请润色下面这段话。(1) Knowledge Innovation

(a)	Investigating the Impact of Mo Element Content Variation on the Microstructure and Mechanical Properties of Carbon-free High-Speed Steel
Carbon-free high-speed steel primarily consists of Fe, Co, and Mo, with the core strengthening phase identified as (Fe, Co)7Mo6. Consequently, variations in the Mo element content influence the composition, distribution, and morphology of the strengthening phase, particularly its distribution, which significantly affects the material's properties. However, the precise relationship between these factors remains unclear. Therefore, it is imperative to conduct thorough research to explore the evolution of the strengthening phase in carbon-free high-speed steel and understand the effects of Mo element content on its properties. To achieve this, an in-depth investigation employing a combination of thermodynamic simulations and experimental methods is necessary. By establishing a comprehensive understanding of the relationship between the primary component (Mo element) and its impact on relevant microstructures and macroscopic mechanical properties, we can gain insights into this fundamental and critical issue.
(b) Analyzing the Influence of Forming and Heat Treatment Parameters on the Microstructure and Mechanical Properties of Carbon-free High-Speed Steel
The forming process of carbon-free high-speed steel powder is significantly affected by key parameters in hot isostatic pressing and forging, such as sintering temperature, sintering pressure, and time. These parameters decisively impact the material's microstructure and final mechanical properties, particularly concerning the size, morphology, and distribution of the core strengthening phase. Moreover, previous studies have confirmed the notable influence of heat treatment on the ultimate mechanical properties of carbon-free high-speed steel. To ensure precise control over the product quality and stability of carbon-free high-speed steel, a comprehensive exploration of the underlying mechanisms is crucial. By gaining a deep understanding of the influencing factors, it becomes possible to establish reliable predictive models for the microstructure and properties of carbon-free high-speed steel. A coupling approach, involving multiple forming parameters, must be employed to thoroughly investigate and analyze the impact of these factors, leading to optimal results.

(2) Research Outcome Indicators
(a) Investigation of the Evolutionary Patterns of Strengthening Phases and the Influence of Mo Element Composition Variation on the Mechanical Properties of Carbon-free High-Speed Steel.
The primary objective of this study is to delve into the evolutionary patterns exhibited by strengthening phases in carbon-free high-speed steel, shedding light on the intricate interplay between variations in Mo element composition and the resultant mechanical properties.
(b) Establishment of High-Temperature Strength and High-Wear Resistance Powder Metallurgy Tool Materials with Independent Intellectual Property Rights.
The fundamental goal is to forge ahead with the development of powder metallurgy materials boasting exceptional attributes such as high-purity and remarkable homogeneity. These materials will be endowed with a heat-treated state hardness of ≥67HRC while maintaining the size level of intermetallic compound strengthening phases below grade 1.
(c) Development of a Comprehensive Domestic Manufacturing Technology for Carbon-free High-Speed Cutting Tool Materials for Industrial Machine Tools.
This research endeavor is dedicated to tackling the intricate technical challenges associated with the realization of high-strength and high-toughness powder metallurgy materials essential for the effective functioning of high-speed hob cutters. The focus lies in employing self-directed and controllable techniques to overcome these hurdles successfully.
(d) Filing 5 invention patents to protect the research outcomes.
(e) Publishing a minimum of 10 high-quality academic papers, including at least 5 internationally recognized SCI papers and 5 papers in well-known domestic Chinese journals.

(3) Talent Development Indicators
(a) Cultivation of 2-3 Senior Technical Professionals with Advanced Titles in High-Speed Steel Materials.
(b) Engagement of 1-2 Renowned Experts in the Field of Domestic Powder Metallurgy High-Speed Steel.
(c) Training of 1-2 Doctoral Candidates and 2-3 Master's Candidates.