In today’s hyper-connected world, the Internet of Things (IoT) is transforming industries, from smart manufacturing to intelligent healthcare. However, the real potential of IoT is to connect continuously with enterprise systems, providing real-time insights and automating. This is where MuleSoft’s Anypoint Platform comes in, a disturbance in integrating IoT units and API to create an ecosystem. This blog explains how MuleSoft sets the platform for connection and introduces a strong basis for IoT and API integration that goes beyond the specific dashboard to offer scalability, safety, and efficiency.
In this blog, I will show MuleSoft’s ability to integrate IoT devices with enterprise systems through API connectivity, focusing on real-time data processing. I will provide an example of how MuleSoft’s Anypoint Platform connects to an MQTT broker and processes IoT device sensor data. The example highlights MuleSoft’s ability to handle IoT protocols like MQTT and transform data for insights.
The MuleSoft’s Anypoint Platform is specific to the API connection, native protocol support, and a comprehensive integration structure to handle the complications of IoT integration. This is how MuleSoft IOT does the integration comfortably:
MuleSoft’s API strategy categorizes integrations into System, Process, and Experience APIs, allowing modular connections between IoT devices and enterprise systems. For example, in a smart city, System APIs gather data from traffic sensors and insights into a dashboard. This scalability avoids the chaos of point-to-point integrations, a fault in most visualization-focused tools.
IoT devices are based on protocols such as MQTT, AMQP, and CoAP, which MuleSoft supports. Without middleware, this enables direct communication between sensors and gateways. In a scenario, MuleSoft is better able to connect MQTT data from temperature sensors to a cloud platform such as Azure IoT Hub than other tools that require custom plugins.
IoT requires real-time data processing, and MuleSoft’s runtime engine processes data streams in real time while supporting automation. For example, if a factory sensor picks up a fault, MuleSoft can invoke an API to notify maintenance teams and update systems. MuleSoft integrates visualization with actionable workflows.
MuleSoft’s Anypoint Exchange provides connectors for IoT platforms (e.g., AWS IoT) and enterprise systems (e.g., Salesforce). In healthcare, connectors link patient wearables to EHRs, reducing development time. This plug-and-play approach beats custom integrations commonly required by other tools.
IoT devices manage sensitive information, and MuleSoft maintains security through API encryption and OAuth. Its Management Center provides a dashboard to track device health and data flows, offering centralized control that standalone dashboard applications cannot provide without additional infrastructure.
MuleSoft’s hybrid model supports both on-premises and cloud environments, providing flexibility for IoT deployments. Its scalability handles growing networks, such as fleets of connected vehicles, making it a future-proof solution.
To demonstrate MuleSoft’s IoT integration, below I have created a simple flow in Anypoint Studio that connects to an MQTT Explorer, processes sensor data, and logs it to the dashboard integration. This flow uses a public MQTT Explorer to simulate IoT sensor data. The following are the steps for the Mule API flow:
In Anypoint Studio, create a new Mule project (e.g., ‘IoT-MQTT-Demo’). Design a flow with an MQTT Connector to connect to an explorer, a Transform Message component to process data, and a Logger to output results.
Configure the MQTT Connector properties. In General Settings, configure on a public broker (“tcp://test.mosquitto.org:1883”). Add the topic filter “iot/sensor/data” and select QoS “AT_MOST_ONCE”.
Use DataWeave to parse the incoming JSON payload (e.g., ‘{“temperature”: 25.5 }’) and add a timestamp. The DataWeave code is:
“`
%dw 2.0
output application/json
{
sensor: “Temperature”,
value: read(payload, “application/json“).temperature default “”,
timestamp: now()
}
“`
Click on the Connections and use the credentials as shown below to connect to the MQTT explorer:
Once the MQTT connects using an MQTT Explorer, publish a sample message ‘{“temperature”: 28 }’ to the topic ‘iot/sensor/data’, sending to the Mule flow as shown below.
Run the API and publish the message from the MQTT explorer, and the processed data will be logged into the console. Below shows an example log:
The above example highlights MuleSoft’s process for connecting IoT devices, processing data, and preparing it for visualization or automation.
IoT integration faces challenges:
The future of IoT with MuleSoft is promising. MuleSoft uses the Anypoint Platform to solve critical integration issues. It integrates different IoT devices and protocols, such as MQTT, to provide data flow between ecosystems. It provides real-time data processing and analytics integration. Security is added with TLS and OAuth.
MuleSoft’s Anypoint Platform reviews IoT and API integration by providing a scalable, secure, real-time solution for connecting devices to enterprise systems. As I showed in the example, MuleSoft processes MQTT-based IoT data and transforms it for useful insights without external scripts or sensors. By addressing challenges like data volume and security, MuleSoft provides a platform to build IoT ecosystems that provide automation and insights. As IoT keeps growing, MuleSoft’s API connectivity and native protocol support establish it as an innovation, with new smart city, healthcare, and more connectivity. Discover MuleSoft’s Anypoint Platform to unlock the full potential of your IoT projects and set the stage for a connected future.
]]>Microsoft 365 offers several types of groups; each designed for different collaboration and communication needs:
Out of the above group we are interested to know about Microsoft 365 or formerly known as Office 365 group. Let’s start with the following:
Creating a Microsoft 365 Group can be done in several ways, depending on your role and the tools you have access to. Here are the main methods:
For more advanced users, you can use PowerShell to create a Microsoft 365 Group:
New-UnifiedGroup -DisplayName “Group Name” -Alias “groupalias” -EmailAddresses “groupalias@yourdomain.com” |
Add-UnifiedGroupLinks (ExchangePowerShell) | Microsoft Learn
Microsoft 365 Groups offer a variety of collaboration features designed to enhance teamwork and productivity. Here are some of the key features:
These features collectively provide a comprehensive suite of tools to support collaboration, communication, and project management within your organization.
]]>Objective: Enable resource monitoring for AWS EC2 instances using the Dynatrace monitoring tool (OneAgent) to gain real-time insights into system performance, detect anomalies, and optimize resource utilization.
Dynatrace is a platform for observability and application performance monitoring (APM) that delivers real-time insights into application performance, infrastructure oversight, and analytics powered by AI. It assists teams in detecting, diagnosing, and resolving problems more quickly by providing comprehensive monitoring across logs, metrics, traces, and insights into user experience.
Dynatrace OneAgent is primarily a single binary file that comprises a collection of specialized services tailored to your monitoring setup. These services collect metrics related to various components of your hosts, including hardware specifications, operating systems, and application processes. The agent also has the capability to closely monitor specific technologies (such as Java, Node.js, and .NET) by embedding itself within these processes and analyzing them from the inside. This enables you to obtain code-level visibility into the services that your application depends on.
Log in to the Dynatrace portal and search for Deploy OneAgent.
Select the platform on which your application is running. In our case, it is Linux.
Create a token that is required for authentication.
After generating a token, you will receive a command to download and execute the installer on the EC2 instance.
After this, run the command to run the installer.
The Dynatrace one agent has now been installed on the EC2 instance.
Now we can monitor various resource usage based on application and infrastructure level on the Dynatrace dashboard.
Enabling resource monitoring for AWS EC2 instances using Dynatrace provides comprehensive observability, allowing teams to detect performance issues, optimize resource utilization, and ensure application reliability. By leveraging Dynatrace OneAgent, organizations can automate monitoring, gain AI-driven insights, and enhance cloud efficiency. Implementing this solution not only improves operational visibility but also facilitates proactive troubleshooting, reduces downtime, and optimizes cloud costs.
]]>
In the first blog post of this three-part Solution Highlight series featuring a proven leader in defense-grade, high assurance cyber security solutions, I will cover Oracle Revenue Management. My colleague, Mehmet Erisen will share his views on Global Supply Chain Management including Manufacturing with OSP and intercompany order fulfillment across business units featuring Oracle Supply Chain Management. We’ll round out the series with the third and final blog post focused on Salesforce to Order Cloud integration.
About Our Client: a trailblazer in the cyber security space, our client needed the ability to automate its complex and manual revenue allocation processes.
Implemented Oracle Revenue Management – Managing Bundles and Stand-alone Selling Price (SSP)
Oracle Fusion ERP provides robust functionality for managing and automating the implementation of product bundles and determining the SSP for revenue recognition under ASC 606 and IFRS 15 standards. Key highlights include:
Oracle Revenue Management Cloud enables organizations to automate revenue recognition, reduce compliance risks, and gain real-time financial insights. This solution delivers value for companies with complex revenue streams, such as SaaS, manufacturing, and professional services.
This solution is particularly effective for companies looking to streamline revenue recognition while maintaining compliance and operational efficiency.
Let me know if you’d like a deeper dive into any of these features!
]]>As technology continues to advance, patients and care teams expect to seamlessly engage with tools that support better health and accelerate progress. These developments demand the rapid, secure, scalable, and compliant sharing of data.
By aligning enterprise and business goals with digital technology, healthcare organizations (HCOs) can activate strategies for transformative outcomes and improve experiences and efficiencies across the health journey.
Perficient is proud to be included in the categories of IT Services and SI services in the IDC Market Glance: Healthcare Provider Operational IT Solutions, 1Q25 report (doc #US52221325, March 2025). We believe our inclusion in this report’s newly introduced “Services” segmentation underscores our expertise to leverage AI-driven automation and advanced analytics, optimize technology investments, and navigate evolving industry challenges.
IDC states, “This expansion reflects the industry’s shift toward outsourced expertise, scalable service models, and strategic partnerships to manage complex operational IT and infrastructure efficiently.”
IDC defines IT Services as, “managed IT services, ensuring system reliability, cybersecurity, and infrastructure optimization. These solutions support healthcare provider transformation initiatives, helpdesk management, network monitoring, and compliance with healthcare IT regulations.” The SI Services category is defined by IDC as, “system integration services that help deploy technologies and connect disparate systems, including EHRs, RCM platforms, ERP solutions, and third-party applications to enhance interoperability, efficiency, automation, and compliance with industry standards.”
We imagine, engineer, and optimize scalable, reliable technologies and data, partnering with healthcare leaders to better understand consumer expectations and strategically align digital investments with business priorities.
Our end-to-end professional services include:
We don’t just implement solutions; we create intelligent strategies that align technology with your key business priorities and organizational capabilities. Our approach goes beyond traditional data services. We create AI-ready intelligent ecosystems that breathe life into your data strategy and accelerate transformation. By combining technical excellence, global reach, and a client-centric approach, we’re able to drive business transformation, boost operational resilience, and enhance health outcomes.
Success in Action: Illuminating a Clear Path to Care With AI-Enabled Search
Whether you want to redefine workflows, personalize care pathways, or revolutionize proactive health management, Perficient can help you boost efficiencies and a competitive edge.
We combine strategy, industry best practices, and technology expertise to deliver award-winning results for leading health systems:
Discover why we have been trusted by the 10 largest health systems and the 10 largest health insurers in the U.S. Explore our healthcare expertise and contact us to learn more.
]]>Over the past three years working with Marketing Cloud Personalization (formerly Interaction Studio), I’ve always been intrigued by the Mobile icon and its capabilities. A few months ago, I decided to take a hands-on approach by developing my own application to explore this functionality firsthand, testing its implementation and understanding its real-world impact. And that is what this blog is about.
The overall steps of the Marketing Cloud Personalization Mobile integration goes as follows:
That’s all… easy right?. Within this blog we will review how to do the connection between MCP and the mobile app and how to create a first interaction (steps 1 and part of step 6).
For this demo, I developed an iOS application using the Swift programming language. While I’m not yet an expert, I’ve been steadily learning how to navigate Xcode and implement functionality using Swift. This project has been a great opportunity to expand my skills in iOS development and better understand the tools and frameworks available within Apple’s ecosystem.
The iOS app I create is very simple (for now), it just a label, a button and an input field. The user types something in the input field, then clicks the button and the data is sent to the label to be shown.
So, we need to add the Evergage SDK inside the app project. Download the Evergage iOS SDK (v1.4.1), unzip it and open the static folder. There, the Evergage.xcframework is the one we are about to use. When you have the folder ready, you need to copy the folder into your app. You should have something like this:
After you added your folder, you need to Build your app again with Command + B.
Now we need to validate the framework is there, so go to Target -> General -> Frameworks, Libraries and Embedded Content. You should see something like this, and since I’m using the static folder, the Do Not Embed is ok.
Validate the Framework Search Path contains a path where the framework was copied/installed. This step would probably be done manually since sometimes the path doesn’t appear. Build the app again to validate if no errors appears.
To validate this works, go to the AppDelegate.swift and type Import Evergage, if no errors appear, you are good to go
Next, we have to create the Native App inside the Personalization dataset of your choice.
Hoover over Mobile and click Add Native App
Fill the information of the App Name and Bundle ID. For the Bundle ID, go to Target > General > Identity
You will with something like this:
In the AppDelegate.swift , we will do the equivalent to add the JavaScript beacon on the page.
Evergage
class reference. This allow the start of the Marketing Cloud Personalization iOS SDK. Our tracking interactions now should be done inside a UIViewController
inherited classes.didFinishLaunchingWithOptions
to willFinishLaounchingWithOptions
application
function we do the following:
evergage.userId
using the evergage.anonymousId
, but if we already have the email or an id for the user, we should passed right away.usePushNotifications
and the useDesignMode
. The last one help us to connect the Personalization web console for action mapping screen.
//Other imports Import Evergage @main class AppDelegate: UIResponder, UIApplicationDelegate { func application(_ application: UIApplication, willFinishLaunchingWithOptions launchOptions: [UIApplication.LaunchOptionsKey: Any]?) -> Bool{ //Create an singleton instance of Evergage let evergage = Evergage.sharedInstance() //Set User ID as anonymous evergage.userId = evergage.anonymousId //Start the Evergage Configuration with our Dataset information evergage.start { (clientConfigurationBuilder) in clientConfigurationBuilder.account = "ACCOUNT_ID" clientConfigurationBuilder.dataset = "DATASET_ID" // if we want to user push notification campaings clientConfigurationBuilder.usePushNotifications = true //Allow user-initiated gesture to connect to the Personalization web console for action mapping screens. clientConfigurationBuilder.useDesignMode = true } // Override point for customization after application launch. return true } }
If we launch the app at this very moment, we will get the following inside Marketing Cloud personalization
This is very good and with that we are certain its working and sending the information to Marketing Cloud Personalization.
So, in order to track a screen we can use the evergageScreen
. We use this property as part of the EVGScreen
and EVGContext
classes for tracking and personalization. This is possible when the app is using UIViewController
for each of the screens or pages we have.
class ViewController: UIViewController { override func viewDidLoad() { super.viewDidLoad() // Do any additional setup after loading the view. trackScreen() } func trackScreen(){ evergageScreen?.trackAction("Main Screen") } }
If we would want to track the action of click a button, we can do something similar, for example this:
@IBAction func handleClick(_ sender: UIButton) { labelText.text = inputField.text evergageScreen?.trackAction("Button clicked") }
In this code, each time the user clicks a button, the handleClick function will trigger the action. the inputField.text will be assign to the labelText.text and the trackAction function will be triggered and the action will sent to our dataset.
That wraps up the first part of this tutorial! We’ve covered the basic about how to add the Personalization SDK inside a mobile iOS application, how to create a Mobile App within Personalization and do a very basic action tracking in a view. In Part 2, we’ll dive into tracking more complex actions like view item and view item detail which are part of the catalog object action’s for tracking items.
]]>Before mastering JavaScript, it’s crucial to understand how it thinks behind the scenes. Concepts like scope, hoisting, and the temporal dead zone might sound tricky at first, but they form the backbone of how your code behaves.
In this blog, we’ll break down these key ideas in the simplest way possible—so you can write cleaner code, avoid unexpected bugs, and truly understand what’s happening when your script runs.
Think of scope like a boundary or container that controls where you can use a variable in your code.
In JavaScript, a variable is only available in the part of the code where it was created. If you try to use it outside that area, it won’t work—that’s because of scope.
This helps in two big ways:
JavaScript mainly uses two types of scope:
1.Global Scope – Available everywhere in your code.
2.Local Scope – Available only inside a specific function or block.
Global Scope
When you start writing JavaScript code, you’re already in the global scope—this is like the outermost area of your code where variables can live.
If you create a variable outside of any function or block, it’s considered global, which means it can be used anywhere in your code.
var a = 5; // Global variable function add() { return a + 10; // Using the global variable inside a function } console.log(window.a); // 5
In this example, a is declared outside of any function, so it’s globally available—even inside add().
A quick note:
let name = "xyz"; function changeName() { name = "abc"; // Changing the value of the global variable } changeName(); console.log(name); // abc
In this example, we didn’t create a new variable—we just changed the value of the existing one.
Important:
If you redeclare a global variable inside a function (using let, const, or var again), JavaScript treats it as a new variable in a new scope—not the same one. We’ll cover that in more detail later.
Local Scope
In JavaScript, local scope means a variable is only accessible in a certain part of the code—usually inside a function or a block.
There are two types of local scope:
1.Functional Scope
Whenever you create a function, it creates its own private area for variables. If you declare a variable inside a function, it only exists inside that function.
let firstName = "Shilpa"; // Global function changeName() { let lastName = "Syal"; // Local to this function console.log (`${firstName} ${lastName}`); } changeName(); console.log (lastName); //Error! Not available outside the function
You can even use the same variable name in different functions without any issue:
function mathMarks() { let marks = 80; console.log (marks); } function englishMarks() { let marks = 85; console.log (marks); }
Here, both marks variables are separate because they live in different function scopes.
2.Block Scope
Thanks to let and const, you can now create variables that only exist inside a block (like an if, for, or {}).
function getMarks() { let marks = 60; if (marks > 50) { const points = 10; console.log (marks + points); //Works here } console.log (points); //
Uncaught Reference Error: points is not defined }
As points variable is declared in if block using the let keyword, it will not be only accessible outside as shown above. Now try the above example using var keyword i.e declare “points” variable with var and spot the difference.
LEXICAL SCOPING & NESTED SCOPE:
When you create a function (outer function) that contains another function (inner function), then the inner function has access to the outer function’s variables and methods. This is known as Lexical Scoping.
function outerFunction() { let outerVar = "I’m outside"; function innerFunction() { console.log (outerVar); //Can access outerVar } innerFunction(); }
In other terms, variables & methods defined in parent function are automatically available to its child functions. But it doesn’t work the other way around—the outer function can’t access the inner function’s variables.
VARIABLE SCOPE OR VARIABLE SHADOWING:
You can declare variables with the same name at different scopes. If there’s a variable in the global scope and you create variable with the same name in a function, then you will not get any error. In this case, local variables take priority over global variables. This is known as Variable shadowing, as inner scope variables temporary shadows the outer scope variable with the same name.
If the local variable and global variable have the same name then changing the value of one variable does not affect the value of another variable.
let name = "xyz" function getName() { let name = "abc" // Redeclaring the name variable console.log (name) ; //abc } getName(); console.log (name) ; //xyz
To access a variable, JS Engine first going to look in the scope that is currently in execution, and if it doesn’t find there, it will look to its closest parent scope to see if a variable exist there and that lookup process will continue the way up, until JS Engine reaches the global scope. In that case, if the global scope doesn’t have the variable, then it will throw a reference error, as the variable doesn’t exist anywhere up the scope chain.
let bonus = 500; function getSalary() { if(true) { return 10000 + bonus; // Looks up and finds bonus in the outer scope } } console.log (getSalary()); // 10500
Key Takeaways: Scoping Made Simple
Global Scope: Variables declared outside any function are global and can be used anywhere in your code.
Local Scope: Variables declared inside a function exist only inside that function and disappear once the function finishes.
Global Variables Last Longer: They stay alive as long as your program is running.
Local Variables Are Temporary: They’re created when the function runs and removed once it ends.
Lexical Scope: Inner functions can access variables from outer functions, but not the other way around.
Block Scope with let and const: You can create variables that exist only inside {} blocks like if, for, etc.
Same Name, No Clash: Variables with the same name in different scopes won’t affect each other—they live in separate “worlds.”
To understand Hoisting in JS, it’s essential to know how execution context works. Execution context is an environment where JavaScript code is executed.
It has two main phases:
1.Creation Phase: During this phase JS allocated memory or hoist variables, functions and objects. Basically, hoisting happens here.
2.Execution Phase: During this phase, code is executed line by line.
-When js code runs, JavaScript hoists all the variables and functions i.e. assigns a memory space for those variables with special value undefined.
Key Takeaways from Hoisting and let’s explore some examples to illustrate how hoisting works in different scenarios:
foo (); // Output: "Hello, world!" function foo () { console.log ("Hello, world!"); }
console.log (x); // Output: undefined var x = 5;
This code seems straightforward, but it’s interpreted as:
var x; console.log (x); // Output: undefined x = 5;
3.Let, Const – Variables declared with Let and const are hoisted in local scope or script scope but stay in TDZ. These variables enter the Temporal Dead Zone (TDZ) until their declaration is encountered. Accessing in TDZ, results is reference Error
console.log (x); // Throws Reference Error: Cannot access 'x' before initialization let x = 5;
In JavaScript, all variable declarations—whether made using var, let, or const—are hoisted, meaning the memory for them is set aside during the compilation phase, before the code actually runs. However, the behaviour of hoisting differs based on how the variable is declared.
For variables declared with let and const, although they are hoisted, they are not initialized immediately like var variables. Instead, they remain in an uninitialized state and are placed in a separate memory space. During this phase, any attempt to access them will result in a Reference Error.
This period—from the start of the block until the variable is initialized—is known as the Temporal Dead Zone (TDZ). It’s called a “dead zone” because the variable exists in memory but cannot be accessed until it has been explicitly declared and assigned a value in the code.
console.log (x); //x is not defined -- Reference Error. let a=10; //b is undefined. var b= 100; // you cannot access a before initialization Reference Error.
Important: The Temporal Dead Zone helps prevent the use of variables before they are properly declared and initialized, making code more predictable and reducing bugs.
Conclusion
JavaScript hoisting and scoping are foundational concepts that can feel tricky at first, but once you understand them, they make your code more structured and predictable. Hoisting helps explain why some variables and functions work even before they’re declared, while scoping defines where your variables live and how accessible they are. By keeping these concepts in mind and practicing regularly, you’ll be able to write cleaner, more reliable JavaScript. The more you experiment with them, the more confident you’ll become as a developer. Keep learning, keep building, and everything will start to click. Happy coding!
]]>
AI transforms how businesses create, maintain, and provide engaging content in Sitecore. Embedding AI, Sitecore allows developers, marketers, and IT professionals to improve workflows, enhance customer interaction, and fine-tune digital strategies. Let’s explore how AI is shaping Sitecore and what it means for businesses.
From Content Hub to XM Cloud, products in Sitecore’s portfolio have embedded AI that provides speed and scalability to personalization. Noteworthy features include:
There are several important benefits for organizations with embedded AI in Sitecore:
Sitecore AI deployment is also being used widely across multiple verticals:
However, despite the clear benefits, integrating Sitecore with AI is not without its challenges. Organizations are forced to navigate additional challenges such as data security, implementation costs, and making sure the AI outputs maintain their brand identity. Skilled personnel are needed to manage these advanced tools effectively.
Sitecore is evolving into a high-performance, AI-infused platform that powers personalized digital experiences at scale. Sitecore provides businesses with the tools they need to automate tasks, encourage creativity, and derive actions from data analytics, allowing businesses to stay relevant in an ever-changing environment. In a time where upstanding customer relationships are just as important as an online approach, leveraging AI with their Sitecore development strategy can do wonders.
]]>AI is revolutionizing our daily lives, reshaping how we work, communicate, and make decisions. From diagnostic tools in healthcare to algorithmic decision-making in finance and law enforcement, AI’s potential is undeniable. Yet, the speed of adoption often outpaces ethical foresight. Unchecked, these systems can reinforce inequality, propagate surveillance, and erode trust. Building ethical AI isn’t just a philosophical debate, it’s an engineering and governance imperative.
Imagine an AI system denying a qualified candidate a job interview because of hidden biases in its training data. As AI becomes integral to decision-making processes, ensuring ethical implementation is no longer optional, it’s imperative.
AI ethics refers to a multidisciplinary framework of principles, models, and protocols aimed at minimizing harm and ensuring human-centric outcomes across the AI lifecycle: data sourcing, model training, deployment, and monitoring.
Core ethical pillars include:
Fairness: AI should not reinforce social biases. This means actively reviewing data for gender, racial, or socioeconomic patterns before it’s used in training, and making adjustments where needed to ensure fair outcomes across all groups.
Transparency: Ensuring AI decision-making processes are understandable. Using interpretable ML tools like SHAP, LIME, or counterfactual explanations can illuminate how models arrive at conclusions.
Accountability: Implementing traceability in model pipelines (using tools like MLflow or Model Cards) and establishing responsible ownership structures.
Privacy: Protecting user privacy by implementing techniques like differential privacy, federated learning, and homomorphic encryption.
Sustainability: Reducing AI’s carbon footprint through greener technologies. Optimizing model architectures for energy efficiency (e.g., distillation, pruning, and low-rank approximations) and utilizing green datacenter solutions. The role of Green AI is growing, as organizations explore energy-efficient algorithms, low-power models for edge computing, and the potential for quantum computing to provide sustainable solutions without compromising model performance.
Fairness in AI is not as straightforward as it may initially appear. It involves navigating complex trade-offs between different fairness metrics, which can sometimes cause conflict. For example, one metric might focus on achieving equal outcomes across different demographic groups, while another might prioritize minimizing the gap between groups’ chances of success. These differing goals can lead to tensions, and deciding which metric to prioritize often depends on the context and values of the organization.
In some cases, achieving fairness in one area may inadvertently reduce fairness in another. For instance, optimizing for equalized odds (ensuring the same true positive and false positive rates across groups) might be at odds with predictive parity (ensuring similar predictive accuracy for each group). Understanding these trade-offs is essential for decision-makers who must align their AI systems with ethical standards while also achieving the desired outcomes.
It’s crucial for AI developers to evaluate the fairness metrics that best match their use case, and regularly revisit these decisions as data evolves. Balancing fairness with other objectives, such as model accuracy, cost efficiency, or speed, requires careful consideration and transparent decision-making.
AI is being integrated into high-stakes areas like healthcare, finance, law enforcement, and hiring. If ethics are left out of the equation, these systems can quietly reinforce real-world inequalities, without anyone noticing until it’s too late.
Some real-world examples:
These examples illustrate the potential for harm when ethical frameworks are neglected.
Bias: When Machines Reflect Our Flaws
Algorithms reflect the data they’re trained on, flaws included. If not carefully reviewed, they can amplify harmful stereotypes or exclude entire groups.
Why Transparency Isn’t Optional Anymore
Many AI models are “black boxes,” and it’s hard to tell how or why they make a decision. Lack of transparency undermines trust, especially when decisions are based on unclear or unreliable data.
Accountability Gaps
Determining responsibility for an AI system’s actions, especially in high-stakes scenarios like healthcare or criminal justice, remains a complex issue. Tools and frameworks that track model decisions, such as audit trails, data versioning, and model cards, can provide critical insights and foster accountability.
Privacy Concerns
AI systems are collecting and using personal data very quickly and on a large scale, that raises serious privacy concerns. Especially given that there is limited accountability and transparency around data usage. Users have little to no understanding of how their data is being handled.
Environmental Impact
Training large-scale machine learning models has an energy cost that is substantially high and degrades the environment. Sustainable practices and greener tech are needed.
Organizations should proactively implement ethical practices at all levels of their AI framework:
1. Create Ethical Guidelines for Internal Use
2. Diversity in Data and Teams
3. Embed Ethics into Development
4. Lifecycle Governance Models
5. Stakeholder Education and Engagement
6. Engage in Standards and Compliance Frameworks
Indeed, an ethically responsible approach to AI is both a technical challenge and a societal imperative. By emphasizing fairness, transparency, accountability, and privacy protection, organizations can develop systems that are both trustworthy and aligned with human values. As the forces shaping the future continue to evolve, our responsibility to ensure inclusive and ethical innovation must grow alongside them.
By taking deliberate steps toward responsible implementation today, we can shape a future where AI enhances lives without compromising fundamental rights or values. As AI continues to evolve, it’s our collective responsibility to steer its development ethically.
]]>Ethical AI is a shared responsibility. Developers, businesses, policymakers, and society all play a part. Let’s build AI that prioritizes human values over mere efficiency, ensuring it uplifts and empowers everyone it touches.
The Microsoft 365 Admin Center is the centralized web-based portal administrators use to manage Microsoft 365 services for their organization. It provides a single access point for managing users, licenses, apps, and services like Exchange Online, Outlook, SharePoint, Teams, and more.
Effectively managing users and groups is key to maintaining security, compliance, and operational efficiency within Microsoft 365. Below are 10 best practices to follow:
Note: When users join the group, licenses are auto-assigned. When they leave, licenses are removed.
Best practice tip: Transfer any data (email, OneDrive) before deletion or license removal.
Role-based access Control in Microsoft 365 allows you to assign specific permissions to users based on their job roles without giving them full administrative access. This is a best practice for security, compliance, and operational efficiency.
RBAC is configured in:
For finer control, use:
Microsoft 365 provides robust tools under the Microsoft Purview (formerly Security & Compliance Center) and Microsoft Defender platforms to help organizations secure data, detect threats, and ensure compliance.
To convert a text file from UTF-8 encoded data to ANSI using AWS Glue, you will typically work with Python or PySpark. However, it’s important to understand that ANSI is not a specific encoding but often refers to Windows-1252 (or similar 8-bit encodings) in a Windows context.
AWS Glue, running on Apache Spark, uses UTF-8 as the default encoding. Converting to ANSI requires handling the character encoding during the writing phase, because Spark itself doesn’t support writing files in encodings other than UTF-8 natively. But there are a few workarounds.
Here’s a step-by-step guide to converting a text file from UTF-8 to ANSI using Python in AWS Glue. Assume you’re working with a plain text file and want to output a similarly formatted file in ANSI encoding.
Step 1: Add the import statements to the code
import boto3 import codecs
Step 2: Specify the source/target file paths & S3 bucket details
# Initialize S3 client s3_client = boto3.client('s3') s3_key_utf8 = ‘utf8_file_path/filename.txt’ s3_key_ansi = 'ansi_file_path/filename.txt' # Specify S3 bucket and file paths bucket_name = outgoing_bucket #'your-s3-bucket-name' input_key = s3_key_utf8 #S3Path/name of input UTF-8 encoded file in S3 output_key = s3_key_ansi #S3 Path/name to save the ANSI encoded file
Step 3: Write a function to convert the text file from UTF-8 to ANSI, based on the parameters supplied (S3 bucket name, source-file, target-file)
# Function to convert UTF-8 file to ANSI (Windows-1252) and upload back to S3 def convert_utf8_to_ansi(bucket_name, input_key, output_key): # Download the UTF-8 encoded file from S3 response = s3_client.get_object(Bucket=bucket_name, Key=input_key) # Read the file content from the response body (UTF-8 encoded) utf8_content = response['Body'].read().decode('utf-8') # Convert the content to ANSI encoding (Windows-1252) ansi_content = utf8_content.encode('windows-1252', 'ignore') # 'ignore' to handle invalid characters # Upload the converted file to S3 (in ANSI encoding) s3_client.put_object(Bucket=bucket_name, Key=output_key, Body=ansi_content)
Step 4: Call the function that converts the text file from UTF-8 to ANSI
# Call the function to convert the file convert_utf8_to_ansi(bucket_name, input_key, output_key)
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Please find the below recording for above mentioned steps.
Refer: Add a domain to Microsoft 365 – Microsoft 365 admin | Microsoft Learn
1. TXT Record Verification
2. MX Record Verification
3. CNAME Record Verification
Refer: Add DNS records to connect your domain – Microsoft 365 admin | Microsoft Learn
TXT, MX, and CNAME records play crucial roles in ensuring that your domain is correctly configured for Exchange Online and that your email and services work smoothly. Here’s why they matter:
TXT records are used to verify domain ownership and secure email systems.
MX records are critical for routing emails to the correct servers.
CNAME records are used for service configuration.
Together, these DNS records form the backbone of your domain’s email configuration, ensuring that everything from verification to email delivery and client connectivity operates effectively. Without these properly configured records, you might encounter issues like failed email delivery or difficulties in connecting to Exchange Online.
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