New quantum acoustic memories can make quantum computers more effective.

 

"Illustration of a silicon-vacancy center in a diamond crystal lattice. Credit: Doug Quade. The same tiny vibrations that carry quantum information across a chip could also keep that information from fading away."  (ScitechDaily, Harvard Scientists Use Tiny Sound Waves To Protect Quantum Information)

Quantum systems are very problematic tools. They are very sensitive to electromagnetic vibrations. This means. That researchers. Must find new ways to store information in quantum systems. Traditional quantum computers are hybrid systems. The binary computer controls the qubits. In. The quantum processors. And then that information is stored in the binary form. This makes those systems slow. If. The system can store information as qubits. That makes it faster. 

New types of quantum memories can store information as acoustic waves. An acoustic wave is a molecular- or atomic-scale wave. Theoretically, we could also store information directly in sound waves. If. We could freeze those sound waves in their form.

It is possible. To store those sound waves on tape. This acoustic tape means the layer. That is, in the chamber, there is gas. When a sound wave travels over that tape. The system pushes gas very fast against that tape. If. That happens fast enough. 

The pressure system can trap those sound or pressure waves on the layer. And then a laser could read the form of those atoms. 

Today. Researchers are testing phonons as tools. That can protect quantum information. Using tiny sound waves. Sound waves can travel in a diamond carbon structure. That structure. 

You see in the image above. Can turn diamonds into tiny LRAD devices. Those systems can aim sound waves with very high accuracy. And theoretically. If. Researchers could create quantum entanglement through that channel. But. Another possibility is to store information. Into. Acoustic qubits. 

Harvard scientists dressed those qubits using acoustic fields. Or they created dressed states. The system creates superposition between fields. That surround silicon vacancy states. 

“Because the protective field is mechanical, it can operate inside the same phononic cavities intended to connect stationary quantum nodes. Phonons could therefore serve two functions in one device: moving quantum information between qubits and shielding that information while it is stored.” (ScitechDaily, Harvard Scientists Use Tiny Sound Waves To Protect Quantum Information)

 Eliza Cornell, Ph.D., describes it like that. Researchers solved two problems. Shew says that. 

“We want the spin to have strong interaction with phonons, and we want the spin to have a long coherence time. Our paper demonstrates a method of extending the coherence time that is compatible with the silicon-vacancy center being in a cavity.” (ScitechDaily, Harvard Scientists Use Tiny Sound Waves To Protect Quantum Information)

“The technique extended the coherence time of the silicon-vacancy spin by roughly threefold, showing that continuous-wave mechanical noise suppression can protect quantum information in a real device. (ScitechDaily, Harvard Scientists Use Tiny Sound Waves To Protect Quantum Information)

“The researchers also achieved a Rabi frequency of 800 megahertz, enabling exceptionally fast control of the spin. Together, longer coherence and rapid operation could support high-fidelity quantum gates mediated by phonons, bringing compact on-chip quantum networks closer to practical use.” (ScitechDaily, Harvard Scientists Use Tiny Sound Waves To Protect Quantum Information)

The acoustic qubit can store an acoustic field around it. So those memories are actually phonons. Or they are phonons. Dressed with acoustic fields. 

Interaction directly with phonons is difficult to control. A useful quantum memory must preserve coherence. This means. It must retain its quantum state long enough. It can store, process, and transmit information. Environmental noise can quickly destroy that state.

Noise from the environment. It destroys the qubit. Another big problem is: How to multiply oscillations? Between phonons?  In those systems, oscillations must be precisely multiplied. 

In this case, those phonons can be in direct lines. And some laser or acoustic beam travels over them. And. That makes it possible to multiply those oscillations over those fields. The system must put those qubits in line. And then. Press. A quantum channel that allows them to transmit information directly between those qubits. 

“A dressed qubit is described as “wearing” the continuous acoustic field surrounding it. This changes how the qubit responds to its environment, making it less vulnerable to low-frequency noise that would otherwise disrupt its stored information.” (ScitechDaily, Harvard Scientists Use Tiny Sound Waves To Protect Quantum Information)

When. Information is stored in acoustic form. Into silicon vacancy centers in those diamonds. In the most exciting model, those vacancy centers could be in the nanodiamonds. Those diamonds can form quantum channels in the quantum chip. 

So, as is said in this text. 

Silicon vacancy centers could store acoustic information. This technology allows researchers to build new types of quantum information storage. In that solution, the diamond’s carbon structure prevents those vacancy centers from delivering the wave motion. 

When those vacancy centers get a signal. Silicon vacancy centers start to deliver the wave motion. They stored. During this process, silicon vacancy centers store acoustic waves in their structure. And then they deliver that wave motion when they get an impulse that triggers the information delivery. This type of mass memory can be a new way to store information in quantum systems. 

They stored. Those diamonds can also be used. To create pressure. That makes wires superconducting. This is one way to create new, smaller quantum computers. And maybe someday. Those tools. They can turn into desktop models. 

https://scitechdaily.com/harvard-scientists-use-tiny-sound-waves-to-protect-quantum-information/

Space weapons are coming.

U.S. confirmed it has weapons in space. This is the next step in the arms race. Satellites play a big role in the modern military. That's why the military wants to affect them. GPS, communication, and reconnaissance satellites are high-value targets. And. Without those systems. intelligent warfare is impossible. The next point is that satellites disturb fire-control radars. ECM satellites are used in Iran. Those systems can disrupt drone swarms. And other data communications. 

This is why every nation with space capacity develops ASAT systems. A system that threatens ECM and radar satellites can be a large version of anti-radiation missiles. 

The anti-satellite weapons might not destroy targeted satellites. They can try to jam their signals. Or slam their systems down with an EMP pulse. In those cases, the weapon can use capacitor-based systems. That sends high-power microwaves or radio waves to targeted satellites. 

"A Davy Crockett micro nuke at the Aberdeen Proving Ground, Maryland, 1961" (Wikipedia, Davy Crockett (nuclear device)

“A notional rendering of China's reusable Shenlong space plane. (Image credit: Erik Simonsen/Getty Images)” (Space.com)

The killer satellites' mission is to destroy other satellites. Or, they can be used to create high-power EMP signals using nuclear warheads. Requires a new type of reaction. The nuclear-based EMP is one of the most powerful weapons. There is a possibility that the satellite can drop nuclear weapons on targets. So-called. FOBS (Fractional Orbital Bombardment Systems). They can be miniature space shuttles. Those shuttles can hang in orbit and wait for orders to attack. In that case, those systems can be stealth shuttles that make kamikaze attacks against ground targets. There is suspicion that. The Chinese Shenlong miniature space shuttle can be a prototype for this kind of weapon. 

If. An orbiting satellite carries a nuclear weapon. It requires very fast reactions. The same way. If. The hunter-killer satellite starts to follow a friendly satellite. That requires fast counteractions. The problem with killer satellites is simple. Any satellite can act as this type of weapon. Especially microsatellites can be tools. They can destroy other satellites with kinetic energy. The miniature satellite can collide with other satellites. 

Or they can involve high-power EMP systems. One version of those tools is a micro nuke that detonates in an air tank. A 20-ton nuclear detonator can form a so-called controlled EMP pulse. Or they can involve high-power capacitors. That pushes lots of energy. To microwave- or radio-wave-based systems. Those satellites can wait in orbit. 

Things like miniature shuttles that can wait in orbit to attack require counter-actions. Those shuttles can carry internal nuclear warheads. This makes them so-called super drones. Satellites can also drop drone swarms into operational areas. Those systems are dangerous to troops and civilians. This means that drone swarms that satellites can deliver can hunt individual people on the streets. That makes those tools excellent assassination tools. And those systems require fast reactions. 

https://www.space.com/china-space-plane-depoyed-mystery-objects

https://www.twz.com/space/new-details-on-how-space-force-has-waged-electronic-warfare-against-iran

https://www.twz.com/space/u-s-admits-it-has-weapons-in-orbit

https://en.wikipedia.org/wiki/Davy_Crockett_(nuclear_device)

Fusion and its problems.

The biggest technical problem in fusion seems simple. How to control plasma. Theoretically, that requires only. That the outermost layer of the plasma belt is at a higher energy level. Than the inner plasma that travels in Tokamak reactors. The higher energy level. At the outermost layer of that plasma. Traps energy in the plasma ring. 

When fusion begins. Energy. That comes from the middle of the plasma ring. It will break the plasma. So, fusion starts in the middle of the plasma ring. That plasma ring travels in a magnetic tube. That keeps it away from the walls of the Tokamak reactors. That plasma is hotter than the Sun.  The system must increase the temperature to compensate for the Sun’s gravitational effect. 

This means the reactor compresses plasma in the middle of the magnetic tube. And that causes another problem. When. fusion starts. Ignition pushes ions, or high-temperature plasma, away from the center. This spreads the plasma all around the Tokamak reactor. That also causes the plasma to touch the reactor’s structure. When the plasma, which is at temperatures of billions of degrees, destroys the reactor. 

The solution could be. The system pushes back when fusion starts. This means. The energy level is at the outermost layer of the plasma. It should be higher than the center of the plasma ring. The idea is this. The energy level in the outermost layer of the plasma ring is higher than in its inner layers. 

That outside energy pushes the deuterium and tritium together, forming helium. Lithium deuteride, lithium hydride: normal hydrogen is replaced. Using deuterium is a good source for deuterium and tritium. But that system requires a neutron source. 

In thermonuclear weapons. The small nuclear bomb. Creates the needed energy and neutrons to start fusion. Maybe. Fusion reactors. They could use a neutron source and laser-accelerated neutrons to create conditions that can start fusion in lithium deuteride. 

The outer layer’s higher energy level helps to keep that plasma in that form. If. The energy level in the middle of the plasma ring rises higher than the outermost layer. That energy breaks the plasma ring. And fusion is impossible. The key element is to keep that plasma in one form.

If that is possible. Researchers. Are one step closer to a fusion power plant. The technical problems with this type of reactor are huge. But if that reactor can transport energy into the network. This can be the next step. To benefit renewable energy. The main problem with a hydrogen economy is how to produce hydrogen.

Hydrogen is a promising energy source. If it is produced using clean energy. Things. Like aircraft carriers. They could produce hydrogen for their air wing as fuel. Fusion reactors can offer a clean way to produce hydrogen. 

https://en.wikipedia.org/wiki/Lithium_hydride

https://en.wikipedia.org/wiki/Tokamak

Photonics: a new tool for technology.

“An illustration of the experimental concept shows how researchers study phases in quantum material. In the background, the uniform blue stripes are the dominant order, and the subtle red stripe patches are the subdominant order phase. The red and purple rays are, respectively, the “pump” and “probe” laser beams. The white particles are the photoemitted electrons, from which researchers read information about the phase transition. Credit: Xinyue Lu” (ScitechDaily, MIT Physicists Zapped a Quantum Crystal With Lasers – and Discovered Something Surprising)

New physics creates new electronics. The limits of resistance make new microchips possible. In new microchips, resistance controls the direction of information. And along with precise photonics, this can make it possible to create new, smaller microchips. In those semi-photonic microchips, photons control resistance. And resistance controls the route of information. Resistance is the thing. That makes it possible to create extremely small switches and gates. And that is one step toward photonic and superconducting microchips. 

On superconducting microchips, photons raise and lower the temperature. That is the border of the superconducting limit. The ability to control light makes many new types of devices possible. If we create a system that can create resistance and remove it. When. It is needed, that system can revolutionize electronics and other things. Resistance can create information or an energy dam. Then that system can wait until the energy level is right. And then remove resistance. That allows it to deliver precisely the needed energy impulses. 

The ability to stop and control light makes it possible. To create ultra-secure data transmissions. When we think about the wave interaction between photons and electromagnetic fields. We. Must realize that wave movement is like a puzzle. There is the main wave. And then there are subwaves. If. We see a light wave. We would see a line; the surface is like a saw. That structure repeats again and again. And each of those structures can carry information. That means that a light wave can act as tape. This means the light can be stored in the box between 100% reflecting mirrors. And when the other mirror is opened. That releases the laser beam. 100% reflection means there is no energy absorption in that structure. 

So, when we start to think about photonic crystals, they can act as effective data storage. 

Photons are trapped in those crystals’ structure. They can store information and process it. In that system, the quantum entanglement between those photons can make them act like quantum-sized mechanical computers. This can allow the creation of a 2D quantum computing layer on microchips. 

But photonic crystals and 100% reflecting mirrors are multi-use tools.  

They can make it possible. To create. Things that we can call energy crystals. When the system pumps energy into energy crystals. Their structure stores that energy. When something disturbs the balance of those crystals. It. Puts that energy into motion.  100% reflecting mirrors can also store laser beams between them.

Storing a laser beam is theoretically very easy. The system lets the laser beam into the chamber. And then it closes the hatch. This technology makes it possible to create high-energy laser bullets. A laser bullet means a bullet that carries a laser beam inside it. The laser beam is stored between those mirrors. 

When. The bullet hits the target. The front mirror breaks. And releases the laser beam to the target. 100% reflecting mirrors. They can also form extremely strong laser beams. The system can make photons jump between those mirrors. And push energy into those photons. 

The limit is the energy level in the medium. There is a possibility for the laser beam to jump between those mirrors. This means that high-energy radiation pushes energy into that laser beam. In. In this case. Energy emission happens directly between photons. And then the front mirror is opened. This technology. It makes it possible to create extremely thin. But at the same time, strong lasers. 

https://scitechdaily.com/light-reveals-the-hidden-quantum-motion-inside-an-exotic-crystal/

New micro-drones can revolutionize everything.

“Chen’s group has been building robotic insects for more than five years. Credit: Courtesy of the Soft and Micro Robotics Laboratory.” (ScitechDaily, MIT’s Tiny Flying Robot Just Learned To Move Like a Real Insect)

New MIT microdrones move like insects. They are about the size of a sugar bite. And as large as larger drones. Those systems can form a neural network.  This means those drones can act as swarms. The hivemind technology allows them to create independently operating drone swarms. Those drones. They can use laser-LEDs to communicate. And that kind of optical communication. It’s the tool that allows them to deny the ECM systems. 

The operator can use LiDAR-based technology to transmit information into the drone swarm. Those small insect-drones. They can search for people in rescue missions.  They can also assist SWAT and special forces teams. And people like military intelligence. They can use those drones in their own missions. Those drones can act as eavesdropping tools. But intelligent technology makes them very hard to detect.  The miniature drone can observe network communication. 

The problem with this kind of system is simple. The drone can transmit data to a relay drone by using laser beams. That means the drone is invisible to radio-wave detectors. 

“A time-lapse photo shows a flying microrobot performing a flip. Credit: Courtesy of the Soft and Micro Robotics Laboratory” (ScitechDaily, MIT’s Tiny Flying Robot Just Learned To Move Like a Real Insect)

“Now, with our bio-inspired control framework, the flight performance of our robot is comparable to insects in terms of speed, acceleration, and the pitching angle,” says Kevin Chen. Credit: Courtesy of the Soft and Micro Robotics Laboratory. “(ScitechDaily, MIT’s Tiny Flying Robot Just Learned To Move Like a Real Insect)

The Ingenuity Mars-helicopter

There are two films. The film below. It’s 11 years old. That means that those systems already exist. The upper film introduces hor recon and attack drones. They can wait in boxes. And when they see a target or suspected target. They can react immediately. 

If the system. It uses UV lasers to communicate. That system is also invisible to IR detectors. The system. That is used in that kind of operation. It can see everything. That happens on the screens. 

The main problem with intelligent eavesdropping and surveillance tools is that. The reconnaissance plane or some other system. It can activate the transmitter by using radio signals. So, normally those systems just record information. When they are outside. The system gets a signal to send a so-called data burst. This means that. If those systems are hidden in somebody’s briefcase or clothes. 

The detectors and Faraday cages are helpless against those systems. When a person is in a secure space. The system just records data. But when a person steps out of the building. The surveillance operator can give an order to send data. 

A small-sized drone. It can also mark positions for smart bombs. Those drones can use an advanced power supply. Bigger drones. They can act as loading stations for those small drones. They can use wireless battery charging. Developed for mobile telephones. They can also use the same batteries that were developed for pacemakers. And those kinds of drones. They can fly at very high altitudes. So we can think of the cigarette-box-sized drone that uses the same technology as the Ingenuity helicopter. That operated. In Mars’s atmosphere. 

Microdrones can operate. Along with bigger drones. The combat drones. They can form similar teams. To Ingenuity and Curiosity. The bigger drones and rovers. They can be the ultimate team. Microdrones can also  act as advanced elimination systems. The drone can carry stun grenades or some deadly detonators. The system. It can cut wires and damage surveillance cameras.  They can also cause critical damage to electronic systems. And mark the enemy positions. But those systems are the ultimate elimination systems. 

Microdrones. They can slip into houses and then search their targets. The  microdrone can use its ammunition to eliminate targets. They can be delivered from helicopters, aircraft, and even from satellites and ballistic missiles. The AI-based systems enable them to find targets with pinpoint accuracy. If those systems. They have an image of the target. They can land in the area. And when they detect their target. Those drones activate their attack mode. 

https://scitechdaily.com/mits-tiny-flying-robot-just-learned-to-move-like-a-real-insect/

https://scitechupdates.com/nasas-ingenuity-helicopter-dropped-on-mars-surface-ahead-of-flight/

https://en.wikipedia.org/wiki/Ingenuity_(helicopter)

https://en.wikipedia.org/wiki/Lidar

New ramjet fuel can boost the offensive and defensive systems.

 

“The approach marks an essential risk reduction step in enabling solid fuel ramjet propulsion to help close a critical performance and cost gap. (Representational image)” (Interesting Engineering, Next-gen ramjet fuel propulsion system for future offensive, defensive missions tested)

A big problem. With ramjet technology. It’s that the ramjet engine cannot start in a static position. The system requires speed. About Mach 1 to ignite the engine. The engine itself has no compressors. The normal way is to launch those aircraft and missiles from another aircraft. Or the rocket accelerates the plane to the needed speed.  There is a possibility. To use rockets or jetpacks. The jetpack is a normal jet engine. That accelerates the ramjet-driven aircraft to the speed that it needs. When the ramjet is started. The jetpack can be separated. Or the system. It can close airflow into the turbine.  Basically, the jet fighter. It can pull the ramjet-driven system. Into the needed speed. 

The other answer. It's the rocket ramjet. There is also the possibility of using a flap system. That system closes the engine inlet face when the speed is too low. Then the system uses compressors to inject air into the combustion chamber. When the speed of that rocket ramjet is high enough. The system opens the engine inlet. And lets the air flow in. There is also the possibility of using an ion system. 

To accelerate air to the needed speed. The system ionizes air. And then pulls it through the ramjet engine. The dual-mode ramjet (DMR). It can mean a ramjet. That can operate at low speeds. Or it can operate at high supersonic speeds. And speeds over Mach 7. The dual-mode system. It can have both. Ramjet and scramjet engines. The scramjet engine. It's the hypersonic ramjet. The ramjet engine accelerates the system. Into the needed speed. 

And then it starts to use the scramjet. Basically, the afterburner is the ramjet engine. That is behind the turbojet. Similarly, the scramjet can act as an afterburner for the ramjet. The scramjet can be installed next to the ramjet. Or a cone in the ramjet. Its mission is to slow the airflow. It must be burned. Or somehow detonated. If that cone can be turned into ash. The scramjet. It can be put after the ramjet. 

The new rotating-detonation engines (RDE). They can operate as both engine types. They can operate as scramjets and ramjets. 

The difference between a rocket and a ramjet is that a rocket uses internally stored oxygen. A ramjet engine takes oxygen from the air. So, if we replace the rocket engine with a ramjet. That gives those systems more range. The ramjet engine can store more fuel than a rocket. The big difference between a ramjet and a solid-fuel rocket is that the rocket fuel is like explosives. The problem is short burning time. The bright exhaust gas also helps to detect the missile. 

The ramjet engine. It can make it possible. To create new long-range ammunition. The ramjet-driven artillery shell. It can operate at long distances. Unlike rocket-propelled shells, the ramjet keeps pressure in the cannon lower. If it ignites after the grenade leaves the tube. 

The air-breathing ramjet can burn its fuel much longer. The exhaust gas is colder. And that makes it harder for the satellite to see the infrared signature of those engines. One of the main problems. With ramjet engines. It is this. They use gas or liquid fuel. Solid ramjet fuel. It gives the ability to store that fuel. In hypersonic systems.  The high-speed, hypersonic ramjet system can fly at very high altitudes. The speed of the system. It compresses air in the ramjet engine. 

The effect is the same. As in cases like the SR-71 “Blackbird”. The SR-71 can fly so high because of its shape. Its shape. It aims. The air cone or pressure wave into the jet engine compressors. Hypersonic ramjet-based systems can fly in the high stratosphere. But lower than satellites. And that system. It can use advanced stealth technology. The ramjet-driven miniature shuttle. It can be shot on a trajectory. By using a ballistic missile. Then that cruise missile dives back to the high atmosphere. 

“Simple ramjet operation, with Mach numbers of flow shown” (Wikipedia, Ramjet)

“Diagram of principle of operation of a scramjet engine.” (Wikipedia, Scramjet)

“Breakthrough Hypersonic Dual-Mode Ramjet with Rotating Detonation Combustion” (Nextbigfuture) 

SR-71

And starts its ramjet engines. The idea. For those missiles comes. From the Soviet era. Soviets tested or planned the missile. That rises as a high-speed ramjet-driven cruise missile into a high ballistic trajectory. Then that ramjet-driven stage falls back into the atmosphere. And starts its engines. The collapse of the Soviet Union ended those projects. The difference between that Soviet-era system and “Avangard” is that. Avangard is a glider. The hypersonic glider has no active engine system. But that Soviet-era system. It had an active engine system.

The dual-mode ramjet engine is the system. That is even more effective than a ramjet. A Dual Mode Ramjet (DMR) is a ramjet engine. It can operate in both subsonic and supersonic combustion modes. DMR operation. It can be. Obtained using a fixed geometry if the overall Mach number range is not too wide. Like Mach 4 to 8. 

The dual-mode ramjet (DMR) engine. It can also mean that. Those engines can operate in high-supersonic and hypersonic areas. If the Russian Zircon missile operates at Mach 8. That means. That missile. It needs. Dual-mode ramjets. Or the system must boost the speed that a scramjet requires using the regular rocket engine. Or could it be possible? That the Russians lied about the speed of that system? Could it be lower? If the missile flies at speeds of Mach 4-6. That requires only a ramjet engine. 

I think that.  At least the Russians thought. About the possibility. To install the hypersonic “Zircon” missiles on targets by using long-range ballistic missiles. The ballistic missile returns to the atmosphere far away from its target. And releases the ramjet-driven part into the atmosphere. Normally, those Russian hypersonic cruise missiles are launched from ships using a rocket stage. Then the missile starts. To use a scramjet or dual-mode ramjet. The simplest possible dual-mode ramjet engine. It means the ramjet engine with the scramjet afterburner. Simplest way. It's to put the scramjet separately in the missile or aircraft body. 

https://interestingengineering.com/innovation/ge-aerospace-hypersonic-dual-mode-ramjet

https://interestingengineering.com/military/next-gen-ramjet-fuel-propulsion-system

https://www.nextbigfuture.com/2023/12/breakthrough-hypersonic-dual-mode-ramjet-with-rotating-detonation-combustion.html

https://theaviationist.com/2023/12/16/ge-aerospace-demonstrates-hypersonic-dual-mode-ramjet/

https://timesofindia.indiatimes.com/defence/international/can-ukraine-stop-russias-zircon-missile-all-about-moscows-mach-9-hypersonic-weapon/articleshow/132276845.cms

https://en.wikipedia.org/wiki/3M22_Zircon

https://en.wikipedia.org/wiki/Avangard_(hypersonic_glide_vehicle)

https://en.wikipedia.org/wiki/Lockheed_SR-71_Blackbird

https://en.wikipedia.org/wiki/Ramjet

https://en.wikipedia.org/wiki/Rotating_detonation_engine

https://en.wikipedia.org/wiki/Scramjet

3D-printed ramjets and jet engines are an introduction to modern manufacturing systems.

3D printing technology. It can revolutionize hypersonic technology. And drone production. The new CAD/CAM (Computer Aided Design/Computer Aided Manufacturing) systems can manufacture any part if it has the right raw materials. The CAM technology. Means that the robotic printing system turns the CAD image straight into a product. 

3D printing technology is coming to jet engines. The new 3D printing systems with X-ray imaging are making it possible to create things like jet engines. By using those systems. The 3D-printed ramjet engines are tools. That can revolutionize drone and hypersonic technology. And these kinds of systems. That are container-sized, AI-controlled platforms that involve so-called vacuum work. The vacuum work means that those 3D printers can operate in a vacuum. The ability to create jet engines and parts for hypersonic missiles and drones. 

That can make many things possible. Operators can create spare parts for jet engines in hangars. The ability to print those systems. It turns drones’ prices low. In wildest dreams, the system. It can create drones in the operational areas. And that causes interesting thoughts. The ability to produce things like quadcopters remotely. Is a thing. 

That can be. The new tool for researchers and military operations. Only things that those systems require. They are the microchips. Highly advanced AI can search for raw materials from things like garbage. The system must only melt those things. Then it separates materials.  And then. It turns that raw material into metal and plastic wire. The vacuum system. It prevents. Organic materials from burning. The system can create trunks for quadcopters. 

"An artist's render of the 3D-printed Rampart engine."(IE)

That prevents air bubble formation in the printed object. Those printers use lasers, microwaves, and electric arcs to create high-temperature work. The system requires only the right materials. Those are small-sized systems. They can be transported into operational areas. And they can make things like spare parts for engines and weapons. The 3D printers can also create quadcopters. The fact is that. There are no limits to the size of the 3D printers. 

And this kind of system. They can print even ships or aircraft. There is no limit. For structures that 3D printers can make. The 3D printers. They can be mounted in quadcopters. And that can revolutionize repair work. The AI-controlled drone factories. They can offer the mass production of drones. The drone itself. It can be made of paper. If it must transport small things like small microphones. 

Drone factories. That can use auxiliary drones to search for raw materials. They are one step closer to Von Neumann factories. The self-replicating factories that can search for their raw materials. From nature. They can play a key role in terraforming planets. The drone factory that can make a copy of itself. It is the primary element in space exploration and terraforming planets like Venus. The drone factory. It can create drones. Equipped with carbon dioxide lasers. Those lasers should resonate. And destroy carbon dioxide atoms. 

The carbon dioxide-laser-equipped drones. They can make it possible to create the systems. That can destroy mine fields. The carbon dioxide lasers that are mounted in quadcopters. They can be game changers. The carbon dioxide lasers are the most powerful laser systems. They deliver their energy in the infrared range. This means that those systems deliver laser beams. That operate in the thermal area. Those laser-drones. They can be effective against combat material and human targets. Those drones can also cut holes in the hull of warships. The laser weapons can provide ultimate protection against drones and counter-drones. But those weapons can also give the same effect. As a rifle to target. 

https://interestingengineering.com/innovation/beehives-3d-printed-rampart-engine

https://www.twz.com/sponsored-content/3d-printing-engines-to-power-hypersonic-weapons-is-fast-becoming-a-reality