The ability to store data in the DNA can make next-generation technology possible.

"A groundbreaking study by Yunha Hwang and team has developed gLM, an AI system that decodes the complex language of genomics from extensive microbial data. This innovation enables a deeper understanding of gene functions and regulations, leading to new discoveries in genomics. gLM exemplifies the potential of AI in advancing life sciences and tackling global challenges. Credit: SciTechDaily.com" (ScitechDaily, New Harvard-Developed AI System Unlocks Biology’s Source Code)

Maybe quite soon, we can make biorobots that can clean our bodies more effectively than ever before. 

Can we make the optical neural network in living cells? If that is possible. That makes it possible to create intelligent cells, living nanorobots that can remove non-wanted things from the body. 

Can a single cell be as intelligent as humans? Researchers created the quantum dots inside living cells, and the quantum dots are tools that can make a revolution in quantum computers. Theoretically, researchers could create superposition and entanglement between those quantum dots. 

The soundwaves can create tunnels through the cell, and those quantum dots can form the optical network in the cell. And even if the quantum computer cannot operate in the cell, the small binary network can turn the cell into a small computer. That can operate quite independently. 

"Artist’s impression of optoacoustic computing. Credit: Long Huy Da" (ScitechDaily, AI Efficiency Breakthrough: How Sound Waves Are Revolutionizing Optical Neural Networks)

"A groundbreaking study by Nankai University scientists reveals a novel method for synthesizing quantum dots within the nuclei of live cells. This technique, leveraging the cell’s natural processes with glutathione, paves the way for advanced applications in synthetic biology, including the production of nanodrugs and nanorobots, by enabling precise inorganic material synthesis at the subcellular level." (ScitechDaily, “Truly Amazing” – Quantum Dots Successfully Synthesized Inside Living Cells!)

Is it possible to store information in the DNA molecule? 

DNA is a chemical program, that controls everything in our body. If we can manipulate cells that create the fingerprint. That can allow us to create the living LP record. The system can store information in those genetically engineered fingerprints that are in cell cultures. Then the laser ray reads those images like the stylus reads the LP. The key element in that process is: can we control and use that information for controlling something like nanorobots or programming the neurons? 

The genetically manipulated cells can create electric impulses that help to transmit data to the computers. The artificial cells can also create artificial neurotransmitters that allow data transmission to the cloned neurons. Researchers can use that system to increase neural damage treatment's success. And that thing can also make it possible to create the next generation of intelligent nanomachines. The new nanomachines can be like intelligent viruses. The DNA is the computer program that drives those virus-size machines. 

In some models another side of the nanomachine is hydrophobic. And the other is hydrophile. The hydrophobic side pushes water and other liquids out from its shell. And the hydrophilic side pulls water and other liquids into it. That makes the bubble ahead that machine, that pulls it forward. 

The power supply for the robot could be like this. There are gold atoms on that DNA that travel between two wheels. And the hemoglobin batteries give electricity to that system. The DNA controls the movements of the protein fibers that move this small robot. Or the nano-size generator rotates the protein fiber behind that virus-size robot. That protein fiber or tape acts like a propeller, and the system can push and pull the fibers at the nanomachine's shell in and out. That makes it possible to control the machine's directions.  

https://scitechdaily.com/ai-efficiency-breakthrough-how-sound-waves-are-revolutionizing-optical-neural-networks/

https://scitechdaily.com/new-harvard-developed-ai-system-unlocks-biologys-source-code/

https://scitechdaily.com/organ-architects-the-remarkable-cells-shaping-our-development/

https://scitechdaily.com/reimagining-memory-new-research-reveals-that-superconducting-loops-mimic-the-brain/

https://scitechdaily.com/truly-amazing-quantum-dots-successfully-synthesized-inside-living-cells/

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

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

Minimal space is an inspiring thing.

An empty, or minimal space is a thing that can form interesting ideas. That means empty rooms and a couple of merchandise can be a very inspiring thing. 

Chinese innovations and space lasers are interesting combinations.

Above: "Tiangong is China's operational space station located in low Earth orbit. (Image credit: Alejomiranda via Getty Images)" (Scpace.com, China's space station, Tiangong: A complete guide)

Chinese are close to making nuclear-powered spacecraft. 

Almost every day, we can read about Chinese technical advances. So are, the Chinese more innovative than Western people? Or is there some kind of difference in culture and morale between Western and Chinese societies? The Chinese superiority in hypersonic technology is one of the things that tells something about the Chinese way of making things. 

In China, the mission means. And the only thing that means is mission. That means that things like budgets and safety orders are far different from Western standards. If some project serves the Chinese communist party and PLA (People's Liberation Army) that guarantees unlimited resources for those projects. Chinese authorities must not care about the public opinion. 

If we think of the Chinese nuclear rocket against this background. That means it doesn't follow Western standards. The problem with spaceborne nuclear reactors is that if launching fails, that system will deliver radioactive material in large areas. And a nuclear rocket. That takes people to Mars in half time is one nuclear reactor in space. 

Nuclear reactors can used to create new and powerful laser applications like neutron-beam lasers. 

But the main question is: what else technology can make than just transport people to Mars? The spaceborne nuclear reactors can give energy to satellites that use a very high-power radar. 

Large orbital structures allow to creation of new types of lasers. The megawatt-class laser systems are soon a reality. In 1970 the Soviet researchers introduced a plan for solar power lasers that could deliver energy to the ground. The modular structure allows the system can connect multiple lasers into one entirety. In those systems, the lasers are in a row. And they connect their power. 

But do you know what means neutron poison? In this case, neutrons will start to hover in nuclear reactors. If the system can form hovering neutrons in the laser element. That thing makes it possible to create neutron lasers. The system traps neutrons in the laser element. And then it aims radiation stress on them. The idea is the same as hovering free-electron lasers or proton (hydrogen ion) lasers. 

The system traps hydrogen ions, protons, or electrons in the magnetic tube in those lasers. Then the laser system gives them electromagnetic stress. When stress ends. Those particles deliver their extra energy as radiation. In regular free-electron lasers. The system uses particle accelerators that drive electrons in a curving trajectory. 

When an electron changes its direction, it delivers photons. Same way is possible to create the proton, or hydrogen ion laser. In that system, the accelerators accelerate protons. But it's possible, to replace the particle accelerator using a magnetic chamber, where those particles hover. 

Or they can deliver energy for high-energy lasers. The nuclear-powered laser can use LED lights to deliver energy to laser systems. In some other scenarios, the laser is put in the nuclear reactor itself. 

Or the system uses high-temperature hydrogen to make the laser rays. In some other visions, hovering neutrons in a laser element will used to create coherent neutron radiation. Same way hovering electrons can create a laser beam. The hovering protons and neutrons can used to create electromagnetic radiation. 

https://www.freethink.com/space/nuclear-powered-spacecraft

https://www.space.com/tiangong-space-station

Researchers developed new tools that can be a breakthrough in computing and robotics.

"Researchers have developed an innovative phase change memory device that promises low power consumption and reduced manufacturing costs. This development, potentially replacing DRAM and NAND flash memory, is notable for its efficiency and could significantly impact the future of memory and neuromorphic computing technology. Credit: SciTechDaily.com" (ScitechDaily, New Ultra-Low Power Memory for Neuromorphic Computing)

The new neuromorphic computers require lots of processors. And that's why those systems require new microchips, that have low energy use. Low-energy microchips keep the temperature in computers low. Same way minimizing the cable length minimizes radio waves and temperature in neurocomputing.

Silicon carbide plates can act as artificial synapses. 

Researchers can create artificial synapses in the artificial neural network using silicon carbide plates. The silicon carbide plates that offer "Eternal memory" can offer a new way to make artificial axons to communicate. The system drives information into the silicone carbide mass-memory. Then, the system transports information from the first silicon carbide plate to the second plate. 

Those silicon carbide plates can be in the points where those artificial axons meet. That makes it possible for the wires that connect microprocessors can act like real axons. The silicon carbide plates are like synapses in the neural network. And they can exchange data through the artificial synapsis hole. Those silicon carbide plates can make it possible to connect computers with real neurons with ultimate accuracy. 

The low-energy microchips can control things like intelligent liquids. Those intelligent liquids make it possible to create new types of robots that are like amoebas. 

"The information is written in optically active atomic defects by a focused ion beam (left) and read using the cathodoluminescence or photoluminescence (right). Credit: M. Hollenbach, H. Schultheiß" (ScitechDaily, Unlocking the Secrets of Eternal Data With Silicon Carbide)

Above: Diagram of a chemical synaptic connection. (Wikipedia, Synapse) Engineers can replace that chemical connection using an electric connection. In those systems ions or laser rays transport data to miniature microchips. Then the system transports information into the mass memory. The neural computer can use feedback the receiving system sends information back to the sender to make sure that the information that it got is not changed. 

The silicone carbide plates can act as synapses. Those artificial synapses can connect with miniature microchips. That thing makes it possible to create a new type of neurocomputers. In those computers, the microchips and ion cannons are on both sides of the mass memory. And those entireties are connected into one large entirety. 

Superconducting and photonic computers are tools that help to create new and more powerful neural computers. 

The low-energy microchips can keep the system temperature lower. And that thing is important in computing. The 2D semiconductors are tools that make nano-size microchips possible. The ability to control the semiconductors makes superconducting computers hard to make. Superconducting computers cannot close the gate using semiconductors. And then another problem is how to drive information from the regular computers to superconducting computers. 

"Harvard researchers have created a versatile programmable metafluid that can change its properties, including viscosity and optical transparency, in response to pressure. This new class of fluid has potential applications in robotics, optical devices, and energy dissipation, showcasing a significant breakthrough in metamaterial technology. (Artist’s concept). Credit: SciTechDaily.com" (ScitechDaily, Not Science Fiction: Harvard Scientists Have Developed an “Intelligent” Liquid)

Superconducting computers require very low voltage. Extremely low temperature makes those systems superconducting. One version of how to drive information into superconducting computers is to use lasers. The superconducting computers are in the freezer which keeps them stable. Then lasers will transport information into the superconducting computer through windows. The laser system sends data to the photovoltaic cells. Then those photovoltaic cells can transform data that light impulses carry into electric impulses.  

One version of how to make the superconducting computer's gate operate is to use a laser trap. The laser trap or laser gata is a laser ray that denies electricity or optical signal travel through it. When a gate laser (or maser) operates. Electricity cannot cross that line. That means the gate is closed. The coherent light or electromagnetic field denies the lower energy beam travel through it. 

The semiconductors are required to control electric flow in microchips. One possibility is to use photonic computers. The small optical crystals can make it possible to aim laser rays into the right light cells. In photonic computers, laser rays replace the electric wires. The photovoltaic cells can transform the photonic information into an electric form. 

https://scitechdaily.com/new-ultra-low-power-memory-for-neuromorphic-computing/

https://scitechdaily.com/not-science-fiction-harvard-scientists-have-developed-an-intelligent-liquid/

https://scitechdaily.com/unlocking-the-secrets-of-eternal-data-with-silicon-carbide/

https://en.wikipedia.org/wiki/Dynamic_random-access_memory

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

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

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

The new observations and observation tools are revolutionizing nanotechnology and the way of thinking in physics.

ScitechDaily.com

"A new study has overturned a fundamental principle of physics by demonstrating that similarly charged particles can attract each other in a solution, with the effect varying between positive and negative charges depending on the solvent. This discovery has significant implications for various scientific processes, including self-assembly and crystallization". (ScitechDaily, Opposites Attract, Likes Repel? Scientists Overturn Fundamental Principle of Physics)

The research reveals the importance of solvent structure at the interface in determining interparticle interactions, challenging long-held beliefs and indicating a need for a re-evaluation of our understanding of electromagnetic forces. Credit: Zhang Kang". (ScitechDaily, Opposites Attract, Likes Repel? Scientists Overturn Fundamental Principle of Physics)

New observations about magnetic fields. And same polar particle or object interaction revolutionized the knowledge of magnetism. They say. The system can put particles that have the same polarity. Into the same entirety. The reason for that is that all particles have polarity. The other pole is very weak in some particles. The main magnetic field is in the axle of the particle. 

Or there are stronger points in magnetic fields around all particles and objects. If the stronger point is against a weaker point, the weaker point pulls a stronger magnetic object into it. This thing causes a revolution in physics. But that also makes it possible to create new types of nanomachines and nanostructures. 

New types of systems can determine the certain position of atoms in 3D structures. That thing revolutionizes material research. That thing allows to create the box-shaped graphene structures that don't miss the property of 2d structures. The idea is, that. The system creates the box-shaped graphene by connecting graphene layers. And that makes it possible to create graphene bricks that connect the properties of 2D and 3D structures into new entireties. 

The new measurement tool called quantum gas microscope can solve the problem of how to determine the position of a single atom in a complicated 3D structure, even if those atoms are in lines. The system uses gas or atom cloud that it stresses with energy. Those atoms send radiation that impacts the structure from all directions. The scanning quantum microscope can use protons or electrons that orbit the object. Then that system sends radiation to those particles, and then they send energy that the sensor can capture. All atoms in the path of that radiation cause scattering that uncovers its position. 

"Researchers have devised a method to accurately measure an atom’s three-dimensional position with a single image, revolutionizing quantum mechanics experiments and material development by facilitating precise atom manipulation and tracking." (ScitechDaily, Ingenious New Method Measures the 3D Position of Individual Atoms)

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The next part is from ScitechDaily.com

The Challenge of Measuring the Third Dimension

"Anyone who has used a microscope in a biology class to study a plant cell will probably be able to recall a similar situation. It is easy to tell that a certain chloroplast is located above and to the right of the nucleus. But are both of them located on the same plane? Once you adjust the focus on the microscope, however, you see that the image of the nucleus becomes sharper while the image of the chloroplast blurs. One of them must be a little higher and one a little lower than the other. However, this method cannot give us precise details about their vertical positions". (ScitechDaily, Ingenious New Method Measures the 3D Position of Individual Atoms)

"The principle is very similar if you want to observe individual atoms instead of cells. So-called quantum gas microscopy can be used for this purpose. It allows you to straightforwardly determine the x and y coordinates of an atom. However, it is much more difficult to measure its z coordinate, i.e., the distance to the objective lens: In order to find out on what plane the atom is located, multiple images must be taken in which the focus is shifted across various different planes. This is a complex and time-consuming process." (ScitechDaily, Ingenious New Method Measures the 3D Position of Individual Atoms)

https://scitechdaily.com/ingenious-new-method-measures-the-3d-position-of-individual-atoms/

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The ability to determine the precise point of certain atoms in 3D structures makes it possible to create nano-scale X-ray systems. In that version, the outside system can send energy impulses that resonate with that atom. The atom sends electromagnetic wave movement when it releases that extra energy. The observation system can use that reflection for searching errors in nano-size systems. Or it can determine that atom's point using a ball-shaped antenna structure. 

The scanning tunneling microscopes with moving stylus make it possible to detect minimum errors in nano-scale structures. That kind of system can connected with attosecond lasers, that scan the 3D structures. That kind of system makes it possible to scan and determine the places of single atoms in complicated structures. 

https://academic.oup.com/nsr/article/3/2/170/2460374

https://scitechdaily.com/ingenious-new-method-measures-the-3d-position-of-individual-atoms/

https://scitechdaily.com/opposites-attract-likes-repel-scientists-overturn-fundamental-principle-of-physics/

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

Quantum computers and ultra-fast photonic microchips can danger even the most secure communication.

"Quantum computers could pose a major security risk to current communication systems in 12-15 years with their exponentially greater speed and code-breaking ability. (ScitechDaily, Today’s Most-Secure Communications Threatened by Future Quantum Computers)

Quantum computers can break entire binary cryptography. And that makes all communication unsecured. That is one of the greatest threats in quantum computing. And this brings the arms race to the quantum age. The quantum computer can create codes that any binary computer can break. But the quantum computer can also break old-fashioned codes. And that makes it an ultimate weapon and sabotage tool.  

Quantum computers can change the measurements of the ammunition in factories by changing the system calibration. Or it can delete databases from the opponent's computer systems. This thing can delete all SIM cards from mobile telephones. In peacetime, the hackers that operate using quantum systems can steal the names of the counter-espionage informants. 

"New advanced photonic chips have been developed that optimize light transmission for optical wireless systems. These chips, essential for future 5G and 6G networks, represent a shift towards energy-efficient analog technologies and have wide-ranging applications in high-speed data processing and communication. Credit: Politecnico di Milano" (ScitechDaily, Light-Speed Calculations: New Photonic Chips Are Changing Wireless Communication)

The photonic microchips can also used to hack the ultra-secured communication. The same microchips used as game-changers in wireless communication can also hack that system. 

The photonic microchips can also make it possible to analyze and break even the fastest and most secure communication. If that communication is protected using old-fashioned computers. 

There is a golden rule in use of the encryption software. The time that the system uses to generate the binary number is directly proportional to the time that the system uses to generate the binary number. Riemann's conjecture is a recursive function, that should make very much binary numbers. The Achilles heel in the simple Riemann programs or encryption programs was that the system just calculated a series of binary numbers. 

And that makes the algorithm vulnerable to brute force attacks that make using faster computers. In modern versions, there should be a point in the Riemann series where the computer can start to generate those binary numbers. Then the system can put them in the matrix, and number those binary numbers. The system may use the individual binary number for each letter. In that model, the algorithm uses random numbers that it selects from the matrix. The thing that makes this algorithm vulnerable is that the receiving system must have data. That allows us to decode the information. That means if the receiving system is hacked, that causes real catastrophes. 

That thing means that the attacker gets new settings all the time. If they sent through the Internet. The main problem with Riemann's conjecture is that it's a very used tool. And that means the developers must create more secure ways to communicate than some Riemann's conjecture. That has been a long time the cryptography's cornerstone. But modern ultra-fast computers make it non-secured.

But the other thing is that the new photonic microchips can make data networks insecure. They are faster and more effective data handlers than regular microprocessors. Things like AI-boosted photonic microprocessors are extremely good tools for hackers. Those systems are so fast that they can find the binary number, created using Riemann's conjecture quite quickly especially if the the encryption software user doesn't generate a binary number that encrypts the information. 

https://scitechdaily.com/light-speed-calculations-new-photonic-chips-are-changing-wireless-communication/

https://scitechdaily.com/todays-most-secure-communications-threatened-by-future-quantum-computers/

https://scitechdaily.com/unlocking-the-future-of-security-with-mits-terahertz-cryptographic-id-tags/

https://www.verdict.co.uk/quantum-computing-breaking-security-encryption/

The new humanoid robots break limits.

The new humanoid robots are more fantastic than nobody thought. The BMW's new humanoid manufacturing robots are impressive tools. When humanoid robots work in manufacturing platforms under the dome of the full-scale WIFI transmission and the control of the same supercomputer, they can form multi-level morphing neural networks. They can communicate with supercomputers or with each other. And that is the impressive thing. 

The robots that understand accents are easier to control using spoken words. They can understand natural languages, and people's natural way of communicating. In regular robotics, the user must use grammatically correct language. But modern robots and computers have started to follow orders, that accent-using users can give. The first portal in those systems is the speech-to-text application that transforms spoken words into text. That it drives to the robot's control. 

The system requires only an accent wordbook that can translate orders to literal language and commands that the system must follow. The new ultra-fast processors can drive AI that can remove unnecessary words from the text that the speech-to-text application makes. 

So the system uses the same method as translation programs. And translation programs make it possible. That user can give orders to robots using their language. 

But if those robots are equipped with the sense of touch and the remote VR headsets and systems that bring a sense of touch to the human nervous system from the virtual reality. That thing allows the robot can transmit all its senses to the human operator, who smells, sees, touches, hears, and even tastes the same things as robots. 

The BCI (Brain-Computer interface) VR (Virtual reality) headsets make it possible. That system transmits even tastes from robots to users. The BCI must just know the brain area, where certain signal belongs, and it can transmit a sense of touch and smell. 

The system can also use similar systems that transmit a sense of touch to the system, connected with the tongue. The system can also use bio-printed togues with living neurons. They are connected to the computers. Researchers can use the bio-printed olfactory coil connected with microchips in that mission. Maybe in the future. We have laboratories where cloned tongues and olfactory coils can be used as chemical sensors. Those sensors can send their data through the Internet all over the world. 

This thing is called robot-based augmented reality. In factories, the operators can use one robot that manufactures the first car. And then those operators can scale that model over the network. 

https://www.freethink.com/robots-ai/general-purpose-robots

https://www.freethink.com/ar-vr/device-hacks-nervous-system-to-bring-touch-to-virtual-worlds

https://www.freethink.com/ar-vr/galea-beta

https://scitechdaily.com/1000x-faster-ultrafast-photonics-chip-reshapes-signal-processing/