High School Protein Engineering Interactive Videos

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.

Examine the causes and effects of genetic mutations, such as sickle cell disease, and understand the role of nondisjunction. This exploration facilitates comprehension of various mutation types and their impacts, enhancing knowledge of fundamental genetics concepts.

Explore the process of genetic engineering, focusing on the utilization of microorganisms for human insulin production. Understand genetic modification and insulin extraction, gaining insights into the roles of enzymes and molecular techniques in biotechnology. Learn about the practical applications of recombinant DNA technology and develop a deeper understanding of the subject.

Explore the comprehensive domain of genetic engineering, emphasizing DNA manipulation techniques and their practical applications. Gain insights into the recombination of DNA from different organisms and understand the role of restriction enzymes, equipping learners with the knowledge to recognize biotechnological advancements in medicine and agriculture.

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.

Examine the critical components of molecular biology with an emphasis on understanding the structural differences between DNA and RNA. Gain insight into the mechanisms of genetic information expression, exploring the roles of key molecules involved in DNA replication and the processes outlined by the central dogma. Develop an understanding of the importance and applications of genetic engineering. Learners will achieve a comprehensive grasp of these molecular processes and their significance in biological systems.

Investigate the innovative techniques of CRISPR-Cas9, highlighting its precise capabilities in gene editing and applications in genetic engineering. Critically analyze CRISPR's advantages over traditional methods, and understand its ethical implications within human and ecological contexts.

Investigate how biological principles inspire innovative energy solutions by exploring the development of virus-engineered materials. Gain an understanding of the construction and functionality of virus-based batteries and solar cells. Enhance knowledge of cutting-edge renewable energy technologies, focusing on the integration of biology into energy production systems.

Explore the engineering of super strong fibers by understanding protein structures and techniques used in chocolate production. Grasp the role of proteins in material innovation and the chemistry behind chocolate tempering, enhancing skills in both theoretical and applied material science.

Study the core principles of genetic engineering and its role in boosting agricultural productivity. Gain an understanding of how transgenic plants are developed, including the necessary tools and techniques. Develop the ability to assess genetic modifications for their environmental impact and consumer safety.

Explore the intersection of biology and technology by examining unique biomaterial properties and the potential of virus-powered innovations. Gain insights into nanoscale material structures and their applications in technological advancements to enhance understanding of material science innovations.

Gain insights into the complexities of the genetic code by examining its redundancy and exploring the consequences for genetic engineering and mutation resilience. Develop an understanding of the mechanisms that confer resilience to the genetic code, learn about the potential applications in biotechnology, and discover innovations in genetic engineering.

Examine the fundamentals of molecular biology with a concentration on gene regulation and expression in both eukaryotic and prokaryotic systems, including DNA structure and function, protein synthesis pathways, and the impact of genetic mutations. Gain a thorough understanding of molecular mechanisms to improve competence in genetic analysis and laboratory techniques.

Explore the complexities of the genetic code, highlighting its redundancy and the role of RNA in its transmission. Examine techniques to reprogram the genetic code for advanced biotechnological applications while understanding the potential benefits and challenges of these innovations. Enhance comprehension of cutting-edge biological advancements and the skills necessary to navigate this evolving field.

Explore the impacts of genetic mutations and their role in evolution with real-life examples such as Joseph Merrick and resistance to historical plagues. Gain insights into natural selection processes and the significance of genetic research, fostering skills in understanding genetic variation and its practical applications.

Investigate the complexities of CRISPR technology in genetic engineering, emphasizing the mechanisms of gene editing within the CRISPR-Cas9 system. Gain a comprehensive understanding of essential elements such as guide RNA and spacer DNA. Examine the transformative potential of CRISPR in treating genetic disorders.

Explore the intriguing aspects of magnetism by dispelling prevalent myths and understanding its crucial role in advanced biospleen technology. Gain insights into how magnets facilitate pathogen removal processes and consider the potential impacts on healthcare advancements by focusing on the science behind these technologies and the skills required to understand their applications.