ENGINEERING Transformative Materials Aims & Scope

Mission & Vision

ENGINEERING Transformative Materials is an international, interdisciplinary journal dedicated to publishing frontier breakthroughs in materials science with "transformative" significance. We focus on innovations that redefine technological boundaries, reconstruct industrial landscapes, and provide disruptive solutions to global challenges.

As both the enabler and cornerstone for the development of high-end equipment manufacturing and strategic industries, materials science is at a critical juncture—transitioning from empirical trial-and-error to rational design and from single-point optimization to system-wide empowerment. Our mission is to encapsulate the chain of innovations from materials breakthrough to equipment modernization and industrial transformation. We not only delve deeply into the fundamental frontiers of materials science but also place strong emphasis on engineering applicability and industrial relevance, thereby ensuring that material innovations move effectively from the laboratory to the marketplace, and from microscopic mechanisms to macroscopic empowerment.

Scope & Research Areas

ENGINEERING Transformative Materials covers the full spectrum of materials science and engineering, prioritizing the deep convergence of frontier interdisciplinary fields. We champion a "problem-oriented" and "deeply interdisciplinary" research paradigm, welcoming original works rooted in fundamental sciences—such as physics and chemistry—that extend profoundly into engineering, biology, and computational science, etc.

The journal prioritizes (but is not limited to) transformative research in six core pillars:

l Fundamental Science & Theoretical Frontiers: Delving into the underlying principles that govern structure–property relationships, thereby consolidating the theoretical foundation for the rational design of transformative materials.

l Energy Revolution & Sustainable Development: Addressing the critical needs of the new energy industry by developing high-efficiency, clean energy materials to support the iterative upgrading of energy equipment and the effective implementation of the dual‑carbon strategy.

l Next-Generation Information & Intelligent Systems: Targeting technological bottlenecks in the post‑Moore era, advancing novel information materials and devices to empower the evolution of smart terminals and computing infrastructures.

l Biomedicine & Life Sciences: Developing highly adaptive biomaterials to drive innovation in high-end medical devices and the healthcare industry. Topics include tissue engineering, smart drug delivery systems, and brain-computer interfaces (BCI), etc.

l Data-Intelligence-Driven Materials Science: Transforming materials R&D paradigms through artificial intelligence and high-throughput experimental methods, significantly shortening the cycle from development to commercialization.

l Advanced Manufacturing & Structural Materials Innovation: Addressing frontier technologies such as materials for extreme-service environments and atomic-scale manufacturing, directly supporting major engineering projects and high-end equipment development across aerospace, maritime, and terrestrial domains.

We strongly encourage cross-disciplinary research that breaks down traditional academic silos, operating on the firm belief that the most transformative innovations emerge at the interfaces of disciplines.