High School Spectroscopic Transitions Interactive Videos

Explore groundbreaking discoveries in Chemistry and Physics, focusing on molecular machines and their unique properties, as well as the intriguing phenomenon of quantum vortices. Gain a fundamental understanding of these advanced scientific topics and learn about their implications for future technological advancements.

Explore the foundational concepts of atomic theory, focusing on the Bohr model's role in understanding emission spectra. Gain insights into quantum energy levels, understand how atoms emit light, and recognize the relationship between energy transitions and spectral lines.

Examine the unique behaviors and complex properties of water, with a focus on its distinctive liquid phases, glass transition, and interactions in charged polymer solutions. Understand the pivotal role these properties play in various scientific fields and explore the influence of quantum mechanics in elucidating water's interactions at a molecular level.

Investigate the pivotal discovery of the Higgs boson at the Large Hadron Collider and its significance in modern physics. Understand concepts in quantum mechanics, explore the implications of the Higgs field, and examine theoretical ideas such as the multiverse and phase transitions. Gain a deep comprehension of these areas to enhance knowledge in contemporary physics.

Explore the process by which electrons transition between different quantized energy levels within the Bohr Model, focusing on the principles governing photon emission and absorption. Understand the nature of quantized energy states and examine how these electron transitions influence the characteristics of emitted or absorbed photons. Gain a fundamental understanding of atomic structure concepts through this exploration.

Explore fluorescence and its relationship with atomic structure, focusing on the impact of energy transitions on electron behavior and light emission. Gain an understanding of the mechanics of energy levels within atoms and the principles behind light emission in various processes. Enhance comprehension of atomic physics and chemistry, understanding the interplay between energy transitions, electron movement, and emitted light.

Explore the evolution of atomic models, tracing scientific advancements from Newton's theories to the development of the quantum mechanical model. Gain an understanding of the significance of models and the enhancements introduced by key scientists. Recognize the pivotal role of ionization energy in the progression of atomic theory.

Investigate the principles of electron configuration by examining lead's atomic structure and electron distribution in detail. By concluding the lesson, learners will recognize and compose electron configurations for elements, enhancing their comprehension of atomic theory and chemical properties.

Explore the principles of transition probability and the Fermi-Golden Rule within quantum mechanics, focusing on the interaction between these concepts. Gain an understanding of the mathematical frameworks that govern transition rates and discover how quantum theories apply in practical scenarios.

Examine the dramatic implications of vacuum decay on the universe, including potential phenomena such as phase transitions and quantum tunneling. Gain insights into the interplay of quantum fields and appreciate the pivotal roles these concepts play in theoretical physics and universal stability.

Explore the complexities of quantum numbers and SPDF orbitals to enhance understanding of atomic structure. Develop the ability to identify sublevel shapes and configure electrons effectively while applying quantum mechanical principles.

Understand the fundamental principles of quantum chemistry with a focus on molecular bonding and electron interactions. Gain insights into key concepts such as equations for matter fields, hybridization, and bonding structures. Develop the ability to apply these principles in various contexts, enhancing skills in analyzing chemical systems and predicting molecular behavior.

Explore the complex behaviors and unique properties of water, including its global coverage and interactions in charged polymer solutions. Understand concepts such as the application of quantum mechanics to water and the scientific challenges these present. Enhance knowledge of water's critical role in advancing scientific understanding.

Explore the fundamental concepts of atomic structures, emphasizing Bohr's atomic model and the related emission spectra. Understand electron transitions, the electromagnetic spectrum's characteristics, and the importance of these phenomena in both physics and chemistry.

Study quantum numbers and electron configurations to gain a comprehensive understanding of electron behavior in atoms. Explore atomic orbitals and the principles that govern electron arrangements, enhancing knowledge of atomic and quantum chemistry.

Study the evolution and impact of atomic models and their crucial role in shaping scientific understanding. Reinforce comprehension of model progression, anticipate future developments, and strengthen critical thinking within scientific contexts.

Explore the evolution of cosmology as experienced during postdoctoral years, focusing on evolving perceptions and key concepts. Gain an understanding of cosmology's connection to previous scientific knowledge, examine significant theories within the field, and enhance problem-solving abilities to tackle theoretical issues.

Study the intricate science of combustion, emphasizing the properties of flames, principles of black body radiation, and the impact of gravity on fire behavior. Gain a deep understanding of the factors influencing flame appearance and dynamics, and strengthen knowledge of thermal dynamics and atomic interactions.

Explore the principles of quantum chemistry, with a focus on valence electrons and electron configurations. Gain insights into orbital energy trends, electron filling orders, and their impact on chemical reactions. Enhance understanding of atomic structures and reactivity.

Explore key concepts of photon energy calculation, focusing on the relationship between wavelength, frequency, and energy levels in quantum physics. Learn to apply Planck’s constant and the speed of light in calculations, enhancing understanding of photon mechanics and transitions within the Bohr model.