Technology Inceptions: HP ProBook 445 G6 Business Laptop launched  |  Rajagiri Round Table: 51st Rajagiri Round Table:Listening Skills Should Become Part of Curriculum  |  National Edu News: India Launches NISHTHA, the largest Teachers' Training Programme in the World  |  Technology Inceptions: Black Shark to launch new phones  |  Science Innovations: Designer algae to produce fuels   |  Parent Interventions: For a stronger father-child relationship  |  Parent Interventions: Vitamin D Deficiency in Middle Childhood Can Cause Aggressive Behavior  |  Technology Inceptions: Flipkart revamps seller onboarding process  |  Technology Inceptions: New range of Nokia Mesh Wi-Fi Router  |  Teacher Insights: Vacation to reduce cardiovascular diseases  |  Science Innovations: Chemo drug with fewer side effects  |  National Edu News: Kala Utsav 2019 Guidelines Released by MHRD  |  Education Information: Chandrayaan-2 Precisely Inserted in Defined Orbit  |  Health Monitor: Fascination for Slimness Has Racial Origins, Not Linked to Health  |  Parent Interventions: Online Brain Games Help in Multi-Tasking at Old Age   |  
  • Pallikkutam Magazine
  • Companion Magazine
  • Mentor
  • Smart Board
  • Pallikkutam Publications

June 21, 2018 Thursday 03:40:23 PM IST

Protecting Communications from Hackers

Technology Inceptions

Heslington: Researchers at the University of York have shown that a new quantum-based procedure for distributing secure information along communication lines could be successful in preventing serious security breaches.

Securing highly sensitive information, such as hospital records and bank details, is a major challenge faced by companies and organisation throughout the world.

Standard communication systems are vulnerable to hacks, where encrypted information can be intercepted and copied. It is currently possible for hackers to make a copy of transmitted information, but it would not be possible to read it without a method of breaking the encryption that protects it.

This means that information might be secure for a period of time, but there is no guarantee that it would be secure forever, as supercomputers in development could potentially decipher particular encryptions in the future.


Researchers at York investigated a prototype, based on the principles of quantum mechanics, that has the potential to side-step the vulnerabilities of current communications, but also allow information to be secure in the future.

Dr Cosmo Lupo, from the University of York's Department of Computer Science, said: "Quantum mechanics has come a long way, but we are still faced with significant problems that have to be overcome with further experimentation.

"One such problem is that a hacker can attack the electronic devices used for information transmission by jamming the detectors that are used to collect and measure the photons that carries information. 

Instead of relying on possibly compromised electronic components at the point at which information needs to be detected and read, the researchers found that if the untrusted detectors existed at a separate point in the communications - somewhere between the sender and receiver -- the communication was far more secure.


The detector would receive a combination of two signals, one from the sender and one from the receiver. The detector would only be able to read the result of this combined signal, but not its component parts.

Dr Lupo said: "In our work, not only have we provided a first rigorous mathematical proof that this 'detector- independent' design works, but we have also considered a scheme that is compatible with existing optical fibre communication networks.

"In principle our proposal can allow for the exchange of unbreakable codes across the internet without major changes in the actual infrastructure.

"We are still at prototype stage, but by finding ways to reduce the cost of these systems, we are that much closer to making quantum communications a reality."


The research is funded by the EPSRC Quantum Communications hub and by Quantum Innovation Center Qubiz, and published in the journal Physical Review Letters.

(Indebted to various sources)


Comments