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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7817 Paths
7817 Paths · page 628 / 782
A systematic learning path for high school chemistry students to understand spontaneity through the second law and entropy, including the statistical interpretation, entropy changes in ideal processes, and the third law.
This learning path guides high school students through the principles of energy changes in chemical reactions, focusing on measuring and calculating enthalpy changes using calorimetry. It covers heat of reaction, Hess's law, standard formation enthalpy, bond enthalpies, and both solution and bomb calorimetry, building from foundational thermodynamics concepts to practical calculation methods.
This learning path guides high school chemistry students from foundational concepts of energy and thermodynamics to applying the first law to calculate energy changes in chemical processes. It covers work, heat, internal energy, enthalpy, and heat capacities, emphasizing the distinction between state and path functions.
A structured learning path for high school students to understand different forms of energy and their transfer, with a focus on chemical thermodynamics. It covers foundational physics concepts, calculus basics, and core thermodynamic principles, building from basic definitions to applications in chemical systems.
This path introduces the fundamental concepts of chemical thermodynamics, including systems, surroundings, state functions, processes, and equilibrium. It is designed for high school students with basic calculus knowledge, progressing from simple definitions to more complex applications.
This path equips aspiring analytical chemistry researchers with the knowledge and skills to develop, optimize, validate, and critically evaluate analytical methods. It covers foundational analytical principles, advanced separation and detection techniques, systematic method development, ICH validation, uncertainty estimation, and data analysis, culminating in literature review and peer review competencies.
This learning path equips analytical chemists with the knowledge and skills to design and implement environmentally friendly analytical methods. It covers the foundational principles of green chemistry, strategies for reducing solvent use and reagent consumption, and the adoption of energy-efficient analytical techniques, with a focus on microextraction and other miniaturized approaches.
This learning path guides graduate students interested in cell biology through the principles and applications of analytical methods for single-cell chemical analysis. It covers essential concepts from microsampling and microfluidics to mass spectrometry-based techniques and imaging, providing a comprehensive understanding of how to probe the chemical content of individual cells.
This advanced learning path equips graduate students with a comprehensive understanding of analytical strategies for metabolomics and proteomics, focusing on LC-MS-based workflows. Learners will explore core concepts from sample preparation to data analysis, including protein digestion, peptide separation, mass spectrometry, database searching, and quantitation. The path emphasizes the integration of these techniques in systems biology research.
This path introduces ambient ionization mass spectrometry (MS) techniques for rapid, direct analysis of samples with minimal preparation. It covers core principles, key techniques (DESI, DART, paper spray), and applications in forensics, food safety, and clinical diagnostics.