch, so an alternative would very much be appreciated, but this will ALSO put large stress on your thing, only in a different way. So this is not really an imrovement, even IF they get it to work. But if it isn't an improvement, then what is the point? Maybe they are just trying to attract the attention of the military, trying to interest them in a cannon with unlimited range?
All these questions are addressed in several other videos. They still need another motor (engine) to get an object in to orbit - so yeah - still some issue to be addressed.
@@mb-3fazeThat's like saying we still need to solve some equations before we figure out how magic works.... A thousand yard diameter centrifuge going at those velocities would expose the projectile to 25,000 G. some issues indeed....
Yes the closer you are to 0latitude the more angular momentum you get from Earth...no matter where you want to go, assuming orbit is desired. That's why KC Florida, Brownsville Texas were selected keeping in in the Continental US for supply, and why the ESA uses Equatorian South America.
yeah, but this is only a prototype. I'd assume if this ever gets off they'll get sufficient money to also start operations somewhere like french guyana
@@puncifikator3870 the investors can't easily visit the cool science fiction gates compound as easily in French G. ESA put theirs there as it is government funded. NASA and CCP-SA put theirs due to the cold war. This one is a pitch for investors. Easy to visit.
This one just goes straight up and at Spaceport New Mexico, they aren't actually permitted to break the Karman line (100km altitude), so they can't achieve orbit from New Mexico anyways. This was a proof of concept and is now the best test bed in history for G-force loading.
The exit release off by microseconds, the projectile slams into the exit port walls and the whole thing blows up. Just a matter of time as to when that happens. In the meantime, no people can be launched with it, and the electronics of most devices get shattered without major reinforcement, adding to weight. Really, a rocket launch system. That means the base should be pivotable on a rotational axis to aim it.
“No people can be launched with it.” You are 100% correct. As a person who spent way too much time in a human centrifuge I can say from experience: the general public cannot begin to understand exactly what this would do to a human subject.
Nah, I could see this being used for small/micro sized satellites. But yeah anything bigger sounds very problematic and you can forget ever trying to launch people from that thing.
Of course it is not feasible. It is a fraud. Same exact thing as OceanGate. 20 years ago, school shootings were such a big deal that they got media coverage. We are in that same early period with scam culture, where media still covers this garbage. Eventually they won't cover these types of scams, the same way that they no longer cover school shootings. Perhaps in about 20 years.
From a mass to drag perspective, the concept scales very well. Moreso if they could design a finer vehicle - which will be far easier for larger vehicles than for smaller vehicles.
So what happens when all that weight is released and the wheel is unbalanced? Im sure theyve thought about it, but Ive seen large fans (think 5,000 Horse Power) rip themselves apart from small weight imbalances
BINGO! This thing is a great idea in the exact same way a Hyperloop is a great idea. But trying to progress it beyond the "idea" stage takes genuine and determined stupidity.
This is absolutely mindblowing! Always wondered why spinning launchers and long rail guns weren’t attempted to launch things into space. Amazing to see it being tried.
@@getl0st maybe if we built another Burj Khalifa on top of Mt Everest then placed the spin launcher on top of that, then with really thin atmosphere it could work!
Wow! For reference, the minimum escape velocity for Earth at ground level for ballistic objects like their launch vehicle is ~11.2km/sec or over *25,000mph* or Mach 33. Even the extremely fast "hypersonic" speed range starts _only_ at Mach 5. But will need a some more speed to account for atmospheric drag. The pressure and heat from atmospheric drag will be enormous. The launch vehicle exiting the barrel at such speed could cause a large shockwave perhaps. Really good concepts and challenges listed on Wikipedia: en.wikipedia.org/wiki/Escape_velocity Hope they can do it but using someone else's money and not any tax payer money.
@@chishooter9483 Oh yeah, I saw that mentioned in the video. It seems like an innovative combination technique. But its kinda cheating because that would still require a lot of fuel and engine power. Doing the calculations: 5000mph or 2.2km/sec initial velocity fired straight up will reach maximum about 20,000ft altitude which is only in the range of jetliner cruising altitude. Let's double the initial velocity to 10,000mph which will result in 80,000ft (15 miles) altitude. That gets out of the troposphere and just make it to the lower stratosphere. But still a ways to go to get to 60 miles altitude to leave the atmosphere to get to the first part of LEO (low earth orbit). There's many thousand of miles to get to higher orbits like MEO (12,700 miles) and GEO (22,223 miles). Though once out of the atmosphere, a big drag force is finally gone.
@@icedriver2207 They have a rocket booster inside the capsule that functions as the second stage to achieve orbit. They don't need escape velocity, just orbital velocity. They aren't looking to use this for interplanetary missions.
They got this built for 150 million. That's cheap. I think we all have the same question: How this thing spins this fast and how you get it to perfectly release at the right point. The payload has to handle the rotation and G's of the launch..
The shaft of the orbital accelerator could suffer certain degree of damage due to the unbalanced loading on the object holding arm. Depending on the weight of load (rocket), it may need to replace the bearing frequently. Electromagnetic railguns should be able to launch much heavier aircraft/rocket.
@@roberttalada5196it is the only possible way to prevent damage to that launcher. But i have never seen releasing of that counter weight after the projectile is launched
@@Xhydraulics It would have to be released at *_exactly_* the same time. Also it would have to be replaced after each use. Look at what happens to a bullet shot into water. 🙂
Tbh.. looks like the massive wood chipper that I used to work near at a paper mill as a summer student back in the late '70's. Not quite as big but a beast of a machine.
I am skeptical that this technology would work. To many issues I can see with this, for example the machine would need to be much larger and spin much faster to reach the needed escape velocity needed. The larger it gets would make it harder to reach the near vacuum the needed inside the chamber. As the machine spins faster how will they keep it stable and have it release at the right moment.
They can save even more fuel as they can tune the engine bell of the rocket motor for the altitude it ignites/ orbit, as opposed to having a design that has to be a good fit from sea level to orbit. Could also be a good weapons system/ launcher. Another thought would be to add a kinetic energy recovery system (KERS) via a flywheel and generator to recover some of the energy as electricity.
Wouldn't need a flywheel: the spin-up motor would be capable of regenerative braking and recovering the spin energy of the throw arm and axle assembly.
As a nanosatellite delivery system, it’s quite clever. If it can free up traditional rocket launches for smaller payloads, that reduces demand for rocket delivery, helping to drive the market to lower costs.
In the videos you can see some of them go through at an angle which would slow them down incredibly. They had this issue months ago, if they fix it great, but the launches aren’t consistent. If they can get it working properly you could send satellites in pieces and connect them via a remote control or something
I can't believe how many people think this will fail. I spent a few days running through calculations about a year ago when I first heard about Spin Launch. I looked at different weights, radius of rotation, several projectile geometries with different centers of mass, release timing requirements for stability for different projectiles, strengths of materials, drag through atmosphere upon release, etc, etc. After all the calculations, I found a range of acceptable parameters for certain materials, launch velocities, projectile designs, and a requirement on the time to release the front vs rear of the projectile. It's not impossible. In fact, the ranges are wider than I expected. Spin Launch will be successful if they have competent engineers. It's all about the design limits, and collecting good data to making everything balance. There's no magic here, just good design and hard work.
There's no market for them, at all. Even if the laws of physics weren't working against their favor, they still won't be able to provide cheaper launches than already extant companies like Rocket Lab and especially SpaceX with their rideshares for smallsats. Even if they can match price parity, why fly spinlaunch when you have to harden your cubesat to survive 10,000G shock loads when you could just spend far less on the design and construction and then spend the same for a launch on an electron rocket? there is absolutely no use case for spinlaunch here on earth.
@@KingHalbatorix you seem to be an expert on this topic. You should offer your knowledge to them and their investors so they all save a lot of time and money.
its been cool to follow the development of this. its a crazy concept. when i listen to the designers, i really believe in what they are saying, all the same i still have this feeling of skepticism
I hate seeing Spinlaunch associated with such things. Yes, centrifugal slings are potentially useful on the moon, asteroids, or in free space. But Spinlaunch isn't working on such applications, and most of what they are working on won't be applicable. You don't need the vacuum chamber, you aren't limited to such a short radius of rotation and high acceleration forces, you don't need a near-orbital rocket stage with a discardable aeroshell that can survive sea level hypersonic flight... Spinlaunch isn't about efficient lunar payload launches, they're about getting investor funding by pushing a fallacy that orbital launch here on Earth is expensive due to propellant costs. By the time we're building lunar slings, they won't be around any more.
Yea, I love the idea of using this on the Moon but I’m not convinced it will ever be cost-effective on the Earth. The Moon has no atmosphere so the projectiles wouldn’t need to be aerodynamic and you could pack more in them. And, of course, the escape velocity is so much lower.
Oh really ? It's not the fuel requirements that make space travel expensive and hard ? Okay then, why are 90% of most rocket designs fuel tanks and 10% any payload then.
THANK YOU finally I found one other person that gets it, fuel is literally the cheapest part of any rocket launch (unless it's some insane hypergolic first stage nightmare, but thankfully those are mostly extinct)
We all need to unite as one species of one planet if we are ever going to have a chance at going out there and staking our claim.We will discover things in space that are way beyond our understanding and strength as any single nation.
Electronics are surprisingly durable in this regard. A slow increase in G-Forces is preferable in many ways to the hard shaking and rocking motion of a rocket. On top of that, there might come a time where we want to send metals and other bulk cargo to space for construction, so this might become a niche application anyway.
@@patrickvanrinsvelt4466 I probably phrased that wrong. What I meant was that some electronics CAN withstand very high forces, as long as the build up is gradual. That said, no idea how large. I did the math earlier, and we are talking somewhere in the realm of tenthousand G here for a centrifuge with sufficient tangential velocity. Nor do I have any idea what would happen to those electronics if the force in question suddenly disappeared, followed by a jolt caused by the carrying projectile leaving the chamber and slamming into the atmosphere at mach 33...
The projectile definitely won't be launched anywhere near orbital velocity. The centrifuge appears to function as an electric 'first stage', hence the smaller rocket stages inside the projectile.
I have been a Spinlaunch fan for years, not just because Yeeting satellites amuses me. I'm glad to see the press picking up on some of the other young aerospace companies with less self-promoting but equally intelligent CEOs as they work to bring the tried and true but outdated commercial aerospace industry my Dad worked for into the 21st century. (Too many people don't realize that commercial aerospace has been around as long as weather and telecommunications satellites and the US nuclear program - NASA just provided a more peaceful, civilian, and scientific purpose and R&D for ICBMs).
@@pkrakras3561 Thunderf00t is not a reliable source on anything. In this case he's correct and spinlaunch will never work, but that's a perfect example of the phrase "even a broken clock is right twice a day." genuinely more than half of the things he debunks are perfectly sound and viable; he is just an uninformed egotistical clout chaser.
The idea is the thing that matters? Seriously? Not the actual success or failure of the technology? It's not like a kid giving a tattered hand drawn picture to mom on her birthday. This stuff has to work or it doesn't. My prediction is it won't, and I'm a highly seasoned and skilled and qualified electrical / mechanical engineer with a minor in physics and math.
Doesn't even matter if we use it once to send man into space, as long as it's able to send supplies, satellites, and other important cargo cheaply and more environmentally friendly as well as safer.. already the biggest win 🏆
Depends what you mean by "safe". This thing is effectively a cannon with unlimited range, capable of hitting anything to its left or right. If something goes wrong, your payload will fly off like an artillery shell that can hit a target halfway across the planet with ease.
@@Alexander_Kale yeah, think you know damb well what I meant, and yeah ur car could go off a bridge on ur way home or a airplane could fall out of the sky and start a building on fire that brings the fire department 🚒 who squrts water everywhere allowing the power lines to shock a cop who then falls onto and startled a dog who bites ur ankle and you slowly die from rabbies 👏 guess that's the long way of saying nothing is safe by ur standards
@@damonhochhalter2803 I assumed that by "safe" you meant safe for the people who could be affected by a missfire. Since this will never carry actual astronauts, thanks to the G-Forces, that leaves people running the facility and people living near it. And "near" is a very relative term with this one. As far as risks go, you don't hear so much about rockets exploding on the launchpad or in flight, but it still frequently happens. If you book an orbital flight, there is a very, very real chance that your stuff will never make it up to orbit, that chance being somewhere in the single digit percentage range. That is not a small number. Again, happens much more frequently than planes falling out of the sky, and even THAT happens more often than you seem to think. Problem is of course, a catastrophic failure of a rocket doesn't normally total the launch facility. With this thing, it WOULD..
Yeah....hard, hard pass on investing in this one. They might be able to design an elaborate skeet launcher, but that's about it. No satellite with modern tech would be functional after that level of G-force. Also, if we weren't able to put satellites into orbit with a giant cannon, then there ain't a chance in hell we are doing it with a sling. I'm sure this guy skipped a few physics lessons in his day. Thank God that he isn't building submarines...
Gun launch has only the length of the barrel to accelerate, with this you can work your way up gradually. This will have a niche market like launching consumables to LEO. You could launch water then have a space tug in LEO that collects the cannisters and delivers them to a processing station to split into oxygen and hydrogen for rocket fuel. This would also provide oxygen for breathing and water for drinking. This could be another way of supplying the ISS
@@dionysus2006 Water is a really good idea. That could work, if one could figure how to counter all that chaos to retrieve that package. Perhaps A.I. in the future could find a way to circumvent that incredible error ratio. I feel other forms of tech will smother this company's true potential far before it buds and blooms. (I hope they try a spin launch from a giant weather balloon. That would be interesting.)
@@landonl958 Potentially they could launch many times a day since they don't have all the complexity of dealing with cryogenic propellants. So, even if you can only launch a small amount at a time over the course of a week you could put a lot up. Good point about the complexity of collecting the payload. The StarLink satellites have an ion drive so they can change their orbits very precisely to do station keeping with the other satellites. Maybe a version of this drive could be used to automatically collect the payloads.
@@criticalevent But if you can do that 20 times a day every day of the week, that's a lot of water. To be successful they have to break the industry standard on launch cadence. What they have going for them is no cryogenic propellent to contend with and they don't have to worry about weather. If they can't launch 10 times a day they don't have a business.
@@dionysus2006 No, it really isn't a lot of water at all. Falcon 9 could launch more in a single reusable flight than this thing could do in an entire month, assuming the greatest possible cadence of 2 launches per day. AND NO, they're NEVER going to be launching more than that. Do you know how slowly their centrifuge spins up? By their own admission it will take more than 10 hours per launch between vacuum pump-down and tether spin up. They can't possibly put more than 400KG into orbit per day; multiplied by 31 that gets you 12 and a half tons to orbit per month. A single Falcon 9 with booster reuse can do 15 tons to LEO; likely for less than 30% of the cost of this glorified ferris wheel. Really, the entire concept is worthy of a circus.
I'm a physicist/engineer and I'm leaving this comment right now to link to in like 5 years when this project is finally revealed as a scam to bilk idiot VC investors out of their money, which I fully approve of, btw. But honestly, it's really weird that there isn't more skepticism surrounding this method. lol hitting atmosphere at Mach 6 is hilarious, even after all the stuff that must progress perfectly before. I dunno, ask me anything, this is hilarious to me that it's still an ongoing ruse
Part of the risk of that core technology involves damage to our ozone layer. This would significantly cut down on the damage done each time a heavy lift vehicle heads to orbit from earth. Bravo!
I can imagine this being used on battlefields with small rockets sent hundred of miles away, using a much smaller version obviously. Imagine 3 full lines of this against an enemy would be devastating.
Mass drivers on the moon seem to make more sense. As stated in the comments the only thing that can survive the launch would be dumb mass. Creating a vacuum is expensive and you are throwing that energy away each time (irrespective of the deceleration force on hitting the atmosphere). One question would be how quickly can you close the door behind the projectile to preserve the vacuum. Can rocket components survive such a launch for the boost once reaching the upper atmosphere?
Some people here have already made some good points against the viability of this ambitious project. Another would be the scale factor. When you scale up the size of mechanical leverages, like centrifuges, forces increase exponentially. In other words, in order to launch something into space, the centrifugal forces (torque, pressure, etc.) would be, to say the least, prohibitive. The only counter would be to shrink the payload by the same factor, so it'd have to be very, very small. And that's assuming a rig could be built that'd withstand the launch, as well. Still, I think the project shows much promise.
I pray we redirect our focus to finding, acquiring, and securing sustainable, cost-effective, renewable building materials that can sustain or be easily replaced by these new storms… Space can wait💪✨
Actually, it is based upon Winans Steam Gun, designed in 1858 and built in 1860, and found action during the Civil War. A full scale replica of Winans Steam Gun can be found today in Elkridge, Maryland.
"How do you get satellites into orbit?"
"We basically just throw them really hard."
Except that doesn't work, you can't throw something into orbit without another burn at the far end to circularize the orbit (Hohmann transfer) otherwise the object goes all the way around and comes back to the exact same spot you threw it from like a boomerang and crashes into Earth. You need to throw a rocket so you can get that added burn once at altitude.
@@wally7856 I don't think it's that challenging from an orbital mechanics standpoint. I think it's more a problem of designing functional satellites that can survive the rotational acceleration necessary for an exit velocity well above their target orbital velocity (~17k mph), and developing materials that will protect the satellite from compression heating within Earth's atmosphere. The latter is orders of magnitude more difficult than atmospheric re-entry, which is already reasonably challenging.
@@mifune9634 The electronics in the Excalibur artillery shell are designed to withstand +20,000g's and -8,000 g's. Same with Canada's HARP program in the 60's that would fire space going payloads from a gun (largest artillery in the world) to about 187 km (116 miles) high hitting 20,000 g's. They never achieved orbital velocity (which would have been achieved using an on board rocket in the shell, not from the launch itself) before funding was cut.
@wally7856 uh hate to break it to ya bud but they've already had several successful tests rendering your point moot and nil😂
Just get Josh Allen.
The issue is the projectiles are limited in payload as the payload has to be designed to withstand the launch system, rather than it's primary mission upon delivery.
You're 100% correct. Hypersonic speed will put tremendous G force on any payload, so much so that unlike shells which are designed to destroy using kinetic energy, any delicate payload would be destroyed upon leaving the centrifuge vacuum.
yup not a human launch system...but it would be useful
There are a ton of issues. To mark the most important ones:
1st - the same force the projectile gets at the moment it gets yeeted, the same force goes to the opposite direction through the mechanic of this machine into the ground. The only way around this is to also release a counter weight which of course would also hit like a bomb.
2nd - The moment the projectile hits the outside air around the vacuum chamber this will be with several times the speed of sound. Now hitting a column of air at that speed goes out not too well for anything. Regardless how pointy it is. And I've not even mentioned friction heat now. :)
AEROSPACE ENGINEER HERE: That's actually a sensible comment unlike so many others.
My preferred option for smaller satellites is air launching. Its simply a well proven method for smaller payloads. It also has the issue that the vehicle and payload need careful structural design to handle the transition from level to vertical flight.
People need to be a lot more sceptical about novel technologies and even more so for ones promoted as "game changers." There's so many "game changers" these days its hard to keep up. One thing for people to look for is if something like it appeared in a sci-fi film. For example Elizabeth Holmes idea for the 1 drop of blood Theranos technology was copied from the 1997 film Gattaca that starred Ethan Hawke and Uma Thurman.
@@diymicha2 You know the Greeks, the Spartans were short stature just like this inventor and they believed that height affects smartness, the intelligence was poured into molds with a same sized jug and so didn't fill up the tall people so completely. The idea of big lunkheads is very old. You know, don't be a big lunkhead yourself. The man has done it, save your Doubting Tom breath.
Hate 2 see what happens when it miss the exit by millisecond 💥
Were hitting atoms together, relax
@Avalonanon lol that's totally different😂😂
🎉@@Avalonanon
Ooof! 😅😆
How it doesn't destroy itself upon release is quite impressive, that's a huge amount of unbalanced weight to be spinning.
This is the exact thing that first came to mind for me too. They must have had tests where it exploded before it exited the chamber.
There is a lot of wasted energy in this system. to transfer 100% of the rotational kinetic energy into the projectile, the moment arm would stop completely. The fact that the arm keeps spinning around the same rpm after release indicates that this safety factor has obviously been considered into the projectile design.
The rotating arm has a large reservoir of snake oil.
This video doesn't show it, but there is a counter weight on the other side of the arm that releases when the payload is released. So there is no unbalance. In the future if they ever get the system working they will have payloads on each side of the arm, and they will be released one after the other. They say the bearings should be able to handle the unbalanced spinning for until the second payload is shot out.
How many of you noticed the missle came out semi-sideways so it was a complete failure.
At this point I am beginning to think that this is really a stealth pitch to the military instead of a space launch system. Change the launch arm to a wheel so you can launch multiple projectiles at once, spin it up to sub orbital speeds and you could deliver a dozen or more payloads weighting multiple tons each to any point on the planet.
Even if you can only get the range up to a thousand miles or something along those lines it would still make for one hell of an artillery piece.
well, they wouldnt need to be stealth about it as there arnt many providers. Even the contracting done for jets is a mere formality. It would also simultaneously advertise to adversaries or competitors, for that matter. There is zero benefit to be public about it if the intent is purely military use.
Military also coulnt care any less about green tech and they're not scraping for funding, since war is one of the greatest businesses.
If they wanna advertise, its indeed commercial space
why the hell would you want this to be a weapon... classic american
It would have unlimited range as it is used to launch things into orbit. Good way to create and fire a large number of mini ICBMs
@@rpm749 Problem with that statement? I am not American. ^.^
It'd have the same problem every previous space gun (Nazi's V-3, Project Babylon gun) would have - it's easily targeted and blown up because it's immobile. We have a gazillion smallsat rocket launch companies the military could tap at any time for launching large suborbital payloads.
how in the world do they possibly get the timing down too that precision too launch out perfectly through that machine. This is truly incredible.....
Maths
AI
They just have a guy with really good reaction time and a trigger lol, in reality electronics can easily time things on the scale of nano seconds.
They just guess. They've been lucky so far
There is a guy sitting behind the projectile when it spins who release when the other guy outside waves the release flag.
As large as that structure is, I find it hard to believe it contains 2.2 million tons of steel. That would be about 30% of the total annual UK steel output and be worth at least 4 billion dollars, without cost of construction.
News stations seem to be loosing quality as we watch.
Yes I wish the news would proof their facts but the spokesperson did say "that's right" in response to the amount. If the news would have thought for a moment when reading it back before publishing, they would have known 2.2 million tons would be impossible. It doesn't sound edited or cut even the you can't see them talking at that moment. He probably meant to say pounds. And the spokesperson probably thinking about his next point when he said that's right.
Can't believe anything they say today
@@richardwhite3521*losing
I have to agree. 2.2 million tons cannot be correct.
There is so far zero evidence that this approach can scale to the speeds and masses needed to be useful.
SpinLaunch doesn't talk or outright bullies anyone who tries to question the necessary engineering breakthroughs to make this work.
Yep.
There is some evidence.
What evidence are you referring to?@@djb5320
Truths don't mind being challenged, lies HATE being challenged.
@@djb5320 there comes a point where the monetary expense and engineering requirements outweigh the potential benefits in projects. It’s just not worth it.
It is always pleasure and pleasing to meet ones who were supposed to work. Thankyou congratulations. Thankyou for visiting me.
Begs the question......the projectile and payload must both withstand immense G-loading, so that would seriously limit the types of permissible payload and also require intense engineering of the projectile and any systems/components carried. Seems like a very limited scope launch system albeit much lower cost per mission. Most of the G-load concerns would go away if this was a linear launch system but would require an extremely long distance.....about 400 miles if acceleration is 5g to reach 5000 mph (guestimated velocity to reach low-earth orbit as per this video) which likely explains his circular launch concept.
Tragically this design limits the type of cargo to VERY simple configurations. Additionally, people can NEVER be in this. It's a nice way to sling up a few random things but a linear inclined accelerator with beamed power to the in-flight projectile IS likely the only way forward. Just need to find a nice 2 mile long 40+ degree incline that is tectonically stable, not important to the ecosystem, and can have a small city of support staff......yeah it's going to be a WHILE.
31 miles for 5,000 mph
The problem is getting it at a decent final launch angle.
Might want a gentle curved slope up the Andes. Brazil might object to the shock-wave.
Among so many other issues. This is a money making scam. Look at the spokes person. Used car dealer much?
@@-danR Peru was always my estimate, nice being close to the Panama canal too. However, no way to have it all done on ground, will NEED to beam power to the projectile (or maybe a second support/transfer projectile). So that's why I am not convinced of the 31 miles thing.
Believe or not, Spinlaunch did actually consider this. . Your average smartphone or gopro can handle Spinlaunch G forces - they tested it. So can the solid state memory and electronics of most modern satellites.
Otherwise there would be no point in developing this concept.
They've spent a LOT of time testing and working out what can and can't be sent into space this way before they bothered to go ahead with the project. They think ahead a lot more than some CEOs one could name!
Looking at this system there many issues:
1. How out of balance with the system be at full size when you release the mass? The higher the rotational velocity the greater the force applied. This is a V^2 relationship, where when you double the velocity the force increases by 4. When the mass is released, the force for the counterbalance will be in the opposite direction will be the same and unless there is somewhere to either drop the mass or stop the rotation rapidly, the system will fly apart.
2. At 5,000 files per hour debris from the breakable seal holding the vacuum with be very damaging to the projectile launched. At 5,000mph that is the equivalent to 7,333 feet per second. Anything capable of holding 14psi of pressure out in an opening that large is going to cause a lot of damage. Having the projectile breaking through it may look cool, but it is a disaster for the object traveling at that speed.
3. When the projectile encounters the atmosphere at 5,000mph both the shock and ram pressure heating will be tremendous. The only materials to be able to survive that are either ceramic, and or Carbon/Carbon structures. The carbon structures do not do well with impacts, and the ceramic's are very heavy.
This is nothing more than snake oil being sold to low resolution thinking individuals. Just these three issues alone make this implausible, and there are many more. Any time someone tells me that this is ecologically sound, alarm bell go foo saying "Scam Alert".
For number one, you might be able to fire two projectiles in close succession, located at opposing sides of the launching arm. Sure, you have to release them in sequence, so that will still put stress on the system, but you are doing it in VERY quick succession, and once the second projectile leaves the cannon, the majority of the stored energy leaves the system with it.
number two and three might be solvable in the same go by making a staggered air lock. as in, you make the release chimney longer and have the projectile pass through several chambers of increasing pressure on its way out.
I personally don't think the latter is feasible, becuase it requires you to be even more precise on your launch release to not damage your facility, but who knows.
End of the day, I think the larger problem is something else: WHat the hell are you going to launch with this? Satelite engineers already face hurdles desingning payloads that can withstand a rocket launch, so an alternative would very much be appreciated, but this will ALSO put large stress on your thing, only in a different way.
So this is not really an imrovement, even IF they get it to work. But if it isn't an improvement, then what is the point? Maybe they are just trying to attract the attention of the military, trying to interest them in a cannon with unlimited range?
All these questions are addressed in several other videos. They still need another motor (engine) to get an object in to orbit - so yeah - still some issue to be addressed.
@@mb-3fazeThat's like saying we still need to solve some equations before we figure out how magic works....
A thousand yard diameter centrifuge going at those velocities would expose the projectile to 25,000 G.
some issues indeed....
THIS is sounding very 4 wheels that had AI in each of them!! Try the "vision of Ezekiel" and give me a nod ))
100% agree with you!! Listening to that man talking, gave me OceanGate vibes!
Amazing. Happy that we have clever folks like this in the US
ACME Centrifugal Space Cannon. Wyle E. Coyote. Super Genius.
Meep meep, blublublub 😆
Wouldn't this be more efficient if this is done closer to the equator so as to leverage the earth's spin?
That depends on where you want it to go.
Yes the closer you are to 0latitude the more angular momentum you get from Earth...no matter where you want to go, assuming orbit is desired.
That's why KC Florida, Brownsville Texas were selected keeping in in the Continental US for supply, and why the ESA uses Equatorian South America.
yeah, but this is only a prototype. I'd assume if this ever gets off they'll get sufficient money to also start operations somewhere like french guyana
@@puncifikator3870 the investors can't easily visit the cool science fiction gates compound as easily in French G. ESA put theirs there as it is government funded. NASA and CCP-SA put theirs due to the cold war. This one is a pitch for investors. Easy to visit.
This one just goes straight up and at Spaceport New Mexico, they aren't actually permitted to break the Karman line (100km altitude), so they can't achieve orbit from New Mexico anyways. This was a proof of concept and is now the best test bed in history for G-force loading.
The exit release off by microseconds, the projectile slams into the exit port walls and the whole thing blows up. Just a matter of time as to when that happens. In the meantime, no people can be launched with it, and the electronics of most devices get shattered without major reinforcement, adding to weight. Really, a rocket launch system. That means the base should be pivotable on a rotational axis to aim it.
this is just another "green" innovation that is in fact a complete waste of money.
“No people can be launched with it.” You are 100% correct. As a person who spent way too much time in a human centrifuge I can say from experience: the general public cannot begin to understand exactly what this would do to a human subject.
The size this thing would need to be to launch anything of use to space would be crazy
it would not be crazy if u realize it has to burn out when leaving the machine
compared that to rockets?
The machine is ridiculous, ludicrous. Won't work.
Nah, I could see this being used for small/micro sized satellites. But yeah anything bigger sounds very problematic and you can forget ever trying to launch people from that thing.
A lot of satellites are quite small, actually. They are made to be as small as possible.
Fascinating but I wonder if upscaling will be maxed out at some point. I love the concept, but question its actual payload abilities.
Would have helped to not have spent 1 million on just the automatic entrance gate... a waste of funds for sure.
Of course it is not feasible. It is a fraud. Same exact thing as OceanGate.
20 years ago, school shootings were such a big deal that they got media coverage.
We are in that same early period with scam culture, where media still covers this garbage.
Eventually they won't cover these types of scams, the same way that they no longer cover school shootings. Perhaps in about 20 years.
It does not up scale well.
From a mass to drag perspective, the concept scales very well. Moreso if they could design a finer vehicle - which will be far easier for larger vehicles than for smaller vehicles.
Still useful for smaller loads.
I'd hate to be the guy who mistimes pressing the release button.
So what happens when all that weight is released and the wheel is unbalanced? Im sure theyve thought about it, but Ive seen large fans (think 5,000 Horse Power) rip themselves apart from small weight imbalances
Ever seen an MRI fall apart?
This sounds like something that works in theory, but is massively impractical in reality.
Nobody is doing the math. Carbon fiber isn't infinitely strong. It pokes a hole in the launcher each time it's used. 😃
This has been debunked by Thunderf00t
Oh, yeah... not a hope of it working in reality.
BINGO! This thing is a great idea in the exact same way a Hyperloop is a great idea.
But trying to progress it beyond the "idea" stage takes genuine and determined stupidity.
theory will only take you so far
This is absolutely mindblowing! Always wondered why spinning launchers and long rail guns weren’t attempted to launch things into space. Amazing to see it being tried.
G Forces tend to be an issue. Not so much on the moon if needing to send material back
Wow! The projectile reaching maximum speed and then hitting the thickest part of Earth's atmosphere, I'd like to see that, from a distance.
Don't forget it's starting in a vacuum too. I want to count the big pieces
@@Rouzer29 The only place something like this would work is if it was built on the top of Mount Everest
@@getl0st maybe if we built another Burj Khalifa on top of Mt Everest then placed the spin launcher on top of that, then with really thin atmosphere it could work!
Wow! For reference, the minimum escape velocity for Earth at ground level for ballistic objects like their launch vehicle is ~11.2km/sec or over *25,000mph* or Mach 33.
Even the extremely fast "hypersonic" speed range starts _only_ at Mach 5.
But will need a some more speed to account for atmospheric drag. The pressure and heat from atmospheric drag will be enormous. The launch vehicle exiting the barrel at such speed could cause a large shockwave perhaps.
Really good concepts and challenges listed on Wikipedia:
en.wikipedia.org/wiki/Escape_velocity
Hope they can do it but using someone else's money and not any tax payer money.
Particle colliders are everywhere. Let loose in the upper atmosphere, sounds like ozone and radiation killing us all.
Nice to know I'm not the only one who realized 5000 mph was nowhere near escape velocity.
I think they are trying to get the aircraft as high as possible before they activate the rocket boosters so it can escape the earths atmosphere .
@@chishooter9483 Oh yeah, I saw that mentioned in the video. It seems like an innovative combination technique. But its kinda cheating because that would still require a lot of fuel and engine power.
Doing the calculations: 5000mph or 2.2km/sec initial velocity fired straight up will reach maximum about 20,000ft altitude which is only in the range of jetliner cruising altitude.
Let's double the initial velocity to 10,000mph which will result in 80,000ft (15 miles) altitude. That gets out of the troposphere and just make it to the lower stratosphere.
But still a ways to go to get to 60 miles altitude to leave the atmosphere to get to the first part of LEO (low earth orbit). There's many thousand of miles to get to higher orbits like MEO (12,700 miles) and GEO (22,223 miles). Though once out of the atmosphere, a big drag force is finally gone.
@@icedriver2207 They have a rocket booster inside the capsule that functions as the second stage to achieve orbit. They don't need escape velocity, just orbital velocity. They aren't looking to use this for interplanetary missions.
They got this built for 150 million. That's cheap. I think we all have the same question: How this thing spins this fast and how you get it to perfectly release at the right point. The payload has to handle the rotation and G's of the launch..
The shaft of the orbital accelerator could suffer certain degree of damage due to the unbalanced loading on the object holding arm. Depending on the weight of load (rocket), it may need to replace the bearing frequently. Electromagnetic railguns should be able to launch much heavier aircraft/rocket.
They put a counterweight on it that gets released at the same time into a sand pit
@@roberttalada5196it is the only possible way to prevent damage to that launcher. But i have never seen releasing of that counter weight after the projectile is launched
@@Xhydraulics It would have to be released at *_exactly_* the same time. Also it would have to be replaced after each use. Look at what happens to a bullet shot into water. 🙂
This has been debunked by Thunderf00t
@@pkrakras3561 Was waiting for someone to bring in Thunderf00t 🙂
Tbh.. looks like the massive wood chipper that I used to work near at a paper mill as a summer student back in the late '70's. Not quite as big but a beast of a machine.
I'm glad I'm not the only one who thought this looked like a chipper.
I thought it was the Onion
I am skeptical that this technology would work. To many issues I can see with this, for example the machine would need to be much larger and spin much faster to reach the needed escape velocity needed. The larger it gets would make it harder to reach the near vacuum the needed inside the chamber. As the machine spins faster how will they keep it stable and have it release at the right moment.
It's incredible! I hope everything will going right!
Spoiler: It won't
@@diymicha2yeah it will work
@@ilsalmone7704 lol
This makes my head spin.
They can save even more fuel as they can tune the engine bell of the rocket motor for the altitude it ignites/ orbit, as opposed to having a design that has to be a good fit from sea level to orbit. Could also be a good weapons system/ launcher. Another thought would be to add a kinetic energy recovery system (KERS) via a flywheel and generator to recover some of the energy as electricity.
Wouldn't need a flywheel: the spin-up motor would be capable of regenerative braking and recovering the spin energy of the throw arm and axle assembly.
Most of the “spin energy” goes with the projectile. Like a giant exploding flywheel.
True
I'm getting OceanGate vibes. 😂
That’s a good one I get this feeling often with a lot new stuff funny
Your family is poor huh 😂
@@JoyTothesummer you got mad huh? 😡 😂 NAWL my family owns land and businesses. What about yours?
No it is NASA Killer. Next we will throught to moon.. 😂😂
@@BLOXKAFELLARECORDSyou also got triggered lol
As a nanosatellite delivery system, it’s quite clever. If it can free up traditional rocket launches for smaller payloads, that reduces demand for rocket delivery, helping to drive the market to lower costs.
Brilliant
Love the design ! Reminds me a little of the movie "Contact" with Jodie Foster :)
It reminds me of first men on the moon by h.g. wells. Ridiculous!!
Didn't Thunderf00t already debunk this as a fraud?
Yep.
Will anybody bother who get's their Science-y Stuff from CBS Saturday Morning?
No.
Not a fraud. They have already done a test launch.
This is great!🙌 💪😎
So exciting, I wish them well‼️
I wish you well, when you test it out
@Native722 : When they start launching sh*t - heads into space , why then U can go for a spin !
Lots of questions around g forces. Satellites certainly can't take the gs this thing produces
Don't get too excited.
@@patrickvanrinsvelt4466 G's are not a big concern vibration is the problem.
10.000g. Hahahahaha! Satellites will be chunky salsa.
No they already test it, is not a big problem.
Electromagnetic Railgun i think is the best
Imagine building that in space. That could really speed things up without waiting.
Yep, highly impractical on earth. Might be something to look into on the moon. Though I’m more partial to a Skyhook that a spin launcher.
If I was the owner of spin launch I would be bragging on how high I launched my projectiles to date !
Incredible work !
In the videos you can see some of them go through at an angle which would slow them down incredibly. They had this issue months ago, if they fix it great, but the launches aren’t consistent. If they can get it working properly you could send satellites in pieces and connect them via a remote control or something
What remote control? No, they ain't using my Motorola 1966 tv remote. I love that thing...Sleep with it every night on my mistress's pillow😃
This is Great. I cannot fathom but admire the imaginations and greatness of human mind. Support this from Kenya.
I can't believe how many people think this will fail. I spent a few days running through calculations about a year ago when I first heard about Spin Launch. I looked at different weights, radius of rotation, several projectile geometries with different centers of mass, release timing requirements for stability for different projectiles, strengths of materials, drag through atmosphere upon release, etc, etc. After all the calculations, I found a range of acceptable parameters for certain materials, launch velocities, projectile designs, and a requirement on the time to release the front vs rear of the projectile. It's not impossible. In fact, the ranges are wider than I expected. Spin Launch will be successful if they have competent engineers. It's all about the design limits, and collecting good data to making everything balance. There's no magic here, just good design and hard work.
There's no market for them, at all. Even if the laws of physics weren't working against their favor, they still won't be able to provide cheaper launches than already extant companies like Rocket Lab and especially SpaceX with their rideshares for smallsats. Even if they can match price parity, why fly spinlaunch when you have to harden your cubesat to survive 10,000G shock loads when you could just spend far less on the design and construction and then spend the same for a launch on an electron rocket? there is absolutely no use case for spinlaunch here on earth.
@@KingHalbatorix you seem to be an expert on this topic. You should offer your knowledge to them and their investors so they all save a lot of time and money.
@@KingHalbatorixthey put a smartphone inside and it was fine so G forces are not a problem. If you don't put a human inside is perfectly feasible.
its been cool to follow the development of this. its a crazy concept. when i listen to the designers, i really believe in what they are saying, all the same i still have this feeling of skepticism
As you should! I think Thunderf00t did a debunk on this thing a year or so ago. Worth a watch.
I hate seeing Spinlaunch associated with such things. Yes, centrifugal slings are potentially useful on the moon, asteroids, or in free space. But Spinlaunch isn't working on such applications, and most of what they are working on won't be applicable. You don't need the vacuum chamber, you aren't limited to such a short radius of rotation and high acceleration forces, you don't need a near-orbital rocket stage with a discardable aeroshell that can survive sea level hypersonic flight...
Spinlaunch isn't about efficient lunar payload launches, they're about getting investor funding by pushing a fallacy that orbital launch here on Earth is expensive due to propellant costs. By the time we're building lunar slings, they won't be around any more.
Yea, I love the idea of using this on the Moon but I’m not convinced it will ever be cost-effective on the Earth. The Moon has no atmosphere so the projectiles wouldn’t need to be aerodynamic and you could pack more in them. And, of course, the escape velocity is so much lower.
Oh really ? It's not the fuel requirements that make space travel expensive and hard ? Okay then, why are 90% of most rocket designs fuel tanks and 10% any payload then.
THANK YOU
finally I found one other person that gets it, fuel is literally the cheapest part of any rocket launch (unless it's some insane hypergolic first stage nightmare, but thankfully those are mostly extinct)
We all need to unite as one species of one planet if we are ever going to have a chance at going out there and staking our claim.We will discover things in space that are way beyond our understanding and strength as any single nation.
will anything more advanced than a rock survive the g-forces?
No
Electronics are surprisingly durable in this regard. A slow increase in G-Forces is preferable in many ways to the hard shaking and rocking motion of a rocket.
On top of that, there might come a time where we want to send metals and other bulk cargo to space for construction, so this might become a niche application anyway.
@@Alexander_KaleAgreed, but that is valid only for linear acceleration. The forces here do not abate as the wheel slowly spins faster.
@@patrickvanrinsvelt4466 I probably phrased that wrong. What I meant was that some electronics CAN withstand very high forces, as long as the build up is gradual.
That said, no idea how large. I did the math earlier, and we are talking somewhere in the realm of tenthousand G here for a centrifuge with sufficient tangential velocity.
Nor do I have any idea what would happen to those electronics if the force in question suddenly disappeared, followed by a jolt caused by the carrying projectile leaving the chamber and slamming into the atmosphere at mach 33...
The projectile definitely won't be launched anywhere near orbital velocity. The centrifuge appears to function as an electric 'first stage', hence the smaller rocket stages inside the projectile.
Impressive to see how far they came. I saw this from the start.
Point that at a house and it's a weapon 😂
The passengers can't handle the g force😂
I have been a Spinlaunch fan for years, not just because Yeeting satellites amuses me. I'm glad to see the press picking up on some of the other young aerospace companies with less self-promoting but equally intelligent CEOs as they work to bring the tried and true but outdated commercial aerospace industry my Dad worked for into the 21st century.
(Too many people don't realize that commercial aerospace has been around as long as weather and telecommunications satellites and the US nuclear program - NASA just provided a more peaceful, civilian, and scientific purpose and R&D for ICBMs).
probably fun, but moral?
This spin thing has been debunked by Thunderf00t long time ago.
@@pkrakras3561 Thunderf00t is not a reliable source on anything. In this case he's correct and spinlaunch will never work, but that's a perfect example of the phrase "even a broken clock is right twice a day." genuinely more than half of the things he debunks are perfectly sound and viable; he is just an uninformed egotistical clout chaser.
When they are around for that long, they must have spinned a lot rockets and satellites into orbit.
So, how many till now?
Awesome stuff.. 👌🏻
Whatever works! It’s the idea that matters, being positive and productive for humanity’s development 😊
If it don't work it can't be anything but a waste.
The idea is the thing that matters? Seriously? Not the actual success or failure of the technology? It's not like a kid giving a tattered hand drawn picture to mom on her birthday. This stuff has to work or it doesn't. My prediction is it won't, and I'm a highly seasoned and skilled and qualified electrical / mechanical engineer with a minor in physics and math.
I feel like this isnt getting anywhere close to orbit. Saving a few gallons
Doesn't even matter if we use it once to send man into space, as long as it's able to send supplies, satellites, and other important cargo cheaply and more environmentally friendly as well as safer.. already the biggest win 🏆
Men in space from this thing?? More like buckets of blood and skeletons. The exact opposite of oceangate!!!
Depends what you mean by "safe". This thing is effectively a cannon with unlimited range, capable of hitting anything to its left or right. If something goes wrong, your payload will fly off like an artillery shell that can hit a target halfway across the planet with ease.
@@Alexander_Kale yeah, think you know damb well what I meant, and yeah ur car could go off a bridge on ur way home or a airplane could fall out of the sky and start a building on fire that brings the fire department 🚒 who squrts water everywhere allowing the power lines to shock a cop who then falls onto and startled a dog who bites ur ankle and you slowly die from rabbies 👏 guess that's the long way of saying nothing is safe by ur standards
@@damonhochhalter2803 I assumed that by "safe" you meant safe for the people who could be affected by a missfire. Since this will never carry actual astronauts, thanks to the G-Forces, that leaves people running the facility and people living near it. And "near" is a very relative term with this one.
As far as risks go, you don't hear so much about rockets exploding on the launchpad or in flight, but it still frequently happens. If you book an orbital flight, there is a very, very real chance that your stuff will never make it up to orbit, that chance being somewhere in the single digit percentage range.
That is not a small number.
Again, happens much more frequently than planes falling out of the sky, and even THAT happens more often than you seem to think.
Problem is of course, a catastrophic failure of a rocket doesn't normally total the launch facility. With this thing, it WOULD..
@@Alexander_Kale 😆 love when people try and talk smart to me 🤓
A lot of cool scams going on in the space space
👍👍🤣🤣😎😎
I am glad u make it👍
Yeah....hard, hard pass on investing in this one. They might be able to design an elaborate skeet launcher, but that's about it. No satellite with modern tech would be functional after that level of G-force. Also, if we weren't able to put satellites into orbit with a giant cannon, then there ain't a chance in hell we are doing it with a sling. I'm sure this guy skipped a few physics lessons in his day. Thank God that he isn't building submarines...
Gun launch has only the length of the barrel to accelerate, with this you can work your way up gradually. This will have a niche market like launching consumables to LEO. You could launch water then have a space tug in LEO that collects the cannisters and delivers them to a processing station to split into oxygen and hydrogen for rocket fuel. This would also provide oxygen for breathing and water for drinking. This could be another way of supplying the ISS
@@dionysus2006 Water is a really good idea. That could work, if one could figure how to counter all that chaos to retrieve that package. Perhaps A.I. in the future could find a way to circumvent that incredible error ratio. I feel other forms of tech will smother this company's true potential far before it buds and blooms. (I hope they try a spin launch from a giant weather balloon. That would be interesting.)
@@landonl958 Potentially they could launch many times a day since they don't have all the complexity of dealing with cryogenic propellants. So, even if you can only launch a small amount at a time over the course of a week you could put a lot up. Good point about the complexity of collecting the payload. The StarLink satellites have an ion drive so they can change their orbits very precisely to do station keeping with the other satellites. Maybe a version of this drive could be used to automatically collect the payloads.
@@criticalevent But if you can do that 20 times a day every day of the week, that's a lot of water. To be successful they have to break the industry standard on launch cadence. What they have going for them is no cryogenic propellent to contend with and they don't have to worry about weather. If they can't launch 10 times a day they don't have a business.
@@dionysus2006 No, it really isn't a lot of water at all. Falcon 9 could launch more in a single reusable flight than this thing could do in an entire month, assuming the greatest possible cadence of 2 launches per day.
AND NO, they're NEVER going to be launching more than that. Do you know how slowly their centrifuge spins up? By their own admission it will take more than 10 hours per launch between vacuum pump-down and tether spin up. They can't possibly put more than 400KG into orbit per day; multiplied by 31 that gets you 12 and a half tons to orbit per month. A single Falcon 9 with booster reuse can do 15 tons to LEO; likely for less than 30% of the cost of this glorified ferris wheel. Really, the entire concept is worthy of a circus.
Another Elizabeth Holmes in the making or Nikola.
If you are speaking of Tesla as a fraud, almost the whole worlds electrical grid has been built based on his original concepts.
Great idea! 😊
I gotta say.... That F'ing Gate is awesome! 😅
Freaking awesome! I for one wish them a ton of success and can’t wait to see their evolution of spin lunch.
America is huge that we can just things like this
Wow this is so cool!
1963: "by 2020 we will have flying cars"
2023: "let's just yeet stuff out of a spinning cannon"
This was discussed in 2013 glad to see it today
I really like the idea of combining this with rocket boosters that kick on after launch! Seems like a win/win
This is a very interesting innovation. I hope it really takes off.
Nice about time y’all step up!
I saw this in a cartoon once, only it was a big slingshot with a really big rubber band...worked great !
I'm a physicist/engineer and I'm leaving this comment right now to link to in like 5 years when this project is finally revealed as a scam to bilk idiot VC investors out of their money, which I fully approve of, btw. But honestly, it's really weird that there isn't more skepticism surrounding this method. lol hitting atmosphere at Mach 6 is hilarious, even after all the stuff that must progress perfectly before. I dunno, ask me anything, this is hilarious to me that it's still an ongoing ruse
Weapons-grade investor bait
How truly wonderful to hear a modern engineer say "aeroplane" instead of the crude, inelegant, "airplane"!
Sounds absurd, but this dude’s confidence almost convinced me!
A good concept so what happened to the electro magnetic launcher rail gun principal.
You need a really long rail. Too expensive and requires too much land.
An article that generated intelligent answers. A+
This is more military than anything.
Yes it can be but is not only that, every technology can have military applications.
What payload can survive those g forces?
Part of the risk of that core technology involves damage to our ozone layer. This would significantly cut down on the damage done each time a heavy lift vehicle heads to orbit from earth. Bravo!
AMAZING 🔥🔥🔥🔥🔥🔥🔥🔥🔥😮😮😮
I can imagine this being used on battlefields with small rockets sent hundred of miles away, using a much smaller version obviously. Imagine 3 full lines of this against an enemy would be devastating.
🤣
Okay. Launch a person with that. I think the CEO should volunteer.
😉
Yes. 360 in performance
Mass drivers on the moon seem to make more sense. As stated in the comments the only thing that can survive the launch would be dumb mass. Creating a vacuum is expensive and you are throwing that energy away each time (irrespective of the deceleration force on hitting the atmosphere). One question would be how quickly can you close the door behind the projectile to preserve the vacuum. Can rocket components survive such a launch for the boost once reaching the upper atmosphere?
Wow, it will be interesting to see where this tech is in 50 years! 😳😳😳😳😳
How do I short this.
I told my girlfriend, "I've booked a one-way trip to Uranus." She was not amused.
Thunderfoot's video on this was great.
Near White Sands, NM.
Some people here have already made some good points against the viability of this ambitious project. Another would be the scale factor. When you scale up the size of mechanical leverages, like centrifuges, forces increase exponentially. In other words, in order to launch something into space, the centrifugal forces (torque, pressure, etc.) would be, to say the least, prohibitive. The only counter would be to shrink the payload by the same factor, so it'd have to be very, very small. And that's assuming a rig could be built that'd withstand the launch, as well. Still, I think the project shows much promise.
What happens if you lose the vacuum seal during the hyper rotation?
Air friction will slow it down rapidly.
I pray we redirect our focus to finding, acquiring, and securing sustainable, cost-effective, renewable building materials that can sustain or be easily replaced by these new storms…
Space can wait💪✨
A person wouldn’t survive this😂😂😂
Cool! I want to see a space trebuchet!!
Great concept 👍 👌... I myself play on the idea of using balloons to lift up components of my ship and allow them a "volt-in" for Space travel....
I like the idea.
Amazing!
Nice! 😎👍🏼
Actually, it is based upon Winans Steam Gun, designed in 1858 and built in 1860, and found action during the Civil War. A full scale replica of Winans Steam Gun can be found today in Elkridge, Maryland.