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Edge AI: Deploying AI on Edge Devices Course

USD $59.00 USD $249.00Price range: USD $59.00 through USD $249.00

Edge AI: Deploying AI on Edge Devices is an indepth course that teaches you to develop, optimize, and deploy artificial intelligence (AI) models to an edge device. With the growing use of edge computing creating more intelligent systems in local environments, more people are using edge computing to achieve real time decision making, decreased latency, improved privacy, and decreased costs of using bandwidth.

Feature
Details
Format
Online (e-LMS)
Duration
Structured modular program
Level
Intermediate
Domain
Microfluidics & Biomedical Engineering
Core Focus
Lab-on-a-chip design, fabrication, system integration
Tools Covered
CFD modeling, prototyping methods, sensor integration
Hands-On Component
Design blueprint project
Final Deliverable
Lab-on-a-chip system design plan
Target Audience
Engineers, biotech students, healthcare innovators

About the Course
Microfluidic systems manipulate minute volumes of fluids through precisely engineered microchannels. These systems form the foundation of lab-on-a-chip platforms used in disease detection, DNA sequencing, environmental monitoring, and drug testing.
But microfluidics is not only about small channels. It is about controlling flow behavior, reaction environments, and detection interfaces within strict physical constraints.
“At first glance, lab-on-a-chip systems appear as miniaturized lab tools. More accurately, they are integrated systems requiring mechanical, chemical, and electronic coordination.”
This course builds structured understanding across:
  • Microfluidic materials and fabrication methods
  • Computational Fluid Dynamics (CFD) modeling
  • Sensor and electronics integration
  • Biomedical and diagnostic applications
  • Scalability and commercialization challenges
Participants learn how to design with these constraints in mind.

Why This Topic Matters
Microfluidic lab-on-a-chip systems are central to:

  • Point-of-care diagnostics
  • Rapid disease detection
  • Personalized medicine platforms
  • Organ-on-chip research models
  • Environmental sensing technologies
Healthcare systems increasingly demand portable, low-cost diagnostic tools. Traditional laboratory setups are expensive, space-intensive, and slow.
Microfluidics enables reduced reagent consumption, faster analysis cycles, integration of multiple processes in one device, and field-deployable diagnostics.
Meanwhile, emerging applications such as organ-on-chip systems and cell-based diagnostics are reshaping biomedical research. Professionals who understand microfluidic design, fabrication, and integration are positioned at the intersection of engineering, biotechnology, and healthcare innovation.

What Participants Will Learn
• Explain the principles of microfluidic flow and system architecture
• Select appropriate materials for lab-on-a-chip fabrication
• Apply CFD concepts to microfluidic channel design
• Design microfluidic systems for biomedical applications
• Integrate sensors and electronic components into microfluidic platforms
• Identify and troubleshoot fabrication and scaling issues
• Develop a complete lab-on-a-chip design blueprint

Course Structure / Table of Contents
Module 1 — Fundamentals of Microfluidics
  • Introduction to microfluidic technology
  • Laminar flow and microscale fluid behavior
  • Materials: PDMS, glass, polymers
  • Overview of system integration concepts
Module 2 — Design and Development
  • Computational Fluid Dynamics (CFD) for microfluidics
  • Microchannel geometry design principles
  • Rapid prototyping techniques
  • Lab-on-a-chip development workflows
Module 3 — Real-World Applications
  • Microfluidics in healthcare (blood analysis, DNA sequencing)
  • Sensor and optical integration
  • Electronics integration strategies
  • Common fabrication and performance challenges
Module 4 — Advanced Topics and Innovation
  • Organs-on-chip systems
  • Cell-based diagnostics
  • Commercialization pathways
  • Scalability and manufacturing constraints
  • Guest insights and industry interaction
Module 5 — Final Applied Project
  • Define an application (disease detection, environmental monitoring, drug testing)
  • Device layout and channel design
  • Material selection and fabrication plan
  • Sensor integration strategy
  • Data processing workflow
  • Validation and testing plan

Tools, Techniques, or Platforms Covered
CFD principles
Microfabrication techniques
Rapid prototyping methods
Microchannel design optimization
Sensor and optical detection systems
Lab-on-chip data pipelines
Troubleshooting methodologies

Real-World Applications
The course directly supports work in biomedical diagnostics development, point-of-care testing systems, DNA and molecular analysis devices, environmental monitoring sensors, pharmaceutical drug testing platforms, organ-on-chip research, and R&D in microtechnology startups.
In research settings, microfluidics enables controlled experimental environments.
In industry, it drives portable diagnostic innovation.
In product development, it reduces system size while maintaining functionality.

Who Should Attend
This course is designed for:

  • Biomedical and biotechnology students
  • Mechanical, chemical, and electronics engineers
  • Healthcare innovators working in diagnostics
  • Researchers in microtechnology and lab-on-chip systems
  • Professionals transitioning into biomedical engineering
  • Graduate students in applied engineering disciplines

It assumes technical curiosity and structured thinking.

Prerequisites: Recommended basic understanding of fluid mechanics, familiarity with engineering or biomedical concepts, and introductory physics knowledge. Exposure to CAD or simulation tools and basic understanding of electronics or sensors are helpful but not mandatory. No prior advanced microfabrication experience is required.

Why This Course Stands Out
Many microfluidics courses focus heavily on theory or remain purely conceptual. Others emphasize fabrication without system-level integration.
This course integrates:

  • Design logic
  • Simulation modeling
  • Fabrication planning
  • Sensor integration
  • Application-specific constraints
The final project requires a complete system blueprint, not just channel sketches. Participants must consider material selection, fabrication feasibility, data processing, and validation. That systems-level framing reflects how real lab-on-a-chip products are built.

Frequently Asked Questions
What is a microfluidic lab-on-a-chip system?
It is a miniaturized device that integrates laboratory processes such as sample preparation, reaction, and detection within micro-scale channels.
Is CFD required for microfluidic design?
CFD is highly useful for modeling fluid behavior in microchannels and optimizing design performance.
Will this course cover real biomedical applications?
Yes. Applications include blood analysis, DNA sequencing, and cell-based diagnostics.
Do I need prior fabrication experience?
No. The course introduces fabrication methods and material selection principles.
Is this relevant for startup innovation?
Yes. Microfluidics is widely used in diagnostics startups and biotech product development.
Does the course include a practical project?
Yes. Participants design a complete lab-on-a-chip blueprint for a chosen application.
Category

E-LMS, E-LMS+Video, E-LMS+Video+Live Lectures

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Certification

  • Upon successful completion of the workshop, participants will be awarded a Certificate of Completion, validating their skills and knowledge in advanced AI ethics and regulatory frameworks. This certification can be added to your LinkedIn profile or shared with employers to demonstrate your commitment to ethical AI practices.

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