This article was published as a part of the Data Science Blogathon.
Artificial Intelligence, Machine Learning and Data Science have been ruling the tech buzzword dictionary for the past couple few years. Whether movies depicting the threat of an algorithmic takeover or self-driving cars gradually taking over roads – Machine Learning has seeped into every sphere. When we speak of self-driving cars and machines simulating the human mind – it can all be made possible with Reinforcement Learning. In this article, we will explore what RL is, its applications, its challenges and the future it awaits.
Reinforcement Learning (RL) is a subdomain of Machine Learning wherein an agent learns by interacting with the environment. While in other Machine/Deep Learning techniques, our models learn solely on the grounds of the data fed to them, RL makes it possible for our model (usually referred to as ‘agent’) to learn continually from experience. If the agent performs a desirable action, it is rewarded; likewise, for an undesirable one, it is penalized. This classifies our reinforcements into two categories-
Thus, simply put, Reinforcement Learning closely mimics human learning patterns – observation, trial and error.
For example, let us consider a game of chess. Our agent begins to play the game with an absolute trial and error approach. Every time it wins, it is rewarded, and when it loses, it is accordingly penalized. Gradually, the agent learns how to play and win a chess game. This is of the most classic exemplifications of Reinforcement Learning.
We can thus conclude that RL is a way that enables AI systems to learn on their own by perceiving the environment without having to feed them with a massive amount of labelled data.
Now that we are familiar with the concept of Reinforcement Learning, let’s look into some of its applications:
Although Reinforcement Learning has appeared as a new touchstone in the Machine Learning arena and has been the centre of attention for researchers, it happens to face specific challenges that are enlisted below:
1. Large Datasets: Since Reinforcement Learning Models are complex, they need massive datasets to make better decisions.
2. Environment Dependency: As we know that the Reinforcement Learning Models learn based on the agent’s interactions with the environment – it causes hindrance in the training of the model; the agent learns based on the current state of the environment, and for a constantly changing environment, it becomes difficult for the agent to get trained.
3. Design of Reward Structure: For any real worlds use case of RL, one needs to analyze the problem statement and devise an appropriate structure as to when the model should be awarded and when should it be penalized. This remains another problem that the researchers are constantly in the face of.
Given its extensive applications, one can quite presciently say that Reinforcement Learning stares into a bright future. Unlike other Machine Learning methods, RL does not require labelled datasets and makes real-life decisions based on a reward system – mimicking the human behaviour to the closest. It serves as an impeccable resolve for situations when the target our problem statement is trying to accomplish is clear, but the way of getting there is not. Though, as of now, in 2022, the real-world applications of RL are limited and are not in constant circulation in our daily lives, With the tenacious and committed researchers constantly digging deep into the field of RL, we’ll surely break through all the challenges and resistance the current studies face and revolutionize the Artificial Intelligence sphere.
This article was an introduction to the concepts of reinforcement learning. Let us quickly recap the key takeaways:
– RL involves an agent that interacts with the external environment and learns with every action.
– For every favourable action, the agent is rewarded positively; correspondingly, for every unfavourable one, the agent is penalized.
– There are a multitude of RL-based applications ranging from Self-Driving Cars to automatic recommendation systems.
– Lack of large datasets, environment dependency of the agent’s learning and appropriate design of the reward structure for the agent – are some of the most considerable challenges in Reinforcement Learning.
However, despite all challenges, we can see gradual improvements which project the fact that the future for Reinforcement Learning is a bright one.
The media shown in this article is not owned by Analytics Vidhya and is used at the Author’s discretion.
I'm Suvrat Arora, a Computer Science graduate. Enthusiastic about AI, Data Science, ML and NLP - I believe that storytelling is a significant aspect of life which has led me to develop a practice of documenting, organizing, and disseminating knowledge across domains, making me an active contributor on multiple platforms.
Comprehensive Guide to Build AI Agents from Scr...
Top 4 Agentic AI Design Patterns for Architecti...
What is Reinforcement Learning and How Does It ...
Simple Beginner’s guide to Reinforcement ...
Reinforcement Learning Techniques Based on Type...
A Hands-on Introduction to Reinforcement Learni...
Reinforcement Learning Guide: From Fundamentals...
Meta-Reinforcement Learning in Data Science
DataHack Radio #15: Exploring the Applications ...
Getting ready for AI based gaming agents –...
We use cookies essential for this site to function well. Please click to help us improve its usefulness with additional cookies. Learn about our use of cookies in our Privacy Policy & Cookies Policy.
Show details
This site uses cookies to ensure that you get the best experience possible. To learn more about how we use cookies, please refer to our Privacy Policy & Cookies Policy.
It is needed for personalizing the website.
Expiry: Session
Type: HTTP
This cookie is used to prevent Cross-site request forgery (often abbreviated as CSRF) attacks of the website
Expiry: Session
Type: HTTPS
Preserves the login/logout state of users across the whole site.
Expiry: Session
Type: HTTPS
Preserves users' states across page requests.
Expiry: Session
Type: HTTPS
Google One-Tap login adds this g_state cookie to set the user status on how they interact with the One-Tap modal.
Expiry: 365 days
Type: HTTP
Used by Microsoft Clarity, to store and track visits across websites.
Expiry: 1 Year
Type: HTTP
Used by Microsoft Clarity, Persists the Clarity User ID and preferences, unique to that site, on the browser. This ensures that behavior in subsequent visits to the same site will be attributed to the same user ID.
Expiry: 1 Year
Type: HTTP
Used by Microsoft Clarity, Connects multiple page views by a user into a single Clarity session recording.
Expiry: 1 Day
Type: HTTP
Collects user data is specifically adapted to the user or device. The user can also be followed outside of the loaded website, creating a picture of the visitor's behavior.
Expiry: 2 Years
Type: HTTP
Use to measure the use of the website for internal analytics
Expiry: 1 Years
Type: HTTP
The cookie is set by embedded Microsoft Clarity scripts. The purpose of this cookie is for heatmap and session recording.
Expiry: 1 Year
Type: HTTP
Collected user data is specifically adapted to the user or device. The user can also be followed outside of the loaded website, creating a picture of the visitor's behavior.
Expiry: 2 Months
Type: HTTP
This cookie is installed by Google Analytics. The cookie is used to store information of how visitors use a website and helps in creating an analytics report of how the website is doing. The data collected includes the number of visitors, the source where they have come from, and the pages visited in an anonymous form.
Expiry: 399 Days
Type: HTTP
Used by Google Analytics, to store and count pageviews.
Expiry: 399 Days
Type: HTTP
Used by Google Analytics to collect data on the number of times a user has visited the website as well as dates for the first and most recent visit.
Expiry: 1 Day
Type: HTTP
Used to send data to Google Analytics about the visitor's device and behavior. Tracks the visitor across devices and marketing channels.
Expiry: Session
Type: PIXEL
cookies ensure that requests within a browsing session are made by the user, and not by other sites.
Expiry: 6 Months
Type: HTTP
use the cookie when customers want to make a referral from their gmail contacts; it helps auth the gmail account.
Expiry: 2 Years
Type: HTTP
This cookie is set by DoubleClick (which is owned by Google) to determine if the website visitor's browser supports cookies.
Expiry: 1 Year
Type: HTTP
this is used to send push notification using webengage.
Expiry: 1 Year
Type: HTTP
used by webenage to track auth of webenagage.
Expiry: Session
Type: HTTP
Linkedin sets this cookie to registers statistical data on users' behavior on the website for internal analytics.
Expiry: 1 Day
Type: HTTP
Use to maintain an anonymous user session by the server.
Expiry: 1 Year
Type: HTTP
Used as part of the LinkedIn Remember Me feature and is set when a user clicks Remember Me on the device to make it easier for him or her to sign in to that device.
Expiry: 1 Year
Type: HTTP
Used to store information about the time a sync with the lms_analytics cookie took place for users in the Designated Countries.
Expiry: 6 Months
Type: HTTP
Used to store information about the time a sync with the AnalyticsSyncHistory cookie took place for users in the Designated Countries.
Expiry: 6 Months
Type: HTTP
Cookie used for Sign-in with Linkedin and/or to allow for the Linkedin follow feature.
Expiry: 6 Months
Type: HTTP
allow for the Linkedin follow feature.
Expiry: 1 Year
Type: HTTP
often used to identify you, including your name, interests, and previous activity.
Expiry: 2 Months
Type: HTTP
Tracks the time that the previous page took to load
Expiry: Session
Type: HTTP
Used to remember a user's language setting to ensure LinkedIn.com displays in the language selected by the user in their settings
Expiry: Session
Type: HTTP
Tracks percent of page viewed
Expiry: Session
Type: HTTP
Indicates the start of a session for Adobe Experience Cloud
Expiry: Session
Type: HTTP
Provides page name value (URL) for use by Adobe Analytics
Expiry: Session
Type: HTTP
Used to retain and fetch time since last visit in Adobe Analytics
Expiry: 6 Months
Type: HTTP
Remembers a user's display preference/theme setting
Expiry: 6 Months
Type: HTTP
Remembers which users have updated their display / theme preferences
Expiry: 6 Months
Type: HTTP
Used by Google Adsense, to store and track conversions.
Expiry: 3 Months
Type: HTTP
Save certain preferences, for example the number of search results per page or activation of the SafeSearch Filter. Adjusts the ads that appear in Google Search.
Expiry: 2 Years
Type: HTTP
Save certain preferences, for example the number of search results per page or activation of the SafeSearch Filter. Adjusts the ads that appear in Google Search.
Expiry: 2 Years
Type: HTTP
Save certain preferences, for example the number of search results per page or activation of the SafeSearch Filter. Adjusts the ads that appear in Google Search.
Expiry: 2 Years
Type: HTTP
Save certain preferences, for example the number of search results per page or activation of the SafeSearch Filter. Adjusts the ads that appear in Google Search.
Expiry: 2 Years
Type: HTTP
Save certain preferences, for example the number of search results per page or activation of the SafeSearch Filter. Adjusts the ads that appear in Google Search.
Expiry: 2 Years
Type: HTTP
Save certain preferences, for example the number of search results per page or activation of the SafeSearch Filter. Adjusts the ads that appear in Google Search.
Expiry: 2 Years
Type: HTTP
These cookies are used for the purpose of targeted advertising.
Expiry: 6 Hours
Type: HTTP
These cookies are used for the purpose of targeted advertising.
Expiry: 1 Month
Type: HTTP
These cookies are used to gather website statistics, and track conversion rates.
Expiry: 1 Month
Type: HTTP
Aggregate analysis of website visitors
Expiry: 6 Months
Type: HTTP
This cookie is set by Facebook to deliver advertisements when they are on Facebook or a digital platform powered by Facebook advertising after visiting this website.
Expiry: 4 Months
Type: HTTP
Contains a unique browser and user ID, used for targeted advertising.
Expiry: 2 Months
Type: HTTP
Used by LinkedIn to track the use of embedded services.
Expiry: 1 Year
Type: HTTP
Used by LinkedIn for tracking the use of embedded services.
Expiry: 1 Day
Type: HTTP
Used by LinkedIn to track the use of embedded services.
Expiry: 6 Months
Type: HTTP
Use these cookies to assign a unique ID when users visit a website.
Expiry: 6 Months
Type: HTTP
These cookies are set by LinkedIn for advertising purposes, including: tracking visitors so that more relevant ads can be presented, allowing users to use the 'Apply with LinkedIn' or the 'Sign-in with LinkedIn' functions, collecting information about how visitors use the site, etc.
Expiry: 6 Months
Type: HTTP
Used to make a probabilistic match of a user's identity outside the Designated Countries
Expiry: 90 Days
Type: HTTP
Used to collect information for analytics purposes.
Expiry: 1 year
Type: HTTP
Used to store session ID for a users session to ensure that clicks from adverts on the Bing search engine are verified for reporting purposes and for personalisation
Expiry: 1 Day
Type: HTTP
Cookie declaration last updated on 24/03/2023 by Analytics Vidhya.
Cookies are small text files that can be used by websites to make a user's experience more efficient. The law states that we can store cookies on your device if they are strictly necessary for the operation of this site. For all other types of cookies, we need your permission. This site uses different types of cookies. Some cookies are placed by third-party services that appear on our pages. Learn more about who we are, how you can contact us, and how we process personal data in our Privacy Policy.
Edit
Resend OTP
Resend OTP in 45s