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Research: Quantum Computing: Home

Paula Carey

Published Nov 20, 2018• 0 citations
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Related papers

Research: Quantum Computing: Quantum Computing Projects

Paula Carey

•Nov 20, 2018•0 citations

How Classical, Super and Quantum Computers Work

Avi Nathan Peran

Computers are a big part of our daily lives. From school to offices to-home, we are all using computers. You probably have a desktop or laptop computer in your house. You also probably have a cellphone in your house. Believe it or not it's a computer. However, you don’t have a super computer and definitely not a quantum computer. In this presentation I'll explain how Classical computers, Super computers and Quantum computers work and compare them to one another. Bibliography [1] “Computer Basics: What Is a Computer?” GCFGlobal.org, edu.gcfglobal.org/en/computerbasics/what-is-a-computer/1/. [2] “Computers for /The Basics.” Computers for Beginners/The Basics - Wikibooks, Open Books for an Open World, en.wikibooks.org/wiki/Computers_for_Beginners/The_Basics [3] Fisher, Chris, and Eric Abenojar. “IBM: What Is Quantum Computing?” IBM Quantum, 2 Apr. 2009, www.ibm.com/quantum-computing/learn/what-is-quantum-computing/. [4] Gunter, Elsa L. "Computer." World Book Student, World Book, 2020, worldbookonline.com/student-new/#/article/home/ar127860/Cpu [5] Chubb, Jennifer C. "Quantum computing." World Book Student, World Book, 2020, worldbookonline.com/student-new/#/article/home/ar757070/quantum%20computers [6] Australian Research Council Gate based Quantum Computers. University of Bristol (Quantum in the Cloud Documentation} Center for Quantum Computing and Communication Technology University of New South Wales (http://www.cqc2t.org/) [7] University of Science and Technology (China) China hits milestone in developing quantum computer [8] Author’s in-person interviews with three IBM researchers at IBM Watson Quantum computers research center, Yorktwon Heights, NY, USA

•Jan 1, 2021•0 citations

Post-Quantum Cryptography Based on Kyber-Dilithium Signcryption for IoT Smart Home

Ivan Saputra Zebua, Favian Dewanta, Farah Afianti

The advancement of quantum computing poses a significant challenge to future data protection, particularly in IoT environments due to their constrained computing capabilities. Consequently, this research investigated the application of Post-Quantum Cryptography (PQC), which integrates Kyber and Dilithium cryptographic algorithms into a signcryption mechanism to protect data confidentiality and integrity on Raspberry Pi 4, a device employed as an IoT node gateway in smart home applications. The KyberDilithium cryptographic system employed in this study was compared with the classic cryptography RSA 2048 and secp256r1. The research conducted indicates that Kyber512-Dilithium2 Signcryption can be implemented on Raspberry Pi 4 as an IoT node gateway. Kyber512Dilithium2 exhibits superior CPU utilization compared to RSA 2048 and secp256r1 across all processes which used 98.483% for key generation, 93.722% for signcrypt, and 93.591% for unsigncrypt. This indicates that the Kyber512-Dilithium2 could be used in IoT node gateways to ensure robust data security in smart home environments against future quantum attacks by combining PQC of Kyber and Dilithium into signcryption.

IEEE Asia-Pacific Conference on Geoscience, Electronics and Remote Sensing Technology (AGERS)•Dec 17, 2025•0 citations

Research: Quantum Computing: Background

Paula Carey

•Nov 20, 2018•0 citations

Post-Quantum Key Exchange for IoT Devices Using Kyber512 Lattice-Based Encryption Algorithm

Isroilov Sardorbek Solijon Ugli, Abdullah Abed Hussein, Nada Qasim Mohammed +2 more

With the transition of the world to quantum computing, existing cryptographic algorithms are more exposed, and strong post-quantum solutions are required. Lattice-based cryptography, specifically the Kyber512 algorithm, offers quantum-resistant security that can be utilized in low-resource environments, such as Internet of Things (IoT) devices. Existing key exchange techniques for IoT, including RSA and ECC, are susceptible to quantum attacks and tend to be computationally heavy for low-power devices. Such drawbacks render them inefficient in actual-world smart home solutions, where longevity and security efficiency are required. This research presents a new framework, Smart Home Device Communication Security using L-PKEX – a lightweight post-quantum key exchange algorithm based on Kyber512 - that bridges these gaps. L-PKEX is designed to facilitate the economic and secure exchange of keys among smart home gadgets (e.g., smart locks, sensors, controllers) by utilizing Kyber512. The new proposed L-PKEX approach is used to establish secure communication networks among smart home devices, hubs, or user interfaces. Experimental validation and simulations demonstrate that L-PKEX offers minimal computational overhead and reduced energy consumption while maintaining uncompromised security, compared to conventional approaches. Results prove that L-PKEX is an affordable and scalable solution towards providing quantum-resistant, secure smart home IoT communication.

International Conference on Next Generation Computing Systems (ICNGCS)•Aug 21, 2025•1 citation

Understanding the research and applications of quantum computing

Joshua L. Foss

•Jan 1, 2021•0 citations
Computers are a big part of our daily lives. From school to offices to-home, we are all using computers. You probably have a desktop or laptop computer in your house. You also probably have a cellphone in your house. Believe it or not it's a computer. However, you don’t have a super computer and definitely not a quantum computer. In this presentation I'll explain how Classical computers, Super computers and Quantum computers work and compare them to one another. Bibliography [1] “Computer Basics: What Is a Computer?” GCFGlobal.org, edu.gcfglobal.org/en/computerbasics/what-is-a-computer/1/. [2] “Computers for /The Basics.” Computers for Beginners/The Basics - Wikibooks, Open Books for an Open World, en.wikibooks.org/wiki/Computers_for_Beginners/The_Basics [3] Fisher, Chris, and Eric Abenojar. “IBM: What Is Quantum Computing?” IBM Quantum, 2 Apr. 2009, www.ibm.com/quantum-computing/learn/what-is-quantum-computing/. [4] Gunter, Elsa L. "Computer." World Book Student, World Book, 2020, worldbookonline.com/student-new/#/article/home/ar127860/Cpu [5] Chubb, Jennifer C. "Quantum computing." World Book Student, World Book, 2020, worldbookonline.com/student-new/#/article/home/ar757070/quantum%20computers [6] Australian Research Council Gate based Quantum Computers. University of Bristol (Quantum in the Cloud Documentation} Center for Quantum Computing and Communication Technology University of New South Wales (http://www.cqc2t.org/) [7] University of Science and Technology (China) China hits milestone in developing quantum computer [8] Author’s in-person interviews with three IBM researchers at IBM Watson Quantum computers research center, Yorktwon Heights, NY, USA
The advancement of quantum computing poses a significant challenge to future data protection, particularly in IoT environments due to their constrained computing capabilities. Consequently, this research investigated the application of Post-Quantum Cryptography (PQC), which integrates Kyber and Dilithium cryptographic algorithms into a signcryption mechanism to protect data confidentiality and integrity on Raspberry Pi 4, a device employed as an IoT node gateway in smart home applications. The KyberDilithium cryptographic system employed in this study was compared with the classic cryptography RSA 2048 and secp256r1. The research conducted indicates that Kyber512-Dilithium2 Signcryption can be implemented on Raspberry Pi 4 as an IoT node gateway. Kyber512Dilithium2 exhibits superior CPU utilization compared to RSA 2048 and secp256r1 across all processes which used 98.483% for key generation, 93.722% for signcrypt, and 93.591% for unsigncrypt. This indicates that the Kyber512-Dilithium2 could be used in IoT node gateways to ensure robust data security in smart home environments against future quantum attacks by combining PQC of Kyber and Dilithium into signcryption.
With the transition of the world to quantum computing, existing cryptographic algorithms are more exposed, and strong post-quantum solutions are required. Lattice-based cryptography, specifically the Kyber512 algorithm, offers quantum-resistant security that can be utilized in low-resource environments, such as Internet of Things (IoT) devices. Existing key exchange techniques for IoT, including RSA and ECC, are susceptible to quantum attacks and tend to be computationally heavy for low-power devices. Such drawbacks render them inefficient in actual-world smart home solutions, where longevity and security efficiency are required. This research presents a new framework, Smart Home Device Communication Security using L-PKEX – a lightweight post-quantum key exchange algorithm based on Kyber512 - that bridges these gaps. L-PKEX is designed to facilitate the economic and secure exchange of keys among smart home gadgets (e.g., smart locks, sensors, controllers) by utilizing Kyber512. The new proposed L-PKEX approach is used to establish secure communication networks among smart home devices, hubs, or user interfaces. Experimental validation and simulations demonstrate that L-PKEX offers minimal computational overhead and reduced energy consumption while maintaining uncompromised security, compared to conventional approaches. Results prove that L-PKEX is an affordable and scalable solution towards providing quantum-resistant, secure smart home IoT communication.