What experience level is required for PurdueX: Organic Electronic Devices?

This course is aimed at the Intermediate level. Having some basic understanding of the topic will help you get the most out of the curriculum.

How long does it take to complete PurdueX: Organic Electronic Devices?

The total duration of the course is approximately 4 weeks. Since it is generally self-paced, completion time depends entirely on your learning schedule and availability.

Does this course include hands-on projects?

Yes, the curriculum is highly practical and includes hands-on projects. Completing these will help you build a portfolio of work to demonstrate your new skills.

Do I get a certificate after completing PurdueX: Organic Electronic Devices?

Yes, a certificate of completion is included, which you can add to your professional profile or resume to showcase your newly acquired skills.

Electronics

PurdueX: Organic Electronic Devices

Name: PurdueX: Organic Electronic Devices
Price: 2075 INR
Availability: InStock

Using molecules and polymers to create the next generation of electronic devices.

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₹12,510/yr

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Course Insight

Suitable for intermediate learners. Works well as a continuation after mastering Electronics fundamentals. It bridges the gap toward advanced, production-level engineering.

Intermediate FriendlyCertification IncludedSelf-Paced LearningProject-Based

SKILLS TO
MASTER

Electronics Basics

Fundamental principles and concepts

Practical Application

Real-world project implementation

Best Practices

Industry standard workflows and guidelines

Problem Solving

Core Concepts

Implementation

Workflow Integration

Optimization

Careers:Relevant for professionals pursuing roles within Electronics.

Quick Facts

4 weeks

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What You’ll Learn

Synthesis of Organic Semiconductors. Identify common mechanisms for the synthesis of small molecule and polymer semiconductors Describe the mechanism of controlled polymerization techniques for macromolecular semiconductors Interpret spectroscopic, chromatographic, and molecular characterization data in order to predict the structure of the organic semiconductor. .
Identify common mechanisms for the synthesis of small molecule and polymer semiconductors.
Describe the mechanism of controlled polymerization techniques for macromolecular semiconductors.
Interpret spectroscopic, chromatographic, and molecular characterization data in order to predict the structure of the organic semiconductor..
Charge Generation and Transport and Optoelectronic Characterization of Organic Semiconductors. Explain how molecular orbital levels are related to the optoelectronic properties of organic semiconductors Distinguish between different models for charge transport in organic semiconductors; describe clearly the difference between charge generation and transport in organic and inorganic semiconductors. .
Explain how molecular orbital levels are related to the optoelectronic properties of organic semiconductors.
Distinguish between different models for charge transport in organic semiconductors; describe clearly the difference between charge generation and transport in organic and inorganic semiconductors..
Device Application of Organic Semiconductors. Explain how organic electronic devices operate and how to apply known equations to evaluate device performance Critique the potential for organic electronic materials to supplement or replace inorganic semiconducting devices. .
Explain how organic electronic devices operate and how to apply known equations to evaluate device performance.
Critique the potential for organic electronic materials to supplement or replace inorganic semiconducting devices..

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Description

Organic electronic devices are quickly making their way into the commercial world, with innovative thin mobile devices, high-resolution displays, and photovoltaic cells. The future holds even greater potential for this technology, with an entirely new generation of ultra low-cost, lightweight and even flexible electronic devices, which will perform functions traditionally accomplished with much more expensive components based on conventional semiconductor materials, such as silicon.

Learn more about this highly promising technology, which is based on small molecules and polymers, and how these materials can be implemented successfully in established (e.g., organic light-emitting devices (OLEDs), organic photovoltaic (OPV) devices) and emerging (e.g., thermoelectric (TE) generators) organic electronic modules.

In this course, you will gain the ability to tie molecular transport phenomena with macroscopic device response such that you will be well-prepared to analyze, troubleshoot, and design the next generation of organic electronic materials and devices.

This course has short lectures with quizzes, homework, and exams.

This course is the latest nanoHUB-U project in a series offered is jointly funded by Purdue University and the NSF with the goal of transcending disciplines through short courses accessible to students in any branch of science or engineering.

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