# A Novel Energy-Efficient Reservation System for Edge Computing in 6G Vehicular Ad Hoc Network
## 2 Related Works  
[PERSON] et al. [9] provide two models, FMNMS1 and FMNMS2, that generate network-based judgements by taking into account characteristics including the speed of the vehicle, tyre sensitiveness, data size, geographical position, vehicle surroundings, temperature, level of noise, heart rate with ECG, breathing rate, EEG, and EOG. Meanwhile, [PERSON] et al. [2] recommends a framework for the management of network resources, as well as for monitoring drivers in a VANET system. The simulation model incorporates the 6G technology's parameters and edge, fog, and cloud computing features to create a realistic and accurate representation of the system. The proposed system can handle high volumes of data with low latency and high throughput, making it suitable for real-time communication and data processing in VANETs. The concept entails the use of fuzzy logic and is regulated using edge/fog/cloud computing to enable optimal network resource management and increase road safety. The study uses a Raspberry Pi and deep learning techniques to forecast the driver's state by collecting information from several biosensors. The system activates the actuator based on the outcome. In addition, the study features integrated edge/fog/cloud computing to solve scalability, security, seamless connection, and dependability concerns. The system presented in [3] can anticipate the relative speed, sensitivity, and traffic rate of the vehicle, as well as the driver's state, such as sleepiness or exhaustion. Based on these data, the suggested system can park the car, notify the driver, reduce the vehicle's speed, or shut down the engine in a critical situation. The proposed fuzzy-based VANET system intends to create a safe and user-friendly transportation infrastructure capable of reducing serious accidents and improving personal transportation security. [PERSON] et al. [4] present a new strategy for data sharing in 6G-VANET that utilizes blockchain and edge intelligence to improve privacy protection. The proposed approach comprises three primary elements: a data owner, a data requester, and edge nodes. The data owner encrypts data and shares them on the blockchain, while the data requester uses edge intelligence to obtain and decrypt the data. The edge nodes act as intermediaries to facilitate data sharing and enhance privacy protection by keeping the data owner's and requester's identities anonymous. The authors assess the proposed approach's performance in terms of the data retrieval time, communication overhead, and privacy protection. The findings in [7] indicate that the proposed strategy outperforms current approaches in terms of data retrieval times and communication overhead, while providing robust privacy protection. Throughout the data sharing process, the identities of the data owner and requester are kept anonymous. Overall, this research introduces a promising solution for data sharing in 6G-VANET that leverages blockchain and edge intelligence to improve privacy protection while maintaining efficient data retrieval. According to the study in [8], the current access control and security mechanisms for vehicular communication systems are insufficient in tackling the distinct issues that arise with 6G networks, such as higher data rates, reduced latency, and more extensive connectivity. The authors suggest a more elaborate approach that includes three main elements: authentication, authorization, and encryption. Authentication is responsible for verifying the user or device's identity before granting access to the network, while authorization regulates the level of access granted to each user or device based on their privileges or roles. Encryption guarantees the confidentiality and security of all communication between users or devices. Furthermore, the proposed strategy in [10] introduces a trust management system that examines the reliability of each user or device based on their conduct and interactions with the network, thereby preventing malicious attacks or unauthorized access.