# Comprehensive Evaluation Method for High-Performance
## 1 Introduction
It has been demonstrated that the use of \"wiper\" inserts during the face milling of Inconel 625 enhances the surface integrity and extends tool life [14]. Further investigations into residual stresses after milling Inconel 718 confirmed that selecting the appropriate production parameters is crucial for minimizing stresses, which can impact the durability of components [8]. The optimization of the cutting parameters, such as spindle speed, feed rate, and depth of cut, is crucial for achieving a high surface quality, as demonstrated by studies focusing on the machining of Inconel 601 [15]. Additionally, tool geometry parameters, such as rake angle and helix angle, have a significant impact on cutting forces and cutting temperature, as confirmed in prior research [16]. Further research on the machining of Inconel 718 using carbide-coated tools showed that the appropriate selection of a tool coating can significantly reduce tool wear and improve surface roughness [17]. Modern techniques, such as laser-assisted milling (LAM) and induction-assisted milling, represent innovative approaches to enhancing the cutting efficiency of Inconel alloys. It has been demonstrated that laser-assisted milling leads to a reduction in cutting forces and an improvement in surface quality, which is particularly important for precision finishing operations [18]. Similarly, research showed that induction-assisted milling reduces tool wear and improves process stability, which is crucial in the machining of Inconel 718 [19]. The machining of Inconel alloys, particularly with the use of advanced ceramic tools, presents a significant technological challenge due to the high hardness and wear resistance of these materials. Analysis of the application of Si\({}_{3}\)N\({}_{4}\) tools in the milling of Inconel 718 showed that such tools can significantly reduce cutting forces, thereby improving the overall process efficiency [20]. Simultaneously, research highlighted the benefits of using nanoparticle suspension lubrication, which not only enhances surface quality but also improves the energy efficiency of the machining process for Inconel 800 [4]. One of the key aspects that requires special attention is the impact of machining parameters on material deformation. An analysis of deformation during the continuous milling of Inconel 718 indicated that the proper optimization of parameters such as cutting speed and feed rate can significantly reduce deformation and improve machining quality [21]. Further research examined the effect of tool geometry and cutting speed on the machinability of Inconel 718, demonstrating that the appropriate selection of these parameters is crucial for process efficiency and tool longevity [22]. In the context of sustainable development, a comparison of the additive and subtractive methods in the production of Inconel 718 components evaluated time costs and CO\({}_{2}\) emissions, highlighting the importance of selecting the appropriate manufacturing technology for addressing global environmental challenges [23]. Meanwhile, a review of the current knowledge on surface integrity after machining nickel-based alloys pointed out the risk of white-layer formation, which can negatively affect the fatigue life of components [24]. Research on the high-speed dry milling of Inconel 718 using SiAlON tools demonstrated that the proper optimization of the process parameters, such as cutting speed, can lead to a reduction in the cutting forces and an extension of tool life [13]. Additionally, findings on the machining of Inconel 718 emphasized the critical role of cutting temperature, which directly affects tool wear and surface quality [25]. A common feature of most of the publications described above is the use of various cutting parameters and conditions aimed at assessing the changes associated with the introduction of innovative machining solutions. However, these results are difficult to compare due to differences in the experimental setups.