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Artificial Intelligence, 5G, rare earth products, ground station tracking facilities to support Gaganyaan are among the areas covered, says Barry OFarell

Australian High Commissioner to India Barry OFarrell took charge a month before the COVID-19 pandemic struck in India, yet his time here has seen a steady uptick in the momentum of bilateral cooperation including a Prime Ministerial summit in June and, more recently, Australias inclusion in the Malabar naval exercises. He speaks toNarayan Lakshman about a range of cooperative initiatives on the anvil.

It will demonstrate the ability of our navy to work through exercises, warfare serials and like with the navies of India, Australia, the U.S. and Japan. That is important because, were there to be a regional crisis, like a natural or humanitarian disaster, the ability to work smoothly with partners is critical. It builds particularly on the maritime agreement that was one of the agreements underneath the CSP, but also to the mutual logistic support arrangement, which is designed to improve the collaboration between our armed forces. This reflects the commitment that Quad partners have to a free, open, and prosperous Indo Pacific. It demonstrates the commitment that Australia and India have to what Prime Minister Modi described at the June summit as a sacred duty to provide the neighbourhood with the environment where people could prosper, where there could be stability upon which to build your lives, and where you could live freely. It reiterates that.

It also comes off the back of ongoing interactions between our armed forces. To some extent, Malabar was a fixation that we are delighted to be part of, but it was a fixation because it ignored the fact that the AusIndex exercise last year was the largest naval engagement Australia had ever been a part of, and most complex involving submarine serials and P-8 Poseidon maritime patrols across the Bay of Bengal. Equally, the recent passage exercise again demonstrated our ability to work together, including practising warfare serials on water. All these things increase the level of cooperation, increase the significance of the relationship, but practically ensure that should they be called upon, our navies could work more closely together, effectively, in support of a peaceful, stable and prosperous Indo Pacific.

Also read: India-Australia friendship based on trust, respect: Scott Morrison

Certainly, the COVID-19 pandemic has damaged economies. It has accelerated geostrategic competition, and it has obviously disrupted our way of life. It has highlighted the importance, to countries like India and Australia, of ensuring a safe, secure and prosperous future for our citizens. Thats why, as part of the CSP, there were agreements in relation to critical technologies such as Artificial Intelligence, quantum computing and 5G because we recognise the opportunities they present to people, to businesses, to the broader economy, and the fact that they should be guarded by international standards to ensure they do not present risks, to security or prosperity. The Australia-India framework Arrangements on Cyber and Cyber Enabled Critical Technology cooperation, abbreviated as the Arrangement, will enhance bilateral cooperation. Under the agreement, we are going to cooperate together to promote and preserve that open, free, safe and secure Internet by working around those international norms and rules that we talk about. It sets out practical ways to promote and enhance digital trade, harness critical technologies, and address cyber security challenges. It provides a programme of 66 crore over four years for an Australia-India cyber and critical technology partnership to support research by institutions in both Australia and between institutions in Australia and India. We also signed an MoU on critical minerals between both countries because they are the essential inputs into these critical and emerging technologies, which cover areas like high tech electronics, telecommunications, clean energy, transport and defence. Critical minerals are essential if India wants to achieve its energy mission goal in the battery industry, storage industry and electric vehicle industry.

Editorial | A new dimension: On India-U.S.-Australia-Japan Quadrilateral

If you want to build batteries or electric vehicles, lithium, amongst other items, is required. We know that your northern neighbour is your most significant supplier of these critical minerals. We know that India is seeking to become more self-reliant. We know that imports from China are reducing. Australia potentially sees an opportunity for us to provide elements into Indias efforts to improve its manufacturing, defence and electric vehicle and energy mission projects. We have Indian companies who are currently owning or significant investors in Australian critical minerals and rare earths companies. We have just released a new prospectus on critical minerals and rare earths which lists over 200 projects capable of attracting more investment into India.

I know theres concern in some parts of the community that self-reliance means protectionism. Well, we believe, firstly, that that is not the case, and that there will always be markets in India for elements that can be used by India to grow economies, grow businesses and provide more jobs and more wealth into society. But secondly, if you were concerned about the protectionist angle, the fact is that there is nothing stopping you coming to Australia to buy a mine to put those resources, those elements, into your own businesses, in the same way as is happening with coalfield in Queensland.

Also read: Malabar 2020: the coming together of the Quad in the seas

Firstly, Australia is already contributing to Indias national quantum mission by facilitating partnerships with universities, research institutions and businesses. That includes one of the best relationships we have with India, which is the Australian India Strategic Research Fund, which has been going for over 20 years. Since 2013, one of our Australians of the Year, Professor Michelle Simmons, has led a team of researchers at New South Wales Universitys (UNSW) Centre for Quantum Computation and Communication Technology, seeking to build the first quantum computer in silicon.

For quantum computers to be successful with their calculations, they have to be 100% accurate, but electrical interference called charge noise gets in the way. To tackle this problem, the UNSW has used a Research Fund from that Australia India Strategic Research Fund to collaborate with the Indian Institute of Science Bangalore, to combine Australias state of the art fabrication facilities, and Indias ultra-sensitive noise measurement apparatus. This has helped identify how and where the fabrication process should be adjusted. Earlier this year, the UNSW team was able to achieve a 99.99% accuracy in their atomic level silicon prototype. They believe it is only a matter of time before theyre able to demonstrate 100% reliability, and produce a 10 qubit prototype quantum integrated processor, hopefully by 2023. This has the potential to revolutionise virtually every industry, solving problems and processing information that would take a conventional computer millions of years to calculate in seconds. This is practical cooperation between the UNSW and the Institute in Bangalore, going on right now ready to hopefully come to practical fruition in 2023. Equally, in the upcoming Bengaluru Tech Summit we will host an exclusive session providing an overview of our innovative ecosystem, our cyber and critical technology capabilities, growing space ambitions, and the applications of computing, and quantum computing. Professor Simmons will be one of the keynote speakers. We recommend tuning into 11 a.m. on Friday November 20 for the session From Cyberspace to Outer Space: Innovating with Australia in a Post-COVID World. The bottom line is that India and Australia, through two respected institutions, are close to cracking something nowhere else in the world has been cracked, and it is likely to be ready within the next three years.

Firstly, we have a space sector going back to back to 1967. We launched our first rocket in South Australia and Woomera in 1967. But we were also critical to NASA throughout, regarding the use of space as part of NASAs global space infrastructure. We received those pictures from the first moon landing and broadcast them to the world. The U.S.s two systems failed and ours didnt fail on camera, and thats why we had pictures of Neil Armstrong walking on the moon. We have facilitated communication with deep space probes and also the landing craft on Mars.

Australia and India have been cooperating together as countries since 1987, when we inked our first MoU, and there is a strong engagement between ISRO and Australian agencies. We have undertaken data collaboration on Indian remote satellites. Since 2013, we have been doing laser ranging for Indian regional navigational satellite systems. We launched an Australian satellite by an Australian company and of course, we look forward to your manned space mission in 2022. We are exploring how we can place temporary ground station tracking facilities in Australia to support that Gaganyaan Mission. That is something that is practically under way as we speak. But we have been impressed by Indias capabilities and ambitions in space. You have the record for the most number of satellites released by a single rocket ever. It was more than 100 in 2017.

A lot of the universities are using the online option. As someone whos been coming to India for 10 years, initially I did notice a resistance to online education. Like the other technologies that were finally using during COVID, that resistance has been broken down. I confirmed that with the Director of the Indian Institute of Technology, IIT Madras. But we recognise that it is face-to-face learning, like face-to-face working, is still what most people want. A number of Australian States are starting pilot programmes to demonstrate that students can be picked up and returned to Australia into campuses safely given the COVID spread. And my Education Minister Dan Tehan made the point two weeks ago that the Australian government is keen for that to happen as soon as possible. The latest part to be announced was one from South Australia that will fly students out of Singapore into Australia. There was an early one announced by the Northern Territory. On the back of those, there is a hope that we will be able to return students to Australia for Day One, Term One, next year. But it will depend on those State trials. It is a bit like our approach to opening up bubbles with other countries: we would like to see things being done in situ, in practice, in real time to show that it can succeed. If the trials are successful, I remain confident about next year.

The challenge at the present time is that both countries have international flight bans. The only flights operating between both countries are repatriation flights. Malaysia and Singapore, which were the two countries in pre-COVID times where passengers could transit to get to Australia or to come to India, are not accepting Indian citizens. But that in no way undermines Australias desire to resume whatever is going to be business as usual, in relation to tertiary education.

Australian State governments and our education institutions themselves have put a lot of effort into looking after those Indian students who were stranded in Australia due to the COVID-19 crisis. Some of them are people that have had to wait a month or two until the Vande Bharat planes started. Having graduated mid-year, they have now hopefully most of them flying home, while others are still continuing their studies. Whilst, like many places at the start of COVID-19, there were a few teething problems, Im delighted to say a combination of State and federal governments and the universities and the Indian community there have been supportive of Indian students in Australia.

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Strategic Partnership will aid smooth work in the event of regional crisis: Australia High Commissioner - The Hindu

Lasers were created 60 years ago this year, when three different laser devices were unveiled by independent laboratories in the United States. A few years later, one of these inventors called the unusual light sources a solution seeking a problem. Today, the laser has been applied to countless problems in science, medicine and everyday technologies, with a market of more than US$11 billion per year.

A crucial difference between lasers and traditional sources of light is the temporal coherence of the light beam, or just coherence. The coherence of a beam can be measured by a number C, which takes into account the fact light is both a wave and a particle.

Read more: Explainer: what is wave-particle duality

From even before lasers were created, physicists thought they knew exactly how coherent a laser could be. Now, two new studies (one by myself and colleagues in Australia, the other by a team of American physicists) have shown C can be much greater than was previously thought possible.

The coherence C is roughly the number of photons (particles of light) emitted consecutively into the beam with the same phase (all waving together). For typical lasers, C is very large. Billions of photons are emitted into the beam, all waving together.

This high degree of coherence is what makes lasers suitable for high-precision applications. For example, in many quantum computers, we will need a highly coherent beam of light at a specific frequency to control a large number of qubits over a long period of time. Future quantum computers may need light sources with even greater coherence.

Read more: Explainer: quantum computation and communication technology

Physicists have long thought the maximum possible coherence of a laser was governed by an iron rule known as the Schawlow-Townes limit. It is named after the two American physicists who derived it theoretically in 1958 and went on to win Nobel prizes for their laser research. They stated that the coherence C of the beam cannot be greater than the square of N, the number of energy-excitations inside the laser itself. (These excitations could be photons, or they could be atoms in an excited state, for example.)

Now, however, two theory papers have appeared that overturn the Schawlow-Townes limit by reimagining the laser. Basically, Schawlow and Townes made assumptions about how energy is added to the laser (gain) and how it is released to form the beam (loss).

The assumptions made sense at the time, and still apply to lasers built today, but they are not required by quantum mechanics. With the amazing advances that have occurred in quantum technology in the past decade or so, our imagination need not be limited by standard assumptions.

The first paper, published this week in Nature Physics, is by my group at Griffith University and a collaborator at Macquarie University. We introduced a new model, which differs from a standard laser in both gain and loss processes, for which the coherence C is as big as N to the fourth power.

In a laser containing as many photons as a regular laser, this would allow C to be much bigger than before. Moreover, we show a laser of this kind could in principle be built using the technology of superconducting qubits and circuits which is used in the currently most successful quantum computers.

Read more: Why are scientists so excited about a recently claimed quantum computing milestone?

The second paper, by a team at the University of Pittsburgh, has not yet been published in a peer-reviewed journal but recently appeared on the physics preprint archive. These authors use a somewhat different approach, and end up with a model in which C increases like N to the third power. This group also propose building their laser using superconducting devices.

It is important to note that, in both cases, the laser would not produce a beam of visible light, but rather microwaves. But, as the authors of this second paper note explicitly, this is exactly the type of source required for superconducting quantum computing.

The standard limit is that C is proportional to N , the Pittsburgh group achieved C proportional to N , and our model has C proportional to N . Could some other model achieve an even higher coherence?

No, at least not if the laser beam has the ideal coherence properties we expect from a laser beam. This is another of the results proven in our Nature Physics paper. Coherence proportional to the fourth power of the number of photons is the best that quantum mechanics allows, and we believe it is physically achievable.

An ultimate achievable limit that surpasses what is achievable with standard methods, is known as a Heisenberg limit. This is because it is related to Heisenbergs uncertainty principle.

Read more: Explainer: Heisenbergs Uncertainty Principle

A Heisenberg-limited laser, as we call it, would not be just a revolution in the design and performance of lasers. It also requires a fundamental rethinking of what a laser is: not restricted to the current kinds of devices, but any device which turns inputs with little coherence into an output of very high coherence.

It is the nature of revolutions that it is impossible to tell whether they will succeed when they begin. But if this one does, and standard lasers are supplanted by Heisenberg-limited lasers, at least in some applications, then these two papers will be remembered as the first shots.

Continued here:
Reimagining the laser: new ideas from quantum theory could herald a revolution - The Conversation AU

Recently, [Jabrils] set out to accomplish a difficult task: porting a quantum-inspired algorithm to run on a (simulated) quantum computer. Algorithms are often inspired by all sorts of natural phenomena. For example, asolution to the traveling salesman problem models ants and their pheromone trails. Another famous example is neural nets, which are inspired by the neurons in your brain. However, attempting to run a machine learning algorithm on your neurons, even with the assistance of pen and paper would be a nearly impossible exercise.

The quantum-inspired algorithm in question is known as the wavefunction collapse function. In a nutshell, you have a cube of voxels, a graph of nodes, or simply a grid of tiles as well as a list of detailed rules to determine the state of a node or tile. At the start of the algorithm, each node or point is considered in a state of superposition, which means it is considered to be in every possible state. Looking at the list of rules, the algorithm then begins to collapse the states. Unlike a quantum computer, states of superposition is not an intrinsic part of a classic computer, so this solving must be done iteratively. In order to reduce possible conflicts and contradictions later down the line, the nodes with the least entropy (the smallest number of possible states) are solved first. At first, random states are assigned, with the changes propagating through the system. This process is continued until the waveform is ultimately collapsed to a stable state or a contradiction is reached.

Whats interesting is that the ruleset doesnt need to be coded, it can be inferred from an example. A classic use case of this algorithm is 2D pixel-art level design. By providing a small sample level, the algorithm churns and produces similar but wholly unique output. This makes it easy to provide thousands of unique and beautiful levels from an easy source image, however it comes at a price. Even a small level can take hours to fully collapse. In theory, a quantum computer should be able to do this much faster, since after all, it was the inspiration for this algorithm in the first place.

[Jabrils] spent weeks trying to get things running but ultimately didnt succeed. However, his efforts give us a peek into the world of quantum computing and this amazing algorithm. We look forward to hearing more about this project from [Jabrils] who is continuing to work on it in his spare time. Maybe give it a shot yourself by learning the basics of quantum computing for yourself.

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Quantum Inspired Algorithm Going Back To The Source - Hackaday

New MIT Lincoln Laboratory's quantum chip with integrated photonics

Most experts agree that quantum computing is still in an experimental era. The current state of quantum technology has been compared to the same stage that classical computing was in during the late 1930s.

Quantum computing uses various computation technologies, such as superconducting, trapped ion, photonics, silicon-based, and others.It will likely be a decade or more before a useful fault-tolerant quantum machine is possible. However, a team of researchers at MIT Lincoln Laboratory has developed a vital step to advance the evolution of trapped-ion quantum computers and quantum sensors.

Most everyone knows that classical computers perform calculations using bits (binary digits) to represent either a one or zero.In quantum computers, a qubit (quantum bit) is the fundamental unit of information. Like classical bits, it can represent a one or zero. Still, a qubit can also be a superposition of both values when in a quantum state.

Superconducting qubits, used by IBM and several others, are the most commonly used technology.Even so, trapped-ion qubits are the most mature qubit technology. It dates back to the 1990s and its first use in atomic clocks. Honeywell and IonQ are the most prominent commercial users of trapped ion qubits.

Trapped-Ion quantum computers

Depiction of external lasers and optical equipment in a quantum computer ... [+]

Honeywell and IonQ both create trapped-ion qubits using an isotope of rare-earth metal called ytterbium.In its chip using integrated photonics, MIT used an alkaline metal called strontium.The process to create ions is essentially the same. Precision lasers remove an outer electron from an atom to form a positively charged ion.Then, lasers are used like tweezers to move ions into position. Once in position, oscillating voltage fields hold the ions in place. One main advantage of ions lies in the fact that it is natural instead of fabricated. All trapped-ion qubits are identical.A trapped-ion qubit created on earth would be the perfect twin of one created on another planet.

Dr. Robert Niffenegger, a member of the Trapped Ion and Photonics Group at MIT Lincoln Laboratory, led the experiments and is first author on the Nature paper.He explained why strontium was used for the MIT chip instead of ytterbium, the ion of choice for Honeywell and IonQ."The photonics developed for the ion trap are the first to be compatible with violet and blue wavelengths," he said. "Traditional photonics materials have very high loss in the blue, violet and UV.Strontium ions were used instead of ytterbium because strontium ions do not need UV light for optical control."

This figure shows lasers in Honeywell's powerful Model zero trapped-ion quantum computer. Parallel ... [+] operating zones are a key differentiating feature of its advanced QCCD trapped-ion system

All the manipulation of ions takes place inside a vacuum chamber containing a trapped-ion quantum processor chip.The chamber protects the ions from the environment and prevents collisions with air molecules. In addition to creating ions and moving them into position, lasers perform necessary quantum operations on each qubit.Because lasers and optical components are large, it is by necessity located outside the vacuum chamber.Mirrors and other optical equipment steer and focus external laser beams through the vacuum chamber windows and onto the ions.

The largest number of trapped-ion qubits being used in a quantum computer today is 32.For quantum computers to be truly useful, millions of qubits are needed.Of course, that means many thousands of lasers will also be required to control and measure the millions of ion qubits. The problem becomes even larger when two types of ions are used, such as ytterbium and barium in Honeywell's machine. The current method of controlling lasers makes it challenging to build trapped-ion quantum computers beyond a few hundred qubits.

Fiber optics couple laser light directly into the MIT ion-trap chip. When in use, the chip is cooled ... [+] to cryogenic temperatures in a vacuum chamber, and waveguides on the chip deliver the light to an ion trapped right above the chip's surface for performing quantum computation.

Rather than resorting to optics and bouncing lasers off mirrors to aim beams into the vacuum chamber, MIT researchers have developed another method.They have figured out how to use optical fibers and photonics to carry laser pulses directly into the chamber and focus them on individual ions on the chip.

A trapped-ion strontium quantum computer needs lasers of six different frequencies. Each frequency corresponds to a different color that ranges from near-ultraviolet to near-infrared.Each color performs a different operation on an ion qubit. The MIT press release describes the new development this way, "Lincoln Laboratory researchers have developed a compact way to deliver laser light to trapped ions. In the Nature paper, the researchers describe a fiber-optic block that plugs into the ion-trap chip, coupling light to optical waveguides fabricated in the chip itself. Through these waveguides, multiple wavelengths [colors] of light can be routed through the chip and released to hit the ions above it."

Light is coupled to the MIT integrated photonic trap chip via optical fibers which enter the ... [+] cryogenic vacuum chamber through a fiber feed-

In other words, rather than using external mirrors to shine lasers into the vacuum chamber, MIT researchers used multiple optical fibers and photonic waveguides instead.A block equipped with four optic fibers delivering a range of colors was mounted on the quantum chip's underside. According to Niffenegger, "Getting the fiber block array aligned to the waveguides on the chip and applying the epoxy felt like performing surgery. It was a very delicate process. We had about half a micron of tolerance, and it needed to survive cool down to4 Kelvin."

I asked Dr. Niffenegger his thoughts about the long-term implications of his team's development.His reply was interesting.

"I think many people in the quantum computing field think that the board is set and all of the leading technologies at play are well defined. I think our demonstration, together with other work integrating control of trapped ion qubits, could tip the game on its head and surprise some people that maybe the rules arent what they thought.But really I just hope that it spurs more out of the box ideas that could enable quantum computing technologies to break through towards practical applications.

Analyst Notes:

Note: Moor Insights & Strategy writers and editors may have contributed to this article.

Disclosure: Moor Insights & Strategy, like all research and analyst firms, provides or has provided paid research, analysis, advising, or consulting to many high-tech companies in the industry, including 8x8, Advanced Micro Devices, Amazon, Applied Micro, ARM, Aruba Networks, AT&T, AWS, A-10 Strategies, Bitfusion, Blaize, Calix, Cisco Systems, Clear Software, Cloudera, Clumio, Cognitive Systems, CompuCom, Dell, Dell EMC, Dell Technologies, Diablo Technologies, Digital Optics, Dreamchain, Echelon, Ericsson, Extreme Networks, Flex, Foxconn, Frame, Fujitsu, Gen Z Consortium, Glue Networks, GlobalFoundries, Google (Nest-Revolve), Google Cloud, HP Inc., Hewlett Packard Enterprise, Honeywell, Huawei Technologies, IBM, Ion VR, Inseego, Intel, Interdigital, Jabil Circuit, Konica Minolta, Lattice Semiconductor, Lenovo, Linux Foundation, MapBox, Mavenir, Marseille Inc, Mayfair Equity, Meraki (Cisco), Mesophere, Microsoft, Mojo Networks, National Instruments, NetApp, Nightwatch, NOKIA (Alcatel-Lucent), Nortek, Novumind, NVIDIA, ON Semiconductor, ONUG, OpenStack Foundation, Oracle, Poly, Panasas, Peraso, Pexip, Pixelworks, Plume Design, Portworx, Pure Storage, Qualcomm, Rackspace, Rambus, Rayvolt E-Bikes, Red Hat, Residio, Samsung Electronics, SAP, SAS, Scale Computing, Schneider Electric, Silver Peak, SONY, Springpath, Spirent, Splunk, Sprint, Stratus Technologies, Symantec, Synaptics, Syniverse, Synopsys, Tanium, TE Connectivity, TensTorrent, Tobii Technology, Twitter, Unity Technologies, UiPath, Verizon Communications, Vidyo, VMware, Wave Computing, Wellsmith, Xilinx, Zebra, Zededa, and Zoho which may be cited in this article

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MIT Lincoln Laboratory Creates The First Trapped-Ion Quantum Chip With Integrated Photonics - Forbes

Introduction: Global Quantum Software Market, 2020-27

This meticulous research representation highlighting crucial elements across present and past timelines feature innovative developments in the market ecosystem that thoroughly determine high potential investment returns in Global Quantum Software market.

The report takes into account decisive factors and makes accurate deductions and assessments in the historical and future timelines, favoring accurate growth predictions and forecast estimations amidst volatile dynamics and fast changing market forces. The report lends workable insights on revenue generation trends, product and service portfolios, geographical dominance, as well as vendor activities and promotional inclination, collectively ensuring healthy growth outlook over the years.

Vendor LandscapeThe report draws references of an extensive analysis of the Quantum Software market, entailing crucial details about key market players, complete with a broad overview of expansion probability and expansion strategies.Origin Quantum Computing TechnologyD WaveIBMMicrosoftIntelGoogleIon Q

Available Sample Report in PDF Version along with Graphs and [emailprotected] https://www.orbisresearch.com/contacts/request-sample/4218973?utm_source=PMThe segment outlook section of the report is a highly decisive information hub to unravel segment potential in directing impressive growth and steady CAGR valuation. Additional details on SWOT analysis of each of the mentioned market participant is poised to accelerate growth tendencies besides reviewing the growth scope through 2020-25.

Global Quantum Software Market: Type & Application based Analysis

Analysis by Type: This section of the report includes factual details pertaining to the most lucrative segment harnessing revenue maximization.System SoftwareApplication Software

Analysis by Application: Further in the subsequent sections of the report, research analysts have rendered precise judgment regarding the various applications that the Quantum Software market mediates for superlative end-user benefits.Big Data AnalysisBiochemical ManufacturingMachine Learning

Report Offerings in a Gist: To identify correctly major underlying market forces that gradually underpin growth To comprehend future growth potential of the mentioned segments, inclusive of geographical outlook. A thorough evaluation of the entire competitive landscape gamut has been analyzed, isolating growth rendering strategies and industry forerunners To correctly isolate growth enablement determinants. The report lends clarity in understanding the commercial viability of the Quantum Software market ecosystem.

Read complete report along with TOC @ https://www.orbisresearch.com/reports/index/global-quantum-software-market-size-status-and-forecast-2020-2026?utm_source=PM

COVID-19 Impact AnalysisThis intensively researched report presentation has been prepared in real time parlance, rendering substantial attention towards COVID-19 outbreak that has lately wreaked unprecedented damage across industries, stagnating growth.

The report lends attention towards evaluating the market in terms of exhaustive research in the times of COVID, as well as devising appropriate come back protocols to restore normalcy.

Crucial details on product type and application facets have also been categorically included in this versatile research report on global Quantum Software market. To instill a real-time analytical review of market forces underpinning growth, this report section broadly classifies product type and application as major fragments. Each product type tagged in the report represents total revenue generation tendencies in the Quantum Software market, besides helping readers to correctly gauge and identify the revenue potential of each of the segments through the growth tenure, 2020-25.

Competition EvaluationThe competitive landscape specific to global Quantum Software market further illustrates relevant growth favoring information pertaining to the vendor landscape with a specific focus on corporate growth strategies embraced by leading players, followed religiously by other relevant contributing players along with notable investors and stakeholders striving to etch lingering growth spurts despite high intensity competition and catastrophic developments.Regional Outlook: Global Quantum Software Market

In-depth research findings reflected in this report opine that despite the unprecedented outbreak and lingering implications of COVID-19 and its reformatory reforms reflected across industries, the immediate and future specific implications have been thoroughly classified and elaborated in the report to encourage unbiased market discretion.

Some Major TOC Points: Chapter 1. Report Overview Chapter 2. Global Growth Trends Chapter 3. Market Share by Key Players Chapter 4. Breakdown Data by Type and Application Chapter 5. Market by End Users/Application Chapter 6. COVID-19 Outbreak: Quantum Software Industry Impact Chapter 7. Opportunity Analysis in Covid-19 Crisis Chapter 9. Market Driving ForceAnd Many More

A dedicated chapter on COVID-19 analysis has therefore been included in this versatile report to encourage future-ready business discretion aligning with post COVID-19 market environment.

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A deep and insightful reference of the regional outlook has also been prioritized in this report on global Quantum Software market. Pertinent details in the realms of import and export activities, manufacturer activities, such as product base expansion, facility expansion projects as well as technological milestones have been mentioned in detail in this report.

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Global Quantum Software Market 2026 The leading Industry Players : Origin Quantum Computing Technology, D Wave, IBM, Microsoft, Intel etc. - Eurowire