High School Macromolecular Crystallography Interactive Videos

Explore the complexities of halogen bonds and their multifaceted applications, integrating insights into pygmy hedgehog biology. Gain an understanding of how studying molecular structures enhances the design and functionality of anion sensors, while simultaneously appreciating the unique adaptive features of hedgehogs.

Explore the intricacies of protein structures and comprehend the importance of atomic arrangements and hydrogen bonding. Gain insights into crystallography techniques and their impact on biological functions, equipping yourself with the ability to critically assess molecular structures.

Discover the groundbreaking concept of carbon's ability to form hydrogen bonds, an idea first proposed by June Sutor and initially met with skepticism. Understand the critical importance of atomic arrangement in proteins and acquire the skills to apply X-ray crystallography techniques for investigating protein structures. Gain appreciation for the intricate architecture of protein molecules and develop competence in structural analysis within the context of modern scientific research.

Explore the fundamental concepts of bond energy and bond length in chemical bonding by examining theories and historical advancements. Enhance understanding of atomic interactions, leading to a clearer grasp of molecular structures and their properties.

Explore the fundamentals of chemical bonds by focusing on bond lengths and energies and their relationships to atomic interactions. Understand how bond strength affects bond lengths and energies, and examine different bond types to enhance comprehension of atomic behaviors in chemistry.

Analyze the characteristics and properties of ionic bonds by examining their formation and impact on compound structures. Understand how ionic bonds affect molecular properties, and gain insights into studying compounds through principles such as X-ray crystallography and Coulomb's law. Develop a comprehensive understanding of these concepts to enhance analytical skills in chemical bonding.

Gain an understanding of the development and organization of the periodic table, focusing on the classification and periodicity of elements. Explore key scientific contributions that shaped this systematic organization of chemical elements. Enhance the ability to predict chemical reactions and advance in scientific studies.

Investigate the details of cubic crystal structures with a focus on coordination numbers and atomic occupancy. Gain a deeper understanding of material science principles by calculating volume efficiency and identifying atomic configurations within various cubic lattices.

Explore innovative techniques in biomimetic chemistry that replicate the forms and functionalities of natural proteins. Gain insights into the complexities involved in the creation of synthetic proteins and their potential uses, including the development of synthetic antibiotics. Enhance expertise in molecular biology techniques and their practical applications in various fields.

Examine the intricate details of bond length and bond energy in chemical bonding. Understand how these principles govern atomic attractions, enabling predictions about bond properties through analysis of atomic interactions and energy requirements.

Explore Rosalind Franklin's pivotal contributions to uncovering DNA's structure, emphasizing her X-ray crystallography work and its significant influence on modern genetics. Gain insights into the scientific process and understand the historical context regarding women's roles in major scientific breakthroughs. Learn about the methodologies involved and assess the impact of these discoveries on contemporary scientific thought and practice.

Analyze the arrangement and contribution of atoms in face-centered cubic unit cells by examining atomic positions and their roles in the structure. This will help develop a thorough understanding of atomic contributions and configurations, enhancing comprehension of crystallography principles.

Explore the atomic arrangement and number of atoms in simple cubic and body-centered cubic unit cells. Gain an understanding of the geometric shapes and fractions of atoms within these structures, enhancing skills in identifying and differentiating between cubic lattice types. Build a foundational knowledge of crystal lattice structures.

Gain a comprehensive understanding of valency and chemical properties of elements, focusing on their electron configurations. Develop the ability to determine the valency of elements and predict chemical reactivity, enhancing appreciation of atomic structure and periodic trends.

Explore the intricate chemical processes in sea slug brains to gain valuable insights into human memory and learning. Understand how to apply chemical analysis techniques to study neural functions and recognize the importance of model organisms in neuroscience research.

Discover the intriguing realm of allotropes and the conventions used in chemical naming. Enhance your ability to identify allotropes and comprehend their structures while developing proficiency in systematic chemical nomenclature.

Explore key principles of energy in both chemistry and physics, such as the first law of thermodynamics, various reaction types, and the characteristics of chemical substances. Strengthen understanding of essential energy concepts, enhance the ability to recognize different energy forms, and apply these ideas to real-world scientific scenarios.

Explore polymer chemistry, uncovering accidental discoveries and different polymerization processes that have significantly influenced modern science. Understand both biological and synthetic polymers by examining their practical applications and unique properties. Identify types of polymers, explain key chemical processes, and appreciate the impact of polymer chemistry in technological and everyday contexts.

Key concepts in nuclear chemistry include understanding the nature of radioactivity, atomic transformations through changes in proton numbers, and the significance of atomic half-lives. Learners explore and clarify common misconceptions about radioactivity, identifying various types of radioactive decay while appreciating the practical applications of isotopes such as californium-254 in nuclear reactions.

Focusing on a speaker's academic journey through cybernetics, psychology, and information theory, this material offers insights into the intricacies of planning an academic career. Learners will understand how to balance research with practical applications, enabling them to make informed decisions about their educational paths. The exploration encourages critical thinking and decision-making skills related to educational and career planning.