High School Total Synthesis Design Interactive Videos

Explore the core principles involved in designing and constructing desalination plants to tackle global water scarcity. Gain an understanding of various desalination technologies, the significance of process flow in engineering design, and develop problem-solving skills for operational challenges.

Focus on the core of cellular biology by examining organelle functions and how cell size influences biological processes. Develop analytical skills for understanding cell structures and enhance comprehension of enzyme functionality, laying a foundation for advanced biology studies.

Decompose complex problems into manageable tasks by utilizing structure diagrams. Gain an understanding of key strategies to effectively organize systems, thereby enhancing the ability to develop modular and efficient solutions.

Explore how design fiction merges with synthetic biology to investigate the potential of plants in indicating soil toxicity, and examine speculative design in the realm of olfactory experiences. Investigate biotechnological innovations developed at MIT to understand the integration of technology into creative, emotional, and artistic applications, enhancing both scientific and creative viewpoints. The focus will be on broadening perspectives through interdisciplinary approaches.

Explore the forefront of synthetic biology, focusing on creating artificial life and genome synthesis. Understand how these advancements can transform industries through DNA replication, addressing synthesis challenges, and replacing petrochemical processes with synthetic alternatives.

Explore advanced concepts in synthetic biology, focusing on DNA synthesis, genome manipulation, and their applications in medicine and environmental solutions. Learners will enhance their understanding of synthetic biology's potential to drive innovation in biotechnology and address global challenges.

Explore the fundamental concepts of Total Productive Maintenance, focusing on its pillars and methodologies such as the 5S methodology. Understand how to achieve production efficiency by minimizing breakdowns and defects, and learn about effective maintenance strategies.

Explore the intersection of traditional and modern design by examining material ecology and computational design. Understand how integrating biological processes into creative structures fosters sustainable and innovative design solutions.

Investigate the innovative techniques employed to sample and analyze the DNA of oceanic microbes, as highlighted in Craig Venter's research. Gain insights into how novel genomic research is transforming understanding of marine life, emphasizing its role in environmental sustainability and synthetic biology.

Investigate the process of folding DNA into intricate shapes for molecular programming, drawing parallels between biological systems and computer programming. Gain insights into DNA nanostructures and their applications, enhancing understanding of bio-nanotechnology concepts and exploring future technological and biological advancements.

Explore crucial aspects of handle design in bladesmithing, including the use of both natural and synthetic materials. Understand how the choice of materials impacts the weapon's aesthetics and functionality, and master the skill of creating effective and durable blade handles.

Investigate the innovative process of creating synthetic life by examining the ethical considerations and technical challenges of genetic engineering. Gain insights into practical applications of synthetic DNA and its potential impact on future biological advancements.

Explore the revival of jute production in India, examining challenges in industrial upgrades and the environmental benefits of biodegradable fibers. Gain insights into sustainable practices, understanding the impact of synthetic materials on the environment and water bodies.

Explore the origins of Prussian blue, recognized as the first synthetic pigment, and its significant impact on Baroque art. Understand the chemical reactions involved in its creation and the challenges artists faced in sourcing pigments. Gain an appreciation for advancements in pigment production and their influence on renowned artworks.

Explore synthetic life's development through breakthroughs in organic chemistry and genome synthesis. Understand the implications of synthetic organisms and advancements in DNA editing technologies, learning how these innovations can lead to future applications such as the production of clean fuels.

Explore Six Sigma and Lean methodologies by examining the DMAIC and DMADV processes integral to quality improvement. Develop skills in identifying and solving defects, adopting a Lean approach for eliminating non-value-adding processes, and enhancing production efficiency.

Explore the engineering methodologies involved in global clean water access, focusing on desalination processes. Gain insights into engineering design principles and discover solutions for enhancing efficiency in water treatment. This learning experience aims to deepen understanding of applied engineering and sustainable practices.

Explore cutting-edge drone technology, focusing on potential applications and revolutionary localization technology. Gain insight into the advantages and challenges of various flying machines, enhancing knowledge of future aviation innovations.

Explore the innovative field of synthetic genomes, focusing on creating and understanding the challenges associated with the Caulobacter ethensis-2.0 synthetic genome. Gain insights into genome design and the potential applications of synthetic bacteria. Examine the groundbreaking use of molecular surgery in reshaping tissue. Participants will develop a deep understanding of these cutting-edge techniques and their implications. The learning process will enhance skills in genome design and the practical applications of molecular surgery in biotechnology.

Focus on the transition in biology from reductionist methods towards the study of major organizational changes, highlighting the integration of various scientific principles. Understand the emergence of unified biology concepts, emphasizing the interconnectedness across scales of biological complexity.