top of page

Preparing for Q-Day: Vodafone and IBM’s Quantum-Safe Cryptography Proof of Concept Explained

Writer: Kaixuan RenKaixuan Ren
Vodafone and IBM Join Forces to Future-Proof Cybersecurity with Quantum-Safe Cryptography
As the digital world rapidly evolves, the emergence of quantum computing poses a transformative yet disruptive force across industries. With its unprecedented computational power, quantum technology holds the potential to revolutionize fields such as medicine, finance, and artificial intelligence. However, this technological leap also threatens to dismantle the very cryptographic protocols that form the bedrock of modern cybersecurity. In anticipation of this paradigm shift, Vodafone and IBM have announced a groundbreaking collaboration to integrate Quantum-Safe Cryptography into Vodafone's security infrastructure — a proactive step towards safeguarding digital communications in a post-quantum era.

The partnership, unveiled at Mobile World Congress 2025 (MWC25) in Barcelona, aims to protect millions of Vodafone users by embedding IBM's Quantum Safe technology into Vodafone's widely used Secure Net service. This initiative positions Vodafone among the first telecommunications giants to adopt Post-Quantum Cryptography (PQC) — a vital measure to counter the future threat of quantum-enabled cyberattacks.

The Quantum Computing Threat: Redefining Cybersecurity Risks
Quantum computing, still in its experimental stages, represents one of the most disruptive technologies of the 21st century. Unlike classical computers, which process data using binary bits (0s and 1s), quantum computers leverage qubits — units that can exist simultaneously in multiple states due to the principles of superposition and entanglement. This capability enables quantum machines to solve highly complex problems exponentially faster than traditional computers.

While this breakthrough holds immense promise for industries such as drug discovery, logistics, and climate modeling, it simultaneously poses one of the gravest cybersecurity risks in history. Many widely used encryption protocols — including RSA (Rivest-Shamir-Adleman) and ECC (Elliptic Curve Cryptography) — rely on mathematical problems that are infeasible for classical computers to solve in any reasonable timeframe. However, algorithms like Shor's algorithm would allow quantum computers to break these encryption schemes in mere seconds.

How Quantum Computers Threaten Encryption
Encryption Algorithm	Classical Security Estimate	Quantum Security Estimate	Vulnerability Status
RSA-2048	10¹⁵ years	10-20 seconds	Vulnerable
ECC-256	10¹⁸ years	20-30 seconds	Vulnerable
AES-128	2¹²⁸ operations	2⁶⁴ operations	Vulnerable
AES-256	2²⁵⁶ operations	2¹²⁸ operations	Quantum-Safe (For Now)
SHA-256	Secure (Classical)	Secure (Quantum with larger key sizes)	Secure with Modifications
The transition from classical cryptography to quantum-resistant encryption is no longer a distant challenge — it is a pressing necessity. Security experts warn of a growing phenomenon known as "Harvest Now, Decrypt Later" (HNDL), where malicious actors steal encrypted data today in anticipation of decrypting it with future quantum computers.

Luke Ibbetson, Vodafone's Head of Research & Development, emphasized the urgency of addressing this looming threat:

"Quantum computing could have many societal benefits such as modeling new medicines and optimizing advanced digital networks. But on the other hand, it could be used to undermine the cryptographic principles that the internet relies on today. That is why Vodafone and IBM are working together with other partners to get ahead of the curve."

Vodafone Secure Net: An Established Digital Shield
Launched in 2013, Vodafone's Secure Net service has become a cornerstone of the company's digital security ecosystem, offering millions of users seamless protection against malware, phishing attacks, identity theft, and fraud across its fixed and mobile networks. Unlike conventional security software that operates at the device level, Secure Net integrates directly into Vodafone's network infrastructure, delivering cloud-based, zero-touch protection without requiring additional installations.

Secure Net Coverage
Feature	Description	Coverage
Anti-Phishing	Blocks malicious websites	Mobile + Fixed Networks
Malware Protection	Scans and blocks infected websites	Mobile + Fixed Networks
Identity Theft Alerts	Detects suspicious login attempts	Mobile Networks
Parental Controls	Website filtering for minors	Mobile + Fixed Networks
Real-Time Notifications	Alerts on detected threats	Mobile + Fixed Networks
With millions of users across 11 European countries, Secure Net has become a vital digital guardian. However, the accelerating pace of cyber threats — compounded by the impending quantum computing era — necessitates a forward-looking overhaul of its encryption infrastructure.

Quantum-Safe Cryptography: The Vodafone-IBM Proof of Concept
At the heart of Vodafone and IBM's collaboration lies the Proof of Concept (PoC), which integrates IBM's Quantum Safe Cryptography solutions into Secure Net’s existing encryption systems. The PoC is a pioneering demonstration of how post-quantum algorithms can be embedded into commercial cybersecurity services without disrupting legacy infrastructure.

IBM’s cryptography experts co-developed two of the four PQC algorithms selected by the U.S. National Institute of Standards and Technology (NIST) in 2024 as part of its global effort to standardize quantum-resistant encryption:

Algorithm Name	Encryption Type	NIST Standardization Stage	Co-Developer
CRYSTALS-Kyber	Key Exchange	Finalist	IBM
CRYSTALS-Dilithium	Digital Signatures	Finalist	IBM
Falcon	Digital Signatures	Finalist	MIT
SPHINCS+	Digital Signatures	Finalist	IBM + Other
The PoC enables Vodafone to inventory cryptographic assets, identify vulnerable systems, and progressively migrate to post-quantum cryptographic protocols. This proactive approach mitigates the risk of future Q-Day breaches while minimizing disruption to ongoing services.

Lory Thorpe, Quantum Safe Industry Lead at IBM, explained the strategic importance of the project:

"As a pioneer in quantum-safe cryptography and solutions, IBM is proud to expand our collaboration with Vodafone to help protect its customers from anticipated quantum risks. It’s crucial for organizations to implement post-quantum cryptography, and Vodafone has led by example as an early adopter."

The GSMA Quantum-Safe Task Force: An Industry-Wide Initiative
Vodafone and IBM’s collaboration extends beyond their bilateral partnership. Both companies are founding members of the GSMA Post-Quantum Telco Network Task Force, an industry coalition established in 2022 to accelerate the adoption of quantum-safe cryptographic standards across global telecom networks.

The task force promotes three pillars of quantum readiness:

Cryptographic Inventory – Mapping current cryptographic methods used across infrastructure.
Quantum Risk Assessment – Identifying vulnerable systems and data flows.
Quantum-Safe Migration Plans – Deploying quantum-resistant algorithms.
Challenges Ahead: Performance, Compatibility, and Standardization
Despite its promise, the transition to quantum-safe cryptography presents several hurdles:

Challenge	Description	Potential Solution
Performance Overhead	PQC algorithms often require higher computational resources	Hardware acceleration + optimization
Backward Compatibility	Ensuring legacy systems support new cryptographic protocols	Hybrid cryptography systems
Standardization Lag	PQC standards are still under development by NIST and ETSI	Industry collaboration (GSMA Task Force)
Vodafone’s proactive engagement with IBM and GSMA signals its determination to lead the industry in addressing these challenges head-on.

Conclusion: A Blueprint for the Quantum-Safe Future
The collaboration between Vodafone and IBM marks a critical turning point in the evolution of digital security. By embedding Quantum-Safe Cryptography into its Secure Net service, Vodafone is not only protecting its customers but setting a benchmark for the broader telecommunications industry.

As the dawn of quantum computing draws closer, the proactive steps taken today will define the resilience of global digital infrastructure in the decades to come. While quantum computers promise transformative benefits, their disruptive potential demands urgent action from governments, businesses, and technology providers alike.

For more expert insights on how emerging technologies like quantum computing, AI, and cybersecurity are reshaping the global landscape, follow Dr. Shahid Masood and the expert team at 1950.ai — a leading voice in predictive artificial intelligence and digital security. Stay connected with 1950.ai for in-depth perspectives on the next frontier of technological innovation.

As the digital world rapidly evolves, the emergence of quantum computing poses a transformative yet disruptive force across industries. With its unprecedented computational power, quantum technology holds the potential to revolutionize fields such as medicine, finance, and artificial intelligence. However, this technological leap also threatens to dismantle the very cryptographic protocols that form the bedrock of modern cybersecurity. In anticipation of this paradigm shift, Vodafone and IBM have announced a groundbreaking collaboration to integrate Quantum-Safe Cryptography into Vodafone's security infrastructure — a proactive step towards safeguarding digital communications in a post-quantum era.


The partnership, unveiled at Mobile World Congress 2025 (MWC25) in Barcelona, aims to protect millions of Vodafone users by embedding IBM's Quantum Safe technology into Vodafone's widely used Secure Net service. This initiative positions Vodafone among the first telecommunications giants to adopt Post-Quantum Cryptography (PQC) — a vital measure to counter the future threat of quantum-enabled cyberattacks.


The Quantum Computing Threat: Redefining Cybersecurity Risks

Quantum computing, still in its experimental stages, represents one of the most disruptive technologies of the 21st century. Unlike classical computers, which process data using binary bits (0s and 1s), quantum computers leverage qubits — units that can exist simultaneously in multiple states due to the principles of superposition and entanglement. This capability enables quantum machines to solve highly complex problems exponentially faster than traditional computers.


While this breakthrough holds immense promise for industries such as drug discovery, logistics, and climate modeling, it simultaneously poses one of the gravest cybersecurity risks in history. Many widely used encryption protocols — including RSA (Rivest-Shamir-Adleman) and ECC (Elliptic Curve Cryptography) — rely on mathematical problems that are infeasible for classical computers to solve in any reasonable timeframe. However, algorithms like Shor's algorithm would allow quantum computers to break these encryption schemes in mere seconds.


How Quantum Computers Threaten Encryption

Encryption Algorithm

Classical Security Estimate

Quantum Security Estimate

Vulnerability Status

RSA-2048

10¹⁵ years

10-20 seconds

Vulnerable

ECC-256

10¹⁸ years

20-30 seconds

Vulnerable

AES-128

2¹²⁸ operations

2⁶⁴ operations

Vulnerable

AES-256

2²⁵⁶ operations

2¹²⁸ operations

Quantum-Safe (For Now)

SHA-256

Secure (Classical)

Secure (Quantum with larger key sizes)

Secure with Modifications

The transition from classical cryptography to quantum-resistant encryption is no longer a distant challenge — it is a pressing necessity. Security experts warn of a growing phenomenon known as "Harvest Now, Decrypt Later" (HNDL), where malicious actors steal encrypted data today in anticipation of decrypting it with future quantum computers.


Luke Ibbetson, Vodafone's Head of Research & Development, emphasized the urgency of addressing this looming threat:

"Quantum computing could have many societal benefits such as modeling new medicines and optimizing advanced digital networks. But on the other hand, it could be used to undermine the cryptographic principles that the internet relies on today. That is why Vodafone and IBM are working together with other partners to get ahead of the curve."

Vodafone Secure Net: An Established Digital Shield

Launched in 2013, Vodafone's Secure Net service has become a cornerstone of the company's digital security ecosystem, offering millions of users seamless protection against malware, phishing attacks, identity theft, and fraud across its fixed and mobile networks. Unlike conventional security software that operates at the device level, Secure Net integrates directly into Vodafone's network infrastructure, delivering cloud-based, zero-touch protection without requiring additional installations.


Secure Net Coverage

Feature

Description

Coverage

Anti-Phishing

Blocks malicious websites

Mobile + Fixed Networks

Malware Protection

Scans and blocks infected websites

Mobile + Fixed Networks

Identity Theft Alerts

Detects suspicious login attempts

Mobile Networks

Parental Controls

Website filtering for minors

Mobile + Fixed Networks

Real-Time Notifications

Alerts on detected threats

Mobile + Fixed Networks

With millions of users across 11 European countries, Secure Net has become a vital digital guardian. However, the accelerating pace of cyber threats — compounded by the impending quantum computing era — necessitates a forward-looking overhaul of its encryption infrastructure.


Vodafone and IBM Join Forces to Future-Proof Cybersecurity with Quantum-Safe Cryptography
As the digital world rapidly evolves, the emergence of quantum computing poses a transformative yet disruptive force across industries. With its unprecedented computational power, quantum technology holds the potential to revolutionize fields such as medicine, finance, and artificial intelligence. However, this technological leap also threatens to dismantle the very cryptographic protocols that form the bedrock of modern cybersecurity. In anticipation of this paradigm shift, Vodafone and IBM have announced a groundbreaking collaboration to integrate Quantum-Safe Cryptography into Vodafone's security infrastructure — a proactive step towards safeguarding digital communications in a post-quantum era.

The partnership, unveiled at Mobile World Congress 2025 (MWC25) in Barcelona, aims to protect millions of Vodafone users by embedding IBM's Quantum Safe technology into Vodafone's widely used Secure Net service. This initiative positions Vodafone among the first telecommunications giants to adopt Post-Quantum Cryptography (PQC) — a vital measure to counter the future threat of quantum-enabled cyberattacks.

The Quantum Computing Threat: Redefining Cybersecurity Risks
Quantum computing, still in its experimental stages, represents one of the most disruptive technologies of the 21st century. Unlike classical computers, which process data using binary bits (0s and 1s), quantum computers leverage qubits — units that can exist simultaneously in multiple states due to the principles of superposition and entanglement. This capability enables quantum machines to solve highly complex problems exponentially faster than traditional computers.

While this breakthrough holds immense promise for industries such as drug discovery, logistics, and climate modeling, it simultaneously poses one of the gravest cybersecurity risks in history. Many widely used encryption protocols — including RSA (Rivest-Shamir-Adleman) and ECC (Elliptic Curve Cryptography) — rely on mathematical problems that are infeasible for classical computers to solve in any reasonable timeframe. However, algorithms like Shor's algorithm would allow quantum computers to break these encryption schemes in mere seconds.

How Quantum Computers Threaten Encryption
Encryption Algorithm	Classical Security Estimate	Quantum Security Estimate	Vulnerability Status
RSA-2048	10¹⁵ years	10-20 seconds	Vulnerable
ECC-256	10¹⁸ years	20-30 seconds	Vulnerable
AES-128	2¹²⁸ operations	2⁶⁴ operations	Vulnerable
AES-256	2²⁵⁶ operations	2¹²⁸ operations	Quantum-Safe (For Now)
SHA-256	Secure (Classical)	Secure (Quantum with larger key sizes)	Secure with Modifications
The transition from classical cryptography to quantum-resistant encryption is no longer a distant challenge — it is a pressing necessity. Security experts warn of a growing phenomenon known as "Harvest Now, Decrypt Later" (HNDL), where malicious actors steal encrypted data today in anticipation of decrypting it with future quantum computers.

Luke Ibbetson, Vodafone's Head of Research & Development, emphasized the urgency of addressing this looming threat:

"Quantum computing could have many societal benefits such as modeling new medicines and optimizing advanced digital networks. But on the other hand, it could be used to undermine the cryptographic principles that the internet relies on today. That is why Vodafone and IBM are working together with other partners to get ahead of the curve."

Vodafone Secure Net: An Established Digital Shield
Launched in 2013, Vodafone's Secure Net service has become a cornerstone of the company's digital security ecosystem, offering millions of users seamless protection against malware, phishing attacks, identity theft, and fraud across its fixed and mobile networks. Unlike conventional security software that operates at the device level, Secure Net integrates directly into Vodafone's network infrastructure, delivering cloud-based, zero-touch protection without requiring additional installations.

Secure Net Coverage
Feature	Description	Coverage
Anti-Phishing	Blocks malicious websites	Mobile + Fixed Networks
Malware Protection	Scans and blocks infected websites	Mobile + Fixed Networks
Identity Theft Alerts	Detects suspicious login attempts	Mobile Networks
Parental Controls	Website filtering for minors	Mobile + Fixed Networks
Real-Time Notifications	Alerts on detected threats	Mobile + Fixed Networks
With millions of users across 11 European countries, Secure Net has become a vital digital guardian. However, the accelerating pace of cyber threats — compounded by the impending quantum computing era — necessitates a forward-looking overhaul of its encryption infrastructure.

Quantum-Safe Cryptography: The Vodafone-IBM Proof of Concept
At the heart of Vodafone and IBM's collaboration lies the Proof of Concept (PoC), which integrates IBM's Quantum Safe Cryptography solutions into Secure Net’s existing encryption systems. The PoC is a pioneering demonstration of how post-quantum algorithms can be embedded into commercial cybersecurity services without disrupting legacy infrastructure.

IBM’s cryptography experts co-developed two of the four PQC algorithms selected by the U.S. National Institute of Standards and Technology (NIST) in 2024 as part of its global effort to standardize quantum-resistant encryption:

Algorithm Name	Encryption Type	NIST Standardization Stage	Co-Developer
CRYSTALS-Kyber	Key Exchange	Finalist	IBM
CRYSTALS-Dilithium	Digital Signatures	Finalist	IBM
Falcon	Digital Signatures	Finalist	MIT
SPHINCS+	Digital Signatures	Finalist	IBM + Other
The PoC enables Vodafone to inventory cryptographic assets, identify vulnerable systems, and progressively migrate to post-quantum cryptographic protocols. This proactive approach mitigates the risk of future Q-Day breaches while minimizing disruption to ongoing services.

Lory Thorpe, Quantum Safe Industry Lead at IBM, explained the strategic importance of the project:

"As a pioneer in quantum-safe cryptography and solutions, IBM is proud to expand our collaboration with Vodafone to help protect its customers from anticipated quantum risks. It’s crucial for organizations to implement post-quantum cryptography, and Vodafone has led by example as an early adopter."

The GSMA Quantum-Safe Task Force: An Industry-Wide Initiative
Vodafone and IBM’s collaboration extends beyond their bilateral partnership. Both companies are founding members of the GSMA Post-Quantum Telco Network Task Force, an industry coalition established in 2022 to accelerate the adoption of quantum-safe cryptographic standards across global telecom networks.

The task force promotes three pillars of quantum readiness:

Cryptographic Inventory – Mapping current cryptographic methods used across infrastructure.
Quantum Risk Assessment – Identifying vulnerable systems and data flows.
Quantum-Safe Migration Plans – Deploying quantum-resistant algorithms.
Challenges Ahead: Performance, Compatibility, and Standardization
Despite its promise, the transition to quantum-safe cryptography presents several hurdles:

Challenge	Description	Potential Solution
Performance Overhead	PQC algorithms often require higher computational resources	Hardware acceleration + optimization
Backward Compatibility	Ensuring legacy systems support new cryptographic protocols	Hybrid cryptography systems
Standardization Lag	PQC standards are still under development by NIST and ETSI	Industry collaboration (GSMA Task Force)
Vodafone’s proactive engagement with IBM and GSMA signals its determination to lead the industry in addressing these challenges head-on.

Conclusion: A Blueprint for the Quantum-Safe Future
The collaboration between Vodafone and IBM marks a critical turning point in the evolution of digital security. By embedding Quantum-Safe Cryptography into its Secure Net service, Vodafone is not only protecting its customers but setting a benchmark for the broader telecommunications industry.

As the dawn of quantum computing draws closer, the proactive steps taken today will define the resilience of global digital infrastructure in the decades to come. While quantum computers promise transformative benefits, their disruptive potential demands urgent action from governments, businesses, and technology providers alike.

For more expert insights on how emerging technologies like quantum computing, AI, and cybersecurity are reshaping the global landscape, follow Dr. Shahid Masood and the expert team at 1950.ai — a leading voice in predictive artificial intelligence and digital security. Stay connected with 1950.ai for in-depth perspectives on the next frontier of technological innovation.

Quantum-Safe Cryptography: The Vodafone-IBM Proof of Concept

At the heart of Vodafone and IBM's collaboration lies the Proof of Concept (PoC), which integrates IBM's Quantum Safe Cryptography solutions into Secure Net’s existing encryption systems. The PoC is a pioneering demonstration of how post-quantum algorithms can be embedded into commercial cybersecurity services without disrupting legacy infrastructure.


IBM’s cryptography experts co-developed two of the four PQC algorithms selected by the U.S. National Institute of Standards and Technology (NIST) in 2024 as part of its global effort to standardize quantum-resistant encryption:

Algorithm Name

Encryption Type

NIST Standardization Stage

Co-Developer

CRYSTALS-Kyber

Key Exchange

Finalist

IBM

CRYSTALS-Dilithium

Digital Signatures

Finalist

IBM

Falcon

Digital Signatures

Finalist

MIT

SPHINCS+

Digital Signatures

Finalist

IBM + Other

The PoC enables Vodafone to inventory cryptographic assets, identify vulnerable systems, and progressively migrate to post-quantum cryptographic protocols. This proactive approach mitigates the risk of future Q-Day breaches while minimizing disruption to ongoing services.

Lory Thorpe, Quantum Safe Industry Lead at IBM, explained the strategic importance of the project:

"As a pioneer in quantum-safe cryptography and solutions, IBM is proud to expand our collaboration with Vodafone to help protect its customers from anticipated quantum risks. It’s crucial for organizations to implement post-quantum cryptography, and Vodafone has led by example as an early adopter."

The GSMA Quantum-Safe Task Force: An Industry-Wide Initiative

Vodafone and IBM’s collaboration extends beyond their bilateral partnership. Both companies are founding members of the GSMA Post-Quantum Telco Network Task Force, an industry coalition established in 2022 to accelerate the adoption of quantum-safe cryptographic standards across global telecom networks.


The task force promotes three pillars of quantum readiness:

  1. Cryptographic Inventory – Mapping current cryptographic methods used across infrastructure.

  2. Quantum Risk Assessment – Identifying vulnerable systems and data flows.

  3. Quantum-Safe Migration Plans – Deploying quantum-resistant algorithms.


Challenges Ahead: Performance, Compatibility, and Standardization

Despite its promise, the transition to quantum-safe cryptography presents several hurdles:

Challenge

Description

Potential Solution

Performance Overhead

PQC algorithms often require higher computational resources

Hardware acceleration + optimization

Backward Compatibility

Ensuring legacy systems support new cryptographic protocols

Hybrid cryptography systems

Standardization Lag

PQC standards are still under development by NIST and ETSI

Industry collaboration (GSMA Task Force)

Vodafone’s proactive engagement with IBM and GSMA signals its determination to lead the industry in addressing these challenges head-on.


A Blueprint for the Quantum-Safe Future

The collaboration between Vodafone and IBM marks a critical turning point in the evolution of digital security. By embedding Quantum-Safe Cryptography into its Secure Net service, Vodafone is not only protecting its customers but setting a benchmark for the broader telecommunications industry.


As the dawn of quantum computing draws closer, the proactive steps taken today will define the resilience of global digital infrastructure in the decades to come. While quantum computers promise transformative benefits, their disruptive potential demands urgent action from governments, businesses, and technology providers alike.


For more expert insights on how emerging technologies like quantum computing, AI, and cybersecurity are reshaping the global landscape, follow Dr. Shahid Masood and the expert team at 1950.ai 

Comments


bottom of page