## 1 Introduction  
The sixth-generation (6G) is applied to new communications networks which have evolved throughout the past few years and have incorporated various technologies, such as sensitive sensors, autonomous vehicles, immersive media, and Internet of Things technologies [1]. These technologies rely on millions of communication nodes and billions of endpoints. Additionally, they face many challenges such as deficiencies in wired networks and other privacy and security problems [2]. Consequently, the role of the 6G Network is to define the right set of network technologies required to deliver these applications. To be precise, its scope has been defined to meet the communication needs of societies until 2030. The central theme of the 6G Network is the merging of digital and real worlds in all dimensions, shown in Figure 1. In addition, we expect to see much automation in the coming years. The sheer volume of things will work at the system level, and not in private networks; thereby requiring the coordination of intelligence distributed throughout the fabric of connection. Moreover, in 6G, the information between machines and robots will be provided in partial time units to safely support various operations [3]. Furthermore, the main characteristics of 6G include:* Providing an efficient interaction among network's infrastructure and applications as well as supporting emerging technologies in the market that enable digital society in 2030 and after. * Supporting convenient and effective binding for critical connectivity and edge computing networks which could be used by new poles with tighter limits as well as more varied limits for latency and amplitude. * Controlling the resources effectively and rising time awareness and moving beyond the current effort of the Internet by providing high bandwidth and new case's communication service. However, processing, organization, and implementation of a great number of data are considered the real challenges of 6G. Intelligence Edge Computing (IEC) is an improvement of cloud computing technology which is deployed to give easy access to the near end-users [4]. IEC is an ETSI-defined system, which is connected over a wireless network and can provide with the cloud computing resources and IT services as well as move traffic computing from center to the edge [5]. Besides, the European Telecommunications Standards Institute (ETSI) Industry Specification Group (ISG) introduced IEC as a way of increasing the network's edge capability of storage and intensive processing [6]. In addition, IEC's features enable the mobility and provide with the computing and mobile communication and can exchange data anytime and anywhere (e.g., File Transfer (FT), Wide Area Network (WAN) interconnection, fax, e-mail, Internet Access (IA) and the World Wide Web). Furthermore, the wireless networks used for communications include IR, Bluetooth, W-LANs, Cellular Networks, W-Packet Data, and Satellite Communication System [7]. IEC is also considered to be mobile communication infrastructure that provides smooth and efficient communication between different mobile devices. Moreover, IEC is a design that aims to reduce bandwidth and delay by moving the required resources closer to the systems that demand them. The background to this claim is based on the promising expectation of lower capital expenditures and the potential to introduce new services, which could potentially be offered separately and could also be launched at a reduced cost. Among these new services is the potential to provide ultra-reliable and extremely low latency (URLLC) connections [6; 8]. For instance, less than 5 ms or less than 10 ms, for autonomous Vehicle-to-Everything (V2X), Augmented Reality (AR ) and Virtual reality (VR) applications. Subsequently, the architecture of IEC orchestration is shown in Figure 2, in which it consists of several functional blocks deployed in each IEC object.