High School Capillary Electrophoresis Interactive Videos

Explore the core techniques of DNA analysis, focusing on Southern blotting and gel electrophoresis. Understand the function of restriction enzymes and the process of hybridization using labeled probes. Enhance skills in identifying specific gene sequences through these methodologies.

Explore crucial biological concepts such as protein structures, cell membrane components, and key cellular processes like photosynthesis and cellular respiration. Enhance understanding of biology fundamentals to prepare for exams. Build confidence in identifying genetic outcomes, understanding enzyme functions, and mastering membrane and protein-related biochemistry.

Explore the principles and applications of gel electrophoresis in genetics, highlighting its role in the separation of molecules by size and its ability to reveal DNA's structural characteristics. Discover how this technique aids scientific research and forensic investigations by identifying genetic differences and similarities. Understand its significance in analyzing DNA to support research advancements and solve criminal cases.

Explore fundamental techniques in molecular biology, focusing on DNA manipulation tools such as Taq polymerase, restriction enzymes, and gel electrophoresis. Develop an understanding of the significance of these techniques in scientific research, enhancing the ability to apply molecular biology concepts to real-world scenarios.

Explore the principles of gel electrophoresis, focusing on analyzing large molecules such as DNA and proteins. Gain insights into the process and enhance the ability to apply this technique in molecular biology laboratory contexts.

Explore the intricacies of gel electrophoresis, a fundamental technique for visualizing and identifying DNA fragments. Gain insights into the specific mechanisms that drive DNA movement through a gel and understand how this process facilitates the identification of unique DNA profiles. Develop a deeper comprehension of molecular biology techniques and enhance skills in interpreting electrophoretic data.

Investigate the dynamic processes involved in bacterial transformation and the foundational principles of gel electrophoresis within molecular biology. Gain a clear understanding of genetic manipulation techniques and learn to analyze DNA fragments effectively. Develop and master essential molecular biology skills through hands-on exploration and analysis.

Examine the fundamental principles of gel electrophoresis in the separation and analysis of macromolecules like DNA. Understand the applications of this technique in forensic science and laboratory environments, gaining insights into DNA fragment movement and the science behind DNA matching in investigations.

Explore the role of restriction enzymes in genetic engineering, focusing on processes including DNA cutting at specific sequences and the recognition of palindromic sequences. Gain an understanding of enzyme action mechanisms in DNA manipulation, along with its applications in biotechnology and genetic research.

Explore the principles of gel electrophoresis, focusing on its purpose and applications in genetic analysis. Gain a comprehensive understanding of biotechnology processes, including practical skills for molecule separation and DNA comparison in forensic contexts.

Explore gel electrophoresis, a technique for separating and analyzing large molecules such as DNA and proteins. Develop skills in understanding the mechanisms and applications of molecular separation, enhancing the ability to apply these techniques in scientific research.

Explore the unique interactions between liquids and surfaces, focusing on meniscus and capillary action in everyday situations. Understand the principles of liquid dynamics to enhance comprehension of chemistry, with practical examples such as water behavior in glass and absorption by paper towels.

Examine the core principles and various applications of electric fields, with a focus on their dynamics in parallel plates and gel electrophoresis. Master the concepts of how electric fields influence the movement of particles and learn to identify the factors that affect the strength of these fields.

Examine foundational concepts in molecular biology, focusing on the roles and functions of enzymes such as Taq polymerase and restriction enzymes. Learn essential techniques like gel electrophoresis to understand DNA manipulation processes. Build competence in genetic analysis and research through comprehension of these critical methods and their applications.

Explore the key principles and practical uses of thin layer chromatography, emphasizing the interaction between polar and non-polar substances. Learn to identify chromatography components, comprehend the process, and calculate retention factors effectively.

Understand the foundational concepts of biotechnology and genetic engineering, such as selective breeding, recombinant DNA, and gel electrophoresis. Gain the ability to analyze the ethical implications and practical applications of genetic engineering in developing innovative biotechnological solutions.

Explore the foundational aspects of DNA fingerprinting, focusing on pivotal techniques and diverse applications in fields such as forensics and genetic research. Gain insight into methodologies like gel electrophoresis and STR analysis, understanding the ethical considerations surrounding DNA databases.

Examine the fundamental principles of gel electrophoresis with a focus on its mechanisms and applications in DNA technology. Understand the process by which DNA fragments are separated based on size and explore the role of gel electrophoresis in the fields of biotechnology and forensic science.

Examine the principles behind lateral flow assays with a focus on their application in COVID-19 testing. Explore the key components and their functions to understand the mechanism, advantages, and limitations of lateral flow testing. Gain insights into the role of antibodies and capillary action in diagnostic processes.