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  /  Latest News   /  Top 5 Emerging Applications of Quantum Computing in 2021
Quantum computing applications in 2021

Top 5 Emerging Applications of Quantum Computing in 2021

New applications of quantum computing in 2021 is adding to the power of computers

 

There is so much happening around quantum computing. IBM, Google and Microsoft are competing for quantum supremacy. IBM hopes to make a 50-qubit general-purpose quantum computer within the coming few years. Indeed, the next development in quantum computing might be close.

But, why is there so much hype about quantum computing? It’s because quantum computing could be the best approach to ultra-powerful computers, and our smartest bet to tackle inconceivably troublesome issues. As our requirement for ground-breaking processors continues to grow, and issues become bigger in degree and intricacy, we’ll need more mind-boggling computational systems to power solutions.

Throughout the following five to ten years, we will witness a state of flux as quantum advancements become part of the mainstream computing landscape. These crucial machines will have high variability regarding structures and capacities.

Quantum computing systems will be fit for performing even the most convoluted mathematical tasks a lot quicker than the best supercomputers of today. This will empower these computers to support profoundly functional and responsive machines, which may likewise incorporate multi-functional or Artificial General Intelligence (AGI) machines.

Let’s look at some of the applications of quantum computing in 2021 and more years to come.

 

Research

Quantum simulation can help researchers better understand molecule and sub-molecule level communications which can trigger ground-breaking achievements in science, biology, nanotechnology, and chemistry.

Actual experiments and the analysis of the outcomes are fundamental strategies utilized in chemistry research. Simulating these researches in the old-style computer environment and quickening the cycle without the requirement for physical experiments seems far away. Then again, noise, which seems by all accounts, to be an issue for quantum computers, can be helpful in chemical research. The noise created by simulations with quantum computations uncovers properties about chemical reactions.

 

AI Systems Smarter and Faster

AI systems are getting smarter consistently. They are getting equipped for performing progressively convoluted tasks with minimal training. In any case, existing AI systems are not really flexible and are limited regarding the variety of situations they can react to. The utilization of quantum computing can help AI systems become more flexible and smart in reacting to various circumstances.

This would require AI systems to gauge a wide scope of potential results and circumstances and their probabilities to be able to respond appropriately. Quantum computing can empower AI systems to make predictions even in circumstances where there are a high number of potential results. It will likewise help AI machines to learn quicker and all the more effectively.

 

Cryptography

Most online security systems at present rely upon the challenge of factoring enormous numbers into primes. While this can as of now is refined by utilizing digital computers to look through each conceivable factor, the colossal time required makes “figuring out the code” costly and illogical.

Quantum computers can perform such factoring dramatically more effectively than digital PCs. This means such security strategies will soon become obsolete. New cryptography techniques are being created, however, it might require some investment. In August 2015, the NSA started presenting a rundown of quantum-safe cryptography methods that would resist quantum computers. Further, in April 2016, the National Institute of Standards and Technology started a public assessment process enduring four to six years.

 

Optimization

Imagine that you are a traveling salesman. You wish to visit a bunch of urban cities and need to understand what would be the most optimal routes. This would be an instance of an optimization issue. It sounds quite straightforward, however in any case, the process can get very daunting as you increase the number of factors. For instance, if there are 270 destinations, there will be a bigger number of combinations of travel than atoms present in the universe.

With quantum computers, we might anticipate that a machine can deal with practically incalculable permutations and combinations, which could propel system design and analysis enormously.

 

Molecular Modeling

Another application is precision modeling of molecular interactions, discovering the ideal setups for chemical reactions. Such quantum chemistry is intricate to the point that only the simplest molecules can be dissected by the present digital computers.

Chemical reactions are quantum in nature as they make profoundly entrapped quantum superposition states. However, completely developed quantum computers would not have any trouble assessing even the most mind-boggling processes.

Google has already made advancements in this field by reproducing the energy of hydrogen atoms. The implications of this are more proficient products, from sun-powered cells to medical drugs, and particularly fertilizer creation; since fertilizer represents 2% of worldwide energy use. The results for energy and the climate would be significant.