This article addresses the critical challenge of data scarcity that impedes the application of machine learning (ML) in inorganic materials synthesis, a key bottleneck in accelerating the discovery of new...
This article explores the transformative role of machine learning (ML) in predicting and planning solid-state synthesis routes, a critical bottleneck in materials discovery.
The acceleration of computational materials design has starkly contrasted with the slow, empirical nature of experimental synthesis, creating a critical bottleneck in materials discovery.
The synthesis of novel inorganic materials is fundamentally governed by navigating complex, multi-dimensional energy landscapes, where the discovery of both stable ground states and valuable metastable phases resides.
This comprehensive review addresses the critical challenge of polymorphic impurities in pharmaceutical crystallization, a key concern for researchers and drug development professionals working with poorly water-soluble drugs.
This article provides a comprehensive overview of modern experimental techniques for measuring nucleation rates, a critical parameter in crystallization processes for pharmaceutical development.
This article provides a comprehensive analysis of nucleation control in sol-gel processes and vapor deposition techniques, two foundational methods in advanced materials synthesis.
Computational models now rapidly generate millions of candidate materials, yet the transition from digital prediction to synthesized reality remains a major bottleneck.
This article provides a comprehensive exploration of kinetic stabilization, a fundamental concept governing the formation and longevity of metastable inorganic and biomolecular structures.
This article provides a comprehensive framework for the validation of predicted topological semimetals, addressing the critical gap between computational prediction and experimental confirmation.