Happy Seed, Atlanta vegan caterer and dining pop-up co-owned by chefs Reid Trapani and Sophia Marchese, is excited to announce Curbside Pick-Up from a mano at 587 Ralph McGill Blvd in Old Fourth Ward on Monday, May 4th. The menu will feature a selection of plant-based Latin food and beverages available to-go, such as Happy Seeds popular carne asada tacos, queso, tamales, and margaritas from a manos beverage program.

Happy Seed is offering Taco Packs which include customers choice of (3) tacos and (2) sides for $20. Freshly shaken classic and grapefruit margaritas pair perfectly with this chef-driven Latin spread. Grab dinner for Meatless Monday and load up on leftovers for Taco Tuesday!

Orders can be placed online here by Friday, May 1st at 10:00PM. Customers will be assigned a pick-up window time between 2:00-5:00PM on Monday, May 4th and can pick-up food orders at a designated point outside of the restaurant.

This announcement comes after a temporary suspension in the companys operations following health and government official guidelines. Both Happy Seed and a mano have implemented social distancing protocols for staff and patrons coming for pick-up so that food is received in the safest way possible. Examples include strict handwashing and disinfection rules for all staff, 6 ft. social distancing protocols at all outside access points, and tiered pick-up times, among others.

This is a wonderful step in the right direction and we are thrilled for the opportunity to once again offer the Atlanta community plant-based food thanks to our good friends at a mano. We put together this menu with great joy knowing that people will get to enjoy some of our favorite dishes from the comfort of their homes, says owner and head chef Reid Trapani.

Happy Seed Curbside Pick-Up can be ordered here and picked up at the designated pick-up point in the mano parking lot at 587 Ralph McGill Blvd NE, Atlanta, GA 30312.

For more information about Happy Seed or Curbside Pick-Up at a mano, contact [emailprotected] or visit happyseed.kitchen.

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Vegan Caterer and Dining Pop-Up Happy Seed Announces Curbside Pick-Up From A Mano for Meatless Monday - VEGWORLD Magazine

Get ready to meet your new favorite vegan sandwich. These Vegan Pulled Pork Sandwiches are drool-worthy. They are filling, with a smokey flavor and a hint of sweetness. These bbq jackfruit sandwiches are accompanied by a yummy carrot + apple slaw. Its crisp, sweet, and loaded with the good stuff.

Finely chop the onion and garlic. Add 1-2 teaspoon of oil in a pan over medium heat. Saute the onion and garlic until browned. Then set aside.

Open the can of jackfruit, add the jackfruit to a colander to drain/rinse the brine or water from the jackfruit. Cut the hard part (or the core) of the jackfruit pieces away. It should be pretty obvious what part is the core as it is super hard. Once the core is removed, add the jackfruit to a bowl and sprinkle the sugar, paprika and garlic powder over the jackfruit and toss until it is evenly coated.

Heat a saucepan over medium heat, add 1 teaspoon of oil of choice. Once hot, add the jackfruit and let it cook for 2 minutes. Then add the bbq sauce and the vegetable stock. Toss to coat the jackfruit. Bring the temperature to a simmer, cover the pan and let the jackfruit cook for 20-30 minutes, tossing it occasionally. At about the 20-minute mark, take 2 forks and start to pull the jackfruit apart, to look shredded. Then cover and let simmer for 10 more minutes.

While the jackfruit is simmering, prepare your slaw. Cut the carrots, cucumber and apple accordingly (as thin as you can). Place in a bowl. Juice 1/2 of a lemon over the veggies and apple. Add 1 teaspoon of maple syrup and salt and pepper. Toss to coat evenly, then cover and place in the fridge until you begin to assemble the sandwiches.

Near the end of the cooking process, add the onions and garlic to the jackfruit. Mix into the jackfruit.

The jackfruit should be soft and full of flavor at this point. Continue to use your forks to pull the jackfruit apart. Option to add a little salt and pepper, at this point.

Begin to assemble your sandwiches. Cut the buns in half then add to a toaster. Once toasted, add the slaw on the bottom of the bun and top it with the bbq jackfruit. Best enjoyed immediately.

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Pulled 'Pork' Sandwiches With Carrot Apple Slaw [Vegan] - One Green Planet

Tabitha Brown attends the Mercy For Animals 20th Anniversary Gala on September 14, 2019 in Los Angeles, California. Photo : Alberto E. Rodriguez (Getty Images )

Tabitha Brown is a walking good mood pill.

Ever since weve been ordered to stay at home amid the coronavirus pandemic, the act of seeking some form of joy has amplified, which has also subsequently provided more time to worry and grieve due to the effects of this crisis.

But thats why Tabitha is right on time. The vegan viral sensation who racked over two million followers on TikTok has signed to Creative Artists Agency (CAA), The Hollywood Reporter confirmed on Friday.

I first came across Tabitha in early April when her TikTok recipe tutorial for smoothie bowls hit Twitter (in fact, this or Instagram is usually how I discover TikTokers). There was something about her Southern accent (shes from North Carolina!) that embraced me like a warm hug on a sunny Sunday. And thus, like so, like that became the official way to describe how something is done.

Plus, the tutorial was persuasive because I ended up getting a bunch of ingredients to make my own Tabitha-inspired smoothie bowl. I didnt actually make it yet because Im still so overwhelmed by current circumstances, but I will one day because thats my business. Shut up, youre not my real mom!

Tabithas voice and general aura are so soothing, she somehow extinguished my carnivore rage that usually surfaces when vegans try to turn meatless products into meat (because they will never be meat!). Watching this sparkling social media maven whos been a vegan since 2016 made me completely forget I was offended by the concept of carrot bacon. This is the power Tabitha has.

I was in prayer and I heard a voice that said, Start doing videos, the 41-year-old actor told BuzzFeed in a recent profile, who also revealed that past agents would always tell her to tone down her Southern accent and recommended that she keep her hair long. But, that wasnt the true Tabitha. It definitely wasnt the Tabitha weve come to love.

The fact that Tabitha has been able to monetize her bubbly brand and fulfill her dreams by landing an agent at one of Hollywoods top agencies is amazing, especially since there was a hilarious learning curve with TikTok at the early stages.

If youre looking for even more warm-and-fuzzies, get into the love jones between Tabitha and her hubby boo.

By the way, because I know you want to know, shes completely fine with being called auntie.

So, next time you need a hug and realize you cant get a physical one due to social distancing, Tabitha Brown will serve as an adequate substitution for now. Like so, like that.

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TikTok Delight Tabitha Brown Has Signed to CAALet's Have a Celebratory Smoothie Bowl! - The Root

For those that have never gotten the chance to try this delectable dish, quiche is a French tart. It usually consists of a pastry crust filled with a savory filling (typically a custard), as well as cheese, meat, fish, or vegetables.

Of course, for this vegan quiche, I went with vegetables. I have made many quiches over the past few years. Non-vegans always think the quiches feature eggs and cream because the taste and eggy texture closely resemble traditional dairy- and egg-based quiches. You can serve quiches either hot or cold.

My pea and mint quiche filling does not contain any animal-derived ingredients. Some of its ingredients include silken tofu, mixed herbs, plant-based milk, nutritional yeast, mustard, mint, and, of course, peas.

We have been having some hot weather lately, so I thought a pea and mint quiche with coleslaw and potato salad would make a lovely light dinner.

Vegan Egg-Free Quiche With Mint and Spring Peas

Ingredients

Instructions

Notes

NOTE:Use a 7"/8" lose based baking tin. The tofu will rise in the oven but when it cools it shrinks back down. Allow to cool for a few minutes on a wore rack before removing from the tin. Serve warm or cold with coleslaw and potato salad. Enjoy!

6.4.2

Cant get enough of this delicious French tart? Try making this easy, egg-free vegan tomato and cheese quiche! The filling features firm tofu, onions, garlic, vegan cream cheese, broccoli, tomato, vegan cheese, and much more! This hearty, savory quiche will surely be a crowd-pleaser no matter where you serve it! Have it for brunch with English muffins, tea, and something sweet, like a vegan scone.

If youre looking for a delicious side dish to serve alongside your main course, try making these sweet and savory, orange-glazed carrots. The recipe calls for only four ingredients: carrots, freshly squeezed orange juice, brown sugar, and unsalted vegan butter. Plus, its easy-to-make. This pairs well with multiple dishes, from mushroom steaks to grain bowls.

Another tasty and very filling dinner option is soup! This dairy-free, creamy leek and potato spring soup is deliciously creamy and smooth. According to the recipes author, the watercress adds an invigorating, peppery note. The dish can be made in under 30 minutes and features only a handful of ingredients. These include onion, garlic cloves, leeks, potatoes, watercress, plant-based milk, and vegetable stock. Serve it with bread or your favorite grain.

This recipe was republished with permission from Aaron Calder Vegan.

Recipe Name

Vegan Egg-Free Quiche With Mint and Spring Peas

Author Name

Aaron Calder Vegan

Published On

2020-04-23

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Vegan Egg-Free Quiche With Mint and Spring Peas - LIVEKINDLY

In the 1960s the U.S. government funded a series of experiments developing techniques to shuttle information from one computer to another. Devices in single labs sprouted connections, then neighboring labs linked up. Soon the network had blossomed between research institutions across the country, setting down the roots of what would become the internet and transforming forever how people use information. Now, 60 years later, the Department of Energy is aiming to do it again.

The Trump administration's 2021 budget request currently under consideration by Congress proposes slashing the overall funding for scientific research by nearly 10% but boosts spending on quantum information science by about 20%, to $237 million. Of that, the DOE has requested $25 million to accelerate the development of a quantum internet. Such a network would leverage the counterintuitive behavior of nature's particles to manipulate and share information in entirely new ways, with the potential to reinvent fields including cybersecurity and material science.

Whilethetraditional internet for general useisn't going anywhere, a quantum networkwouldoffer decisive advantages for certain applications: Researchers could use it to develop drugs and materials by simulating atomic behavior onnetworked quantum computers, for instance, and financial institutions and governments would benefit from next-level cybersecurity. Many countries are pursuing quantum research programs, and with the 2021 budget proposal, the Trumpadministration seeks to ramp up thateffort.

"That level of funding will enable us to begin to develop the groundwork for sophisticated, practical and high-impact quantum networks," says David Awschalom, a quantum engineer at the University of Chicago. "It's significant and extremely important."

A quantum internet will develop in fits and starts, much like the traditional internet did and continues to do. China has already realized an early application, quantum encryption, between certain cities, but fully quantum networks spanning entire countries will take decades, experts say. Building it willrequire re-engineering the quantum equivalent of routers, hard drives, and computers from the ground up foundational work already under way today.

Where the modern internet traffics in bits streaming between classical computers (a category that now includes smart phones, tablets, speakers and thermostats), a quantum internet would carry a fundamentally different unit of information known as the quantum bit, or qubit.

Bits all boil down to instances of nature's simplest eventsquestions with yes or no answers. Computer chips process cat videos by stopping some electric currents while letting others flow. Hard drives store documents by locking magnets in either the up or down position.

Qubits represent a different language altogether, one based on the behavior of atoms, electrons, and other particles, objects governed by the bizarre rules of quantum mechanics. These objects lead more fluid and uncertain lives than their strait-laced counterparts in classical computing. A hard drive magnet must always point up or down, for instance, but an electron's direction is unknowable until measured. More precisely, the electron behaves in such a way that describing its orientation requires a more complex concept known as superposition that goes beyond the straightforward labels of "up" or "down."

Quantum particles can also be yoked together in a relationship called entanglement, such as when two photons (light particles) shine from the same source. Pairs of entangled particles share an intimate bond akin to the relationship between the two faces of a coin when one face shows heads the other displays tails. Unlike a coin, however, entangled particles can travel far from each other and maintain their connection.

Quantum information science unites these and other phenomena, promising a novel, richer way to process information analogous to moving from 2-D to 3-D graphics, or learning to calculate with decimals instead of just whole numbers. Quantum devices fluent in nature's native tongue could, for instance, supercharge scientists' ability to design materials and drugs by emulating new atomic structures without having to test their properties in the lab. Entanglement, a delicate link destroyed by external tampering, could guarantee that connections between devices remain private.

But such miracles remain years to decades away. Both superposition and entanglement are fragile states most easily maintained at frigid temperatures in machines kept perfectly isolated from the chaos of the outside world. And as quantum computer scientists search for ways to extend their control over greater numbers of finicky particles, quantum internet researchers are developing the technologies required to link those collections of particles together.

The interior of a quantum computer prototype developed by IBM. While various groups race to build quantum computers, Department of Energy researchers seek ways to link them together.

IBM

Just as it did in the 1960s, the DOE is again sowing the seeds for a future network at its national labs. Beneath the suburbs of western Chicago lie 52 miles of optical fiber extending in two loops from Argonne National Laboratory. Early this year, Awschalom oversaw the system's first successful experiments. "We created entangled states of light," he says, "and tried to use that as a vehicle to test how entanglement works in the real world not in a lab going underneath the tollways of Illinois."

Daily temperature swings cause the wires to shrink by dozens of feet, for instance, requiring careful adjustment in the timing of the pulses to compensate. This summer the team plans to extend their network with another node, bringing the neighboring Fermi National Accelerator Laboratory into the quantum fold.

Similar experiments are under way on the East Coast, too, where researchers have sent entangled photons over fiber-optic cables connecting Brookhaven National Laboratory in New York with Stony Brook University, a distance of about 11 miles. Brookhaven scientists are also testing the wireless transmission of entangled photons over a similar distance through the air. While this technique requires fair weather, according to Kerstin Kleese van Dam, the director of Brookhaven's computational science initiative, it could someday complement networks of fiber-optic cables. "We just want to keep our options open," she says.

Such sending and receiving of entangled photons represent the equivalent of quantum routers, but next researchers need a quantum hard drive a way to save the information they're exchanging. "What we're on the cusp of doing," Kleese van Dam says, "is entangled memories over miles."

When photons carry information in from the network, quantum memory will store those qubits in the form of entangled atoms, much as current hard drives use flipped magnets to hold bits. Awschalom expects the Argonne and University of Chicago groups to have working quantum memories this summer, around the same time they expand their network to Fermilab, at which point it will span 100 miles.

But that's about as far as light can travel before growing too dim to read. Before they can grow their networks any larger, researchers will need to invent a quantum repeater a device that boosts an atrophied signal for another 100-mile journey. Classical internet repeaters just copy the information and send out a new pulse of light, but that process breaks entanglement (a feature that makes quantum communications secure from eavesdroppers). Instead, Awschalom says, researchers have come up with a scheme to amplify the quantum signal by shuffling it into other forms without ever reading it directly. "We have some prototype quantum repeaters currently running. They're not good enough," he says, "but we're learning a lot."

Department of Energy Under Secretary for Science Paul M. Dabbar (left) sends a pair of entangled photons along the quantum loop. Also shown are Argonne scientist David Awschalom (center) and Argonne Laboratory Director Paul Kearns.

Argonne National Laboratory

And if Congress approves the quantum information science line in the 2021 budget, researchers like Awschalom and Kleese van Dam will learn a lot more. Additional funding for their experiments could lay the foundations for someday extending their local links into a country-wide network. "There's a long-term vision to connect all the national labs, coast to coast," says Paul Dabbar, the DOE's Under Secretary for Science.

In some senses the U.S. trails other countries in quantum networking. China, for example, has completed a 1,200-mile backbone linking Beijing and Shanghai that banks and other companies are already using for nearly perfectly secure encryption. But the race for a fully featured quantum internet is more marathon than sprint, and China has passed only the first milestone. Kleese van Dam points out that without quantum repeaters, this network relies on a few dozen "trusted" nodes Achilles' heels that temporarily put the quantum magic on pause while the qubits are shoved through bit-based bottlenecks. She's holding out for truly secure end-to-end communication. "What we're planning to do goes way beyond what China is doing," she says.

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Researchers ultimately envision a whole quantum ecosystem of computers, memories, and repeaters all speaking the same language of superposition and entanglement, with nary a bit in sight. "It's like a big stew where everything has to be kept quantum mechanical," Awschalom says. "You don't want to go to the classical world at all."

After immediate applications such as unbreakable encryptions, he speculates that such a network could also lead to seismic sensors capable of logging the vibration of the planet at the atomic level, but says that the biggest consequences will likely be the ones no one sees coming. He compares the current state of the field to when electrical engineers developed the first transistors and initially used them to improve hearing aids, completely unaware that they were setting off down a path that would someday bring social media and video conferencing.

As researchers at Brookhaven, Argonne, and many other institutions tinker with the quantum equivalent of transistors, but they can't help but wonder what the quantum analog of video chat will be. "It's clear there's a lot of promise. It's going to move quickly," Awschalom says. "But the most exciting part is that we don't know exactly where it's going to go."

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Trump betting millions to lay the groundwork for quantum internet in the US - CNBC

Today, we have 18 quantum systems and counting available to our clients and community. Over 200,000 users, including more than 100 IBM Q Network client partners, have joined us to conduct fundamental research on quantum information science, develop the applications of quantum computing in various industries, and educate the future quantum workforce. Additionally, 175 billion quantum circuits have been executed using our hardware, resulting in more than 200 publications by researchers around the world.

In addition to developing quantum hardware, we have also been driving the development of powerful open source quantum software. Qiskit, written primarily in Python, has grown to be a popular quantum computing software development kit with several novel features, many of which were contributed by dedicated Qiskitters.

Thank you to everyone who has joined us on this exciting journey building the largest and most diverse global quantum computing community.

The IBM Quantum Challenge As we approach the fourth anniversary of the IBM Quantum Experience, we invite you to celebrate with us by completing a challenge with four exercises. Whether you are already a member of the community, or this challenge is your first quantum experiment, these four exercises will improve your understanding of quantum circuits. We hope you also have fun as you put your skills to test.

The IBM Quantum Challenge begins at 9:00 a.m. US Eastern on May 4, and ends 8:59:59 a.m. US Eastern on May 8. To take the challenge, visit https://quantum-computing.ibm.com/challenges.

In recognition of everyones participation, we are awarding digital badges and providing additional sponsorship to the Python Software Foundation.

Continued investment in quantum education Trying to explain quantum computing without resorting to incorrect analogies has always been a goal for our team. As a result, we have continuously invested in education, starting with opening access to quantum computers, and continuing to create tools that enable anyone to program them. Notably, we created the first interactive open source textbook in the field.

As developers program quantum computers, what they are really doing is building and running quantum circuits. To support your learning about quantum circuits:

Read the Qiskit textbook chapter where we define quantum circuits as we understand them today. Dive in to explore quantum computing principles and learn how to implement quantum algorithms on your own. Watch our newly launched livelectures called Circuit Sessions, or get started programming a quantum computer by watching Coding with Qiskit. Subscribe to the Qiskit YouTube channel to watch these two series and more. The future of quantum is in open source software and access to real quantum hardwarelets keep building together.

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Announcing the IBM Quantum Challenge - Quantaneo, the Quantum Computing Source

The basic units of a quantum computer can be rearranged in 2D to solve typical design and operation challenges. Efficient quantum computing is expected to enable advancements that are impossible with classical computers. A group of scientists from Tokyo University of Science, Japan, RIKEN Centre for Emergent Matter Science, Japan, and the University of Technology, Sydney have collaborated and proposed a novel two-dimensional design that can be constructed using existing integrated circuit technology. This design solves typical problems facing the current three-dimensional packaging for scaled-up quantum computers, bringing the future one step closer.

Quantum computing is increasingly becoming the focus of scientists in fields such as physics and chemistry, and industrialists in the pharmaceutical, airplane, and automobile industries. Globally, research labs at companies like Google and IBM are spending extensive resources on improving quantum computers, and with good reason. Quantum computers use the fundamentals of quantum mechanics to process significantly greater amounts of information much faster than classical computers. It is expected that when the error-corrected and fault-tolerant quantum computation is achieved, scientific and technological advancement will occur at an unprecedented scale.

But, building quantum computers for large-scale computation is proving to be a challenge in terms of their architecture. The basic units of a quantum computer are the quantum bits or qubits. These are typically atoms, ions, photons, subatomic particles such as electrons, or even larger elements that simultaneously exist in multiple states, making it possible to obtain several potential outcomes rapidly for large volumes of data. The theoretical requirement for quantum computers is that these are arranged in two-dimensional (2D) arrays, where each qubit is both coupled with its nearest neighbor and connected to the necessary external control lines and devices. When the number of qubits in an array is increased, it becomes difficult to reach qubits in the interior of the array from the edge. The need to solve this problem has so far resulted in complex three-dimensional (3D) wiring systems across multiple planes in which many wires intersect, making their construction a significant engineering challenge. https://youtu.be/14a__swsYSU

The team of scientists led by Prof Jaw-Shen Tsai has proposed a unique solution to this qubit accessibility problem by modifying the architecture of the qubit array. Here, we solve this problem and present a modified superconducting micro-architecture that does not require any 3D external line technology and reverts to a completely planar design, they say. This study has been published in the New Journal of Physics.

The scientists began with a qubit square lattice array and stretched out each column in the 2D plane. They then folded each successive column on top of each other, forming a dual one-dimensional array called a bi-linear array. This put all qubits on the edge and simplified the arrangement of the required wiring system. The system is also completely in 2D. In this new architecture, some of the inter-qubit wiringeach qubit is also connected to all adjacent qubits in an arraydoes overlap, but because these are the only overlaps in the wiring, simple local 3D systems such as airbridges at the point of overlap are enough and the system overall remains in 2D. As you can imagine, this simplifies its construction considerably.

The scientists evaluated the feasibility of this new arrangement through numerical and experimental evaluation in which they tested how much of a signal was retained before and after it passed through an airbridge. The results of both evaluations showed that it is possible to build and run this system using existing technology and without any 3D arrangement.

The scientists experiments also showed them that their architecture solves several problems that plague the 3D structures: they are difficult to construct, there is crosstalk or signal interference between waves transmitted across two wires, and the fragile quantum states of the qubits can degrade. The novel pseudo-2D design reduces the number of times wires cross each other, thereby reducing the crosstalk and consequently increasing the efficiency of the system.

At a time when large labs worldwide are attempting to find ways to build large-scale fault-tolerant quantum computers, the findings of this exciting new study indicate that such computers can be built using existing 2D integrated circuit technology. The quantum computer is an information device expected to far exceed the capabilities of modern computers, Prof Tsai states. The research journey in this direction has only begun with this study, and Prof Tsai concludes by saying, We are planning to construct a small-scale circuit to further examine and explore the possibility.

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Wiring the Quantum Computer of the Future: Researchers from Japan and Australia propose a novel 2D design - QS WOW News

This partnership is an opportunity to leverage a unique industrial and technological expertise for the design, integration and validation of advanced quantum solutions that has been applied for more than a decade to quantum gravimeters and atomic clocks. It will speed up the development of Pasqals processors and will bring them to an unprecedented maturity level.

Muquans will supply several key technological building blocks and a technical assistance to Pasqal, that will offer an advanced computing and simulation capability towards quantum advantage for real life applications.

We have the strong belief that the neutral atoms technology developed by Pasqal has a unique potential and this agreement is a wonderful opportunity for Muquans to participate on the great adventure of quantum computing. It will also help us find new opportunities for our technologies. We expect this activity to significantly grow in the coming years and this partnership will allow us to become a key stakeholder in the supply chain of quantum computers., Bruno Desruelle, CEO Muquans

Muquans laser solutions combine extreme performance, advanced functionalities and industrial reliability. When you develop the next generation of quantum computers, you need to rely on strong bases and build trust with your partners. Being able to embed this technology in our processors will be a key factor for our company to consolidate our competitive advantage and bring quantum processors to the market., Georges-Olivier Reymond, CEO Pasqal

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Muquans and Pasqal partner to advance quantum computing - Quantaneo, the Quantum Computing Source

When you add AI and machine learning capabilities to the mix, we could potentially develop pre-warning systems that detect fraud before it even happens.

As online banking grows it is becoming a hot target for cybercriminals around the world as they become ever more adept at cracking bank security. Now, banks are looking into the technology behind quantum computing as a potential solution to this threat as well as its many other benefits. Currently, the technology is still in development but it is expected to take over from traditional computing in the next five to ten years.

What is quantum computing?

With quantum computing, the amount of processing power available is far larger than even the fastest silicon chips in existence today. Rather than using the traditional 1 and 0 method of binary computer processing, quantum computing uses qubits. Utilizing the theory of quantum superposition, these provide a way of processing 1s and 0s simultaneously, increasing the speed of the computer by several orders of magnitude.

For example, in October 2019, Google's 'Sycamore' quantum computer solved an equation in 200 seconds that would have taken a normal supercomputer 10,000 years to complete. This gives you an idea of the power that we are talking about.

So how does this help the banking sector?

1. Fraud Detection

Fraud is quickly becoming the biggest threat to online banking and data security. Customers need to feel confident that their money and their personal information is kept secure and with data leaks happening more frequently, this problem must be addressed.

Quantum computing offers significant benefits in the fight against fraud, offering enough computing power to automatically and instantly detect patterns that are commonly associated with fraudulent activity. When you add AI and machine learning capabilities to the mix, we could potentially develop pre-warning systems that detect fraud before it even happens.

2. Quantum Cryptography

Cryptography is an area of science that has recently gained popularity. The technology has proven incredibly useful in helping to secure the blockchain networks.

Quantum cryptography takes this security to an entirely new level, particularly when applied to financial data. It provides the ability to store data in a theoretical state of constant flux, making it near impossible for hackers to read or steal.

However, it could also be used to easily crack existing cryptographic security methods. Currently, the strongest 2048-bit encryption would take normal computer ages to break in to, whereas a quantum computer could do it in a matter of seconds.

3. Distributed Keys

Distributed key generation (DKG) is already being used by many online platforms for increased protection against data interception. Now, quantum technology provides a new system known as Measurement-Device Independent Quantum Key Distribution (MKI-QKD) which secures communications to a level that even quantum computers can't hack.

The technology is already being investigated by several financial institutions, notably major Dutch bank ABN-AMRO for their online and mobile banking applications.

4. Trading and Data

Artificial intelligence, machine learning, and big data are all new technologies that are currently being tested enthusiastically by banks. However, one of the biggest pain points with these technologies is the amount of processing power required.

According to Deltec Bank - "Quantum computing could quickly accelerate this research past the testing level and provide instant solutions to many problems currently facing the banking world. Time-consuming activities like mortgage and loan approvals would become instant and high-frequency trading could become automated and near error-proof."

Banks that are looking into quantum

Many major banks around the world are already investigating the potential benefits of quantum computing.

UK banking giant Barclays has worked in conjunction with IBM to develop a proof-of-concept that utilizes quantum computing to settle transactions. When applied to trading, the concept could successfully complete massive amounts of complex trades in seconds.

Major US bank JPMorgan has also expressed an interest in the technology for its security and data processing abilities. The bank has tasked its senior engineer with creating a 'quantum culture' in the business and meeting fortnightly with scientists to explore developments in the field.

Banco Bilbao Vizcaya Argentaria (BBVA) is working with the Spanish National Research Council (CISC) to explore various applications of quantum computing. The team believes the technology could reduce risk and improve customer service.

Quantum Computing though still in an early stage will have a significant impact on the Banking sectors in years to come.

Disclaimer: The author of this text, Robin Trehan, has an Undergraduate degree in economics, Masters in international business and finance and MBA in electronic business. Trehan is Senior VP at Deltec International http://www.deltecbank.com. The views, thoughts, and opinions expressed in this text are solely the views of the author, and not necessarily reflecting the views of Deltec International Group, its subsidiaries and/or employees.

About Deltec Bank

Headquartered in The Bahamas, Deltec is an independent financial services group that delivers bespoke solutions to meet clients' unique needs. The Deltec group of companies includes Deltec Bank & Trust Limited, Deltec Fund Services Limited, and Deltec Investment Advisers Limited, Deltec Securities Ltd. and Long Cay Captive Management.

Media Contact

Company Name: Deltec International Group

Contact Person: Media Manager

Email: rtrehan@deltecial.com

Phone: 242 302 4100

Country: Bahamas

Website: https://www.deltecbank.com/

Source: http://www.abnewswire.com

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(C) 2020 M2 COMMUNICATIONS, source M2 PressWIRE

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Deltec Bank, Bahamas - Quantum Computing Will bring Efficiency and Effectiveness and Cost Saving in Baking Sector - marketscreener.com

A pencil shaped semiconductor, measuring only a few hundred nanometers in diameter, is what researches from the Center for Quantum Devices, Niels Bohr Institute, at University of Copenhagen, in collaboration with Microsoft Quantum researchers, have used to uncover a new route to topological superconductivity and Majorana zero modes in a study recently published in Science.

The new route that the researchers discovered uses the phase winding around the circumference of a cylindrical superconductor surrounding a semiconductor, an approach they call "a conceptual breakthrough".

"The result may provide a useful route toward the use of Majorana zero modes as a basis of protected qubits for quantum information. We do not know if these wires themselves will be useful, or if just the ideas will be useful," says Charles Marcus, Villum Kann Rasmussen Professor at the Niels Bohr Institute and Scientific Director of Microsoft Quantum Lab in Copenhagen.

"What we have found appears to be a much easier way of creating Majorana zero modes, where you can switch them on and off, and that can make a huge difference"; says postdoctoral research fellow, Saulius Vaitieknas, who was the lead experimentalist on the study.

The new research merges two already known ideas used in the world of quantum mechanics: Vortex-based topological superconductors and the one-dimensional topological superconductivity in nanowires.

"The significance of this result is that it unifies different approaches to understanding and creating topological superconductivity and Majorana zero modes", says professor Karsten Flensberg, Director of the Center for Quantum Devices.

Looking back in time, the findings can be described as an extension of a 50-year old piece of physics known as the Little-Parks effect. In the Little-Parks effect, a superconductor in the shape of a cylindrical shell adjusts to an external magnetic field, threading the cylinder by jumping to a "vortex state" where the quantum wavefunction around the cylinder carries a twist of its phase.

Charles M. Marcus, Saulius Vaitieknas, and Karsten Flensberg from the Niels Bohr Institute at the Microsoft Quantum Lab in Copenhagen.

What was needed was a special type of material that combined semiconductor nanowires and superconducting aluminum. Those materials were developed in the Center for Quantum Devices in the few years. The particular wires for this study were special in having the superconducting shell fully surround the semiconductor. These were grown by professor Peter Krogstrup, also at the Center for Quantum Devices and Scientific Director of the Microsoft Quantum Materials Lab in Lyngby.

The research is the result of the same basic scientific wondering that through history has led to many great discoveries.

"Our motivation to look at this in the first place was that it seemed interesting and we didn't know what would happen", says Charles Marcus about the experimental discovery, which was confirmed theoretically in the same publication. Nonetheless, the idea may indicate a path forward for quantum computing.

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New way of developing topological superconductivity discovered - Chemie.de