#Quantum-safe cryptography

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10 Cybersecurity Trends You Can’t Miss in 2025: Pricing, Updates, and More

AI-driven threats, Zero Trust security, and quantum-safe cryptography—cyber risks are evolving fast! Stay ahead with the Top 10 Cybersecurity Trends of 2025 and learn how Microsoft is leading the charge.

Key insights include:

AI & Automation in cybersecurity Microsoft’s Zero Trust security framework Ransomware resilience strategies Quantum-safe cryptography Latest compliance regulations

Don’t let cyber threats catch you off guard! Read now to stay protected in 2025.

Read Now: https://www.ecfdata.com/10-cybersecurity-trends-in-2025-key-updates-microsoft-security/

[ncogofficial]

Post Quantum Blockchain: Future of Decentralized Technology

What will become of our decentralized networks when quantum computers can break our most secure cryptographic defenses today? If quantum attacks eat away at digital security, then the security of blockchain systems has never been more crucial. Welcome to the Post Quantum Blockchain universe, an incoming paradigm shift strategy combining the blockchain’s resilience and the post-quantum cryptography’s next-generation security to protect the immortal digital universe.

In this article, we discuss the important part that quantum-resistant blockchain will have to play in protecting decentralized networks from the increasing menace of quantum computing.

Understanding Post-Quantum Blockchain

Post Quantum Blockchain is a blockchain network that is protected by highly advanced, quantum computer-immune cryptographically secured algorithms. RSA or ECC are conventional tools used for encryption, which would become sitting ducks against attacks from quantum algorithms like Shor’s, which will compromise their integrity. It poses a humongous risk to decentralized networks operating on such algorithms for data assurance, identity authentication, and secured transactions.

With the integration of quantum-resistant cryptography, these blockchain platforms can provide security and trust in a quantum computer-based future. The National Institute of Standards and Technology (NIST) is attempting to develop ultimate encryption standards to be the new way of doing it, and hence quantum-secure blockchain deployment becomes an unavoidable evolution.

Why Traditional Blockchains Are Vulnerable

Although blockchain itself is generally considered secure and unalterable, it is not resistant to the increasing threat of quantum computing. Classical blockchains are highly dependent on classical cryptographic methods — namely, public-key cryptography — to protect digital identities, authenticate transactions, and establish consensus among distributed nodes. But with the accelerated advancement of quantum technology, these methods are in serious jeopardy. A sufficiently powerful quantum computer would be able to take advantage of loopholes in such cryptographic schemes to reverse-engineer private keys from public keys, allowing hackers to impersonate the real users. This can result in unauthorized transactions, loss of funds, or even bulk tampering with the blockchain ledger.

Furthermore, quantum computations like Shor’s algorithm can even break the digital signatures that are employed to secure transactions. If such signatures are compromised, they would no longer provide trust in the authenticity or source of a message. Quantum systems would also destabilize consensus systems, which are critical to all participants in a network adhering to a specified state of the blockchain. These findings point to how unprepared systems are at present for a quantum world.

In order to combat these future threats, cryptographers and developers are turning to Post Quantum Blockchain solutions that build on quantum-resistant protocols and algorithms. This next-generation solution can potentially restore trust and security in decentralized systems in the quantum era.

Core Principles Behind Post-Quantum Blockchain

To create a post-quantum blockchain that is resilient, some principles are used-

Lattice-based cryptography: Lattice-based cryptography is a bedrock, since it is quantum proof. Its mathematical complexity is high and it’s computationally not possible even for quantum computers to reverse-engineer encrypted data, thus it’s a very secure way of safeguarding identity and key exchange.

Hash-based signatures: Hash-based signatures constitute another central element. They provide secure short-term digital authentication to maintain messages and transactions tamper-evident. Hash-based signatures work with irrevocable one-way functions for a quantum system, as opposed to classical digital signatures.

Code-based cryptography: Code-based cryptography is also used to ensure a good level of long-term message security. It uses codes that will resist such forms of decryption, whether classical or quantum.

Zero-knowledge proofs: Finally, we have zero-knowledge proofs, which are incorporated to complete the system. Zero-knowledge proofs allow a party to verify possession of knowledge about a condition or value without sharing underlying information. This maintains confidentiality and guarantees immunity from quantum attacks, such that data confidentiality and trust are achieved in decentralized applications.

Advantages of Post-Quantum Blockchain

1. Future-Proof Security

Most readily apparent benefit of Post Quantum Blockchain is that it will resist quantum attacks. Avoiding future attacks ahead of time, the developers will not need to invest the exorbitant expense of redoing systems down the road.

2. More Privacy

New cryptographic building blocks employed by Post Quantum Blockchain can also enhance the protection of privacy through improved anonymization techniques.

3. Compliance with Regulations

As government agencies start to issue post-quantum compliance requirements, employing Quantum Blockchain protocols puts businesses ahead of the law.

4. Long-Term Data Integrity

In contrast to legacy systems that can grow obsolete in the quantum age, Post Quantum Blockchain solutions guarantee your data is immutable and trusted for decades to come.

Real-World Use Cases for Post-Quantum Blockchain

Some industries are starting to consider Post Quantum Blockchain-

Finance: The banking industry, for example, is among the first to embrace. Encryption is a major source of security for online transactions, customer identity, and online balances for banks. With the danger of traditional cryptography from quantum computers, quantum-resistant blockchain guarantees long-term security for banking services, cryptocurrencies, and smart contracts.

Healthcare: Healthcare, where the confidentiality and integrity of patient data are paramount, sees this technology providing tamper-evident storage and transport of sensitive information. Decentralization, and with it the use of quantum-safe encryption, makes for safe sharing of medical records between health providers and shields against leaks and unauthorized alteration.

Supply Chain: The supply chain sector is also discovering the utility of this new solution. Through the utilization of quantum-resistant blockchain, businesses can create open, immutable records of product origin, transport, and handling. It assists in the prevention of fraud, lowers counterfeiting, and increases efficiency in international logistics.

Government: Governments are exploring their use for secure administration of digital identity, citizenship authentication, and even voting. With election security and identity fraud issues on the rise, a tamper-proof, quantum-secure blockchain can provide more public trust and operational integrity to democratic and administrative systems.

The Rise of Post Quantum Secured Blockchain

Post quantum secured blockchain technology is a giant leap towards the security of decentralized platforms against the impending threat of quantum computers. Traditional blockchains, though secure against classical attacks, are becoming increasingly susceptible to quantum algorithms that support breaking standard encryption schemes employed.

Conversely, post quantum secured blockchain networks are inherently constructed with quantum resistance. Every single aspect — identity verification, transaction verification, smart contracts, and consensus algorithms — is supported by cryptographic algorithms particularly selected for their quantum decrypt resistance.

This method guarantees that important activities such as signing a contract, digital signing, and multi-party cooperation on data are secure, transparent, and tamper-evident even in the future when all have quantum processors. With a trend of industries going quantum-readiness, implementing such infrastructure is not an upgrade — it is a required building block.

METHODOLOGY: Ensuring AI Safety Through Post Quantum Blockchain

To truly safeguard AI’s influence on society, data integrity must be prioritized above all. As artificial intelligence systems become more intertwined with human decision-making, preventing malicious replication of identity and the misuse of personal data is crucial. One reliable approach is the integration of Post Quantum Blockchain…

[kingme1002]

Quantum computers:

leverage the principles of **quantum mechanics** (superposition, entanglement, and interference) to solve certain problems exponentially faster than classical computers. While still in early stages, they have transformative potential in multiple fields:

### **1. Cryptography & Cybersecurity**

- **Breaking Encryption**: Shor’s algorithm can factor large numbers quickly, threatening RSA and ECC encryption (forcing a shift to **post-quantum cryptography**).

- **Quantum-Safe Encryption**: Quantum Key Distribution (QKD) enables theoretically unhackable communication (e.g., BB84 protocol).

### **2. Drug Discovery & Material Science**

- **Molecular Simulation**: Modeling quantum interactions in molecules to accelerate drug design (e.g., protein folding, catalyst development).

- **New Materials**: Discovering superconductors, better batteries, or ultra-strong materials.

### **3. Optimization Problems**

- **Logistics & Supply Chains**: Solving complex routing (e.g., traveling salesman problem) for airlines, shipping, or traffic management.

- **Financial Modeling**: Portfolio optimization, risk analysis, and fraud detection.

### **4. Artificial Intelligence & Machine Learning**

- **Quantum Machine Learning (QML)**: Speeding up training for neural networks or solving complex pattern recognition tasks.

- **Faster Data Search**: Grover’s algorithm can search unsorted databases quadratically faster.

### **5. Quantum Chemistry**

- **Precision Chemistry**: Simulating chemical reactions at the quantum level for cleaner energy solutions (e.g., nitrogen fixation, carbon capture).

### **6. Climate & Weather Forecasting**

- **Climate Modeling**: Simulating atmospheric and oceanic systems with higher accuracy.

- **Energy Optimization**: Improving renewable energy grids or fusion reactor designs.

### **7. Quantum Simulations**

- **Fundamental Physics**: Testing theories in high-energy physics (e.g., quark-gluon plasma) or condensed matter systems.

### **8. Financial Services**

- **Option Pricing**: Monte Carlo simulations for derivatives pricing (quantum speedup).

- **Arbitrage Opportunities**: Detecting market inefficiencies faster.

### **9. Aerospace & Engineering**

- **Aerodynamic Design**: Optimizing aircraft shapes or rocket propulsion systems.

- **Quantum Sensors**: Ultra-precise navigation (e.g., GPS-free positioning).

### **10. Breakthroughs in Mathematics**

- **Solving Unsolved Problems**: Faster algorithms for algebraic geometry, topology, or number theory.

[tundraglitch]

Free Courses on IBM Quantum Learning

IBM has launched a series of free course for learning the basics of quantum computing and how to use the IBM Quantum services (here the link).

At the moment I’m writing there are four courses:

Basics of quantum information

First unit in the series, the course explains the basis of quantum computing at a detailed mathematical level, it requires knowing a bit of linear algebra, but also fascinating subjects like: quantum teleportation (no, sadly it’s not like Star Trek) and superdense coding.

Fundamentals of quantum algorithms

This second unit explores the advantages of quantum computers over classical computers

Variational algorithm design

This course teaches how to write variational algorithms and how to use Qiskit, the IBM API for quantum computing.

Practical introduction to quantum-safe cryptography Quantum computers can do what a classical computer can’t: use brute force and be quick, so they can break common cryptography. This course teaches how to use encryption that cannot be break so easily.

[vijaysethupati]

Is Full Stack Development Ready for Quantum Computing?

In the rapidly evolving world of technology, Full Stack Development has become a must-have skill for developers seeking to build scalable and dynamic applications. But as quantum computing moves closer to real-world applications, a question naturally arises: Is Full Stack Development ready for the quantum leap?

To explore this, we need to look at the state of full stack technologies today, the nature of quantum computing, and how developers — especially those honing their skills through quality programs like the Best Full Stack Course in Pune — can prepare for a potential quantum future.

Understanding the Landscape: Full Stack Meets Quantum

Full Stack Development refers to the ability to work on both the front-end and back-end of a web application. It includes knowledge of:

Front-end technologies like HTML, CSS, JavaScript

Back-end technologies such as Node.js, Java, Python, and frameworks like Spring Boot or Express.js

Database management (SQL, NoSQL)

APIs and version control (e.g., Git)

In contrast, Quantum Computing operates on the principles of quantum mechanics. Instead of bits, it uses qubits, which can exist in multiple states simultaneously. This allows quantum computers to perform complex computations exponentially faster than classical computers.

Clearly, the two are fundamentally different. But are they mutually exclusive? Or can full stack developers find ways to work with, or even build for, quantum environments?

The Reality Check: Where Things Stand

Quantum computing is still in its experimental phase. Real-world applications are limited, and most systems that support quantum development use hybrid models — classical front-ends with quantum-powered back-ends.

For full stack developers, this means:

Quantum is not replacing traditional full stack anytime soon.

But it may complement it, especially in areas like cryptography, big data processing, AI/ML, and optimization.

Those taking up industry-recognized training, like the Best Java Certification Course in Pune, are already learning the foundations necessary to adapt to any paradigm — including quantum.

Skills That Will Remain Relevant

Even as quantum computing evolves, core skills from traditional full stack development will remain crucial. These include:

Proficiency in JavaScript and Java – Often used for integrating interfaces and logic layers.

Problem-solving skills – Quantum computing introduces abstract challenges that require structured thinking.

API integration – Quantum systems are often accessed through APIs; understanding REST or GraphQL is vital.

Cloud platform knowledge – Quantum computing services are primarily accessed via cloud-based platforms.

Whether you’re enrolled in the Best Full Stack Course in Pune or a Java specialization program, the foundations you're building today will prepare you for future-tech integrations.

How Full Stack Developers Can Prepare for Quantum Integration

Here are some actionable steps full stack developers can take today to prepare for the quantum future:

Learn the basics of quantum computing – Platforms like IBM Qiskit or Microsoft's Quantum Development Kit offer beginner-friendly resources.

Keep up with cloud quantum services – Azure Quantum and Amazon Braket provide APIs that allow classical front-end developers to run quantum algorithms.

Build hybrid applications – Try connecting traditional web applications to quantum algorithms via RESTful APIs.

Understand quantum-safe cryptography – Security protocols will evolve as quantum breaks traditional encryption.

Opportunities Ahead: Quantum in the Stack?

It’s unlikely that full stack developers will be writing direct quantum code (in Q#, Qiskit, etc.) in the near future. However, developers will need to understand how to integrate classical web systems with quantum processors.

Here’s how quantum might enter the full stack world:

Front-End – No major changes, but interfaces may need to interpret and display quantum results.

Back-End – Integration with quantum APIs for specialized tasks (e.g., high-level optimization).

Security Layer – Incorporating quantum-safe encryption and identity protocols.

Courses designed for comprehensive learning — like the Best Full Stack Course in Pune — already provide exposure to the kinds of architecture and logic needed to make this integration possible.

Why Java Still Matters in a Quantum World

Java might not be a quantum programming language, but its robustness, portability, and enterprise acceptance make it essential for building secure, scalable systems that might interface with quantum components. If you’re pursuing the Best Java Certification Course in Pune, you’re equipping yourself with the tools necessary to build the “glue” between classic and quantum systems.

Java’s role will likely be:

Facilitating API communication with quantum services

Running traditional business logic securely

Building scalable back-end infrastructures

So while you might not be writing quantum algorithms in Java, you’ll be building the applications that run them efficiently.

Conclusion: Bridging the Gap

Full stack developers won’t be rendered obsolete by quantum computing — quite the opposite. As the industry evolves, they’ll become even more essential in bridging the classical-quantum divide. Whether through RESTful APIs, secure cloud platforms, or hybrid architectures, full stack developers will help operationalize quantum capabilities.

To stay ahead, it's crucial to invest in holistic learning. Enrolling in theBest Full Stack Course in Pune or enhancing your backend proficiency via the Best Java Certification Course in Pune can give you a significant edge. The quantum future might still be emerging, but with the right skills, you'll be more than ready when it arrives.

[marketingtoopost]

Why Enterprises Need Quantum-Safe Cryptography in SAP: Securing the Future with NeuVays

In today’s digital-first business environment, enterprise data security is no longer a back-office IT function—it is a strategic priority. Organizations worldwide depend on the SAP Business Technology Platform (SAP BTP) to power innovation, analytics, and process automation. However, the rapid evolution of quantum computing is threatening the cryptographic foundations of even the most secure SAP landscapes.

To stay ahead of this curve, enterprises must act now to adopt quantum-safe cryptography in SAP, safeguarding their most valuable digital assets before quantum decryption capabilities become mainstream. NeuVays, a forward-looking SAP partner, is pioneering Quantum-Safe SAP BTP Architecture to help enterprises secure their digital ecosystems—today and tomorrow.

🔐 The Threat: Quantum Computing and Cryptographic Risk

Traditional encryption algorithms such as RSA and ECC have protected enterprise data for decades. But with the advancement of quantum computing, these classical methods are at risk. Quantum machines, once powerful enough, can break current encryption schemes in a fraction of the time required by classical computers.

The risk is particularly alarming for enterprises using SAP systems to store and process:

Financial transactions

Personal identifiable information (PII)

Intellectual property (IP)

Supply chain data

This creates a scenario known as "harvest now, decrypt later," where malicious actors capture encrypted data today to decrypt it in the near-future once quantum capabilities mature.

🧬 What Is Quantum-Safe Cryptography?

Quantum-safe cryptography, also called post-quantum cryptography (PQC), refers to cryptographic algorithms designed to be secure against quantum computing attacks. These include methods like:

Lattice-based cryptography

Code-based cryptography

Multivariate polynomial equations

Hash-based signatures

These algorithms are being standardized by global institutions like NIST and ISO, signaling their importance in future-proofing digital infrastructures.

💡 Why Enterprises Need Quantum-Safe Cryptography in SAP

1. Future-Proof Enterprise Data Security

SAP systems hold the digital DNA of an organization. From customer data to business logic and financials, a breach in SAP can cripple operations and trust. Adopting quantum-safe encryption ensures that enterprise data stored or transmitted via SAP BTP remains secure in the quantum era.

2. Regulatory Compliance and Long-Term Confidentiality

Data protection laws like the GDPR, DPDP Act (India), and HIPAA mandate long-term confidentiality of sensitive data. Quantum-safe cryptography ensures encrypted records remain compliant decades into the future.

3. Defending Against “Harvest Now, Decrypt Later” Attacks

Even if a quantum attack doesn’t happen tomorrow, data exfiltrated today may still be decrypted later. With SAP BTP encryption framework, NeuVays integrates hybrid encryption models that combine traditional and post-quantum algorithms to eliminate such risks.

4. Strengthening the SAP BTP Security Framework

SAP BTP provides several native tools to manage security—role-based access, identity authentication, logging, and encryption. Quantum-safe cryptography enhances the existing SAP BTP security model by securing its weakest links: long-lived secrets and cryptographic keys.

🧱 Quantum-Safe SAP BTP Architecture by NeuVays

NeuVays has engineered a specialized framework—Quantum-Safe SAP BTP Architecture—to transform enterprise SAP landscapes into resilient, future-ready environments. This includes:

✔ Integration of Post-Quantum Algorithms

Leveraging NIST-recommended quantum-resistant algorithms like CRYSTALS-Kyber and Dilithium to replace RSA and ECC in key exchanges and digital signatures.

✔ Hybrid Cryptographic Framework

Combining quantum-safe and classical algorithms to ensure backward compatibility while securing future transmissions.

✔ SAP BTP Encryption Framework Optimization

Strengthening the SAP BTP encryption framework to support advanced cryptographic libraries, including customer-managed keys and key lifecycle automation.

✔ Zero-Trust Architecture Alignment

Ensuring that quantum-safe cryptography supports a Zero Trust security model, including continuous verification, least privilege access, and secure identity management.

🔎 SAP BTP Security Best Practices: How NeuVays Delivers End-to-End Protection

While quantum-safe cryptography addresses emerging threats, it’s only one part of a comprehensive defense. At NeuVays, we integrate SAP BTP security best practices to build robust environments, including:

Role-based access control (RBAC) and SSO integrations

Multi-factor authentication (MFA) enforcement

Encrypted APIs and service connections

Continuous logging and anomaly detection

Data isolation and tenant segregation

Our approach ensures that even if quantum threats evolve, your SAP landscape remains secure across all layers.

📈 Industry Use Case: Quantum-Safe Data in Action

A global logistics enterprise running on SAP BTP approached NeuVays to secure sensitive route optimization and partner data. The company anticipated major competition and potential state-sponsored threats to its proprietary algorithms.

NeuVays’ solution:

Upgraded SAP BTP security configurations

Integrated lattice-based quantum-safe algorithms for data encryption

Applied hybrid cryptography to secure data in transit and at rest

Customized dashboards to monitor cryptographic performance

Result: The enterprise achieved long-term data protection and compliance while gaining a competitive edge as a future-ready organization.

🧠 Preparing for a Quantum Future with NeuVays

The quantum era is no longer hypothetical—governments and big tech companies are investing billions into quantum R&D. With SAP BTP being the central nervous system of digital enterprises, ensuring its security is non-negotiable.

NeuVays guides enterprises in:

Assessing quantum risk to existing SAP environments

Creating roadmaps to quantum-safe architecture

Integrating encryption best practices and identity management

Aligning with upcoming global security standards

🚀 Why Choose NeuVays for SAP BTP Security

NeuVays is not just a SAP implementation partner—we are a SAP-certified partner and security-first technology firm specializing in SAP BTP security and enterprise data security. Our unique positioning allows us to:

Blend functional expertise with advanced cryptography

Deploy scalable security architecture across industries

Offer 24/7 SAP BTP performance and threat monitoring

Future-proof your business before cyber threats catch up

✅ Conclusion

Quantum computing is set to revolutionize industries—and cyber threats. Enterprises that continue to rely on classical encryption without upgrading will risk losing data integrity, compliance status, and stakeholder trust.

Why do enterprises need quantum-safe cryptography in SAP? Because waiting is not an option.

With NeuVays' Quantum-Safe SAP BTP Architecture, robust encryption frameworks, and SAP BTP best practices, your enterprise can confidently protect what matters most—now and in the future.

📞 Ready to build quantum-safe SAP security? Contact NeuVays to get started today.

[thescientistglobalawards]

Quantum Computing in Cybersecurity

Quantum computing is emerging as a transformative force in the field of cybersecurity. Unlike classical computers, which rely on bits, quantum computers use qubits—units that can exist in multiple states simultaneously due to the principles of superposition and entanglement. These unique capabilities allow quantum computers to perform certain calculations exponentially faster than traditional machines, posing both unprecedented opportunities and serious threats to modern cryptographic systems.

One of the most significant impacts of quantum computing lies in its potential to break widely used encryption methods. Algorithms like RSA, ECC (Elliptic Curve Cryptography), and DSA underpin much of the world’s digital security. These algorithms are based on problems that are hard for classical computers to solve, such as integer factorization and discrete logarithms. However, Shor’s algorithm, a quantum algorithm, can solve these problems efficiently. Once large-scale quantum computers become available, they could decrypt sensitive information secured under these systems, rendering current public-key cryptography obsolete.

To address this challenge, researchers are rapidly developing post-quantum cryptography (PQC)—encryption algorithms that are believed to be resistant to quantum attacks. The U.S. National Institute of Standards and Technology (NIST) is actively leading efforts to standardize such quantum-resistant algorithms. Examples include lattice-based cryptography, hash-based signatures, and code-based encryption, which are designed to withstand attacks even from quantum computers. These new methods aim to protect data not only today but also in the future, anticipating a world where quantum technology is mainstream.

On the other hand, quantum computing also presents new tools for enhancing cybersecurity. Quantum Key Distribution (QKD) is a secure communication method that uses quantum mechanics to encrypt and transmit keys in such a way that any attempt to eavesdrop would be immediately detectable. QKD enables the creation of unbreakable encryption under ideal conditions, making it a promising technology for ultra-secure communication between government, military, and financial institutions.

However, the integration of quantum computing into cybersecurity is not without challenges. The practical deployment of quantum-safe protocols requires extensive changes to existing infrastructure. Moreover, current quantum computers are still in their early stages—known as Noisy Intermediate-Scale Quantum (NISQ) devices—which limits their immediate threat potential. Nonetheless, the concept of "harvest now, decrypt later" is a real concern, where adversaries collect encrypted data today with the intention of decrypting it using quantum systems in the future.

In conclusion, quantum computing is reshaping the landscape of cybersecurity, offering both disruptive threats and novel defenses. Preparing for this future involves a dual strategy: developing and deploying quantum-resistant cryptographic standards while exploring secure quantum-enhanced technologies like QKD. Governments, organizations, and researchers must collaborate to ensure a smooth and secure transition into the quantum era, safeguarding data in a world where computing power is no longer limited by classical constraints.

#QuantumComputing #Cybersecurity #EmergingTech#QuantumThreat #ShorsAlgorithm #EncryptionBreakthrough#PostQuantumCryptography #QuantumSafe #NISTStandards#QuantumKeyDistribution #QKD #UnbreakableEncryption#QuantumRisks #NISQ #DataSecurity#QuantumFuture #SecureTransition #QuantumCybersecurity The Scientist Global Awards

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[govindhtech]

What is QaaS? OVHcloud Boost Europe’s Quantum Roadmap

QaaS allows access to sophisticated quantum systems. Learn about OVHcloud's mission in Europe.

Leading European cloud operator OVHcloud announced a complete  Quantum-as-a-Service (QaaS) roadmap and enhanced its quantum computing infrastructure and security. The company's France Quantum 2025 announcements demonstrated its dedication to democratising quantum computing and developing a strong European quantum ecosystem.

AQUILA's call for expressions of interest to expand the French quantum computing ecosystem includes OVHcloud. With this funding, OVHcloud can lead France's quantum computing ecosystem and democratise it.

Prompt Quantum Processor Unit deployment

An ambitious timescale for the deployment of genuine Quantum Processor Units (QPUs) has been outlined by OVHcloud. Through its flexible QaaS platform, consumers can easily pay-as-they-go for these QPUs.

Initial Launch with Pasqal Orion Beta: OVHcloud will launch the QPU in September 2025. With its 100 neutral atom qubit capacity, this cutting-edge gadget advances consumer quantum technology. This first offering allows for more quantum computers on its platform.

The company plans to have three QPUs by 2025, signalling rapid growth of its QPU products. This fast deployment shows OVHcloud's desire to swiftly extend its quantum compute capability.

Extended European Focus by 2027: Moving future, OVHcloud wants to dramatically increase its QPU fleet. At least eight QPUs will be available to QaaS clients by 2027. Importantly, seven of these eight QPUs are expected to be European, highlighting the focus on European innovation. The dedication underlines OVHcloud's support to European quantum technological sovereignty.

In addition to its growing array of quantum emulators, the OVHcloud Quantum Cloud platform is being carefully designed to enable smooth access to quantum computers when they become available.

Improved Quantum Emulator Portfolio

Along with its true QPU deployments, OVHcloud has improved its quantum emulators. The company adds two powerful emulators: Mimiq from Qperfect and Qleo from Quobly. With these projected improvements, OVHcloud has eight quantum emulators. Developers need this expanded emulator suite since it increases OVHcloud's hybrid cloud capabilities and gives more simulation tools. It helps build and test quantum algorithms before deploying them on QPUs.

Advances in Quantum Security

OVHcloud is investing heavily in quantum security since quantum computing poses new cybersecurity threats. Our main goal is to future-proof digital security against quantum computing dangers.

SSL with Quantum Entropy: Advanced SSL certificates using quantum entropy are used by OVHcloud. This revolutionary technology will make computer-website communications more secure and resistant to complicated attacks by increasing encryption strength.

Post-Quantum Cryptography (PQC) Development: The Group's research and development division is working on this vital topic. Their main goal is to develop and implement cryptography methods that can withstand quantum computer attacks. This research follows French Cybersecurity Agency (ANSSI) recommendations to meet national cybersecurity criteria.

QKD Initiatives: OVHcloud R&D is also working on Quantum Key Distribution. QKD uses quantum physics to detect eavesdropping and exchange keys in a fundamentally safe method.

OVHcloud's strong security procedures show its commitment to providing a safe and dependable quantum computing and cloud ecosystem.

Creating a Healthy Quantum Ecosystem

OVHcloud aims to accelerate the quantum ecosystem beyond providing quantum infrastructure.

Quantum Startups: OVHcloud's Startup Program supports 17 quantum startups. This program supports and provides invaluable resources to startups developing quantum applications and services, fostering creativity and speeding up development.

Strategic Acquisition and Academic engagement: OVHcloud purchased the Quandela MosaiQ photonic quantum computer to demonstrate its commitment to internal R&D and academic engagement. OVHcloud's R&D department uses this key acquisition for advanced research, and students can use it through tight academic relationships. This program trains quantum engineers and scientists.

These ecosystem-building and strategic investments are crucial to OVHcloud's strategy. Scalable, independent quantum resources that integrate with its cloud environment are the company's goal. OVHcloud's aggressive initiatives are establishing a long-term, crucial presence in Europe's quantum ecosystem and democratising quantum computing. With these projects, OVHcloud can help the continent adopt quantum innovation.

What's QaaS?

QaaS, or quantum computing as a service, is a cloud-based option for organisations to receive quantum computing technology and capabilities cheaper from a third party.

Because quantum computing is still emerging, most organisations can't employ it. In-house hardware and software development and maintenance are expensive and specialised.

Cloud-based QaaS products allow organisations to test experiments, execute algorithms, and conduct research using quantum computational resources on a subscription or PAYG basis. It reduces quantum expertise.

[ncogofficial]

Post Quantum Algorithm: Securing the Future of Cryptography

Can current encryption meet the quantum future? With the entry of quantum computing, classical encryption techniques are under the immediate threat of compromise. There has come a new age with the post quantum algorithm as a vital solution. Having the capability to shield data from being vulnerable to quantum attacks, this fascinating technology promises digital security for the future decades. Different from classic crypto schemes, such algorithms resist even sophisticated quantum attacks. But how do they work, and why are they important? In this article, we’ll explore how post-quantum algorithms are reshaping the cybersecurity landscape — and what it means for the future of encryption.

What is a Post Quantum Algorithm?

A post quantum algorithm is an encryption technique implemented to secure sensitive information from the vast processing power of quantum computers. In contrast to the classic encryption method, which can be cracked using the help of algorithms like Shor’s by quantum computers, this new method takes advantage of maths problems that are difficult for both quantum and classical systems to calculate. Quantum computers employ qubits to process information at new rates, endangering the current state of encryption, such as RSA or ECC.

To counter this, post-quantum solutions employ methods such as lattice-based encryption, code-based cryptography, and hash-based signatures. These are long-term security frameworks that keep data safe, even when there are vast numbers of quantum computers available for cryptographic algorithms.

Why We Need Post Quantum Algorithms Today

Although quantum computers are not yet available, post-quantum implementation of the algorithms in the initial stages is unavoidable. Encryption is not for today — it’s for tomorrow’s data too. A cyberthief will tap encrypted data today and crack it when there’s quantum technology in the future.

The application of a post quantum algorithm nowadays assures long-term secure information protection. Government agencies, banks, and medical providers are already transitioning to quantum-resistant systems.

Types of Post Quantum Algorithms

There are various kinds of post quantum algorithms, and each one has special strengths-

Lattice-based Cryptography: Lattice-based cryptography holds most hope. It relies on lattice problems upon which to build security that even a highly capable quantum computer possesses no way of solving quickly. They do digital signatures and encryption, and are relatively fast. They are quite general, hence are in line for standardization.

Hash-based Cryptography: Hash-based cryptography is primarily digital signature-based. They enjoy the security of traditional cryptographic hash functions and are safe against known quantum attacks. Very secure and grown-up, but generally not employed for encryption due to their size and slow performance, these schemes are only suitable to protect firmware and software patches.

Multivariate Polynomial Cryptography: Multivariate Polynomial Cryptography: Multivariate polynomial cryptography consists of complex mathematical equations involving numerous variables. They provide compact signature generation and verification, which is advantageous in resource-limited settings such as embedded systems.

Code-based Cryptography: Code-based cryptography research has been conducted for many decades and employs error-correcting codes for encrypting and protecting information. It provides very good security against quantum attacks and is particularly suitable for encryption applications. Although code-based cryptosystems have large public key sizes, their long history of resistance makes them a popular selection for protecting information in the long term.

How Post-Quantum Algorithms Work

A post quantum algorithm relies on the concept of using mathematical problems that are hard to break through quantum computers. They are resistant to both classical and quantum attacks. One of them, lattice-based cryptography, uses vectors in high-dimensional space. It is still very hard to solve the lattice problems even for highly powerful quantum processors.

All of the suggested algorithms test extensively for performance, key size, and resistance against any known quantum attacks. The National Institute of Standards and Technology (NIST) coordinates the worldwide effort in testing and standardizing the algorithms. They will work on new cryptographic systems used to replace current systems that are vulnerable and offer long-term security of information in a world where quantum computers are readily available and extremely powerful.

Real-World Applications of Post-Quantum Algorithms

Post quantum algorithm application is not a theory. Many companies have already started using them-

Finance: Organisations in the finance sector employ quantum-resistant cryptography to protect confidential financial transactions and customer data. Financial information is confidential for decades, and quantum-safe encryption protects it from hacking in the future. Banks and payment processors are piloting and implementing post-quantum approaches into core security solutions.

Healthcare: The integrity and confidentiality of medical records form the basis of the healthcare business. Healthcare organizations and hospitals have been using quantum-secure encryption to secure patients’ data for decades. Health information is retained for many years, and post-quantum methods provide guarantees that such information will not be vulnerable to future computing breakthroughs.

Government: Government departments manage national security information that may be useful for many decades. Therefore, they are leading the adoption of post-quantum technologies, primarily for secure communication and sensitive documents. Military, intelligence, and diplomatic operations are investing in quantum-resistant technologies to prepare for the future.

Cloud Services: Cloud service providers deploy Quantum-resistant encryption. As cloud infrastructure is responsible for everything from document storage to software services, they have to ensure data protection both in transit and at rest. Cloud giants are experimenting with hybrid approaches that involve classical and post-quantum encryption to protect data even further.

Post Quantum Security in the Modern World

Security does not only mean encrypting information; it means expecting it. That is where post quantum security comes in. With billions of devices connected and more data exchanges taking place, organizations need to think ahead. One quantum attack will reveal millions of records. Adopting a post-quantum algorithm today, companies construct tomorrow-proof resilience.

Transitioning to Post Quantum Algorithms: Challenges Ahead

The transition to a post quantum algorithm presents a sequence of challenges for contemporary organizations. The majority of today’s digital architectures depend on outdated encryption algorithms such as RSA or ECC. Replacing those systems with quantum-resistant technology requires a lot of time, capital, and extensive testing. Post-quantum techniques have greater key lengths and increased computational overhead, affecting performance, particularly on outdated hardware.

To control this transition, companies have to start with proper risk analysis. Companies have to tag the systems handling sensitive or long-term data and have them upgraded initially. Having a clear migration timeline guarantees the process will be seamless. With early execution and adopting hybrid cryptography, companies can phase their systems gradually while being in advance of the quantum attack without sacrificing the security level.

Governments and Global Efforts Toward Quantum Safety

Governments across the globe are actively engaging in countering quantum computing risks. Governments recognize that tomorrow’s encryption must be quantum-resistant. Organizations such as the National Institute of Standards and Technology (NIST) spearhead initiatives globally by conducting the Post-Quantum Cryptography Standardization Process. The process is to identify the best post quantum algorithm to implement worldwide.

Parallely, nations finance research, sponsor academic research, and engage with private technology companies to develop quantum-resistant digital infrastructures. For the effectiveness of these breakthroughs, global cooperation is necessary. Governments need to collaborate in developing transparent policies, raising awareness, and providing education on quantum-safe procedures. These steps will determine the future of secure communications and data protection.

Understanding Post Quantum Encryption Technologies

Post quantum encryption employs post-quantum-resistant methods to encrypt digital information. This is in conjunction with a post quantum algorithm, which protects encrypted information such that no individual, even quantum computers, can access it. Whether it is emails, financial data, or government documents being protected, encryption is an essential aspect of data protection. Companies embracing quantum encryption today will be tomorrow’s leaders.

The Evolution of Cryptography with Post Quantum Cryptography

Post quantum cryptography is the future of secure communication. Traditional cryptographic systems based on problems like factorization are no longer efficient. Post quantum algorithm…

[quantvest]

"Quantum Computing: The Looming Threat to Bitcoin's Security"

Intro

Quantum computing is making headlines, and it's not just for sci-fi fans. You might be wondering how this next-gen tech could affect something as widespread and crucial as Bitcoin. As we venture into the mysterious world of quantum computers, we need to understand the potential impact on our digital assets and why big players in the industry are starting to sound the alarm.

What it is

Quantum computers use qubits, which differ vastly from the traditional bits that power classical computers. This allows them to solve certain mathematical problems much faster than current computers. When it comes to Bitcoin, this matters because its security relies on cryptographic algorithms, like the Elliptic Curve Digital Signature Algorithm (ECDSA). These are complex locks that keep your digital money safe.

Why it matters

Imagine you're storing a treasure in a vault with a combination lock. Right now, traditional computers, which would take eons to guess the combination, can't break this lock. Quantum computers, however, promise a master key. While we're not there yet, these developments may soon threaten the integrity of Blockchain technologies, like Bitcoin. Big financial institutions like BlackRock have started acknowledging this risk, highlighting the urgency for preventive measures.

Examples or breakdown

Technical Threshold: Experts estimate that a quantum computer needs at least 1,500 to 2,000 logical qubits to break a Bitcoin signature. Even then, it would be a challenging task. Currently, the most advanced quantum computers, like Google's "Willow," operate with only 105 qubits.

Industry Warnings: BlackRock, in a regulatory filing, pointed out that quantum computing could eventually jeopardize Bitcoin's cryptographic security. This acknowledgment from a financial giant signifies the growing recognition of this issue.

Ongoing Developments: While Atom Computing is working on 1,000-qubit systems, truly threatening quantum computers are still beyond reach. But with rapid technological progress, how long will they remain so?

Protective Measures: Bitcoin developers are considering plans like a Hard Fork, which would transition Bitcoin addresses to quantum-resistant cryptography. Such a change wouldn't be easy but might become necessary.

User Actions: Bitcoin holders are advised to adopt security measures, like using multi-signature wallets and staying updated with wallet software, to stay ahead of quantum threats.

Tips or how-to

If you're just starting out in the world of cryptocurrency or if you're already invested, here are some beginner-friendly steps to protect your assets:

Monitor advancements in quantum computing and post-quantum cryptography.

Use wallets that support high-security features, such as multi-signature operations.

Stay informed about potential updates or fundamental changes in Bitcoin's cryptographic defenses, such as proposed hard forks.

Summary

Quantum computers aren't knocking on Bitcoin's door just yet, but their potential remains significant. As technology evolves, so must our methods of securing digital currencies. While the threat is not immediate, understanding and preparing for quantum advancements are critical. Investors, developers, and users must stay proactive, ensuring that when the quantum leap does happen, our digital assets remain as secure as ever.

[allyourchoice]

Quantum Computing: Hype or Game-Changer?

Quantum Computing: Hype or the Next Technological Revolution?

Quantum Computing: Hype or Game-Changer?  has become one of the most talked-about innovations in technology today. With promises of solving problems beyond the reach of classical computers, it has captured the attention of scientists, tech giants, governments, and investors alike. But is quantum computing truly the next technological revolution, or does more hype than substance surround it? What Is Quantum Computing? Quantum Computing: Hype or Game-Changer? At its core, quantum computing is a new approach to computation based on the principles of quantum mechanics—the physics of the subatomic world. Unlike classical computers that use bits (0s and 1s), quantum computers use qubits, which can exist in multiple states simultaneously thanks to a property called superposition. Additionally, entanglement allows qubits to be correlated with one another in ways that defy classical logic, enabling exponentially faster calculations for certain problems. Why the Excitement? Quantum computing holds the potential to revolutionize fields such as: Cryptography: Quantum algorithms like Shor’s could break widely-used encryption methods, prompting a shift toward quantum-safe security. Drug Discovery: Simulating molecular interactions at the quantum level could drastically speed up the development of new medicines. Optimization Problems: From supply chains to financial modeling, quantum computing could offer solutions in areas where classical computers hit limits. Companies like IBM, Google, Intel, and startups like Rigetti and IonQ are heavily investing in building practical quantum machines. Governments across the world, especially in the U.S., China, and the EU, have launched national initiatives to stay ahead in this quantum race. The Challenges Despite its promise, quantum computing is still in its infancy. Current systems suffer from error rates, decoherence, and scalability issues. The number of qubits in today’s machines is relatively small, and maintaining stable quantum states is technically demanding. Practical, large-scale quantum computers that outperform classical ones in a wide range of tasks—referred to as quantum advantage—are still years, if not decades, away. Hype vs. Reality While there is undeniable potential, the quantum computing space has also seen its share of overpromises. Terms like “quantum supremacy” have sparked debates and raised public expectations prematurely. Many current applications being explored can often be solved more efficiently using advanced classical algorithms. It’s important to separate short-term hype from long-term promise. Just as classical computing took decades to evolve, quantum computing will require time, research, and investment. Conclusion Quantum Computing: Hype or Game-Changer?�� is not just hype, but it’s not a miracle solution either. It represents a bold step into a new computing paradigm, with vast potential to transform technology and science. However, realizing this future will demand patience, realistic expectations, and continued innovation. For now, it is best viewed as an emerging technology with great promise—one that may redefine our world, but only if we give it the time and resources to mature.   Read the full article

[cybersecurityict]

Quantum Computing Market Size, Share, Analysis, Forecast, and Growth Trends to 2032: North America and Asia-Pacific

The Quantum Computing Market Size was valued at USD 1.03 Billion in 2023 and is expected to reach USD 10.31 Billion by 2032 and grow at a CAGR of 29.1% over the forecast period 2024-2032.

Quantum Computing Market is rapidly evolving, poised to revolutionize industries by delivering unprecedented computational power. With increasing investments from both public and private sectors, the market is witnessing accelerated innovation, especially across the USA and Europe. Leading technology firms and startups are pioneering advancements that promise to unlock new potentials in data analysis, cryptography, and artificial intelligence.

Quantum Computing Market continues to gain momentum as governments and enterprises in the USA and Europe intensify their focus on research and development. Strategic partnerships, increased funding, and robust infrastructure development are key drivers propelling market growth. The rising demand for enhanced processing capabilities to tackle complex problems positions quantum computing as a game-changer in global technology landscapes.

Get Sample Copy of This Report: https://www.snsinsider.com/sample-request/2740 

Market Keyplayers:

IBM (IBM Quantum System One, Qiskit)

D-Wave Quantum Inc. (Advantage Quantum Processor, Leap Quantum Cloud Service)

Microsoft (Azure Quantum, Quantum Development Kit (Q#))

Amazon Web Services (Amazon Braket, Quantum Solutions Lab)

Rigetti Computing (Aspen Series Quantum Processors, Forest Development Kit)

Fujitsu (Digital Annealer, Quantum-Inspired Optimization Services)

Hitachi (Quantum Annealing System, CMOS-Based Quantum Computing)

Toshiba (Quantum Key Distribution (QKD) System, Quantum Cryptography Solutions)

Google (Sycamore Processor, Quantum AI Platform)

Intel (Horse Ridge Cryogenic Controller, Quantum Dot Qubits)

Quantinuum (H-Series Ion Trap Processors, Quantum Origin (QKD))

Huawei (HiQ Cloud Quantum Computing Service, Quantum Computing Simulator)

NEC (Quantum Annealing Cloud Service, Quantum Neural Network Solutions)

Accenture (Quantum Computing Consulting Services, Quantum Impact Simulation Tool)

Nippon Telegraph and Telephone (NTT QKD Platform, Quantum Node Integration)

Bosch (Quantum Sensing Devices, Quantum-Inspired Optimization Tools)

Quantum Computing Inc. (Qatalyst Software, Entropy Quantum Computing Platform)

PsiQuantum (Photon-Based Quantum Processors, Quantum Foundry Services)

Alpine Quantum Technologies GmbH (Ion Trap Qubit Solutions, Quantum Research Platform)

Xanadu (Borealis Quantum Processor, PennyLane Software)

Zapata Computing (Orquestra Platform, Quantum Workflow Automation Tools)

Northrop Grumman (Quantum Sensor Technologies, Advanced Quantum Communication Systems)

Market Analysis

The USA leads in quantum computing R&D funding, supported by initiatives such as the National Quantum Initiative Act.

Europe focuses on collaborative projects under the Quantum Flagship program to foster innovation across member states.

Both regions emphasize talent development and cross-industry collaboration to accelerate commercialization.

Key sectors adopting quantum technologies include finance, healthcare, cybersecurity, and logistics.

Market Trends in the USA and Europe

Surge in public-private partnerships to boost research capabilities and market readiness.

Expansion of quantum hardware and software startups driving competitive innovation.

Increasing government policies promoting quantum technology as a strategic priority.

Growth in quantum-as-a-service platforms enabling easier access for enterprises.

Heightened focus on quantum-safe cryptography to address emerging security challenges.

Market Scope Quantum computing is not just a futuristic concept but a tangible technology transforming multiple industries. In the USA and Europe, the market scope extends beyond pure research—targeting practical applications like drug discovery, financial modeling, and optimization problems. The convergence of cloud-based quantum services and AI integration opens new horizons, ensuring that quantum computing becomes an accessible and scalable solution for businesses aiming to gain competitive advantage.

Forecast Outlook Looking ahead, the quantum computing market in the USA and Europe is set for robust expansion, marked by increasing collaborations and commercialization efforts. As technological barriers are gradually overcome, expect a surge in industry-specific quantum solutions driving efficiency and innovation. The focus will remain on creating scalable quantum systems, expanding the ecosystem, and nurturing a skilled workforce, ensuring that quantum computing transitions from experimental to mainstream.

Access Complete Report: https://www.snsinsider.com/reports/quantum-computing-market-2740 

Conclusion The quantum computing market holds transformative potential for the USA and Europe, positioning these regions as global leaders in next-generation technology. For businesses and investors, this presents an exciting opportunity to harness cutting-edge advancements that will redefine problem-solving and competitive strategies.

About Us:

SNS Insider is one of the leading market research and consulting agencies that dominates the market research industry globally. Our company's aim is to give clients the knowledge they require in order to function in changing circumstances. In order to give you current, accurate market data, consumer insights, and opinions so that you can make decisions with confidence, we employ a variety of techniques, including surveys, video talks, and focus groups around the world.

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[monterplant]

Windows 11’s most important new feature is post-quantum cryptography. Here’s why.

For the first time, new quantum-safe algorithms can be invoked using standard Windows APIs. Continue reading Windows 11’s most important new feature is post-quantum cryptography. Here’s why.