logo
Local students awarded with Frank G. Paul Medal of Excellence

Local students awarded with Frank G. Paul Medal of Excellence

Yahoo14-05-2025
(BINGHAMTON, N.Y. (WIVT/WBGH) – An Afton woman is keeping her parents' legacy alive by awarding local students who excel in math and science.
Seniors from high schools in Broome, Chenango, and Tioga Counties were honored for their academic excellence on Tuesday at SUNY Broome.
The top students in math and science at each school were given a $1,000 per year scholarship and a medal for their achievement.
This is the 24th year of the scholarship, which was established by Francis and Lillian Paul.
Francis was an IBM employee who believed everyone should have access to education regardless of their financial circumstances. He passed away in 1996.
The awards are given out each year by their daughter, Becky Komorowski.
'My heart is just full of love, and I really wish they were here. I really do. I brought a picture of them, and it's up on the front, and I'm just really proud to be able to speak for my family,' said Komorowski.
Komorowski says she hopes the scholarship encourages students to continue doing their best,
Students who attend first SUNY Broome will receive the $1,000 scholarship for all four years of college, should they go on to pursue a bachelor's degree.
Komorowski says she took the scholarship over from her parents, and her daughter plans to continue handing it out after she is no longer able to.
Real Heroes Breakfast honors community members for their bravery
UHS receives $3.9 million grant as it continues pursuit of nursing excellence
Community prepares for 15th annual Sacred Sites tour
NYS awards $86M to arts and culture nonprofits throughout state
Local students awarded with Frank G. Paul Medal of Excellence
Copyright 2025 Nexstar Media, Inc. All rights reserved. This material may not be published, broadcast, rewritten, or redistributed.
Orange background

Try Our AI Features

Explore what Daily8 AI can do for you:

Comments

No comments yet...

Related Articles

IBM, Google claim quantum computers are almost here after major breakthroughs: ‘It doesn't feel like a dream anymore'
IBM, Google claim quantum computers are almost here after major breakthroughs: ‘It doesn't feel like a dream anymore'

Yahoo

time2 days ago

  • Yahoo

IBM, Google claim quantum computers are almost here after major breakthroughs: ‘It doesn't feel like a dream anymore'

The decades-long quest to create a practical quantum computer is accelerating as major tech companies say they are closing in on designs that could scale from small lab experiments to full working systems within just a few years. IBM laid out a detailed plan for a large-scale machine in June, filling in gaps from earlier concepts and declaring it was on track to build one by the end of the decade. 'It doesn't feel like a dream anymore,' Jay Gambetta, head of IBM's quantum initiative, told Financial Times. 'I really do feel like we've cracked the code and we'll be able to build this machine by the end of the decade.' Google, which cleared one of the toughest technical obstacles late last year, says it is also confident it can produce an industrial-scale system within that time frame, while Amazon Web Services cautions that it could still take 15 to 30 years before such machines are truly useful. Quantum computing is a new kind of computing that doesn't just think in 0s and 1s like today's computers. Instead, it uses qubits — tiny quantum bits — that can be 0, 1, or both at the same time. This lets quantum computers explore many possibilities at once and find answers to certain complex problems much faster than normal computers. Quantum computing could speed up the discovery of new drugs and treatments, make artificial intelligence systems faster and more capable and improve the accuracy of market predictions and fraud detection in finance. It could also dramatically improve efficiency in areas like traffic routing, shipping, energy grids and supply chains while driving green innovation by helping design better batteries, cleaner energy systems and more sustainable technologies. But scaling them up from fewer than 200 qubits — the quantum version of a computing bit — to over 1 million will require overcoming formidable engineering challenges. Qubits are inherently unstable, maintaining their special quantum states for only fractions of a second, and adding more of them can create interference that scrambles calculations. Even if the fundamental physics problems are solved, the industry still faces the task of industrializing quantum technology. This means building chips that can house large numbers of qubits, and developing much bigger refrigeration units to keep the systems at near absolute zero. Systems using superconducting qubits, like those from IBM and Google, have made some of the fastest progress but require extreme cooling and are difficult to control. Meanwhile, some companies are betting on radically new qubit designs. Amazon and Microsoft claim to have harnessed a new state of matter to produce more reliable components, although these are still in early development. 'Just because it's hard, doesn't mean it can't be done,' Mark Horvath, an analyst at Gartner, told FT.

IBM, Google claim quantum computers are almost here after major breakthroughs: ‘It doesn't feel like a dream anymore'
IBM, Google claim quantum computers are almost here after major breakthroughs: ‘It doesn't feel like a dream anymore'

New York Post

time4 days ago

  • New York Post

IBM, Google claim quantum computers are almost here after major breakthroughs: ‘It doesn't feel like a dream anymore'

The decades-long quest to create a practical quantum computer is accelerating as major tech companies say they are closing in on designs that could scale from small lab experiments to full working systems within just a few years. IBM laid out a detailed plan for a large-scale machine in June, filling in gaps from earlier concepts and declaring it was on track to build one by the end of the decade. 'It doesn't feel like a dream anymore,' Jay Gambetta, head of IBM's quantum initiative, told Financial Times. Advertisement 4 IBM's Quantum System Two, part of its push to build a million-qubit machine by the end of the decade. AFP via Getty Images 'I really do feel like we've cracked the code and we'll be able to build this machine by the end of the decade.' Google, which cleared one of the toughest technical obstacles late last year, says it is also confident it can produce an industrial-scale system within that time frame, while Amazon Web Services cautions that it could still take 15 to 30 years before such machines are truly useful. Advertisement Quantum computing is a new kind of computing that doesn't just think in 0s and 1s like today's computers. Instead, it uses qubits — tiny quantum bits — that can be 0, 1, or both at the same time. This lets quantum computers explore many possibilities at once and find answers to certain complex problems much faster than normal computers. 4 IBM headquarters in Armonk, NY, where the company leads development of its quantum computing research. Askar – Advertisement Quantum computing could speed up the discovery of new drugs and treatments, make artificial intelligence systems faster and more capable and improve the accuracy of market predictions and fraud detection in finance. It could also dramatically improve efficiency in areas like traffic routing, shipping, energy grids and supply chains while driving green innovation by helping design better batteries, cleaner energy systems and more sustainable technologies. But scaling them up from fewer than 200 qubits — the quantum version of a computing bit — to over 1 million will require overcoming formidable engineering challenges. 4 Google's Mountain View campus, home to its Quantum AI division pursuing a surface-code design to reach industrial-scale systems. Sundry Photography – Advertisement Qubits are inherently unstable, maintaining their special quantum states for only fractions of a second, and adding more of them can create interference that scrambles calculations. Even if the fundamental physics problems are solved, the industry still faces the task of industrializing quantum technology. This means building chips that can house large numbers of qubits, and developing much bigger refrigeration units to keep the systems at near absolute zero. 4 Quantum computing could speed up the discovery of new drugs and treatments, make artificial intelligence systems faster and more capable and improve the accuracy of market predictions. AFP via Getty Images Systems using superconducting qubits, like those from IBM and Google, have made some of the fastest progress but require extreme cooling and are difficult to control. Meanwhile, some companies are betting on radically new qubit designs. Amazon and Microsoft claim to have harnessed a new state of matter to produce more reliable components, although these are still in early development. 'Just because it's hard, doesn't mean it can't be done,' Mark Horvath, an analyst at Gartner, told FT.

A Tech Leader's Perspective: Quantum's Roadmap To Commercial Viability
A Tech Leader's Perspective: Quantum's Roadmap To Commercial Viability

Forbes

time04-08-2025

  • Forbes

A Tech Leader's Perspective: Quantum's Roadmap To Commercial Viability

John Prisco, Security CEO & founder of Safe Quantum Inc., working with data-driven companies to develop and deploy quantum-safe technologies Quantum computing is advancing rapidly, transitioning from theoretical exploration to practical application, with major tech companies and upstarts charting ambitious roadmaps toward scalable, fault-tolerant systems. While IBM, Google and Microsoft can be seen as leading this charge, each pursuing distinct technological approaches, the U.S. National Quantum Initiative (NQI) provides a coordinated federal framework to bolster quantum research and development. That has rewarded efforts from some startups, creating a broad landscape for quantum innovation. As the CEO of a quantum security company, I've been closely watching this space develop. Let's explore a few ways big names—and not-so-well-known names—in this industry are making strides that I think are worth noting as trends that may indicate the future of quantum. Trends Shaping The Future Of Quantum IBM aims to develop a large-scale, fault-tolerant quantum computer by 2029. The Starling system, which IBM says will have 20,000 times the computing power of standard quantum computers, is projected to be completed before the end of this decade. As part of Google's six-step roadmap to build a large-scale, error-corrected quantum computer capable of solving real-world problems, the company's Quantum AI division recently introduced the Willow chip, a 105-qubit superconducting processor. Willow has demonstrated the ability to reduce error rates. Microsoft unveiled Majorana 1, a quantum processor powered by topological qubits, to a slightly skeptical audience in March. This processor utilizes topological superconductors to create more error-resistant qubits. Quantinuum has deployed its Reimei quantum computer at Japan's RIKEN Center, marking a step toward hybrid quantum-classical computing. PsiQuantum has developed the Omega chipset, a manufacturable photonic quantum computing platform designed for utility-scale systems. The chipset integrates high-performance photonic components and is being produced in partnership with GlobalFoundries. It is part of PsiQuantum's goal to build million-qubit-scale quantum computers. Atom Computing is developing a commercial quantum computer that uses more than 1,000 physical qubits. In partnership with Microsoft, "The companies have created 24 entangled logical qubits using Atom's neutral-atom hardware, the largest on record. Logical qubits comprise several qubits, allowing for error correction and making them more reliable than noisy physical qubits in Atom's technology." And lastly, QuEra's Aquila is a 256-qubit neutral-atom quantum computer available through Amazon. The company is pursuing a hybrid analog-digital approach to quantum computing, with a roadmap aiming for systems with up to 10,000 physical qubits and 100 logical qubits within the next few years. What Should Business Leaders Watch Out For? As quantum computing moves closer to practical implementation, there are three areas in particular to keep an eye on that I think will be incredibly important over the course of the near future: 1. Error Correction Breakthroughs: Advancements in error correction techniques, such as IBM's qLDPC codes and Microsoft's topological qubits, are essential for achieving fault-tolerant quantum systems. 2. Scalability Of Qubit Architectures: The ability to scale qubit counts effectively, through modular designs or novel qubit types, will determine the feasibility of large-scale quantum computers. 3. Hybrid Integration With Classical Systems: Developing hybrid quantum-classical computing models, as demonstrated by Quantinuum's Reimei in Japan, will be crucial for leveraging quantum advantages in real-world applications. Monitoring these developments will provide insights into the trajectory of quantum computing and its potential impact across various industries. Forbes Technology Council is an invitation-only community for world-class CIOs, CTOs and technology executives. Do I qualify?

DOWNLOAD THE APP

Get Started Now: Download the App

Ready to dive into a world of global content with local flavor? Download Daily8 app today from your preferred app store and start exploring.
app-storeplay-store