9th Grade Science, Technology, Engineering & Mathematics Interactive Videos

Investigate the connections between art, science, and mathematics by exploring hyperbolic geometry through crochet models of coral reefs. This study cultivates skills in understanding mathematical concepts and enhances environmental awareness, fostering recognition of interdisciplinary relationships.

Explore the intersection of art, science, and mathematics through the crochet coral reef project. Understand hyperbolic geometry's role in nature, appreciate embodied knowledge in abstract concepts, and engage with the project's global collaborative spirit. Highlight environmental issues while modeling complex geometric shapes using crochet.

Explore the advancements and implications of genetic engineering, with a key focus on CRISPR technology and its diverse applications. Gain insights into the scientific principles underlying gene editing, its future potential, ethical considerations, and challenges within the field.

Explore the interconnected roles of science, mathematics, and technology in understanding concepts like black holes and historical truths. Identify the importance of interdisciplinary approaches in fostering scientific innovation and validating proofs.

Explore the engineering principles and technology inspired by Jaeger machines from the movie Pacific Rim. Understand the implementation of two-pilot systems, the effects of signal transmission on remote control, and the advantages of using alloys over pure metals. These studies enhance critical thinking and technical understanding.

Explore the distinctive nature of mathematical proofs compared to other fields, emphasizing their unique characteristics and roles in scientific reasoning. Gain a deeper understanding of the concepts of evidence, logic, and the timeless nature of mathematical truths, enhancing analytical and critical thinking skills.

Explore diverse techniques of proof in mathematics and science, focusing on logical propositions, repeated experiments, and evidence evaluation. Learn the distinctions and applications of mathematical, scientific, and historical proofs to enhance critical thinking, analytical skills, and problem-solving abilities through evidence evaluation.

Focus on developing essential mathematics and science skills necessary for high school graduates, with a strong emphasis on the practical application of algebra and scientific theories. Learners will gain the ability to model real-world scenarios, interpret data using human intelligence, and create coherent scientific theories. These skills are crucial for academic and career success in STEM fields.

Examine the impact of creativity and innovation in mathematics and data science through engaging content. Develop critical problem-solving skills, understanding the significance of interdisciplinary approaches in grasping complex concepts.

Investigate the significant mathematical contributions of the Bernoulli family, covering advancements in calculus, fluid dynamics, and foundational concepts such as the law of large numbers and Bernoulli's principle. Gain a deep understanding of mathematical problem-solving methodologies and historical contexts of major theories, enhancing both comprehension and application skills in mathematical sciences. This exploration promotes mastery in key areas of mathematics through critical analysis and synthesis of historical developments.

Essential skills and roles in STEM careers are explored, highlighting their impact on fast-growing industries. Learners gain an understanding of teamwork and critical analytic skills, laying the foundation for future innovations.

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Explore genetic engineering techniques focusing on DNA manipulation and the role of enzymes. Gain a comprehensive understanding of current methods such as CRISPR and vectors, and discover practical applications in agriculture and other fields. Learn how these innovations address real-world problems.

Explore the essence of scientific inquiry by distinguishing between scientific disciplines and fields like mathematics and computer science. Investigate complex systems and reductionism within science. Gain skills in understanding scientific methods and differentiating between natural and social sciences. Appreciate how science and the arts challenge boundaries.

Explore the relationship between mathematics and computational thinking within scientific contexts by examining key historical formulas and modern data analysis techniques. Gain the ability to model scientific problems computationally while developing insights into data interpretation and simulation tools.

Explore the foundational concepts of genetic engineering and the revolutionary CRISPR technology, covering key figures, historical manipulation methods, and potential applications. Gain insights into DNA structures, enhance understanding of genetic manipulation, and assess the ethical implications of these biotechnological advancements.

Focus on mathematical and computational integration within scientific disciplines, addressing areas such as genomics big data, mathematical modeling, and simulation software. Enhance computational skills and grasp the pivotal role of mathematics in addressing intricate scientific challenges.

Explore the dynamic world of renewable energy and its role in sustainable engineering. Gain insights into the advantages and challenges of various renewable energy sources to enhance your ability to critically evaluate energy solutions.

Analyze the groundbreaking journeys of Marie Curie and Mamie Wong Moy as they overcame societal and academic barriers, significantly contributing to the field of science. Understand the historical context of women's education and careers, explore the personal and professional challenges faced by women in science, and draw inspiration to pursue scientific endeavors through curiosity and resilience.

Explore the intersection of art and science to see how artistic practices can enhance scientific understanding and cultural relevance. Understand the impactful contributions of artists in scientific settings such as NASA and the significance of integrating the arts into STEM for a more diverse and enriched learning experience.