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Rama Prasad and Seth Nfonoyim-Hara

This course is part of the Semiconductor and MEMS Fabrication Specialization. It is recommended that learners take the previous courses of the Specialization prior to this course.

Please disregard module numbers because the content has been reorganized to improve comprehension and flow of the specialization.

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Syllabus

Fabrication Processes Specific to MEMS
In this module, we dive into some of the specifics involved in the creation of MEMS devices. We begin by briefly covering some of the physical phenomena used in MEMS devices and then discuss the differences between bulk and surface micromachining fabrication processes. Lastly, we provide more detail around requirements and techniques used in the packaging for MEMS.
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Career center

Learners who complete Introduction to Micro Electro Mechanical Systems (MEMS) will develop knowledge and skills that may be useful to these careers:
MEMS Process Engineer
A MEMS Process Engineer is at the heart of bringing micro electro mechanical systems designs to life, developing and optimizing the intricate fabrication sequences in cleanroom environments. This role involves working with semiconductor equipment, meticulously controlling parameters for steps like deposition, etching, and lithography to create microscale sensors and actuators. The Introduction to Micro Electro Mechanical Systems (MEMS) course offers a profoundly relevant foundation for this career. It provides detailed insight into fabrication processes specific to MEMS, highlighting differences from semiconductor fabrication. Understanding bulk and surface micromachining techniques, along with detailed requirements and techniques for MEMS packaging, is directly applicable. This course helps build expertise in the practical aspects of creating MEMS devices, making you an invaluable asset in the fabrication of these crucial components.
MEMS Design Engineer
A MEMS Design Engineer conceives, develops, and optimizes the intricate layouts and architectures of micro electro mechanical systems chips. This involves translating application requirements into detailed designs, considering factors like material properties, fabrication processes, and device performance. This course is exceptionally well-suited for aspiring MEMS Design Engineers. It delves into MEMS device design and system specification, explaining how to create innovative transducer architectures. Learners will understand the specific physical phenomena used in MEMS and the critical differences between bulk and surface micromachining fabrication processes. The exploration of key applications across consumer, industrial, aerospace, and medical fields provides a crucial understanding of design considerations for various sectors, directly preparing you to tackle complex design challenges in this specialized field.
Research Scientist Microdevices
A Research Scientist Microdevices explores new frontiers in microtechnology, developing novel devices, materials, and fabrication techniques to push the boundaries of what is possible at the microscale. This often involves fundamental research and experimental design. The Introduction to Micro Electro Mechanical Systems (MEMS) course provides a robust foundation for an aspiring Research Scientist Microdevices. It delves into the physical phenomena used in MEMS devices, offering a comprehensive overview of fabrication processes like bulk and surface micromachining. The course also discusses ongoing development of transducer architecture for various applications and explores specific medical applications like microfluidics and microelectrodes. This depth of knowledge is crucial for conducting innovative research and identifying future directions in the field. An advanced degree, such as a master's or PhD, is typically required for this role.
Sensor Development Engineer
A Sensor Development Engineer specializes in creating new sensor technologies, taking them from concept through design, prototyping, and testing. This frequently involves leveraging microscale technologies to achieve high precision and miniaturization. The Introduction to Micro Electro Mechanical Systems (MEMS) course perfectly aligns with this career path by focusing on the creation of microscale sensors and actuators. It introduces widely deployed MEMS inertial sensors and MEMS pressure sensor device models, as well as ongoing development in transducer architecture. This comprehensive exposure to MEMS-based sensing principles and fabrication techniques will equip you to understand how to design and implement innovative sensing solutions. The course's coverage of applications in consumer, industrial, aerospace, and medical fields provides a broad perspective on where these advanced sensors are needed most.
Microfabrication Engineer
A Microfabrication Engineer is central to the creation of tiny devices and structures, operating advanced equipment in cleanroom settings to produce components at the microscale. This can span a broad range of applications, from integrated circuits to microfluidic chips. The Introduction to Micro Electro Mechanical Systems (MEMS) course is highly beneficial for aspiring Microfabrication Engineers. It explicitly covers how semiconductor equipment and processes are used for MEMS fabrication, emphasizing the specifics involved in creating these micro-devices. You will gain a clear understanding of key techniques such as bulk and surface micromachining, which are fundamental to microfabrication. This course helps build a strong foundation in the practical skills and theoretical knowledge required to excel in the complex field of microfabrication.
Packaging Engineer Microdevices
A Packaging Engineer Microdevices designs and develops the protective enclosures and interconnection schemes for microscale devices, ensuring their reliability, performance, and manufacturability. This crucial role prevents damage, facilitates integration, and manages thermal and electrical requirements. The Introduction to Micro Electro Mechanical Systems (MEMS) course is highly pertinent for aspiring Packaging Engineers Microdevices. The syllabus explicitly provides more detail around requirements and techniques used in packaging for MEMS. Understanding the physical phenomena, fabrication processes, and specific design considerations for various MEMS applications across consumer, industrial, aerospace, and medical fields is vital. This course helps build a fundamental understanding of how the delicate microscale components interact with their macroscopic environment, enabling the creation of robust and effective packaging solutions.
Biomedical Device Engineer
A Biomedical Device Engineer innovates and improves medical devices, from diagnostic tools to therapeutic implants, often incorporating advanced microtechnologies. This role demands a deep understanding of both engineering principles and biological systems. For those interested in becoming a Biomedical Device Engineer, the Introduction to Micro Electro Mechanical Systems (MEMS) course is particularly relevant. It features a dedicated module on MEMS for Medical Applications, highlighting key design considerations and device testing specific to this critical field. Discussions on microfluidics and microelectrodes, two technologies with unique medical applications, are directly applicable. This specialized knowledge of how MEMS fabrication techniques apply to medicine provides a distinct advantage in developing the next generation of healthcare solutions, though an advanced degree is often required in this field.
Aerospace Systems Engineer
An Aerospace Systems Engineer is responsible for the design, integration, and testing of complex systems within aircraft, spacecraft, and related technologies. This often involves selecting and integrating advanced sensors and actuators for navigation, control, and monitoring. The Introduction to Micro Electro Mechanical Systems (MEMS) course is highly valuable for this profession, as it specifically covers MEMS in aerospace applications. You will learn about widely deployed MEMS inertial sensors, which are critical components in modern aerospace systems. Understanding the design and fabrication processes for these microscale components helps build a strong appreciation for their capabilities and limitations in rigorous aerospace environments. This course provides useful context for integrating innovative MEMS technologies into advanced aerospace platforms. An advanced degree may also be helpful for this role.
Automotive Electronics Engineer
An Automotive Electronics Engineer designs, develops, and tests the electronic systems that power modern vehicles, encompassing everything from engine control units to infotainment and advanced driver assistance systems. This role increasingly relies on sophisticated microscale sensors and actuators for performance, safety, and efficiency. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be useful for this career path, as it addresses key applications in industrial and consumer sectors where automotive technology fits. Learners will explore MEMS devices such as inertial sensors and pressure sensors, which are fundamental to automotive systems for functions like airbag deployment, stability control, and tire pressure monitoring. Understanding the fabrication and design of these microdevices can provide insights into integrating cutting-edge electronics into vehicle architectures.
Technical Sales Engineer Microdevices
A Technical Sales Engineer Microdevices serves as a crucial link between engineering teams and customers, accurately explaining complex microdevice technologies and their applications. This role requires a strong technical understanding to identify client needs and propose suitable solutions. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be useful for a Technical Sales Engineer Microdevices. It provides a comprehensive overview of how MEMS devices leverage semiconductor processes to create microscale sensors and actuators, highlighting their innovation across consumer, industrial, aerospace, and medical applications. Understanding the specifics of MEMS fabrication, design considerations, and device testing ensures you can confidently discuss product capabilities and technical specifications with prospective clients, effectively bridging the gap between cutting-edge technology and market demand.
Product Development Engineer Microelectronics
A Product Development Engineer Microelectronics guides new microelectronic products from initial concept through design, prototyping, testing, and eventual manufacturing. This role requires a holistic understanding of technology, market needs, and manufacturability. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be helpful for those pursuing a career as a Product Development Engineer Microelectronics, especially as MEMS devices become integral to a myriad of microelectronic products. The course highlights key applications in consumer, industrial, and aerospace sectors, providing insight into market demand and system specifications. Understanding MEMS fabrication processes and design considerations helps build a foundation to effectively integrate advanced microscale sensors and actuators into next-generation microelectronic systems, ensuring both functionality and manufacturability.
Materials Engineer Microtechnology
A Materials Engineer Microtechnology investigates and develops novel materials and processes specifically tailored for microscale applications, such as microprocessors, microfluidic devices, and sensors. This involves understanding material properties at the nanoscale and their behavior during fabrication. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be useful for a Materials Engineer Microtechnology, as it covers the physical phenomena underlying MEMS devices and details fabrication processes like bulk and surface micromachining. While not a dedicated materials science course, it illuminates the critical role materials play in device performance and manufacturability. Understanding the specific requirements for MEMS packaging and the challenges in creating microscale sensors and actuators helps build context for material selection and innovation in this highly specialized field. An advanced degree is typically required for this role.
Quality Assurance Engineer Microdevices
A Quality Assurance Engineer Microdevices ensures that microscale devices, from semiconductors to advanced sensors, meet rigorous performance, reliability, and safety standards throughout their lifecycle. This involves developing testing protocols and analyzing manufacturing processes for defects. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be helpful for a Quality Assurance Engineer Microdevices. It provides insight into the specifics involved in the creation of MEMS devices, including fabrication processes and packaging requirements. The module on MEMS for Medical Applications, which highlights key design considerations and device testing specific to that field, is particularly relevant for understanding critical quality parameters. This foundational understanding of MEMS design and manufacturing helps in identifying potential failure points and developing robust quality control measures for microdevices.
Intellectual Property Patent Agent
An Intellectual Property Patent Agent advises inventors and companies on protecting their innovations by preparing and prosecuting patent applications. This role requires an astute understanding of new technologies to accurately describe their novelty and scope. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be useful for an aspiring Intellectual Property Patent Agent, particularly one specializing in microtechnology. The course details how MEMS devices leverage semiconductor processes to create innovative microscale sensors and actuators. It dives into specific fabrication processes, device design, and applications in consumer, industrial, aerospace, and medical fields. This comprehensive technical background can help in analyzing prior art, understanding patent claims, and drafting robust patent applications for complex micromachined technologies, though an advanced technical or law degree is typically required.
Robotics Engineer
A Robotics Engineer designs, builds, programs, and tests robotic systems for various applications, ranging from manufacturing automation to exploration and human assistance. This profession relies heavily on integrating diverse sensor technologies for environmental perception and precise control of actuators. The Introduction to Micro Electro Mechanical Systems (MEMS) course may be useful for an aspiring Robotics Engineer. Robotics frequently incorporates microscale sensors and actuators, such as MEMS inertial sensors for navigation and orientation, and various pressure sensors for haptic feedback or object manipulation. Gaining knowledge about how these microscale components are designed and fabricated, and understanding their applications in industrial and consumer contexts, can help in selecting and integrating advanced sensory capabilities into robotic platforms, enhancing their precision and autonomy.

Reading list

We haven't picked any books for this reading list yet.
Covers the use of MEMS in RF applications, including antennas, filters, and tuners.
Provides a comprehensive overview of micromachined transducers. It covers a wide range of topics, including MEMS design, fabrication, and testing. It also includes case studies of MEMS devices used in various applications.
Covers the use of MEMS in actuators and motors, including electrostatic actuators, thermal actuators, and piezoelectric actuators.
Provides a comprehensive overview of MEMS design, manufacture, and applications. It covers a wide range of topics, including MEMS materials, fabrication processes, and packaging. It also includes case studies of MEMS devices used in various applications.
Provides a history of MEMS technology. It covers a wide range of topics, including MEMS design, fabrication, and testing. It also includes case studies of MEMS devices used in various applications.
Provides a comprehensive overview of MEMS design and manufacturing. It covers a wide range of topics, including MEMS materials, fabrication processes, and packaging. It also includes case studies of MEMS devices used in various applications.
Provides a comprehensive overview of MEMS technology. It covers a wide range of topics, including MEMS design, fabrication, and testing. It also includes case studies of MEMS devices used in various applications.
Provides an introduction to MEMS for those who are new to the field. It covers a wide range of topics, including MEMS design, fabrication, and testing. It also includes case studies of MEMS devices used in various applications.
This classic textbook provides a rigorous treatment of the fundamental principles of microsystem design, covering topics such as materials, fabrication, and modeling.
This comprehensive handbook covers a wide range of MEMS topics, including materials, design, fabrication, and testing. It valuable resource for researchers and practitioners alike.
Provides a comprehensive overview of MEMS sensors, covering their principles, design, fabrication, and applications in various fields.
Is considered a standard reference in the field of microfabrication and provides comprehensive coverage of the fundamentals of the subject, ranging from materials science to process technologies.
Focuses on the design and applications of micromanipulators for cell and tissue engineering. It provides an overview of the principles of micromanipulation, as well as specific examples of micromanipulators that have been used for cell and tissue engineering applications.
Provides a comprehensive overview of the control of electric machines. It includes a chapter on actuators, which provides an overview of the different types of actuators used in electric machines.
Provides a comprehensive overview of robot dynamics and control. It includes a chapter on actuators, which provides an overview of the different types of actuators used in robotics.
Provides a comprehensive overview of robotics, covering the principles of mechanics, planning, and control. It includes a chapter on actuators, which provides an overview of the different types of actuators used in robotics.
Provides a comprehensive overview of mechatronics, which is the combination of mechanical and electrical engineering. It includes a chapter on actuators, which provides an overview of the different types of actuators used in mechatronics.
This textbook provides a comprehensive overview of actuators, covering the principles of operation, design, and applications of a wide range of actuator types. It is suitable for both undergraduate and graduate students in engineering and related fields.
This textbook provides a comprehensive overview of the physics of semiconductor devices. It covers a wide range of topics, from basic semiconductor physics to advanced device design. The author has a wealth of experience in the field, and his writing is clear and concise.

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