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As a result of the ease with which the internet and cell phones can be accessed, online social networks (OSN) and social media have seen a significant increase in popularity in recent years. Security and privacy, on the other hand, are the key concerns in online social networks and other social media platforms. On the other hand, cyberbullying (CB) is a serious problem that needs to be addressed on social media platforms. Known as cyberbullying (CB), it is defined as a repetitive, purposeful, and aggressive reaction performed by individuals through the use of information and communication technology (ICT) platforms such as social media platforms, the internet, and cell phones. It is made up of hate messages that are sent by e-mail, chat rooms, and social media platforms, which are accessed through computers and mobile phones. The detection and categorization of CB using deep learning (DL) models in social networks are, therefore, crucial in order to combat this trend. Feature subset selection with deep learning-based CB detection and categorization (FSSDL-CBDC) is a novel approach for social networks that combines deep learning with feature subset selection. The suggested FSSDL-CBDC technique consists of a number of phases, including preprocessing, feature selection, and classification, among others. Additionally, a binary coyote optimization (BCO)-based feature subset selection (BCO-FSS) technique is employed to select a subset of features that will increase classification performance by using the BCO algorithm. Additionally, the salp swarm algorithm (SSA) is used in conjunction with a deep belief network (DBN), which is known to as the SSA-DBN model, to detect and characterize cyberbullying in social media networks and other online environments. The development of the BCO-FSS and SSA-DBN models for the detection and classification of cyberbullying highlights the originality of the research. A large number of simulations were carried out to illustrate the superior classification performance of the proposed FSSDL-CBDC technique. The SSA-DBN model has exhibited superior accuracy to the other algorithms, with a 99.983 % accuracy rate. Overall, the experimental results revealed that the FSSDL-CBDC technique beats the other strategies in a number of different aspects.

Over the past 2 decades, radial artery access has increasingly become the standard approach for coronary angiography and intervention. Compared with femoral arteries, transradial access is associated with better hemostasis. Transradial access has increased patient preference, facilitates early ambulation, and is cost-effective. An important limitation of transradial access is access site failure, and it carries a crossover rate of 3% to 7% in randomized prospective trials comparing radial with femoral artery access among experienced operators. Crossover rates for failed primary radial artery access can be reduced with ultrasonography guidance and increased familiarity with alternative access sites in the wrist.

Over the past 2 decades, radial artery access has increasingly become the standard approach for coronary angiography and intervention. Compared with femoral arteries, transradial access is associated with better hemostasis. Transradial access has increased patient preference, facilitates early ambulation, and is cost-effective. An important limitation of transradial access is access site failure, and it carries a crossover rate of 3% to 7% in randomized prospective trials comparing radial with femoral artery access among experienced operators. Crossover rates for failed primary radial artery access can be reduced with ultrasonography guidance and increased familiarity with alternative access sites in the wrist.