Course delves into microfluidics, covering fundamental principles, recent technological advances, and practical applications. Students gain a basic understanding of microfluidics, exploring fluid behavior at the microscale and creating devices through hands-on experiences. The course prepares students for contributions to scientific research and technological innovation in the evolving field of microfluidics.
Additional Requirements for Graduate Students: Graduate students will assume a leadership role in the course, serving as team leaders. Their responsibilities include organizing subgroup meetings, guiding topic selection, and overseeing project development. Additionally, graduate students will act as judges for final projects from other groups, contributing their expertise to the assessment process.
Athena Title
Intro to Microfluid
Prerequisite
ENGR 2170-2170L or ECSE 2170-2170L
Semester Course Offered
Offered every year.
Grading System
A - F (Traditional)
Student learning Outcomes
Students will gain proficiency in the fundamental principles and concepts governing fluid behavior at the microscale, enabling them to analyze and design microfluidic systems effectively.
Students will become familiar with cutting-edge microfluidic techniques, including magnetophoresis, acoustic forces, and other innovative methods, to appreciate the diversity and flexibility within the field.
Students will translate theoretical learning into hands-on experiences by designing, fabricating, and testing microfluidic devices in a laboratory setting, reinforcing their understanding of microfluidic concepts.
Students will keep abreast of emerging technologies and research in microfluidics through engaging lectures and discussions, ensuring they are well-informed about the ever-evolving landscape of the field.
Students will investigate a wide range of practical applications of microfluidics in industries such as healthcare, biotechnology, and environmental science, highlighting the relevance and impact of microfluidic technology in various sectors.
Students will cultivate their ability to analyze complex microfluidic challenges, think critically, and develop innovative solutions, preparing them to contribute to scientific research and technological innovation within the field.
Topical Outline
Introduction to Microfluidics
o Overview of microfluidics, historical context, and significance
o Fundamentals of fluid behavior at the microscale, scaling laws, and governing equations
Microfluidic Devices and Components
o Microchannel design, fabrication techniques, and materials
o Microvalves, micropumps, and microactuators
Fluid Flow in Microchannels
o Steady-state and transient flow, flow regimes, and flow control
o Fluid viscosity, capillary effects, and pressure-driven flow
Mixing and Separation Techniques
o Passive and active mixing methods in microfluidics
o Particle and cell manipulation, filtration, and sorting
Microfluidic Sensors and Detection
o Introduction to microfluidic sensors and biosensors
o Detection techniques, optical and electrochemical sensors
Advanced Microfluidic Techniques
o Acoustic microfluidics, magnetophoresis, and optofluidics
o Lab-on-a-chip systems, organ-on-a-chip, and 3D microfluidics
Real-World Applications
o Microfluidics in healthcare, diagnostics, and drug delivery
o Microfluidics in biotechnology, environmental monitoring, and beyond
Emerging Trends and Future Directions
o Exploration of emerging trends, challenges, and future directions in microfluidic
Course Review and Projects
o Course review, project presentations, and discussion of potential research opportunities in microfluidics
