12th Grade Linear Free Energy Relationships Interactive Videos

Learn to identify dependent and independent variables in scientific experiments and understand how to graphically represent data in disciplines such as physics and chemistry. Develop key skills in plotting data on graphs and interpreting relationships, equipping you for analytical and problem-solving tasks in scientific studies.

Explore hydrocarbons in organic chemistry with a focus on the structural and bonding characteristics of alkanes, alkenes, alkynes, and cyclic hydrocarbons. Gain a deeper understanding of chemical bonding and molecular structures. Develop the skills to identify and differentiate between various types of hydrocarbons based on their formulas and hybridizations.

Examine the core concepts of cis and trans isomerism by focusing on differences in molecular structure and how these affect physical properties like boiling and melting points. Develop an understanding of molecular polarity, dipole moments, and the requirements for isomer conversion, advancing knowledge of organic chemistry principles and molecular interactions.

Examine the complex connections in stereochemistry, concentrating on enantiomers, chiral environments, and associated concepts such as racemic mixtures and meso compounds. Gain insights into molecular chirality, enantiomer interactions in various environments, and the effects of stereochemistry on chemical properties.

Explore the fundamentals of free energy and equilibrium, focusing on key concepts such as ΔG and equilibrium constants, and their role in chemical and biological reactions. Gain the ability to predict reaction spontaneity and understand energetic coupling in cellular processes.

Explore the fundamentals of radical chemistry by examining radical reactions and their mechanisms. Understand the initiation, propagation, and termination steps of these reactions, and learn about radical stability. Compare radicals with carbocations, and identify the hybridization and geometry of carbon radicals to enhance knowledge of molecular chemistry and reaction processes.

Examine thermodynamics principles with an emphasis on Gibbs free energy, elucidating its influence on reaction spontaneity. Gain the ability to evaluate reaction conditions and comprehend the roles of enthalpy, entropy, and equilibrium constants, thereby enhancing problem-solving skills in thermodynamics effectively.

Investigate the relationship between cell potential and Gibbs free energy in electrochemistry, focusing on fundamental concepts such as galvanic cells and the equilibrium constant. Develop the ability to connect thermodynamic principles to electrochemical processes, enhancing the understanding of spontaneous and non-spontaneous reactions.

Examine the relationship between cell potential and Gibbs free energy in electrochemical reactions, highlighting essential formulas and the role of electron transfer. Acquire the ability to calculate energy changes in reactions and deepen understanding of the spontaneity of electrochemical processes.

Examine the fundamental principles of chemistry, focusing on chemical properties and changes, along with foundational concepts that define the field. Understand the interactions between matter and energy, and develop the ability to differentiate between physical and chemical changes. Identify compounds and comprehend the composition of mixtures.

Explore the realm of organic chemistry by examining energy diagrams and thermodynamic principles. Acquire skills in recognizing reaction characteristics and comprehending energy transitions within chemical processes.

Master the key principles of organic chemistry by focusing on reaction mechanisms, carbon chain nomenclature, and electronegativity differences. Learners will gain the ability to identify chemical structures, predict reaction outcomes, and comprehend the significance of molecular interactions in organic compounds.

Explore essential reaction mechanisms in organic chemistry, including addition reactions and the differences between Markovnikov and anti-Markovnikov addition. Gain an understanding of nucleophilic substitution processes, stereochemistry, and regioselectivity. Learn to predict reaction spontaneity by examining the role of Gibbs free energy, building the skills necessary to tackle complex organic reactions with confidence.

Building a thorough comprehension of essential organic chemistry concepts, learners will explore elements, formulas, and chemical structures. Focus is placed on understanding chemical bonding and the pivotal role of carbon in organic compounds, thus equipping learners for advanced studies in organic chemistry.

Explore the complex realm of organic chemistry mechanisms, with a focus on stereochemistry and its effects on reaction outcomes. Gain the ability to differentiate between stereoselectivity and regiospecificity, improving analysis skills within organic chemical reactions.

Explore critical organic chemistry concepts with a focus on chirality and stereochemistry. Understand how to determine chiral configurations and assess the stability of cycloalkanes. Enhance analytical skills in evaluating complex molecular structures.

Explore the complexities of organic chemistry by examining the significance and application of reaction mechanisms. Develop skills to accurately predict outcomes of reactions, enhancing the understanding of molecular interactions and transformations.

Explore the complexities of organic chemistry, emphasizing electrophilic attack mechanisms and their significance in organic reaction pathways. Gain a thorough understanding of nucleophilic behavior and discover how protecting groups are utilized in synthetic reactions. By mastering these concepts, learners will enhance their knowledge of organic reaction mechanisms and improve their problem-solving skills in synthetic organic chemistry.