Socio-technical Systems Resources

Explore geological phenomena at convergent boundaries by examining subduction processes and mountain formation. Gain an understanding of how to identify and categorize various boundary types. Develop skills in analyzing geological features and processes that occur when tectonic plates interact.

Discover how mathematics and science drive advancements in engineering and technology. Gain insights into problem-solving, design processes, and achieving mechanical advantages.

Gain an understanding of genetic engineering with a focus on the role of plasmids and recombinant DNA techniques. Explore how these methods are applied in both medicine and agriculture. Develop insights into the manipulation of genetic material to advance healthcare solutions and improve agricultural practices. Enhance your knowledge and skills in genetic modification and its various applications.

Investigate the scientific method and its essential role in research and discovery. Develop skills in formulating hypotheses, conducting experiments, and analyzing results effectively.

Examine the core principles of scientific investigation and observational methodologies. Develop critical thinking and analytical abilities by mastering and implementing scientific methods.

Explore the fundamental principles of structural engineering with a focus on understanding the different forces at play, such as torsion and compression. Gain insight into various materials and how they respond to different load types. Enhance your ability to analyze and apply these concepts in practical scenarios, developing a robust comprehension of how structures support and withstand forces.

Understand and apply the steps of the scientific method, with a focus on formulating hypotheses and conducting experiments. Develop the ability to make informed predictions and evaluate them through practical investigation, gaining insights into scientific discoveries and processes.

Understand key concepts in robotics, focusing on torque, double shear, and weight distribution. Learn how these principles contribute to structural stability and mechanical efficiency, enhancing the design and function of robotic systems.

Explore scientific inquiry and engineering design concepts, emphasizing problem-solving strategies used by scientists and engineers. Focus on developing competencies in problem-solving and the evaluation of design solutions.

Learn practical methods for developing research questions with an emphasis on SMART objectives. Acquire skills in crafting precise, impactful research inquiries.

Investigate the impact of convergent plate boundaries and subduction zones on Earth's topography. Gain a clear understanding of the dynamic geological processes that occur, including the way they contribute to the recycling of the lithosphere. Develop skills in analyzing geological phenomena and interpret the role of these processes in shaping the planet's surface. Focus on grasping essential concepts in plate tectonics and their implications for Earth's continuous transformation.

Explore survey design and research interview strategies, focusing on the types of data involved and various methodologies used. Enhance your abilities in applying a range of research techniques effectively.

Investigate scientific inquiry by focusing on hypothesis testing and designing experiments. Enhance abilities in identifying variables, establishing controls, and interpreting data critically. The aim is to refine analytical skills and deepen understanding of scientific methodology.

Develop a solid understanding of the scientific method by exploring variables and experiment design. Acquire valuable skills in planning experiments and interpreting results.

Investigate key aspects of research designs in psychology by focusing on the roles and identification of variables. Gain proficiency in recognizing different types of variables and applying them effectively in research settings.

Examine the processes involved in creating and evaluating scientific hypotheses as well as in analyzing both qualitative and quantitative data. Develop the ability to distinguish between hypotheses and theories and apply scientific methods effectively.

Understand the foundational elements of science, focusing on its inquiry process. Develop knowledge of scientific methods and collaboration techniques to enhance comprehensive research skills.

Investigate the progression of scientific inquiry from Aristotle to Galileo, examining how historical methodologies inform contemporary scientific practices and enhance critical thinking skills. Develop an understanding of the evolution of scientific thought and its impact on modern approaches to research and problem-solving.

Understand the fundamental principles of measurement precision, significant figures, and unit conversions. Develop the ability to accurately process and interpret scientific data, achieving both precise and accurate results. Gain skills in applying mathematical concepts for measurement accuracy and improving data analysis techniques.

Gain a comprehensive understanding of the scientific method by examining facts, distinguishing pseudoscience, and analyzing experiments. Develop critical thinking skills through the application of real-world scenarios and theoretical insights.