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Guided learning journeys that build knowledge step by step.
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7817 Paths · page 615 / 782
This learning path equips civil engineering professionals with the knowledge to apply electrochemical principles to prevent corrosion, focusing on reinforced concrete structures. It covers fundamental electrochemistry, corrosion mechanisms, prevention strategies including cathodic protection and coatings, monitoring techniques, and predictive modeling.
This advanced learning path equips automotive professionals with a deep understanding of electrochemical systems in vehicles, covering battery chemistry, fuel cells, battery management, thermal management, and recycling. It builds from foundational electrochemistry and battery principles to advanced system integration and lifecycle considerations.
A professional learning path covering the fundamentals of electrochemistry, water quality parameters, and the major electrochemical water treatment technologies including electrocatalytic oxidation, electrocoagulation, electro-Fenton, disinfection, and heavy metal removal. Designed for environmental engineering professionals seeking career advancement in advanced oxidation and electrochemical treatment processes.
This advanced learning path equips students with the theoretical foundations and practical skills needed to apply electrochemical methods to synthesize and characterize materials. It covers core electrochemistry principles, electrodeposition of metals and alloys, anodization, porous materials, conductive polymers, and electrochromic materials, emphasizing the interplay between electrochemical parameters and material properties.
A professional learning path for biomedical engineers covering the principles, design, and application of electrochemical sensors in medical diagnostics. It progresses from fundamental electrochemistry through biosensor design to advanced topics like wearable and implantable devices, emphasizing practical applications such as glucose monitoring and neurotransmitter sensing.
This learning path provides a structured journey from foundational electrochemistry and organic chemistry concepts to advanced topics in electroorganic synthesis. It covers electrooxidation, electroreduction, mediators, named reactions like Kolbe and Baizer, and paired electrolysis, enabling learners to understand and design electrochemical transformations.
This learning path covers the fundamental electrochemistry and electrocatalysis of water electrolysis, including the hydrogen evolution reaction (HER) and oxygen evolution reaction (OER), catalyst materials, membrane-based systems, and industrial electrolyzer considerations. It is designed for university students interested in hydrogen production.
This learning path provides a graduate-level understanding of the electrochemical conversion of CO₂ into value-added products. It covers the fundamental electrochemistry, key catalytic materials, product selectivity, reaction mechanisms, and reactor design considerations. The path is designed for students interested in sustainability and assumes a background in physical chemistry and thermodynamics.
This learning path guides students from foundational electrochemistry and materials science through the principles of advanced battery chemistries, including Li-ion intercalation, solid-state electrolytes, Li-S, Na-ion, and multivalent systems, and concludes with degradation mechanisms and future directions. It emphasizes the underlying scientific principles and practical challenges to equip learners with a systematic understanding of energy storage technologies.
This learning path equips graduate students with the knowledge and skills to simulate electrochemical experiments, particularly cyclic voltammetry (CV) and electrochemical impedance spectroscopy (EIS), using finite difference methods. It covers the underlying electrochemistry, numerical methods, and practical implementation in software tools like COMSOL, DigiElch, and EC-Lab, culminating in parameter fitting and validation.