Engineering Research Express (ERX) is a broad, multidisciplinary journal devoted to publishing new experimental and theoretical research covering topics extending across all areas of engineering science including interdisciplinary fields.

Engineering Research Express (ERX) is a broad, multidisciplinary journal devoted to publishing new experimental and theoretical research covering topics extending across all areas of engineering science including interdisciplinary fields.

Engineering Research Express™ is a broad, multidisciplinary journal devoted to publishing new experimental and theoretical research covering topics extending across all areas of engineering science including interdisciplinary fields. The journal is committed to fast review and operates a transparent editorial selection and feedback process ...

Engineering Research Express supports this mission and actively demonstrates our core values of inclusive publishing and trusted science. To find out more about these values and how they can help you publish your next paper with us, visit our journal scope.

Engineering Research Express supports this mission and actively demonstrates our core values of inclusive publishing and trusted science. To find out more about these values and how they can help you publish your next paper with us, visit our journal scope.

Jul 11, 2019 · Engineering research is uniquely multidisciplinary and today intersects with communities extending right across physics, materials science, physical chemistry, environmental science, the biological sciences, as well as industry.

This paper conducts a thorough analysis into predicting transverse cracking in CRCP using machine learning approaches. The research involved meticulous data preparation, feature selection, and evaluation of various machine learning …

Engineering Research Express supports this mission and actively demonstrates our core values of inclusive publishing and trusted science. To find out more about these values and how they can help you publish your next paper with us, visit our journal scope.

The current research demonstrates the fabrication and characterization of TiB 2-reinforced (10%) Cu matrix composite through a powder metallurgy route. The composites have been prepared by hot compaction (200 and 500ºC) of Cu and TiB 2 powders subsequent to mechanical milling in a high-energy planetary mill.

The current demand for novel and self-healing material in today's industries is one of the key challenges. Many engineering applications required tailored properties including self-healing characteristics in novel engineering materials.