What is the Difference Between Centralized and Decentralized Identity Management





Rising concerns over data and network security have propelled businesses and other organizations to tighten their security measures and draw actionable plans to be ready in case they’re the intended target of a security breach. This gave way to Identity Access Management (IAM) wherein only authorized users could gain access to services and accounts.

Consequently, the global IAM sector is expected to reach a valuation of US $34.52 billion by 2028, growing at a CAGR (compound annual growth rate) of 14.5% between 2021 and 2028. Revised and more stringent regulatory compliances and adoption of cloud technologies are also contributing to the growth of IAM. However, developments in blockchain and AI (artificial intelligence) have changed the name of the game and have given birth to decentralized identity management.

But what is IAM? And what is decentralized identity management? Moreover, how is it any different than the status quo (centralized) identity system? Keep reading to find out.
What is Identity Access Management (IAM)?

Identity management, or IAM, refers to rules, policies, and technologies that authorize only the right individuals to access an entity’s data sources. This concept is a cross between IT security and data management and promotes role-based access control.

For instance, if Company FITX wants just the upper management to have access to data regarding its latest software development, it can tap into IAM and ensure only the desired employees have access to this confidential information. This ascertains that only the people who need to have access to some data or resource can access it.

Wondering how this system keeps non-authorized individuals out? The logic is quite simple actually. Only authorized people can log in and access the information. Others will simply not be allowed to bypass this security measure.

Multi-factor authentication (MFA) tools, access provisioning and deprovisioning, and password controls are all some common examples of IAM and how a company can benefit from this security measure.

This won’t just keep unauthorized individuals out but also minimize the instances of data breaches—at least the ones that happen due to weak or deceitful links internally.

Basically, IAM has four major components that define all that it stands for. The components include authentication, authorization, administration, and auditing and reporting.

Now that you’re clear on the concept of IAM, it’s time to dive into centralized and decentralized identity management and uncover their differences.


What is Centralized Identity Management?


A centralized identity management system that collects and stores identity-related data (identifiers) in a single centralized location (or database). The identifiers could include login credentials, email addresses, and any other identifier like government-issued ID used by an individual to bypass a security measure.

In a centralized identity system, users get to access all the data, resources, websites, applications, and other systems using the same set of credentials over and over again. This eliminates the need for creating multiple accounts or remembering a whole lot of passwords.

Due to this feature, this identity system is very popular among users as it is extremely user friendly and provides heightened visibility over the devices, applications, networks used to access an organization’s resources.

For instance, your organization might allow you to log in to your employee account through multiple devices (yours or others) as long as you’re doing your work on time and don’t take part in any unlawful activities.

Though these advantages are unbeatable and make our lives easier, they come at a steep price: weakened security. Imagine how easy it would be for a professional hacker to break into the centralized database and steal or manipulate all the information they like.

What happens when you lose one of your logged in devices and the thief gets a hold of your account before you can use another one of your devices to block access to your system? They can do as they please while you search for your device and approve, edit, or create processes as they like—all in your name and using you as a scapegoat.

But what’s the alternative? No security? Or no IAM? Actually, the answer is offered by blockchain-powered decentralized identifiers.

What is Decentralized Identity Management?


Decentralized identity management refers to a system that authenticates and approves users without requiring a centralized authority to play referee. It facilitates transparency and trust. But, most of all, it helps entities tighten their security measures.

A decentralized blockchain identity system empowers users and gives them complete control over their data. As such, a decentralized identifier (DID) serves as a proxy identifier for an individual or entity. What makes them different from centralized identities is that each of these identifiers are protected with a unique private key and give the owner 100% control over their personal information.

Better yet, a single organization or person can have multiple DIDs. This helps them use the DIDs however they wish and even use them for specific tasks. For instance, if Mark has 2 DIDs, he could use the one containing most of his personal information for applying to jobs. The other containing surface-level information can be used for online purchases, gaming, and more.

However, this raises the question: How would a verifier know the information provided by a DID holder is correct? After all, for all intents and purposes, they can enter and control all the information they store in a DID.

While that’s true, the real beauty of a DID lies in how it is connected to verifiable credentials that help verify the information provided by a DID almost instantly. On the other hand, these credentials are cryptographically secured and provide ultimate control to the users.

To elaborate, decentralized identities are secured through cryptography. This ensures that only the owner of a DID has access to manage, control, edit, and share the underlying information. The paired public key helps DID holders share their information without much hassle, making the process secure and convenient.

Given its many benefits, this decentralized system is far superior to centralized identity management.

Centralized vs Decentralized Identity Management


The following table presents the major differences between centralized and decentralized identity management:

Basis of distinction Centralized Identity Management Decentralized Identity Management

Data storage - The data is stored on a centralized database. Here, the data is stored on a user's device.

Data ownership In the centralized model, all your data is owned and controlled by a centralized authority. Decentralized identity management provides users more flexibility and freedom. This means that users have ownership over their data.

Data disclosure - Data disclosure is available at every step of the process and for each credential. This management model is marked by selective data disclosure, meaning data is available at the will of the owner.

Data sharing - The collected and stored data can be easily shared by third parties without informing or taking consent from the user. Explicit user consent is required to use or share their data.

Identity use case - One identity is required for one platform or system. For example, you just need one set of credentials to log in to your employee account through multiple devices. One identity composed of numerous verifiable credentials that can be viewed upon the user’s discretion.

Security and better control over their information have made decentralized identifiers the need of the hour and popular among security enthusiasts.

So, what are you waiting for? Take advantage of ProofEasy’s blockchain and QR-based platform to get started on your decentralized identity management journey today! In fact, why stop there when you can benefit from verifiable credentials? You even get to choose the template theme!

The best part, though? You can use ProofEasy to secure your existing documents and forget all about expensive and effort-intensive document management. You can even integrate this budget-friendly solution into your existing system since ProofEasy offers a customizable API layer that’s intuitive and doesn't require any training.

Contact the ProofEasy team today to secure your organization!

Exploring the Fundamental Principles and Applications of Angular Acceleration

How Fast Can We Go? Exploring Angular Acceleration's Limits!

 

In the realm of physics, the study of motion is a captivating journey that unveils the secrets behind the way objects move and interact in our universe. Whether you're a physics enthusiast or just curious about the fundamental principles governing motion, delving into the world of angular acceleration promises to be a rewarding venture. This becomes even more apparent when seeking clarity through dedicated education avenues, such as Physics tuition, where experts guide you through the intricacies of concepts like angular acceleration.

Defining Angular Acceleration:

Angular acceleration, denoted by the symbol α (alpha), is a measure of how quickly the angular velocity of an object changes with respect to time. To grasp this concept, it's essential to understand angular velocity first. Angular velocity is the rate at which an object rotates around an axis. Angular acceleration, then, is the rate at which this angular velocity changes.

Mathematically, angular acceleration (α) is defined as the change in angular velocity (∆ω) divided by the change in time (∆t):

α = ∆ω/∆t

Units of Angular Acceleration:

Angular acceleration is measured in radians per second squared (rad/s²). Radians are a unit used to measure angles, and when combined with time, they provide a measure of how quickly an object's rotational speed is changing. The concept of radians allows for a more natural expression of angular displacement compared to degrees, making it a preferred unit in angular motion calculations.

Tangential Acceleration and Angular Acceleration:

To comprehend angular acceleration more deeply, it's helpful to introduce the concept of tangential acceleration. Tangential acceleration is the linear acceleration experienced by an object moving in a circular path. It is related to angular acceleration through the equation:

at= r⋅α

Here, at​  is the tangential acceleration, r is the radius of the circular path, and α is the angular acceleration. This equation highlights the direct relationship between tangential and angular acceleration, emphasizing their interconnectedness in circular motion.

Real-world Applications:

Angular acceleration is not just a theoretical concept confined to physics classrooms; it has numerous practical applications in our daily lives. Consider a car turning a corner or a spinning amusement park ride — these scenarios involve angular acceleration. Engineers and designers use angular acceleration principles to ensure the safe and efficient operation of rotating machinery, from engines to flywheels.

Moreover, the study of angular acceleration is crucial in the field of biomechanics, where it helps analyze and optimize the performance of athletes in various sports. Understanding the rotational dynamics of the human body provides valuable insights into enhancing athletic performance and preventing injuries.

Torque and Angular Acceleration:

The connection between torque and angular acceleration is a fundamental relationship in the study of rotational motion. Torque, denoted by the symbol τ (tau), is the rotational equivalent of force. The relationship between torque, moment of inertia (I), and angular acceleration is expressed by the equation:

τ = I⋅α

In this equation, τ represents torque, I is the moment of inertia (a measure of an object's resistance to changes in rotational motion), and α is the angular acceleration. This equation reveals that the torque applied to an object is directly proportional to both its moment of inertia and angular acceleration. It's a crucial formula used in engineering applications, from designing gear systems to analyzing the performance of rotating machinery.

How Physics Tuition Assists You to Understand It?

Embarking on the journey to comprehend angular acceleration becomes a smoother and more enlightening experience with the aid of physics tuition. The personalized guidance offered by experienced physics tutors not only unravels the complexities of this rotational dynamic but also instils confidence in students. Through tailored explanations, practical examples, and individualized attention, physics tuition transforms angular acceleration from a daunting concept into an accessible and comprehensible subject.

In the quest for a nuanced comprehension of angular acceleration within the educational landscape of Singapore, the significance of physics tuition cannot be overstated. Physics tutors in Singapore stand as adept guides, offering their expertise and adopting a personalized approach to education. Their commitment ensures that students not only understand the intricate details of angular acceleration but do so with unparalleled clarity.

Whether the goal is exam preparation or a desire to explore the subject more profoundly, physics tuition in Singapore emerges as an invaluable asset. It serves as a dynamic resource for students aiming not only to navigate the complexities of physics but also to excel academically in their pursuit of knowledge.

Conclusion:

In summary, angular acceleration is a fascinating concept crucial for understanding the rotational dynamics of objects in motion. Whether delving into physics principles or applying them in engineering and biomechanics, a robust grasp of angular acceleration is essential. From unravelling tangential acceleration intricacies to its pivotal role in torque and moment of inertia calculations, angular acceleration is a cornerstone in deciphering the complexities of motion in our dynamic universe.

The next time you encounter a spinning wheel or navigate a curve while driving, recognize that angular acceleration lies at the core of this captivating dance of rotational motion. With the assistance of physics tuition, mastering these concepts becomes not only accessible but immensely rewarding.

Related Articles :

Understanding Simple Interest: The Basics

Unlock Simple Interest to Raise Your Financial Intelligence!

 

In the vast world of mathematics, it's often the simplest concepts that serve as the foundation for more complex calculations and financial decisions. One such fundamental concept is simple interest. Whether you're a student looking to grasp this concept or an individual eager to enhance your financial literacy, mastering simple interest is crucial. Fortunately, Miracle Learning Centre, renowned for its exceptional maths tuition programs, can be your guide on this journey toward understanding the power of simple interest.


What is Simple Interest?


Simple interest (SI) is a calculation of the interest on a loan or investment that is based on the principal amount, the interest rate, and the time period. It is calculated using the following formula:


Simple Interest = Principal Amount × Interest Rate × Time Period


Simple interest is a straightforward and easy-to-understand concept, but it is important to note that it does not compound. This means that the interest earned in one year is not added to the principal amount to calculate the interest for the following year.


Formula:


Simple Interest (SI) = Principal (P) * Interest Rate (R) * Time (T)


Where:


  • P is the Principal Amount

  • R is the Interest Rate (in decimal)

  • T is the Time Period (in years)


Example:


Let's say you borrow $1000 from a bank at an interest rate of 5% per annum for a period of 2 years. The simple interest for this loan would be calculated as follows:


Simple Interest = $1000 × 0.05 × 2 = $100


This means that you would have to pay back $1100 to the bank at the end of the 2-year period.


Applications of Simple Interest

Simple interest is used in a variety of financial transactions, including:


  • Loans: Simple interest is often used to calculate the interest on personal loans, car loans, and student loans.


  • Investments: Simple interest is also used to calculate the interest on savings accounts and certificates of deposit (CDs).


  • Credit cards: Simple interest is used to calculate the interest on credit card balances that are not paid in full each month.


Advantages and Disadvantages of Simple Interest


Advantages:


  • Simple interest is easy to calculate and understand.

  • It is a transparent and fair way to calculate interest.

  • It is often used for short-term loans and investments.


Disadvantages:


  • Simple interest does not compound, which means that you can earn more interest on your money over time by investing in products that offer compound interest.

  • Simple interest is often lower than compound interest, so it may not be the best option for long-term investments.


Miracle Learning Centre for Maths Tuition


Miracle Learning Centre is a leading provider of best maths tuition in Singapore. They offer a variety of courses to suit all levels of students, from primary school to Junior College. Their experienced and qualified math tutors can help you to master even the most challenging concepts. For anyone facing difficulties with subjects such as simple interest or any other mathematical topic, reaching out to Miracle Learning Centre is strongly recommended.


Conclusion


Simple interest is a fundamental concept in mathematics and finance. It is used in a variety of financial transactions, including loans, investments, and credit cards. While simple interest does not compound, it is a transparent and fair way to calculate interest.


For individuals experiencing difficulties with topics such as simple interest or any other mathematical subject, Miracle Learning Centre encourages them to reach out for assistance. They provide a range of mathematics tuition courses tailored to accommodate students of all levels.

Exploring the Marvels of Wave Applications

Waves are the rhythmic oscillations that propagate energy through space and It plays a fundamental role in our understanding of the physical...

https://sattablogging55.blogspot.com/