This module continues the exploration of mixing processes at the microscale, focusing on advanced techniques and their impacts. Students will learn how to optimize mixing efficiency in microfluidic systems.
This module introduces the basic concepts of microscale transport processes and sets the foundation for understanding the subsequent topics. Students will explore the significance of scaling in engineering applications and how microscale phenomena differ from traditional macroscale approaches.
This module continues the exploration of microscale transport processes, providing a detailed insight into the principles governing these phenomena. Students will delve into advanced theories and their implications for practical applications in engineering.
This module focuses on lab-on-chip technologies, emphasizing their design and functionality. Students will learn about the integration of various functions into compact systems, and the role of microscale phenomena in enhancing performance.
This continuation of the previous module further develops the understanding of lab-on-chip technologies, detailing advanced applications and innovations that leverage microscale processes. Case studies will illustrate real-world uses and challenges.
This module covers microscale manufacturing practices, highlighting the techniques and methods used for creating micro-scale devices. Students will gain hands-on experience with various manufacturing processes essential in this field.
This module introduces photolithography, a critical process in microfabrication. Students will explore the principles, techniques, and applications of photolithography in creating intricate microscale patterns and devices.
This module continues the discussion on photolithography, focusing on advanced techniques and innovations in the field. Students will explore the latest advancements and their potential for enhancing microscale device fabrication.
This module discusses deposition techniques used in microscale manufacturing. Students will learn about various deposition methods and their applications in creating functional layers within microdevices.
This module examines plastic microfluidic devices, including their design, fabrication, and applications. Students will study the benefits of using polymer materials in microfluidics and their role in various engineering applications.
This module focuses on mixing processes at the microscale. Students will explore various mixing techniques and their importance in microfluidic applications, understanding how they enhance mixing efficiency and effectiveness.
This module introduces micro heat pipes, examining their design, functionality, and applications in thermal management. Students will learn about the principles behind micro heat pipes and their advantages in microscale devices.
This continuation of the micro heat pipes module delves deeper into their applications and advanced designs. Students will explore case studies showcasing innovative applications of micro heat pipes in various industries.
This module continues the exploration of mixing processes at the microscale, focusing on advanced techniques and their impacts. Students will learn how to optimize mixing efficiency in microfluidic systems.
This module further investigates mixing processes, diving into chaotic advection and its applications. Students will analyze how chaotic flows enhance mixing efficiency in microchannels.
This module explores dispersion processes at the microscale, discussing their significance in various applications. Students will learn about the factors affecting dispersion and methods to control it in microfluidic devices.
This continuation of the dispersion module provides deeper insights into dispersion techniques and their applications in microfluidics. Students will study various methods to optimize dispersion in micro-scale systems.
This module further explores dispersion processes, analyzing complex behaviors in microfluidic devices. Students will learn about the implications of dispersion in real-world applications and strategies to address challenges.
This module introduces electrowetting, a phenomenon that alters the wettability of surfaces under an electric field. Students will study its principles, applications, and impact on microfluidic device design.
This continuation of the electrowetting module delves deeper into its applications and innovations. Students will explore various case studies highlighting the role of electrowetting in advancing microfluidic technology.
This module introduces electro osmosis, examining the movement of fluids in response to an electric field. Students will learn about its principles and applications in microfluidic systems, enhancing their understanding of fluid dynamics.
This continuation of the electro osmosis module explores advanced applications and techniques. Students will study case studies showcasing how electro osmosis enhances microfluidic device performance and functionality.
This module discusses dielectrophoresis, a technique for manipulating particles within a fluid using electric fields. Students will explore its principles, applications, and significance in various engineering fields.
This continuation of the dielectrophoresis module delves deeper into advanced techniques and their implications. Students will study various applications of dielectrophoresis in microfluidic devices and other fields.
This module further investigates dielectrophoresis, focusing on its applications in separating particles and cells based on their dielectric properties. Students will learn about practical implementations and challenges.
This module addresses scaling dimensions and related issues in microscale transport processes. Students will explore the challenges associated with scaling and their implications for device design and performance.
This continuation of the scaling issues module delves deeper into specific challenges and solutions. Students will analyze case studies to understand how scaling impacts the performance of microdevices.
This module discusses slip flow, a phenomenon relevant to microscale transport. Students will learn about its implications for fluid dynamics and how it differs from traditional flow assumptions.
This module introduces microstructured reactors, focusing on their design and applications in chemical processes. Students will explore benefits and challenges associated with microreactor technology in various fields.
This continuation of the microstructured reactors module delves into advanced applications and innovative designs. Students will analyze case studies that highlight successful implementations in industry.
This module discusses immiscible flow in microchannels, focusing on the behavior of two or more fluids that do not mix. Students will learn about practical implications and applications in microfluidics.
This continuation of the immiscible flow module deepens the understanding of interactions between immiscible fluids. Students will analyze case studies to see how these principles are applied in real-world situations.
This module further investigates immiscible flow behavior, discussing methods to control and manipulate such flows in microchannels. Students will learn about practical applications in various industries.
This module revisits scaling dimensions and related issues, examining their impact on microscale transport processes. Students will explore innovative solutions to common scaling problems in device design.
This module further investigates the challenges of scaling dimensions, focusing on real-world implications. Case studies will provide insights into effective strategies for managing these challenges in engineering applications.
This module concludes the course with a comprehensive examination of transport processes and their descriptions. Students will synthesize their knowledge and explore future trends in microscale transport phenomena.
This module discusses convective fluid dynamics in microchannels, exploring how fluid behavior changes at small scales. Students will learn about the implications of these dynamics for heat transfer applications.
This module introduces microfluidic networks, emphasizing their design and functionality. Students will explore how these networks facilitate complex interactions in microscale systems and their applications in various fields.
This module discusses electrohydrodynamic atomization, highlighting its principles and applications in the production of fine particles. Students will learn about its significance in various industries and innovations.
This continuation of the electrohydrodynamic atomization module delves deeper into advanced techniques and their applications. Students will analyze case studies showcasing successful implementations in particle production.
This module examines interfacial phenomena in thin liquid films, exploring how these phenomena affect fluid behavior and stability. Students will learn about real-world applications and implications in various engineering fields.