qVortex

The global proliferation of communication devices and the rapid expansion of the IoT means that privacy and sensitive data are more exposed than ever.
qVortex technologies provide the highest level of security at a fraction of the processor and power burdens required by other technologies.
We offer a fully secured future in all ecosystems, for everyone, on all devices

Who we are

A company composed of successful IT security experts, experienced business professionals, entrepreneurs, PhD researchers and highly experienced engineers specializing in developing algorithms and groundbreaking, innovative game-changing technologies.

What we do

Develop and implement various breakthrough, proprietary, cutting-edge technologies from the makeup of foundational encryption and compression. We enhance the way we all live, work, learn and communicate.

Our solutions

Offer exceptional performance improvements, while reducing overall infrastructure requirements and overheads. We are fully compliant with all existing industry standards.

Challenges facing the IT Security Industry

Data, information and content security have become a top priority across industries and in board rooms
Current global events have exposed today's security standards as vulnerable
It is neccessary to keep up with the challenges of Quantum Computing
The Industry demands for the development and implementation of better, new security measures

Security and privacy obstacles with information and data delivery

All content produced, transferred and stored is exposed. Limiting this exposure it critical.
A growing volume of data is created in or transferred to clouds, increasing vulnerability.
Internet of things (IoT)
- Significant new innovations have spawned a new IoT ecosystem for the transfer data from smart homes and cities, medical/health facilities as well as fitness and diet tracking programs.
- IoT devices are almost exclusively small, with very low processing power, precluding current encryption standards.
The proliferation of IoT devices for industrial, corporate and private use is creating massive security exposures. Each part of the ecosystem is evolving but not how we secure it.

Next-gen Encryption

A combination of unprecedented speed with the absolute highest security levels

Meets the most demanding expectations of our time

Our low power usage and consumption allows qX Encryption to bring a new, higher level of security to the smallest devices of the IoT

No need for adoption of new standards

qX Encryption seamlessly integrates within all existing industry standards

Encrypting and Decrypting with negligible overhead

The lightweight components of our encryption provides for these advancements

Efficient and energy saving

Our code is lightweight and requires minimal processing power, while executing supreme levels of randomness

Scalability and Parameterization

QVORTEX CL ENCRYPTION SPEED VS AES

QVORTEX ULTIMATE LIGHTWEIGHT ENCRYPTION

Qvortex is Quantum Ready!

The combination of different encryption techniques allows qX to apply an arbitrary key structure, fully resistant to Quantum Computing challenges. qVortex hybrid ciphers adapts to attacks on the fly, even from the most advanced and sophisticated attackers.

It is scientifically proven that when it comes to quantum adversaries, two iterated block ciphers are more difficult to attack than a single one, where the most time-efficient attack has a worse time-space tradeoff than an exhaustive search. This work also shows that having access to quantum devices when attacking a double iteration of block ciphers can only reduce the time by an exponent of 3/2, rather than the expected quadratic improvement from Grover’s algorithm. Therefore, it can be concluded that, in stark contrast with the classical adversary, a double iteration of block ciphers could restore security against quantum adversaries.

Since quantum searches do not provide exponential speedups, symmetric key encryption like qVortex's CL is believed to be quantum-safe simply because the cipher can adapt to a quantum attack by increasing its key size in order to rectify a vulnerability introduced by quantum computing.
Consequently, even when a quantum computer is built, the CL symmetric encryption and hash function algorithms still put up a fair fight. Provided one uses sufficiently large key sizes, the symmetric key cryptographic systems of CL would already be resistant to attacks by a quantum computer.