###### Abstract
[10] discussed the behavior of sticking hot rolling deformation rollers, and suggested that sticking rollers occur due to a process of nucleation, growth, and saturation, and that micro-cracks are needed to provide the necessary nucleation position for adhesion of the roller surface. [PERSON] et al. [11] utilized a process simulation and quality control of copper rod continuous casting and rolling, and established the finite element simulation of copper rod continuous casting and hot rolling process in the SCR3000 continuous casting and rolling line. [PERSON] [12] studied the nucleation and growth process of bonded particles in ferritic stainless steel, which revealed that the behavior of roller sticking was closely related to the surface roughness and oxidation resistance of the roller. [PERSON] et al. [8] proposed to analyze the relationship between reduction rate and rolling pressure under different lubrication conditions by using the lubrication principle of hot rolling. Through the theoretical calculation of rolling interface lubrication, the spray device has been improved to solve the failure problem of the 10# roller, and the surface quality of the copper rod has also been raised. [PERSON] et al. [13] proposed an optimized lubrication process and spray device by calculating the lubrication performance of the copper rod hot tandem rolling roll to improve the roll performance, the roll joining performance, and the quality of the copper rod. [PERSON] et al. [14] have carried out a detailed study on steel-bonding behavior under hot rolling conditions, which revealed that the high-temperature tensile strength and oxidation resistance are important factors affecting bonding between the bare metal and the roll surface. The SCR production line is favored by copper rod manufacturers around the world, due to its stable product quality, high performance, good efficiency, equipment structure, simple operation, and easy maintenance [15]. The continuous casting and rolling process directly determine the working capacity of the SCR copper bar production equipment, as well as the quality and performance of the finished copper bars. By simulating and analyzing the microstructure and composition of copper alloy produced by the SCR method, [PERSON] [16] theoretically established the relationship between microstructure and macro properties, and fully revealed the solidification behavior and property changes of copper alloy. When changing the numerical simulation parameters, [PERSON] [17] studied the effects of casting speed and temperature on the solidification process of continuous casting by considering the selection of solidification and turbulence models. [PERSON] et al. [18] studied the mechanical properties of copper, such as tensile strength, and explained the influence of deformation speed and degree on the deformation process of fine-grained copper rods. In addition, the adhesion performance of rolled products in the rolling deformation zone was found to be comprehensively affected by the rolling material, reduction rate, roll speed, sliding friction factor, roll surface roughness, and lubrication performance. During hot rolling, the adhesion mechanism is affected by high-temperature mechanical and oxidation properties, and the rolling temperature has a great impact on the bonding of rolled metal [19]. At the same time, adhesion can be minimized by increasing lubrication, rolling speed, and rolling temperature [20; 21]. Despite significant research into the adhesion properties and mechanism of the rolling process, a model corresponding to the adhesion mechanism of rolling deformation of non-ferrous metals, such as copper, has yet to be elucidated. Therefore, the sticking behavior and mechanism underlying the hot continuous rolling of copper wire, which have important practical significance in solving the problem of copper sticking to the hot rolls, require further research to promote the production and manufacture of high-quality copper wire.