11th Grade X-ray Diffraction Interactive Videos

Explore the fundamentals of X-Ray diffraction and its application in qualitative phase analysis, focusing on identifying material phases and addressing common challenges. Gain skills in recognizing sample displacement, leveraging software for phase identification, and utilizing both internal and external standard methods for quantitative analysis.

Explore the principles of Bragg's Equation, which are crucial for calculating atomic layer distances through X-ray crystallography. Develop the ability to apply Bragg's Equation to determine interplanar angles and wavelengths, enhancing analytical skills in predictive modeling within the physical sciences.

Explore the foundational concepts of wave properties, emphasizing characteristics such as wavelength and frequency, along with different wave types. Develop the ability to distinguish between various wave types and comprehend how energy transfer occurs through waves, thereby enhancing the understanding of physical phenomena. Strengthen knowledge of wave behavior across diverse contexts, fostering analytical skills related to waves.

Explore the evolution of the modern periodic table with a focus on the groundbreaking experiments of Henry Mosley and their significant influence on chemical classification. Gain insights into the periodic table's development while understanding the relationship between atomic numbers and element properties. Enhance analytical skills in chemistry through this study.

Examine the engineering challenges and innovative solutions associated with launching and operating space telescopes, with a focus on the James Webb Space Telescope and advanced imaging technologies. Gain insights into the mechanics of starshades, coronagraphs, and Aragoscopes to enhance the ability to observe distant exoplanets and other celestial phenomena.

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.

Investigate the innovative methodologies and social dynamics pivotal in discovering DNA's structure. Gain insights into the collaborative and competitive nature of scientific research, comprehending the progression from the understanding of DNA structure to RNA exploration.

Examine Rosalind Franklin’s essential contributions to understanding DNA's structure through key historical developments and scientific techniques. Gain knowledge of the significance of X-ray crystallography and explore the effects of gender discrimination on scientific progress. Develop insights into the historical context of significant scientific breakthroughs.

Explore the properties of light and its interactions with different materials, focusing on phenomena such as reflection, refraction, and interference. Gain understanding of wave behavior, light perception, and the principles underpinning common optical occurrences.

Investigate the breakthrough discovery of rapid snow microbursts on Mars and the extraordinary atmospheric phenomena of diamond rain theorized on Uranus and Neptune. Through this exploration, learners will comprehend how convection influences Martian snowfalls and gain valuable insights into the mechanisms driving extreme weather patterns within our solar system.

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 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.

Explore the mysteries of ancient Egyptian mummification techniques, focusing on the discovery of perfumes and embalming agents through modern analytical methods. Gain insights into the chemical processes of ancient times and understand how archaeological finds illuminate historical trade and technology.

Explore the cultural significance and perceptions of jade across various societies, examining its historical use and the intrigue surrounding its artifacts. Learners will gain insights into ancient manufacturing techniques and the modern analytical methods employed to uncover jade's secrets. This experience aims to develop an understanding of jade's role in different cultures and enhance skills in analyzing historical and contemporary approaches to its use.

Explore the significance of Avogadro's number in chemistry, emphasizing its impact on atomic theory and the contributions of key historical figures. Gain insights into foundational chemical principles, enhance understanding of atomic structures, and learn how historical hypotheses have shaped modern scientific perspectives.

Investigate the scientific principles behind airport security technologies, focusing on X-ray scanners, metal detectors, and explosives trace detection machines. Gain a thorough understanding of the technology used to ensure safety at airports, dissecting detection methodologies and evaluating the effectiveness and safety of various scanning techniques.

Explore the key historical milestones and scientific discoveries related to DNA, from Mendel's genetics to Watson and Crick's breakthrough on its structure. Gain insights into foundational genetic experiments and the influence of DNA on modern genetics, enhancing understanding of genetic inheritance and scientific progression.

Investigate the innovative use of technology in art conservation and the unique ways it uncovers hidden features in historical artworks. Gain insights into the merger of art and science, along with the practical application of modern technology to preserve cultural heritage.