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Protect sensitive communication globally with India’s fully home grown post quantum encrypted instant messaging and collaboration tool - designed for web and mobile, future proofed for today’s government, defence & enterprises.
QVerse is India’s first quantum-safe messaging platform purpose-built for enterprises that demand real resistance against both current cyber threats and quantum-enabled attacks.
Offering intuitive web & mobile access, advanced admin controls, data protection, and remote-wipe, consent-based messaging sharing, containerised security—all powered by NIST-aligned post-quantum algorithms—it beats consumer apps and foreign rivals in trust, control, quantum-safe cryptography and transparency.
** Lattice based cryptography is far more secure than classical RSA, ECC, elliptic-curve cryptography. NIST, USA in 2024 has mandated the algorithm that uses lattice based cryptography and this can’t be hackable by quantum computers. Whereas quantum computers can hack RSA, ECC, and elliptic curve easily in seconds to minutes. (Source: Wikipedia)
QVerse leads as India's first commercial quantum-safe SaaS for regulated sectors, offering complete admin control, end-to-end quantum security, and unlocked access on web and mobile.
Battle-tested and deployed across critical sectors like BFSI and Defence, ensuring real-world reliability and trust.
Advanced admin tools offer full visibility, access management, policy enforcement, and remote wipe capabilities.
Engineered for regulatory-heavy industries with full support for data residency, audits, and security certifications.
Seamless, fully-featured apps for Android, iOS, and web—independent of any third-party ecosystem.
Supports SaaS, private cloud, and on-premise deployment to match your IT and compliance preferences.
Proudly built in India with quantum-grade tech - trusted by enterprises across India, Europe, and the Middle East.
From BFSI, Healthcare, and Telecom to Defence, Critical Infrastructure, and Energy, QVerse delivers secure and compliant communication infrastructure trusted across India, USA, Middle East, and Europe.
From quantum-safe messaging to granular device management, QVerse is built for enterprise needs. Secure your data, control user access, and enable seamless collaboration.
Deployable via SaaS, cloud, or app stores, QVerse offers quantum-safe encrypted messaging. Admins get full policy control while users enjoy a seamless, secure experience.
Deploy via SaaS or private cloud or marketplace (Playstore or Apple store) or on-premises.
Onboard your users securely with one-time password links.
All messaging is encrypted with AES-256 plus post‑quantum lattice KEM (CRYSTALS‑Kyber).
Admins control policies, users, device security, and reports.
A seamless web/mobile experience with enterprise-grade security.
Experience the power of India’s first quantum‑safe messaging system.
It uses NIST‑approved post‑quantum algorithms (e.g., CRYSTALS‑Kyber) toresist attacks from quantum computers—unlike RSA or ECC, which are vulnerable.
Unlike consumer apps, QVerse offers enterprise-grade admin controls (remote wipe, DLP, audit), quantum-safe encryption, and India-based SaaS deployment with local and global compliance.
Yes—full-featured native apps on mobile and any modern browser, fullysynced.
Admin can erase all app data remotely andrevoke access instantly.
Yes. Admin sets granular file/media sharing rules via policies.
Yes. Private cloud/on‑premises options are available, especially fordefence or regulated sectors.
Currently text and file collaboration; voice/video calling is in the roadmap.
No—fully compliant with data residency, hosted within India unless privatecloud deployed.
Lattice-based cryptography is a branch of post-quantum cryptography built on the complexity of mathematical puzzles called lattice problems, like Short Integer Solution (SIS) and Learning With Errors (LWE). These problems are considered so tough that not even quantum computers can crack them. First introduced by Ajtai in 1996 and later developed further by Regev in 2005, this approach now underpins advanced post-quantum algorithms like NTRU and CRYSTALS-Kyber.
Traditional encryption methods such as RSA and ECC are vulnerable to quantum attacks—specifically from Shor’s algorithm, which can break them with ease. In contrast, lattice-based problems like SIS and LWE stay hard even in the face of quantum computing. That’s why many experts consider these systems genuinely quantum-safe and future-proof.
Among the most widely adopted lattice-based schemes are NTRU and CRYSTALS-Kyber. NTRU is based on polynomial rings and the SIS problem, while Kyber is a key encapsulation mechanism (KEM) that’s part of NIST’s post-quantum cryptography standardization push. Both are designed to be secure even against quantum adversaries.
WhatsApp is NOT quantum safe. WhatsApp uses Curve25519 elliptic curve cryptography (ECC), which—while strong by today’s standards—is breakable by quantum computers using Shor’s algorithm. It hasn't yet integrated any lattice-based cryptography or hybrid post-quantum encryption.
Signal uses X25519 (another ECC method) and uses its own PQDXH protocol to support post-quantum cryptography and this is at the level 2 security level, whereas other players, such as Apple iMessage use level 3 security (still susceptible to break by quantum computes) and QNu Labs’ QVerse (unhackable by quantum computers) uses 100% NIST compliance PQC algorithms with future advanced end-to-end quantum-security. This means that once large-scale quantum computers are viable, Signal’s encryption protocol would be at risk.
No, these messaging and collaboration apps still depend on classical ECC and standard TLS protocols. None of them currently implement quantum-safe encryption methods like lattice-based schemes or hybrid models.
Slack's Current Encryption in Details (Source: Slack Security)
Data in transit: Slack uses TLS 1.2 protocols to encrypt data transmitted between users and the Slack servers.
Data at rest: Slack encrypts stored data using AES-256 encryption.
No end-to-end encryption: This means that Slack, as a service provider, can access and potentially decrypt user messages, unlike end-to-end encrypted messaging apps where only the sender and receiver can decrypt the message
To some extent. iMessage relies on ECC encryption and hasn’t adopted lattice-based KEMs. Apple uses PQ3 (Level 3 Security) to be compliant with PQC to some extent with PQC key establishment, and ongoing PQC rekeying. Unless Apple makes a shift, it won’t be secure in the quantum computing world.
GB Messenger, being a modified version of WhatsApp, uses the same Curve25519 ECC encryption. Since it hasn't introduced any post-quantum cryptography, it faces the same vulnerabilities as its parent app when quantum threats arrive.
QVerse follows a tiered subscription model tailored to enterprise needs, offering per-user or per-group pricing. Volume licensing and regulatory bundle options are available for BFSI, legal, defense, PSU, and other clients. Custom integrations or audit/reporting modules may carry a one-time setup fee. Contact us for a demo and quote based on your deployment scale.
Qverse isn’t just another encrypted chat tool—it’s designed for sensitive environments like defense, BFSI, pharma, and government. Here’s what sets it apart:
Other apps secure messages in transit. QVerse locks them before, during, and after communication—and enforces it with granular admin controls.
Because your existing encryption has an expiry date. ECC and RSA, used by 90% of messaging tools, are vulnerable to quantum decryption. Nation-state and APT actors are already harvesting encrypted data today to break it later (Y2Q risk).
Across industries, breaches show secure-looking 1:1 or group messages are often intercepted:
QVerse protects your people and teams from interception, data exfiltration, and improper access—even from internal or external adversaries.
What’s at stake across sectors:
QVerse gives youtrue E2E quantum encryption using NIST-standardized algorithms (e.g., Kyber, NTRU, Lattice). Its differentiators are:
Given Regulatory compliance with upcoming legislation demanding post quantum readiness, QVerse is a must for every organization. It’s future-proof, zero-trust by design, and enterprise-ready.
Algorithms like RSA-2048 and ECC-256 are mathematically breakable by Shor’s algorithm on a large enough quantum computer. Even before that, side-channel attacks and hardware-based key theft were growing. Data that’s encrypted today could be decrypted tomorrow—unless your encryption remains resistant even under quantum conditions, like with Kyber or LWE-based lattice cryptography.
Y2Q Risk stands for "Years to Quantum" risk — the projected point in time when quantum computers become powerful enough to break the encryption systems that currently safeguard our digital world. Unlike classical computers, quantum machines can solve certain problems exponentially faster, including factoring large prime numbers, which threaten widely used cryptographic protocols like RSA and ECC (Elliptic Curve Cryptography).
The significance of Y2Q risk lies in its potential to cripple global cybersecurity. Most of today’s digital infrastructure—banking systems, government databases, internet communications, cloud platforms, and even defense operations—rely on encryption that quantum computers could eventually dismantle.
Here’s why it demands immediate attention:
Preparing for the Inevitable
While Y2Q isn’t here yet, estimates range from 7 to 15 years before large-scale quantum computers emerge. That may sound like a distant future, but considering the time it takes to upgrade cryptographic infrastructure at scale, the clock is already ticking.
Governments, enterprises, and cybersecurity leaders are now investing in quantum-safe cryptography—algorithms designed to resist attacks from quantum computers. This proactive shift is called crypto-agility, and it’s essential for resilience in a post-quantum world.
Final Thought
Y2Q risk is not science fiction—it's a real and growing threat. Just like Y2K forced a global software update, Y2Q demands a global encryption upgrade. The sooner organizations assess their cryptographic posture and begin transitioning to quantum-resistant technologies, the better prepared they will be for the quantum future.
The Quantum Apocalypse is a term used to describe a future scenario where quantum computers become so powerful that they can break the encryption standards that currently secure the internet, banking systems, defense communications, and nearly every digital transaction we rely on today.
It’s not science fiction—it’s a looming cybersecurity crisis that experts warn could arrive within the next 10 to 15 years, or possibly sooner. The threat is serious enough that governments, defense agencies, and Fortune 500 companies are already taking preventive action.
Q-Day refers to the future date when a quantum computer becomes powerful enough to break current public-key encryption systems like RSA, ECC (Elliptic Curve Cryptography), and DH (Diffie-Hellman). On this day, the digital security infrastructure that protects our internet, banking, government, healthcare, and defense communications could be rendered obsolete.
The word “apocalypse” isn’t just dramatic—it reflects the sweeping, global impact of such a quantum breakthrough:
The key culprit is Shor’s Algorithm, a quantum algorithm that can factor large numbers exponentially faster than classical algorithms. This ability strikes at the heart of RSA and other public-key cryptosystems, which rely on the difficulty of factoring to remain secure.
Once a sufficiently powerful quantum computer is built—often estimated at needing thousands of stable qubits—the doors open for this kind of catastrophic decryption.