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Introduction on Feature Extraction

In Natural Language Processing, Feature Extraction is one of the most important steps to be followed for a better understanding of the context of what we are dealing with. After the initial text is cleaned, we need to transform it into its features to be used for modeling. Document data is not computable so it must be transformed into numerical data such as a vector spac Text Extraction, or Text Vectorization.

In this article, we will explore different types of Feature Extraction Techniques like Bag of words, Tf-Idf, n-gram, word2vec, etc. Without wasting our time let’s start our article.

4. What are the techniques?

1. What is Feature Extraction from the text?

It understands only numerical data. The process of converting text data into numbers is called Feature Extraction from the text. It is also called text vectorization.

So we know that machines can only understand numbers and to make machines able to identify language we need to convert it into numeric form.

But when we have a sentence and we want to predict its sentiment, How will you represent it in numbers? In this article, we are going to study these techniques.

6. Word2Vec(Word Embedding)

Common Terms Used

Word (w) — Words that are used in a document are known as Word.

Techniques for Feature Extraction 1. One Hot Encoding

Let’s say we have documents “We are learning Natural Language Processing”, “We are learning Data Science”, and “Natural Language Processing comes under Data Science”.

corpus – We are learning Natural Language Processing, We are learning Data Science, Natural Language Processing comes under Data Science

Vocabulary(Unique words)  – We are learning Natural Language Processing Data Science comes under – V – 10

Document1 — We are learning Natural Language Processing


2. Easy to implement

One hot encoding is not used in the industry because it has flaws.

4. No capturing of semantic meaning.

2. Bag of Words

Specially used in the Text Classification task.

We can directly use CountVectorizer class by Scikit-learn.

code example


3. Out of Vocabulary (OOV) problem does not occur, which means the model does not give an error.

3. Not consider sentence ordering issues.

3. Bag of n-grams

A bag-of-n -grams model represents a text document as an unordered collection of its n-grams.

n-gram — using n number of words of the document

code example


2. Able to capture the semantic meaning of the sentence.

2. OOV, Ignoring the new word.

4. Tf-Idf — Term Frequency and Inverse Document Frequency

The number of times a word appears in a document is divided by the total number of words in that document. 0 < Tf< 1

The logarithm of the number of documents in the corpus is divided by the number of documents where the specific term appears. In Scikit-learn use log(N/ni) + 1 formula.

code example

Q. Why do we take a log to calculate IDF?


1. This technique is widely used in Information retrieval like a search engine.

4. Semantic meaning does not capture.

5. Custom Features

Creating new custom features using domain knowledge.

5. Character count.

6. Word2vec 

Word Embeddings

Wikipedia says “In natural language processing, word embedding is a term used for the representation of words for text analysis, typically in the form of a real-valued vector that encodes the meaning of the word such that the words that are closer in the vector space are expected to be similar in meaning.”

let’s consider one example boy-man vs boy-table, Can you tell which of the pair has more similar words to each other?

For a human, it’s easy to understand the associations between words in a language. We know that boy and man have more similar meanings than boy and table but what if we want machines to understand this kind of relation automatically in our languages as well? That is what word embeddings come into the picture.

Types of Word Embedding

1. Frequency-based – Count frequency of word



Glove(based on Matric Factorization)

2. Prediction based


What is Word2Vec?

Word2Vec is somewhat different than other techniques which we discussed earlier because it is a Deep learning-based technique.

Word2Vec is a word embedding technique, that converts a given word into a vector as a collection of numbers.

As we have other techniques then why do we need word2vec?

Word2vec capture semantic meaning like happiness and jo

Word2vec create low dimension vector(each word is a collection of a range of 200 to 300.

Word2vec creates a Dense vector(non-zeros)

How to Use It?

2. Self-Trained model


In this article, we learned about different types of feature extraction techniques. The key takeaways from the article are,

We learned different types of feature extraction techniques such as one-hot encoding, bag of words, TF-IDF, word2vec, etc.

One Hot Encoding is a simple technique giving each unique word zero or one.

A bag-of-words is a representation of text that describes the occurrence of words within a document.

TF-IDF is a statistical measure that evaluates how relevant a word is to a document in a collection of documents.

and at the last we have seenWord2Vec. Word2Vec is a word embedding technique, that converts a given word into a vector as a collection of numbers.

Each technique has its pros and cons.

So, this was all about feature extraction techniques. Hope you liked the article.

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Complete Guide On Zbrush Zremesher

Introduction to ZBrush ZRemesher

Zbrush ZRemesher can understand as arranging as well as calculating polygons for doing retopology of the visible portions of the chosen sub tool in this software. With ZRemesher, one can do retopology very quickly instead of doing it manually. Retopology is necessary for having a good number of polygons on the sub tool so that it can easily animate during the animation process. In Zbrush, we also have a ZRemesher brush that helps us locate sub-tool portions according to which we want to do retopology with the ZRemesher option.

How to Use ZRemesher?

We use ZRemesher to minimize polygons on the selected sub tool of our model. So how you can use ZRemesher, let us have a model. We will go to the Light box of this software and choose this Female head from the list. You can use your own model for learning about this topic.

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3D animation, modelling, simulation, game development & others

Now we will go to the transform menu of the menu bar, which is at the top of the working screen, and enable the Polyframe option so that we can see polygons on our selected sub tool, or you can press the Shift + F button of the keyboard as its short cut key.

If we increase the DynaMesh value from the Dynamesh option of the Geometry panel for this model, you can see there are lots of polygons that are not good for animation purposes.

Before you start working with ZRemesher, make a duplicate copy of your subtool because ZRemesher will change the retopology of your sub tool completely but maintain shapes as much as possible.

By default, its value is 5, but you can decrease it as per your requirement. Such as we will take its value as 1 by entering 1 in this option.

And you will have less polygons with the same shape.

Methods of ZRemesher

Using ZRemesher, you can go with some methods; the first one is you can go with symmetry mode, which gives you symmetrical polygons on your selected sub tool. So if your sub tool has symmetry, then make sure you have symmetry mode is on. So, for example, we had taken this sub tool through the ZRemesher process when my symmetry mode was on, and you can see there are equal polygons on both sides of the face.

And the next method is non-symmetry mode so that we will press the X button on the keyboard.

And now, when you press the ZRemesher button of the ZRemesher panel, then you can see it will give you a result that has no symmetry for your sub tool. So you can use it with a non-symmetrical sub tool.

The other method which you can use for not disturbing your desired area. So for that, we make poly groups of our desired area. You can make more than two poly groups of your model, and for making poly groups, we will on Mask brush by holding the Ctrl button of the keyboard.

And we will mask this mouth area.

And press the Ctrl + W button of the keyboard to make this masked area a poly group.

Now enable the “KeepGroups” option of the ZRemesher panel.

And you can see after retopology; it maintains the edges of the mouth very accurately.

If you want, you can press the ZRemesher button again to have smooth polygons.

There is a ZRemesher brush also in the brushes panel, and you can use it for the same purpose as we use Mask brush. With ZRemesher brush, we can specify the area to ZRemesher option for having accurate results.

Now just move the cursor of the mouse around the area which you want to mark. For example, we will mark this eye area. My symmetry mode is On, so it will automatically mark the opposite eye.

You can use any of the methods according to your requirement for having your desired result. You just have to maintain parameters accurately.

Conclusion – ZBrush ZRemesher

We have good information about the ZRemesher option of this software, and now we have an understanding about almost every aspect of this option. You can also use ZRemesher brushes for smooth retopology of the visible sub tool of your model. Now we will suggest you start practicing this method to have more and more command on it.

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Complete Guide On Gitlab Kubernetes

Introduction to GitLab Kubernetes

Web development, programming languages, Software testing & others

What is GitLab Kubernetes?

The GitLab Kubernetes Agent gives a safe association between a GitLab occurrence and a Kubernetes bunch and permits pull-based organizations to get cautions dependent on the organization’s approach. We can perform SaaS on GitLab, chúng tôi and have a lot more components not far off.

The Agent gives a protected association between the group and GitLab. We can control access by using Kubernetes features and GitLab features as per our requirements. The Agent gives a highly durable association utilizing WebSockets or gRPC between a Kubernetes group and a GitLab example. Since we need to keep the bunch side part insignificant and lightweight, we envision numerous Agents being introduced into a similar group with various access levels. In any case, this joining is perplexing. To see how the Agent functions, let me initially present its significant parts. GitLab and Kubernetes basically have two parts: GitLab and Kubernetes agent, or we can say that Kubernetes server. Agents are the bunch side part that must be conveyed in the group, while kas is the GitLab server-side part that is overseen closely by GitLab. Since we need to keep the bunch side part as thin as could really be expected, kas is answerable for a large part of the hard work.

Get Started GitLab Kubernetes

This is the reason, right now, kas is just accessible for select clients and activities. However, in the event that you might want to give it a shot, contact me by email or by referencing me in an issue with your undertaking ID, and we will approve your venture.

Create GitLab Kubernetes

Given below shows how we can create GitLab Kubernetes as follows:

We need to follow the different steps to create it:

1. First, we must have an account on GitLab.

2. After that, we need to create a project, as shown in the following screenshot as follows.

Now we can say see in the above screenshot there are two options; the first is we can create a new cluster as per our requirement, and the second is that we can connect an already created cluster. So as per requirement, we can select any option that we want.

The following screenshot shows what is the field we are required to fill as follows:

Running GitLab Kubernetes

GitLab Runner can utilize Kubernetes to run expands on a Kubernetes group. This is conceivable with the utilization of the Kubernetes agent.

The Kubernetes agent, when utilized with GitLab CI, associates with the Kubernetes API in the bunch, making a Pod for each GitLab CI Job. This Pod is comprised of, at any rate, a form holder, a partner compartment, and an extra holder for each help characterized in the .gitlab-ci.yml.

GitLab Kubernetes Workflow

Get ready: Create the Pod against the Kubernetes Cluster. This makes the compartments needed for the form and administrations to run.

Pre-form: Clone, reestablish reserve, and download ancient rarities from past stages. This is run on an exceptional holder as a feature of the Pod.

Fabricate: User assemble.

Post-form: Create.


From the above article, we have taken in the essential idea of the GitLab Kubernetes, and we also see the representation. From this article, we learned how and when we use it.

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A Complete Guide To Joomla Version

Introduction to Joomla Version

Web development, programming languages, Software testing & others

Different Joomla Versions

As we know, Joomla was a result of the dispute of Mambo, which was formed as a non-profit organization with the intention of protecting the project from lawsuits. It is used widely to create both simple and complex web applications. Joomla is a spelling of Swahili “jumla”, which means “all together”. In September 2024, the first official version of Joomla was released with some major bug fixes. It was basically a rebranding version. Over 3 years, many new versions with so many updates and new changes were released.

1. Joomla 1.x Series

Joomla 1.0: It was the first-ever release of Joomla on 22 September 2005. It is basically for the rebranding release of Mambo. The basic motive of this release is rebranding with major bug fixes. By voting in the community members, the company decided on the logo of Joomla on 29 September 2005.

Joomla 1.5: It was the first major version of Joomla, which was released on 22nd January 2008. This version has got new features and new power levels in the world of CMS (Content Management Systems). It has got full support and enthusiasm from the public. In this version, Joomla has got APIs as well, which helped it to become international CMS. This is the version of Joomla, which has got long term support from the public. Joomla 1.5 was officially ended in April 2012 with the release of Joomla 3.0. The last version of Joomla 1.5v was 1.5.26, which was released on 27th March 2012.

Joomla 1.7.0: This version of Joomla was released in July 2011. This version added some new and important features related to the security and improved migration tools. Features added in this version were very quite important from the user perspective.

2. Joomla 2.x Series

Joomla’s 2.x version was released in 2012 and was one of the major revisions announced after the version 1.x release.

It has got some necessary improvements like:

Making new APIs making it easier for the users to use the application.

One of the major features of multi-language was added in this release.

Bug fixes like registration form on the login page, display of currencies, light box for product images, etc.

SSL features for different pages like login, register, title, etc., were added.

Image resizing and adding new events for plugins were added.

This version of Joomla is an LTS (Long Term Support) release.

3. Joomla 3.x Series

This version focuses on some of the important features like:

The more intuitive backend of the website.

Mobile-friendly websites for the users.

Fixing some major bugs of the 2.x release.

After six months of the release of Joomla 3.0, Joomla 3.1 was released for the users. It included one of the important features of tagging for the users. With the release of Joomla 3.2 and 3.3, which released in November 2013 and April 2014, respectively, it became one of the most popular versions of Joomla making. Other versions obsolete as it helps in the ease of access of websites for the users.

Some features given below were introduced in this version of Joomla:

Ease of navigation in the website.

Editing the content of the website.

A search was added for the various website pages.

Checking the products in stock before ordering.

Ability to unlock an unfinished item on the website.

4. Joomla 4.x Series

With all the chaos that happened in the Joomla 3.x series, the team decided to develop a stable build to improve the relationship between the members. After long discussions on the current situations and the changes that needed to be done, the team was more productive and made many changes in the project.

Some of the features that were added in this release were:

Focused on the usability of the backend interface of Joomla 4.

Support for PHP5 was removed.

Support for SQL server has been removed.

The team members made a new strategy for the development.

Active engagement of team member in testing rather than criticizing the previous releases.

Admin code refactoring was done, along with some major bug fixes.

Conclusion – Joomla Version

The above description clearly explains the full version history of Joomla. It is one of the most popular and widely used systems for content management and designing of software. It is used worldwide and is considered one of the most reliable, easy to use and secure applications to use. It has got wide support and a lot of enthusiasm from the people in such a short period of time.

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Python Range() Function: A Complete Guide (With Examples)

In Python, you can use the built-in range() function to generate a range of numbers from a start point to an end point.

For instance, let’s create a range of numbers from 0 to 5 and print them out:

numbers = range(0,6) for number in numbers: print(number)


0 1 2 3 4 5

Notice how the last number in the range() call is 6. This means the last number included in the range is actually 5.

In Python, you can call the range() function with one, two, or three parameters.

Here are some examples:

# Range from 0 to 9 range(10) # 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 # Range from 5 to 9 range(5, 10) # 5, 6, 7, 8, 9 # Range from 1 to 100 with step size of 10 range(0, 110, 10) # 0, 10, 20, 30, 40, 50, 60, 70, 80, 90, 100 # Reversed range from 100 to 0 with step size of -10. range(100, -10, -10) # 100, 90, 80, 70, 60, 50, 40, 30, 20, 10

If you’re looking for a short answer, I’m sure the above examples help you. But to truly learn how to use the range() function in different situations, I recommend reading the entire post.

This is a comprehensive guide to the range() function in Python. In this guide, you will learn thoroughly how to use the range() function in Python.

The range() Function in Python

In Python, the built-in range() function produces an immutable sequence of numbers between start and end values.

The complete syntax of using range() function is as follows:

range(start, stop, step)


start is the lower limit for the range. This is an optional parameter with a default value of 0.

stop is the upper limit for the range. The range consists of numbers until this value. Notice how it never includes the stop value in the range!

step is the step size for the range. This is an optional argument that defaults to 1. Each number in the range is generated by adding step to the previous value.

The range() function returns a range object. You can loop through this range object with a for loop. It is also possible to convert the range object into a list.

In Python 3, there are three syntactical variations of how to use the range() function:


range(start, stop)

range(start, stop, step)

Let’s go through each of these alternatives in more detail.

1. range(start)

The most basic way to use the range() function in Python is by specifying only the end value for the range.


When you do this, the range automatically starts from 0 and takes steps of size 1. It ends one before the stop value.

For example, let’s generate a range of numbers from 0 to 5:

numbers = range(6) for number in numbers: print(number)


0 1 2 3 4 5

Here the range starts from 0 because you did not specify a starting value. The range ends at the value of 5 instead of 6 due to the exclusive nature of range() function.

2. range(start, stop)

Another way you can call the range() function in Python is by specifying both start and stop values. This is useful if you want the range to start from a value other than 0, which commonly is the case.

range(start, stop)

For instance, let’s generate values from 5 to 10:

numbers = range(5,11) for number in numbers: print(number)


5 6 7 8 9 10

Notice that the start value 5 is included in the range, but the end value 11 is not. This might cause confusion if it’s your first time using the range() function.

3. range(start, stop, step)

The third option to call the range() function is by specifying start, stop, and step parameters.

range(start, stop, step)

The step parameter sets the interval for the range. In other words, it affects the way the range is generated by adding a value other than 1 to the previous number.

For example, let’s generate a range of values from 50 to 100 with by using 10 as a step size:

numbers = range(50,110,10) for number in numbers: print(number)


50 60 70 80 90 100 The range() Function Return Value

Now that you know how to use the range() function in Python, let’s take a closer look at the return value.

In Python, the range() function returns a range object.

For example, let’s create a range of numbers and print the object. Let’s also print the type of the range using the built-in type() function:

numbers = range(5, 10) print(numbers) print(type(numbers))


range(5, 10)

The result of printing the range is not a list of numbers as you might expect. Instead, it’s a range object. In other words, the range() function returns a special range object.

The range object is iterable by nature. This means you can loop through it like any other iterable, such as a list. This is what you already saw in the previous examples.

Of course, you can also convert the range object into another iterable type, such as a list.

For example, let’s generate a range of numbers and convert it to a list with the built-in list() function:

numbers = range(50,110,10) numbers_list = list(numbers) print(numbers_list)


[50, 60, 70, 80, 90, 100]

Now the result is a regular Python list instead of a range object. So if you need to generate a range as a list, you can easily cast the range object into a list.

Keep in mind the range object is a range object for performance reasons. If there’s no need to cast the range to a list, don’t do it!

Reversed Range in Python

In Python, it is possible to create a reversed range by specifying a negative step size to the range() function call.

For example, let’s generate a range of numbers from 100 to 50:

numbers = range(100, 40, -10) for number in numbers: print(number)


100 90 80 70 60 50

Make sure you understand why this works.

The range starts from the start parameter, but it stops one step before the stop parameter. Thus the stop is set to 40 to include 50 in the range.

As the step is -10, the range takes steps of size -10. In other words, it decreases the start by 10 until the stop value.

But why do you need to specify the step value at all? How about range(100, 40)?

As you remember, the range(100, 40) would mean that the step is 1 (by default) which would mean range(100, 40, 1).

This confuses Python as it tries to get from 100 to 40 by adding ones to 100, which is impossible.

Thus the result is an empty range.

numbers = range(100, 40) numbers_list = list(numbers) print(numbers_list)


[] Negative Range in Python

In Python, you can use the built-in range() function to produce a range of negative numbers.

When speaking about negative ranges in Python, you may refer to:

Negative range with increasing numbers, that is, a positive step.

Negative range with decreasing numbers, that is, a negative step.

Let’s see an example of each.

Negative Range with Increasing Numbers

For example, let’s create a range of numbers from -1 to -5:

numbers = range(-1, -6, -1) for number in numbers: print(number)


-1 -2 -3 -4 -5

Notice how you need a negative step size to make the range work. This is because it is not possible to get smaller values by adding positive values.

In other words, if you did not specify a negative step:

numbers = range(-1, -6) print(list(numbers))

Your result would be an empty range, that is, no values at all:

[] Negative Range with Increasing Numbers

To produce a range of negative values in increasing order, use the built-in range() function the same as you use it with positive numbers.

For example, let’s create a range of negative numbers from -10 to -5.

numbers = range(-10, -4) for number in numbers: print(number)


-10 -9 -8 -7 -6 -5

Notice how the step parameter is not needed as you are increasing the numbers by one.

Range Indexing in Python

In Python, the range() function produces a range object. This range object supports indexing the same way other iterables, such as lists, do.

For example, let’s get the second number in a range of numbers:

numbers = range(1, 6) # 1, 2, 3, 4, 5 second = numbers[1] print(second)



Needless to mention range objects support negative indexing too.

For example, let’s get the last element of a range using negative indexing -1:

numbers = range(1, 6) # 1, 2, 3, 4, 5 last = numbers[-1] print(last)


5 Range Slicing in Python

Python range objects support slicing. This means you can get a partial group of numbers from a range using slicing.

When you slice a range object in Python, you get a range object as a result. This range object contains the part of the original range.

If you are unfamiliar with slicing in Python, feel free to check this article.

For example, let’s get the first 3 numbers in a range:

numbers = range(1, 10) first_three = numbers[0:3] for number in first_three: print(number)


range(1, 4)

A common way to use slicing in Python is to reverse an iterable with slicing by [::-1]. You can do the same for a range of numbers too.

For instance, let’s reverse a range of numbers from 1 to 5:

numbers = range(1, 6) rev = numbers[::-1] for number in rev: print(number)


5 4 3 2 1 Inclusive Range

The Python range() function produces a range of values that does not include the last value by default.

For example range(0,5) produces a range of values 0, 1, 2, 3, 4.

To create an inclusive range, that is, to add the stop value into the range too, add the step value to the stop value.

For example, let’s create a range of values from 1 to 5 inclusively:

step = 1 numbers = range(1, 5 + step, step) print(list(numbers))


[1, 2, 3, 4, 5] For Loops with range() in Python

A common way to utilize the range() function is with for loops.

Loop Through Numbers with range()

The most basic use case is when looping through numbers from n to m.

For example, let’s print numbers from 1 to 5:

numbers = range(1,6) for number in numbers: print(number)


1 2 3 4 5 Loop with an Index Using range() Function

Another common use case for the range() is to access the index (or indexes) of an element with a for loop.

For example, let’s print a list of names and their index in the list:

queue = ["Alice", "Bob", "Charlie", "David"] for pos in range(len(queue)): print(f"{pos}: {queue[pos]}")


0: Alice 1: Bob 2: Charlie 3: David

Although there’s a much better solution to get the indexes by using the enumerate() function. Let’s have a look at how this function works.

Alternative to range() Function with For Loops

Now you know the range() can be used in a for loop to get the index of the elements. Meanwhile, this is commonly taught for beginners, it is not the ideal way to do it.

Instead, you should use a built-in enumerate() function.

For example, let’s repeat the example of printing the list of names and their index. Let’s not use range() this time, but enumerate() instead:

queue = ["Alice", "Bob", "Charlie", "David"] for pos, name in enumerate(queue): print(f"{pos}: {name}")


0: Alice 1: Bob 2: Charlie 3: David

In short, the enumerate() function couples the list elements with their index.

In the above example, the enumerate(queue) produces an object with position, name pairs:

[(0, 'Alice'), (1, 'Bob'), (2, 'Charlie'), (3, 'David')] Conclusion

Today you learned how to use the range() function in Python.

To recap, the range() function returns a range of values from n until m.

For example range(5) returns numbers 0,1,2,3,4.

The result of the range() function is a range object. You can use the range object to loop through the range. Alternatively, you can cast the range object to a list to get a list that represents a range of numbers.

There are three ways to call the range function in Python:


range(start, stop)

range(start, stop, step)

Thanks for reading. Happy coding!

Further Reading

50 Python Interview Questions

How To Use The Chatgpt Api? A Complete Guide

Learn how to use ChatGPT API and explore its capabilities with this ultimate guide

OpenAI’s ChatGPT API is a strong language processing tool. It is built on the GPT model, which was trained on enormous amounts of text data to produce human-like language. The API makes it simple for developers to incorporate the power of GPT into their applications and construct sophisticated language-based features such as natural language processing, text production, and chatbot capabilities.

One of the ChatGPT API’s primary features is its ability to interpret and respond to natural language input. This makes it excellent for use in chatbot applications since it understands and responds to user inquiries in a natural and human-like manner. The API may also produce text, which can be used to generate automated answers, summaries, or whole articles. This is very beneficial in content creation and summarizing applications.

Another benefit of the ChatGPT API is its scalability. It can manage massive volumes of data and integrates seamlessly with various systems and platforms. It also enables developers to tailor the model to their requirements, which can increase the accuracy and relevancy of the generated content.

The ChatGPT API is also user-friendly, simple to use, and well-documented, allowing it to be used by developers of various skill levels. It also provides several SDKs and libraries to assist developers in integrating the API into their applications. This article serves as a guide to using ChatGPT.

 What is ChatGPT API?

The firm behind ChatGPT, OpenAI, has published an API that allows developers to incorporate ChatGPT’s sophisticated language processing capabilities into their apps, businesses, and services.

ChatGPT, or Chat-based Generative Pre-trained Transformer, is a chatbot built on a series of huge language models fine-tuned by human AI trainers utilizing massive quantities of training data and human input.

With an OpenAI API, you can make use of ChatGPT’s powerful AI technology to improve user experiences and provide personalized suggestions and interactive support that seems to be provided by humans.

AI retail assistants who give suggestions to consumers based on their queries are one common use of the OpenAI API.

Shopify, for example, has integrated ChatGPT into its Shop app, allowing users to utilize prompts to identify and locate desired goods.

Shop announced the connection in a tweet, saying the ChatGPT-powered assistant can “talk products, trends, and maybe even the meaning of life.” Through its unique interface, the OpenAI API allows for smooth interaction with various GPT models.

As a developer, you may utilize the OpenAI API to create apps that can generate text, have intelligent and interesting dialogues with end users, and deliver meaningful replies.

How to use ChatGPT API

Using the ChatGPT API involves a few steps:

Obtain an API key:

To utilize the ChatGPT API, you must first sign up for an API key. This is possible via the OpenAI website.

Choose a programming language:

SDKs and libraries for the ChatGPT API are available in a variety of programming languages, including Python, Java, and JavaScript. Choose the one with whom you feel most at ease.

Install the SDK:

After deciding on a programming language, you must install the SDK or library for that language. This is commonly done with package management like pip or npm.

Create a new instance of the API:

After installing the SDK, you may establish a new instance of the API by entering your API key and any other setup details.

Make requests to the API:

You may begin making requests to the API after you have created an instance of it. You can, for example, use the “generate” method to produce text based on a prompt.

Process the response:

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