Musaddiq Al Ali – författare

Slosh Dynamics: Theory and Practice offers a rigorous and technically rich exploration of fluid dynamics in constrained, partially filled containers, characterized by nonlinear behavior with critical implications across engineering systems. Rooted in the fundamental principles of fluid and solid mechanics, this volume progresses through detailed mathematical modeling and thorough stability assessment of coupled multiphase phenomena, culminating in applied methodologies for controlling and mitigating sloshing effects.The book combines analytical depth with state-of-the-art computational techniques, including finite element, finite volume, and particle-based methods, alongside practical guidance on relevant software tools. It addresses challenges in a wide range of sectors, such as aerospace, marine, automotive, energy, and process industries, through real-world case studies and advanced simulation workflows.Ideated to serve as an authoritative reference resource, Slosh Dynamics supports both academic enquiry and practical engineering applications at the highest level by uniquely bridging the divide between specialized understanding of sloshing-induced behavior and the broader demands of performance optimization and safety-critical design for integrated systems.

Builds the reader’s foundation from core principles to advanced mathematical modeling, enabling confident application to complex sloshing problemsCovers practical use of industry-standard software, including mesh generation, solver settings, and post-processing, to support engineering design and analysisConnects theory to real-world cases in aerospace, automotive, marine, and energy sectors, and highlights emerging tools such as machine learning for predictive simulation and system optimization

Concise, practical guide presenting skills to integrate porous structure design with additive manufacturing requirements Part of Wiley’s Additive Manufacturing Skills in Practice series and written with the industry practitioner in mind, Advanced Techniques in Porous Structure Design for Additive Manufacturing addresses the growing integration of porous structures and additive manufacturing, essential for applications in the biomedical, aerospace, and automotive fields in which porous structures are crucial due to their ability to deliver top-notch performance alongside lightweight characteristics. This book covers all areas of the subject and concludes with a series of specialized chapters devoted to simulation software, case studies, and future trends and emerging technologies. Each chapter features a design problem that presents an open-ended scenario to prompt readers to think through the real-world applications of the concepts and theories discussed and connect them to their own job roles. Topics discussed in Advanced Techniques in Porous Structure Design for Additive Manufacturing include: Fundamentals of additive manufacturing, covering processes, materials, and design considerationsMathematical modeling, covering optimization techniques and the finite element methodMultiscale topology optimization, shape optimization methods, and post-processing techniquesSoftware utilization in porous structure design, with information on how to program simulationsPorous structures in soft robotics, porous heat sinks, porous plates, and porous mechanical support structuresWith a blend of theoretical understanding and hands-on expertise in an emerging domain, Advanced Techniques in Porous Structure Design for Additive Manufacturing is an essential reference for industry professionals, researchers, and postgraduate students in universities, particularly those specializing in mechanical design and additive manufacturing.

This book introduces a fundamental understanding of orthopedic design for both engineers and medical staff. It addresses the gap and mystery that often exists between these two fields and provides a common ground for understanding. The book covers various aspects of orthopedic design, including the anatomy and biomechanics of bones and joints, the materials used in orthopedic devices, and the testing and evaluation of orthopedic devices. It also introduces computer-aided design with additive manufacturing in a practical sense, including the principles of non-parametric optimization (topology and shape optimization) in a scientific and practical way. The author provides dedicated examples and research studies to further clarify the concepts presented in the book and includes some of their own peer-reviewed papers to support the material. Additionally, it covers the practical applications of computer-aided design and additivemanufacturing in orthopedic design, including the use of virtual prototyping, computer simulation, and 3D printing techniques. The book aims to provide a comprehensive guide to orthopedic design and the latest advancements in the field.