The big deal of Science Technology Engineering Math.

Othmaniamir
3 min readOct 4, 2021
Science Technology Engineering Math.

What is STEM?

STEM is an approache to education that focuses on the hard sciences, devols cretical thinking skills, and improves problem-solving abilities.

The importance of machine learning in STEM field.

The nearly limitless quantity of available data, affordable data storage, and the growth of less expensive and more powerful processing has propelled the growth of machine learning. Now many industries are developing more robust machine learning models capable of analyzing bigger and more complex data while delivering faster, more accurate results on vast scales. Machine learning tools enable organizations to more quickly identify profitable opportunities and potential risks.

The practical applications of machine learning drive business results which can dramatically affect a company’s bottom line. New techniques in the field are evolving rapidly and expanded the application of machine learning to nearly limitless possibilities. Industries that depend on vast quantities of data and need a system to analyze it efficiently and accurately, have embraced machine learning as the best way to build models, strategize, and plan.

What is so interesting and unique about machine learning?

Machine learning is fascinating because programs learn from examples. From the data that you have collected, a machine learning method can automatically analyze and learn the structure already resident in that data in order to provide a solution to the problem you are trying to solve.

The similarity between machine learning and the rest of STEM fields.

Machine learning is an umbrella term for different algorithms and technologies what is used to automate learning from new information. Many today’s artificial intelligence implementations are holistic, so they are relying heavily on machine learning to learn patterns from vast data sets.

Frameworks, libraries and languages for machine learning.

While some developers may find the complex algorithms and processes intimidating, these frameworks, libraries and languages for machine learning can help get you started.

1-Python:

Python offers some competitive features when it comes to machine learning development, particularly complex analytics operations and large-scale data handling.

2-TensorFlow:

TensorFlow 2.2, an open source project by Google, offers a highly capable framework for executing the numerical computations needed for machine learning.

3-Keras:

open source contributors integrated the Keras library with the TensorFlow framework. Equipped with simple, preconfigured APIs, Keras features a plug-and-play framework that programmers can use to build deep learning.

4-PyTorch:

PyTorch was developed by Facebook as an open source platform for deep learning, highlighted by its ability to generate computational graphs that get processed at runtime.

5-R:

Programmers often turn to R for experiments with large data sets.

R offers effective dependency management, critical to ensuring sustainable ML models.

Real-World Problems that can be Solved by Machine Learning.

Today, Machine Learning algorithms are primarily trained using three essential methods. These are categorized as three types of machine learning, as discussed below.

  1. Identifying Spam.

2. Making Product Recommendations.

3. Customer Segmentation.

4. Image & Video Recognition.

Pros and Cons of machine learning.

Pros:

  • Wide Range of Applications. …
  • Scope of Improvement. …
  • Efficient Handling of Data. …
  • Best for Education and Online Shopping. …
  • Possibility of High Error. …
  • Algorithm Selection. …
  • Data Acquisition.

Cons:

  • Possibility of High Error. In ML, we can choose the algorithms based on accurate results. …
  • Algorithm Selection. The selection of an algorithm in Machine Learning is still a manual job. …
  • Data Acquisition. In ML, we constantly work on data. …
  • Time and Space.

All of these things mean it’s possible to quickly and automatically produce models that can analyze bigger, more complex data and deliver faster, more accurate results — even on a very large scale. And by building precise models, an organization has a better chance of identifying profitable opportunities — or avoiding unknown risks.

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