In this course on AI and Other Technologies, you’ll explore artificial intelligence and the two types of machine learning solutions, as well as AI…
In this course on AI and Other Technologies, you’ll explore artificial intelligence and the two types of machine learning solutions, as well as AI and the use of robotics. These lessons will explain unsupervised and supervised machine learning algorithms, the various branches of artificial intelligence and the benefits of applying AI to data analytics. You’ll also gain knowledge of natural language processing, and how AI can help you design and build a robot that can be given commands but also complete repetitive tasks. This course will introduce the idea of deep learning as an important element in data science and for predictive modeling and explain how the Internet of Things is an integral part of AI, and vice versa.
Learning Objectives
- Learn About AI and Machine Learning
- Understand How AI Is Used in Robotics
- Learn the Various Branches of AI
Skills you’ll gain
Applications Of Artificial IntelligenceArtificial Intelligence SystemsArtificial IntelligenceArtificial Intelligence DevelopmentComputational IntelligenceSAS Certified Professional: AI & Machine LearningWhat You'll Learn
- Explore artificial intelligence and the two types of machine learning solutions
- Distinguish between unsupervised and supervised machine learning algorithms
- Understand how AI is used in robotics to design and build robots that follow commands and complete repetitive tasks
- Identify the various branches of artificial intelligence and the benefits of applying AI to data analytics
- Gain knowledge of natural language processing and deep learning for data science and predictive modeling
- Examine how the Internet of Things (IoT) is an integral part of AI
Key Takeaways
- Machine learning includes two types of solutions, covering both unsupervised and supervised algorithms.
- AI can be applied to data analytics, offering benefits across various branches of artificial intelligence.
- AI supports robotics by helping design and build robots that can be given commands and complete repetitive tasks.
- Deep learning is an important element in data science and for predictive modeling.
- The Internet of Things is an integral part of AI, and AI is integral to IoT.
Frequently Asked Questions
What topics does this course cover?
The course covers AI and machine learning, AI and robotics, AI with data and analytics, AI and deep learning, and AI with the Internet of Things (IoT). It explores artificial intelligence, the two types of machine learning solutions, the various branches of AI, natural language processing, and the benefits of applying AI to data analytics.
Will I learn about machine learning algorithms?
Yes. The lessons explain unsupervised and supervised machine learning algorithms as part of exploring the two types of machine learning solutions.
Does this course address AI in robotics?
Yes. It explains how AI is used in robotics and how AI can help you design and build a robot that can be given commands and also complete repetitive tasks.
What skills are associated with this course?
Associated skills include Applications of Artificial Intelligence, Artificial Intelligence Systems, Artificial Intelligence, Artificial Intelligence Development, Computational Intelligence, and SAS Certified Professional: AI & Machine Learning.
How does this course relate deep learning and IoT to AI?
It introduces deep learning as an important element in data science and predictive modeling, and explains how the Internet of Things is an integral part of AI, and vice versa.
Transcript
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Welcome to AI and other technologies. In these lessons, you'll explore AI and machine learning and discuss how you can use AI to design robotics. After completing these lessons, you'll know how to combine data analytics with artificial intelligence. Machine learning is one of the branches of artificial intelligence and it allows a machine to learn from training data sets and bases its learning on past performance. There are two types of machine learning, unsupervised and supervised algorithms. Unsupervised algorithms provide conclusions from real life data sets. The input data isn't labeled like a supervised algorithm. The main use case is for analysis purposes and it doesn't have a workaround for passing feedback to the actual algorithm. Two examples are K means and hierarchical algorithm. Unsupervised learning algorithms don't use previous learning. The data is known as unlabeled data and is passed through the machine to generate the results. If you're required to identify fraudulent transactions, it can be handled using unsupervised learning. You can create a machine learning program that can analyze the data and generate a list of transactions. It can easily categorize them into fraudulent and non-fraudulent transactions. A supervised algorithm uses training data sets and allows us to validate the model. Once the model is tested, then it will work with new data sets. The input data is often labeled in this case and the algorithm is tested on real data sets and the feedback applied to the program. The program is also modified based on the training data sets. The most important use cases are prediction use cases. Here are a few examples related to the algorithm. Decision tree, logistic regression and support vector machine. Consider the use case that can be solved using this model. You're monitoring turbine performance and need to generate alerts whenever the turbine trips. The operator is currently doing this work by analyzing the data and predicting failure based on certain data points, you'll create a supervised algorithm that can easily learn from this model and you know the expected output. Your team has previous experience in solving similar problems. This type of problem solving is known as classification. Your machine learning algorithm already knows how to handle the situation from training data and once you publicize the program in the actual production environment, it can perform the same task that the operator is doing manually. You'll notice that the machine learning model uses test data and provides predictions. Once the machine learning algorithm is ready for production, then you can use the machine learning model. The machine will accept the labeled data as the input and pass it through the machine learning model. The model generates the outcome based on previous learning. Supervised Learning uses these steps. 1. Extract historical data. 2. Generate sample data. 3. Create the training data sets. 4. Create the machine learning algorithm. 5. Pass the training data set into a machine learning algorithm. 6. build a statistical model. 7. perform validation and prediction. And 8. Generate the model outcome. Supervised learning follows the model where data and the response are known. You'll create the model based on this input. It's also considered a complex method for solving a problem, and it requires many resources and needs time to compute. Unsupervised learning allows developers to create a model and pass the input data. The predicted response is generated from model and input data and is considered simple compared to the unsupervised algorithm.
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