What we do

SpaceQuanta research lab is actively engaged in research on the cutting-edge field of loop quantum gravity (LQG), loop quantum cosmology (LQC), and group field theory. Our team of scientists and engineers are dedicated to exploring the fundamental nature of the universe and pushing the boundaries of what is currently known about the laws of physics.

Our research is focused on developing theories and technologies that can be tested and validated through experiments and observations. We believe that a deeper understanding of quantum gravity has the potential to revolutionize our understanding of the universe and unlock new technologies and discoveries that were previously thought impossible.

We are particularly interested in the use of group field theory, which is a second quantized theory of gravity that provides a non-perturbative, background-independent and covariant formulation of quantum gravity. Our team is composed of some of the brightest minds in the field, with a diverse range of expertise and experience in this area of research.

We are also working on the various cosmological models. We are constantly seeking out new collaborations and partnerships with other leading researchers and institutions in order to further our understanding of the universe and bring our discoveries to the wider scientific community. We are committed to conducting our research with the highest level of integrity and transparency, and we are dedicated to sharing our findings and insights with the public through regular updates on our progress and through outreach and educational programs.


Delving into the Secrets of Open Quantum Systems at Space Quanta Research Lab

At Space Quanta Research Lab, we are driven by an insatiable curiosity about the hidden workings of the universe, particularly the fascinating realm of open quantum systems. These dynamic entities constantly interact with their surroundings, leading to intricate processes like energy exchange and information loss. Unraveling the theoretical underpinnings of such interactions is our passion, and we are fully committed to advancing the frontiers of knowledge in this captivating field.

Our dedicated team of researchers delves into the theoretical aspects of open quantum systems, employing sophisticated mathematical tools and innovative approaches. We strive to understand the fundamental principles governing energy dissipation, decoherence, and the interplay between a system and its environment. By pushing the boundaries of our understanding, we aim to unlock a deeper appreciation of the quantum world and pave the way for novel applications in areas like quantum technology and information processing.

If you share our enthusiasm for exploring the mysteries of open quantum systems, we invite you to join us on this exciting intellectual journey. Stay tuned to our research updates and engage in thought-provoking discussions – together, let's illuminate the enigmatic dance of quantum systems interacting with their surroundings!



Unveiling the Order Within Chaos: Exploring Chaotic Systems at Space Quanta Research Lab

Our insatiable quest for knowledge doesn't stop at the boundaries of open quantum systems. At Space Quanta Research Lab, we extend our investigative gaze towards the mesmerizing world of chaotic systems. These seemingly erratic entities, while governed by deterministic laws, exhibit a captivating blend of order and disorder, sensitivity to initial conditions, and unpredictable long-term behavior.

Through the lens of advanced theoretical research, we delve into the intricacies of chaotic systems. We employ robust mathematical frameworks and inventive approaches to uncover the hidden patterns and emergent phenomena that lie beneath the surface of seemingly random fluctuations. Our research delves into topics like understanding long-range correlations, identifying and exploiting underlying predictability within chaos, and harnessing the power of chaos for control and optimization.

By unraveling the secrets of chaotic systems, we aim to push the boundaries of scientific understanding and open doors to exciting new applications. From predicting complex natural phenomena to optimizing processes in diverse fields, the potential of harnessing the power of chaos is vast. If you share our fascination with the intricate dance between order and disorder, join us on this journey of exploration. Let's unveil the hidden beauty and unlock the power of chaotic systems together!



Bridging the Quantum Divide: Loop Quantum Gravity, Information Theory, and Spin Networks at Space Quanta Research Lab


Our exploration of the cosmos doesn't confine itself to well-charted realms. At Space Quanta Research Lab, we push the boundaries of understanding where gravity and quantum mechanics, two giants of physics, meet. Our theoretical research program bridges the vast gulf between Loop Quantum Gravity (LQG), Quantum Information Theory (QIT), and the enigmatic world of spin networks.


LQG envisions space and time as woven from intricate networks, challenging the smooth spacetime fabric of classical physics. QIT provides powerful tools to encode and manipulate information, even in the quantum realm. By marrying these seemingly disparate frameworks, we explore the profound questions arising from the quantization of gravity.


Spin networks, representing the quantized geometry of spacetime in LQG, are at the heart of our investigations. We employ advanced QIT techniques to analyze these networks, seeking a deeper understanding of their structure, dynamics, and implications for the nature of information in quantum gravity. Our research delves into areas like the information content of black holes, the holographic principle, and the potential link between information processing and the fundamental structure of spacetime.


This confluence of LQG, QIT, and spin networks holds immense promise for unraveling the deepest mysteries of quantum gravity. By forging these connections, we aim to illuminate the nature of information at the Planck scale, shed light on the birth of the universe, and perhaps even contribute to the development of novel quantum technologies. Join us on this breathtaking journey – together, let's explore the frontiers of knowledge and rewrite the script of the quantum universe!




Our significant publications:

Shriethar, N. (2023). Exploring Higher Dimensional Solutions for Conformal Cyclic Cosmology with DeSitter Space via Eternal Inflation. arXiv preprint arXiv:2303.04638.

Natarajan, S., & Chandramohan, R. (2021). Conformal evolution of phantom dominated final stages of the universe in higher dimensions. Canadian Journal of Physics, 99(1), 1-9.

Zhang, J., Peng, X., Rajendran, N., & Suter, D. (2008). Detection of quantum critical points by a probe qubit. Physical review letters, 100(10), 100501.

Natarajan, S., Chandramohan, R., & Swaminathan, R. (2020). Conformal cyclic evolution of phantom energy dominated universe. Revista mexicana de física, 66(2), 209-223.

Mahesh, T. S., Rajendran, N., Peng, X., & Suter, D. (2007). Factorizing numbers with the Gauss sum technique: NMR implementations. Physical Review A, 75(6), 062303.

Shriethar, N., & Rathinam, C. (2020). Conformal Cyclic Evolution of the Universe: a Loop Quantum Gravity Perspective. International Journal of Theoretical Physics, 59(12), 3995-4012.

Zhang, J., Rajendran, N., Peng, X., & Suter, D. (2007). Iterative quantum-state transfer along a chain of nuclear spin qubits. Physical Review A, 76(1), 012317.