Internships Passages

Study techniques for minimizing impact force and explore the dynamics of collisions, enhancing comprehension of motion principles and key design considerations.

Explore the diverse roles and interdisciplinary concepts in engineering. Gain an understanding of various engineering fields' roles, functions, and fundamental criteria.

Gain an understanding of the causes of tsunamis, the strategic placement of sensors, and the financial considerations involved. Develop skills in interpreting seismic data and deploying sensors efficiently, focusing on achieving a comprehensive understanding of these critical aspects.

Examine metabolic needs, taste considerations, and cost management in food engineering. Understand the development process and identify nutritional goals.

Investigate the interaction between the human body's systems with a focus on the digestive, respiratory, and circulatory functions. Understand how these systems collectively support metabolism and contribute to overall health. Identify specific ways in which these systems cooperate and impact bodily functions, enhancing comprehension of human physiology.

Investigate how metabolism intersects with engineering design principles to improve problem-solving capabilities and design optimization techniques. Gain insights into effective strategies for enhancing educational outcomes, emphasizing the development of analytical skills and creative thinking in the context of both biological and engineering disciplines.

Investigate the application of engineering principles to solve practical challenges and gain insights into metabolic processes. Develop advanced problem-solving abilities and expand understanding of energy utilization.

Explore the key steps in engineering design processes focusing on plate motion applications. Core activities include planning, building, testing, and analysis, emphasizing strategic enhancement and evaluation of designs. Learners will apply scientific understanding to effectively improve and assess engineering solutions.

Explore the role of sunlight reflection in affecting climate change and examine innovative solutions such as solar and white roofs. Gain insights into adapting infrastructure to lower CO2 emissions. Understand the principles behind reflective technologies and their environmental impact, while developing skills to design and implement sustainable strategies for emission reduction.

Investigate scientific communication and geohazards by examining plate motion and earth processes. Develop insights into natural disasters while effectively conveying scientific concepts. Enhance understanding of tectonic dynamics and improve skills in articulating complex ideas related to earth sciences.

Investigate metabolic processes and nutritional requirements within engineering frameworks. Develop the ability to define engineering problems and effectively balance trade-offs for optimal design solutions.

Engineering and metabolic processes are explored with an emphasis on problem-solving and design. Learners develop skills in applying criteria and scientific communication.

Investigate the properties and uses of phase change materials in creating energy-efficient incubators. Gain a thorough understanding of energy transfer and thermal management, focusing on optimizing design for consistent temperature regulation. Develop skills in applying theoretical concepts to practical scenarios, enhancing the efficiency and sustainability of incubation systems.

Examine the impact of thermal energy on phase changes in matter to understand how different states of matter are identified and temperature variations are analyzed. Develop skills in recognizing phases of matter and interpreting temperature data, enhancing comprehension of the processes involved in state transitions and the role of heat energy.

Explore fundamental definitions related to geohazards, tsunamis, and plate tectonics. Gain insights into the triggers of tsunamis and enhance your understanding by applying engineering principles to address these natural phenomena.

Investigate engineering approaches centered on metabolism and design principles. Develop skills in problem-solving, comprehending metabolic processes, and applying engineering criteria.

Explore the fundamental principles of plate tectonics and the variety of geohazards associated with it. Develop skills to effectively describe and analyze geological events, understanding their impacts on environments and societies. Enhance scientific communication abilities, enabling clear and accurate conveyance of complex earth science concepts.

Investigate the interplay between engineering design and earthquake-induced tsunamis, focusing on how criteria and iterative processes lead to successful engineering solutions. Emphasize understanding fundamental concepts, achieving specific learning outcomes, and developing essential skills in applying engineering principles to natural disaster scenarios.

Examine climate change mitigation through innovative energy solutions with a focus on solar and reflective technologies. Develop skills in environmental design and sustainability impact assessment.

Investigate the mechanisms of malaria transmission and treatment through scientific inquiry and laboratory techniques, emphasizing understanding of disease dynamics and biological interactions. Gain insights into evolutionary processes related to malaria, enhancing understanding of disease biology and its complexities.