High School Electrochemical Sensors Interactive Videos

Understand the fundamental principles of electrochemical gradients and their role in cellular processes. Enhance comprehension of diffusion, calculate membrane voltage, and explore the significance of these gradients in biological systems, such as action potential generation in neurons, through practical simulations and engaging questions.

Investigate the principles of electrochemical corrosion through experiments involving various metal electrodes. Learners will determine the roles of electrodes, observe gas production, and assess reaction rates to enhance their understanding of corrosion processes and their implications in materials science.

Explore the remarkable contributions of John Jacob Berzelius to chemistry, highlighting his role in discovering elements and introducing laboratory equipment. Gain insights into Berzelius's impact on modern chemistry, developing an understanding of historical influences on scientific advancements.

Explore electrochemical cells focusing on electron flow, voltage determination, and battery functionality. Gain an understanding of measuring electrical current and predicting the effects of different metals in electrochemical reactions, enhancing knowledge of key concepts and processes in this area of study.

Understanding the electrochemical series is crucial for analyzing metal reactions and electrode potentials. Learners will gain insights into redox reactions and the movement of electrons, enhancing their skills in electrochemical analysis.

Explore the fundamental aspects of electrochemical cells, focusing on cell notation and understanding the roles of the anode and cathode in oxidation-reduction reactions. Comprehend the separation of half-cell reactions and develop a solid understanding of standard conditions in cell notation.

Explore the foundational concepts and practical applications of electrochemistry, emphasizing the role and functioning of galvanic and electrolytic cells. Gain an understanding of electrochemical processes and their real-world applications, enhancing analytical skills and the ability to apply these principles in practical scenarios.

Explore SupraSensor technology, an innovative approach that utilizes principles from supramolecular chemistry to detect nitrate levels in soil, enhancing precision agriculture. Gain insights into how this technology contributes to reducing energy waste and promotes sustainable farming practices on a global scale.

Explore the fundamentals of electrochemistry with a focus on voltaic cells, emphasizing concepts such as oxidation, reduction, and cell potentials. Learners will enhance their understanding of electrochemical reactions and their applications in real-world scenarios, developing comprehensive knowledge and practical skills in this field.

Explore advanced strategies for decarbonizing the chemical industry by optimizing electrochemical reactions and integrating artificial intelligence. Gain a deeper understanding of sustainable practices, focusing on technological advancements to reduce carbon emissions and enhance energy efficiency.

Explore critical concepts in chemistry, including isotopes, electron transitions, nuclear decay, and types of bonding, tailored for Regents exam preparation. Understand complex chemical principles and apply them to problem-solving, enhancing proficiency in high school-level chemistry.

Examine the integral role of smart sensors in Industry 4.0, highlighting their advanced capabilities and effect on manufacturing processes. Gain an understanding of how smart sensors transform smart factories through technological advancements, such as multi-sensing capabilities and digital processing, promoting increased efficiency and innovation.

Explore fundamental concepts of redox reactions and their applications in electrochemical cells. Understand differences between voltaic and electrolytic cells and the roles of oxidation and reduction. Gain insights into cell potential, equilibrium constants, and electrochemistry principles, enhancing the ability to solve complex stoichiometry problems.

Explore the roles and applications of various industrial sensors, differentiating sensor types and comprehending their functions within control systems. Gain insights into the practical application of sensors for effective data collection and control, enhancing the ability to identify and apply appropriate sensors tailored to specific industrial needs.

Explore how catalytic converters mitigate air pollution by transforming harmful vehicle emissions into less hazardous substances through chemical reactions. Gain a comprehensive understanding of the key roles different metals play in these converters and learn the important relationship between vehicle efficiency and emission control systems.

Explore the critical functions and significance of automotive sensors such as crankshaft position, throttle position, and MAF sensors. Understand their roles in engine performance and diagnostics, enhancing the ability to troubleshoot and maintain vehicle systems effectively.

Explore the principles of redox reactions and the operational mechanisms of electrochemical cells, such as galvanic and electrolytic cells. Understand how current is generated and the role of salt bridges, alongside applications like electroplating. Gain insights into the fundamental connections between electricity and matter, as described by Faraday's laws. Develop a comprehensive understanding of these concepts, enhancing knowledge and skills in electrochemistry.

Gain insights into the innovative use of carbon nanotube technology for designing sensor circuits with common materials such as pencil and paper. Understand the significant potential of carbon nanotubes in detecting gases and indicators of ripeness, while enhancing knowledge in sensor design and functionality. The learning process focuses on developing expertise in applying advanced materials science to practical sensing applications.

Examine the production and environmental impact of ammonia, emphasizing its role in agriculture and the Haber-Bosch process. Understand key processes and their environmental ramifications, and enhance knowledge of sustainable practices and energy solutions.

Explore the chemistry of rust formation by examining the chemical processes and necessary components involved. Gain a comprehensive understanding of electrochemical reactions and learn how environmental factors contribute to rusting. Enhance your knowledge of chemical reactions and scientific principles.