Cryptographic Engineering on COVID-19 Telemedicine: An Intelligent Transmission Through Recurrent Relation Based Session Key

Establishment of Neural Series Transmission Keys (NSTKs) and Security in the Field of COVID-19 Telepediatric Oral Health

In this exceptional COVID-19 crisis, telemedicine had arisen as a substitute technique for medicines. Even more unequivocally, pediatric children were at high risk to outside homes. The spread of COVID-19 has suddenly ascended. Because of lockdown conventions and isolation protocols, kids were confined to live inside their homes. Non-emergency youngsters ought to be managed remotely through the telepediatric health. An establishment of Neural Series Transmission Keys (NSTKs) has been created and security had been planned on the intraoral data. Oral cavity is a kind of dental disease occurring in children. It is for the most cases caused due to drawn out bacterial invasions. Bacterial attacks are more because of sticky chocolates, desserts, sugar, and so forth. Homeopathy medicines are the best prescribed to fix such dental diseases in this current unprecedented COVID-19. Since, it needs no dental medical procedure for the non-invasive kids, which is the reason that the homeopathy medicines are most appropriate in this COVID-19 lockdown stages. The doctor can gather symptoms of the kids from their parents through online interfaces. Some of the normal homeopathy drugs are: Kreasotum, Mercurius, Mezereum, etc. Moreover, in this pandemic situation online telepediatric homeopathy medicines were better alternatives to investigate from home disengages. Additionally it bears no voyaging consumptions and costs. Secure online transmission of clinical pediatric information has been the most challenging issue in COVID-19 telepediatric oral wellbeing. Data mystery factor is protected with tendency in this proposed cryptographic technique. Neural Series Transmission Keys (NSTKs) were established based on neural network based hamming codes. It has been diffused inside the intraoral pediatric data. The proposed key was so particularly amazing that it gives assorted blend after each bit of evolving. Beginning seeds were kept at the dentists and the patients, in order to go against external attacks inside the public channel, especially during this hyper digitized COVID-19 times. Standard graphs were drawn with accuracy using the proposed cryptographic method. The absolute cryptographic time in this strategy was 2.88 ms which was significantly important. By applying Chi Square test, we have noted χ 2 = 17.012, under 5% level of significance.

Metaheuristic secured transmission in Telecare Medical Information System (TMIS) in the face of post-COVID-19

The outbreak of novel corona virus had led the entire world to make severe changes. A secured healthcare data transmission has been proposed through Telecare Medical Information System (TMIS) based on metaheuristic salp swarm. Patients need proper medical remote treatments in this Post-COVID-19 time from their quarantines. Secured transmission of medical data is a significant challenge of digitally overwhelmed environment. The objective is to impart the patients' data by encryption with confidentiality and integrity. Eavesdroppers can carry sniffing and spoofing in order to deluge the data. In this paper, a novel scheme on metaheuristic salp swarm based intelligence has been sculptured to encrypt electrocardiograms (ECG) for data privacy. Metaheuristic approach has been blended in cryptographic engineering to address the TMIS security issues. Session key has been derived from the weight vector of the fittest salp from the salp population. The exploration and exploitation control the movements of the salps. The proposed technique baffles the eavesdroppers by the key strength and other robustness factors. The results, thus obtained, were compared with some existing classical techniques with benchmark results. The proposed MSE and RMSE were 28,967.85, and 81.17 respectively. The time needed to decode 128 bits proposed session key was 8.66 × 1052 years. The proposed cryptographic time was 8.8 s.

Leveled Design of Cryptography Algorithms Using Cybernetic Methods for Using in Telemedicine Applications

The technology world is developing fast with the developments made in the hardware and software areas. Considering that privacy and security of telemedicine applications are among the main necessities of this industry, as a result, there is a need to use lightweight and practical algorithms to be used in applications in the field of telemedicine, while security have the least negative impact. The distinct and contradicting components in the design and implementation of the cryptography algorithm, to achieve various objectives in medicine-based applications, have made it a complicated system. It is natural that, without identifying the components, indices, and properties of each system component, the hardware and software resources are lost and a proper algorithm cannot be designed. Accordingly, this paper presents a leveled model of cryptography algorithms using the cybernetic method. First, the main objectives and measures in the design of the cryptography algorithms are extracted using the measure reduction methods, and some of the excess and overlapping measures are eliminated. Then, three general classes of the cryptography algorithm design and implementation measures, applications of cryptography algorithms, and cryptography implementation techniques are extracted. Since the complexity of the cryptography algorithm design is relatively high, the cybernetic methodology is used to present a supermodel to make the cryptography algorithm design objective. Such design prevents examining unnecessary details and establishes a bidirectional relationship between the main design and implementation process and the support process. This relationship provides the support requirements of the main process by the support process at each step. Finally, the Q-analysis tools are used to analyse the proposed method, and the efficiency results are represented.