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  • Avoid using too many Imports in your classes | Code4IT

    Avoid using too many Imports in your classes | Code4IT


    Just a second! 🫷
    If you are here, it means that you are a software developer.
    So, you know that storage, networking, and domain management have a cost .

    If you want to support this blog, please ensure that you have disabled the adblocker for this site.
    I configured Google AdSense to show as few ADS as possible – I don’t want to bother you with lots of ads, but I still need to add some to pay for the resources for my site.

    Thank you for your understanding.
    Davide

    Actually, this article is not about a tip to write cleaner code, but it is an article that aims at pointing out a code smell.

    Of course, once you find this code smell in your code, you can act in order to eliminate it, and, as a consequence, you will end up with cleaner code.

    The code smell is easy to identify: open your classes and have a look at the imports list (in C#, the using on top of the file).

    A real example of too many imports

    Here’s a real-life example (I censored the names, of course):

    using MyCompany.CMS.Data;
    using MyCompany.CMS.Modules;
    using MyCompany.CMS.Rendering;
    using MyCompany.Witch.Distribution;
    using MyCompany.Witch.Distribution.Elements;
    using MyCompany.Witch.Distribution.Entities;
    using Microsoft.Extensions.Logging;
    using Newtonsoft.Json;
    using Newtonsoft.Json.Serialization;
    using MyProject.Controllers.VideoPlayer.v1.DataSource;
    using MyProject.Controllers.VideoPlayer.v1.Vod;
    using MyProject.Core;
    using MyProject.Helpers.Common;
    using MyProject.Helpers.DataExplorer;
    using MyProject.Helpers.Entities;
    using MyProject.Helpers.Extensions;
    using MyProject.Helpers.Metadata;
    using MyProject.Helpers.Roofline;
    using MyProject.ModelsEntities;
    using MyProject.Models.ViewEntities.Tags;
    using MyProject.Modules.EditorialDetail.Core;
    using MyProject.Modules.VideoPlayer.Models;
    using System;
    using System.Collections.Generic;
    using System.ComponentModel;
    using System.Linq;
    
    namespace MyProject.Modules.Video
    

    Sounds familiar?

    If we exclude the imports necessary to use some C# functionalities

    using System;
    using System.Collections.Generic;
    using System.ComponentModel;
    using System.Linq;
    

    We have lots of dependencies on external modules.

    This means that if something changes in one of the classes that are part of those namespaces, we may end up with code that is difficult to update.

    Class dependencies

    Also, guess what comes with all those imports? Constructor with too many parameters (and, in fact, in this class, I have 11 dependencies injected in the constructor) and code that is too long and difficult to understand (and, in fact, this class has 500+ lines).

    A solution? Refactor your project in order to minimize scattering those dependencies.

    Wrapping up

    Having all those imports (in C# we use the keyword using) is a good indicator that your code does too many things. You should focus on minimizing those imports without cheating (like using global imports).

    Happy coding!

    🐧



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  • How to Choose the Top XDR Vendor for Your Cybersecurity Future

    How to Choose the Top XDR Vendor for Your Cybersecurity Future


    Cyberattacks aren’t slowing down—they’re getting bolder and smarter. From phishing scams to ransomware outbreaks, the number of incidents has doubled or even tripled year over year. In today’s hybrid, multi-vendor IT landscape, protecting your organization’s digital assets requires choosing the top XDR vendor that can see and stop threats across every possible entry point.

    Over the last five years, XDR (Extended Detection and Response) has emerged as one of the most promising cybersecurity innovations. Leading IT analysts agree: XDR solutions will play a central role in the future of cyber defense. But not all XDR platforms are created equal. Success depends on how well an XDR vendor integrates Endpoint Protection Platforms (EPP) and Endpoint Detection and Response (EDR) to detect, analyze, and neutralize threats in real time.

    This guide will explain what makes a great XDR vendor and how Seqrite XDR compares to industry benchmarks. It also includes a practical checklist for confidently evaluating your next security investment.

    Why Choosing the Right XDR Vendor Matters

    Your XDR platform isn’t just another security tool; it’s the nerve center of your threat detection and response strategy. The best solutions act as a central brain, collecting security telemetry from:

    • Endpoints
    • Networks
    • Firewalls
    • Email
    • Identity systems
    • DNS

    They don’t just collect this data, they correlate it intelligently, filter out the noise, and give your security team actionable insights to respond faster.

    According to industry reports, over 80% of IT and cybersecurity professionals are increasing budgets for threat detection and response. If you choose the wrong vendor, you risk fragmented visibility, alert fatigue, and missed attacks.

    Key Capabilities Every Top XDR Vendor Should Offer

    When shortlisting top XDR vendors, here’s what to look for:

    1. Advanced Threat Detection – Identify sophisticated, multi-layer attack patterns that bypass traditional tools.
    2. Risk-Based Prioritization – Assign scores (1–1000) so you know which threats truly matter.
    3. Unified Visibility – A centralized console to eliminate security silos.
    4. Integration Flexibility – Native and third-party integrations to protect existing investments.
    5. Automation & Orchestration – Automate repetitive workflows to respond in seconds, not hours.
    6. MITRE ATT&CK Mapping – Know exactly which attacker tactics and techniques you can detect.

    Remember, it’s the integration of EPP and EDR that makes or breaks an XDR solution’s effectiveness.

    Your Unified Detection & Response Checklist

    Use this checklist to compare vendors on a like-for-like basis:

    • Full telemetry coverage: Endpoints, networks, firewalls, email, identity, and DNS.
    • Native integration strength: Smooth backend-to-frontend integration for consistent coverage.
    • Real-time threat correlation: Remove false positives, detect real attacks faster.
    • Proactive security posture: Shift from reactive to predictive threat hunting.
    • MITRE ATT&CK alignment: Validate protection capabilities against industry-recognized standards.

    Why Automation Is the Game-Changer

    The top XDR vendors go beyond detection, they optimize your entire security operation. Automated playbooks can instantly execute containment actions when a threat is detected. Intelligent alert grouping cuts down on noise, preventing analyst burnout.

    Automation isn’t just about speed; it’s about cost savings. A report by IBM Security shows that organizations with full automation save over ₹31 crore annually and detect/respond to breaches much faster than those relying on manual processes.

    The Seqrite XDR Advantage

    Seqrite XDR combines advanced detection, rich telemetry, and AI-driven automation into a single, unified platform. It offers:

    • Seamless integration with Seqrite Endpoint Protection (EPP) and Seqrite Endpoint Detection & Response (EDR) and third party telemetry sources.
    • MITRE ATT&CK-aligned visibility to stay ahead of attackers.
    • Automated playbooks to slash response times and reduce manual workload.
    • Unified console for complete visibility across your IT ecosystem.
    • GenAI-powered SIA (Seqrite Intelligent Assistant) – Your AI-Powered Virtual Security Analyst. SIA offers predefined prompts and conversational access to incident and alert data, streamlining investigations and making it faster for analysts to understand, prioritize, and respond to threats.

    In a market crowded with XDR solutions, Seqrite delivers a future-ready, AI-augmented platform designed for today’s threats and tomorrow’s unknowns.

    If you’re evaluating your next security investment, start with a vendor who understands the evolving threat landscape and backs it up with a platform built for speed, intelligence, and resilience.



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  • Build your own Static Code Analysis tool in .NET by knowing how Assembly, Type, MethodInfo, ParameterInfo work. | Code4IT

    Build your own Static Code Analysis tool in .NET by knowing how Assembly, Type, MethodInfo, ParameterInfo work. | Code4IT


    Why buy a whole tool when you can build your own? Learn how the Type system works in .NET, and create your own minimal type analyser.

    Table of Contents

    Just a second! 🫷
    If you are here, it means that you are a software developer.
    So, you know that storage, networking, and domain management have a cost .

    If you want to support this blog, please ensure that you have disabled the adblocker for this site.
    I configured Google AdSense to show as few ADS as possible – I don’t want to bother you with lots of ads, but I still need to add some to pay for the resources for my site.

    Thank you for your understanding.
    Davide

    Analysing your code is helpful to get an idea of the overall quality. At the same time, having an automatic tool that identifies determinate characteristics or performs some analysis for you can be useful.

    Sure, there are many fantastic tools available, but having a utility class that you can build as needed and run without setting up a complex infrastructure is sufficient.

    In this article, we are going to see how to navigate assemblies, classes, methods and parameters to perfor some custom analysis.

    For this article, my code is structured into 3 Assemblies:

    • CommonClasses, a Class Library that contains some utility classes;
    • NetCoreScripts, a Class Library that contains the code we are going to execute;
    • ScriptsRunner, a Console Application that runs the scripts defined in the NetCoreScripts library.

    The dependencies between the modules are shown below: ScriptsRunner depends on NetCoreScripts, and NetCoreScripts depends on CommonClasses.

    Class library dependencies

    In this article, we are going to write the examples in the NetCoreScripts class library, in a class named AssemblyAnalysis.

    How to load an Assembly in C#, with different methods

    The starting point to analyse an Assembly is, well, to have an Assembly.

    So, in the Scripts Class Library (the middle one), I wrote:

    var assembly = DefineAssembly();
    

    In the DefineAssembly method we can choose the Assembly we are going to analyse.

    Load the Assembly containing a specific class

    The easiest way is to do something like this:

    private static Assembly DefineAssembly()
        => typeof(AssemblyAnalysis).Assembly;
    

    Where AssemblyAnalysis is the class that contains our scripts.

    Similarly, we can get the Assembly info for a class belonging to another Assembly, like this:

    private static Assembly DefineAssembly()
        => typeof(CommonClasses.BaseExecutable).Assembly;
    

    In short, you can access the Assembly info of whichever class you know – if you can reference it directly, of course!

    Load the current, the calling, and the executing Assembly

    The Assembly class provides you with some methods that may look similar, but give you totally different info depending on how your code is structured.

    Remember the ScriptsRunner –> NetCoreScripts –> CommonClasses sequence? To better explain how things work, let’s run the following examples in a method in the CommonClasses class library (the last one in the dependency chain).

    var executing = System.Reflection.Assembly.GetExecutingAssembly();
    var calling = System.Reflection.Assembly.GetCallingAssembly();
    var entry = System.Reflection.Assembly.GetEntryAssembly();
    

    Assembly.GetExecutingAssembly returns the Assembly that contains the actual code instructions (so, in short, the Assembly that actually contains the code). In this case, it’s the CommonClasses Assembly.

    Assembly.GetCallingAssembly returns the caller Assembly, so the one that references the Executing Assembly. In this case, given that the CommonClasses library is referenced only by the NetCoreScripts library, well, we are getting info about the NetCoreScripts class library.

    Assembly.GetEntryAssembly returns the info of the Assembly that is executing the whole application – so, the entry point. In our case, it’s the ScriptsRunner Console Application.

    Deciding which one to choose is crucial, especially when you are going to distribute your libraries, for example, as NuGet packages. For sure, you’ll know the Executing Assembly. Most probably, depending on how the project is structured, you’ll also know the Calling Assembly. But almost certainly you won’t know the Entry Assembly.

    Method name Meaning In this example…
    GetExecutingAssembly The current Assembly CommonClasses
    GetCallingAssembly The caller Assembly NetCoreScripts
    GetEntryAssembly The top-level executor ScriptsRunner

    How to retrieve classes of a given .NET Assembly

    Now you have an Assembly to analyse. It’s time to load the classes belonging to your Assembly.

    You can start with assembly.GetTypes(): this method returns all the types (in the form of a Type array) belonging to the Assembly.

    For each Type you can access several properties, such as IsClass, IsPublic, IsAbstract, IsGenericType, IsEnum and so on. The full list of properties of a Type is available 🔗here.

    You may want to analyse public classes: therefore, you can do something like:

    private static List<Type> GetAllPublicTypes(Assembly assembly) => assembly
                .GetTypes()
                .Where(t => t.IsClass && t.IsPublic)
                .ToList();
    

    How to list the Methods belonging to a C# Type

    Given a Type, you can extract the info about all the available methods.

    The Type type contains several methods that can help you find useful information, such as GetConstructors.

    In our case, we are only interested in public methods, declared in that class (and not inherited from a base class):

    private static MethodInfo[] GetPublicMethods(Type type) =>
        type.GetMethods(BindingFlags.Instance | BindingFlags.Static | BindingFlags.Public | BindingFlags.DeclaredOnly);
    

    The BindingFlags enum is a 🔗Flagged Enum: it’s an enum with special values that allow you to perform an OR operation on the values.

    Value Description Example
    Public Includes public members. public void Print()
    NonPublic Includes non-public members (private, protected, etc.). private void Calculate()
    Instance Includes instance (non-static) members. public void Save()
    Static Includes static members. public static void Log(string msg)
    FlattenHierarchy Includes static members up the inheritance chain. public static void Helper() (this method exists in the base class)
    DeclaredOnly Only members declared in the given type, not inherited. public void MyTypeSpecific() (this method does not exist in the base class)

    How to get the parameters of a MethodInfo object

    The final step is to retrieve the list of parameters from a MethodInfo object.

    This step is pretty easy: just call the GetParameter() method:

    public ParameterInfo[] GetParameters(MethodInfo method) => method.GetParameters();
    

    A ParameterInfo object contains several pieces of information, such as the name, the type and the default value of the parameter.

    Let’s consider this silly method:

    public static void RandomCity(string[] cities, string fallback = "Rome")
    { }
    

    If we have a look at its parameters, we will find the following values:

    Properties of a ParameterInfo object

    Bonus tip: Auto-properties act as Methods

    Let’s focus a bit more on the properties of a class.

    Consider this class:

    public class User
    {
      public string Name { get; set; }
    }
    

    There are no methods; only one public property.

    But hey! It turns out that properties, under the hood, are treated as methods. In fact, you can find two methods, named get_Name and set_Name, that act as an access point to the Name property.

    Automatic Getter and Setter of the Name property in C#

    Further readings

    Do you remember that exceptions are, in the end, Types?

    And that, in the catch block, you can filter for exceptions of a specific type or with a specific condition?

    If not, check this article out!

    🔗 Exception handling with WHEN clause | Code4IT

    This article first appeared on Code4IT 🐧

    Wrapping up (plus the full example)

    From here, you can use all this info to build whatever you want. Personally, I used it to analyse my current project, checking how many methods accept more than N parameters as input, and which classes have the highest number of public methods.

    In short, an example of a simple code analyser can be this one:

    public void Execute()
    {
        var assembly = DefineAssembly();
        var paramsInfo = AnalyzeAssembly(assembly);
    
        AnalyzeParameters(paramsInfo);
    }
    
    private static Assembly DefineAssembly()
        => Assembly.GetExecutingAssembly();
    
    public static List<ParamsMethodInfo> AnalyzeAssembly(Assembly assembly)
    {
        List<ParamsMethodInfo> all = new List<ParamsMethodInfo>();
        var types = GetAllPublicTypes(assembly);
    
        foreach (var type in types)
        {
            var publicMethods = GetPublicMethods(type);
    
            foreach (var method in publicMethods)
            {
                var parameters = method.GetParameters();
                if (parameters.Length > 0)
                {
                    var f = parameters.First();
                }
    
                all.Add(new ParamsMethodInfo(
                    assembly.GetName().Name,
                    type.Name,
                    method
                    ));
            }
        }
        return all;
    }
    
    private static MethodInfo[] GetPublicMethods(Type type) =>
        type.GetMethods(BindingFlags.Instance | BindingFlags.Static | BindingFlags.Public | BindingFlags.DeclaredOnly);
    
    private static List<Type> GetAllPublicTypes(Assembly assembly) => assembly.GetTypes()
                .Where(t => t.IsClass && t.IsPublic)
                .ToList();
    
    public class ParamsMethodInfo(string AssemblyName, string ClassName, MethodInfo Method)
    {
        public string MethodName => Method.Name;
        public ParameterInfo[] Parameters => Method.GetParameters();
    }
    

    And then, in the AnalyzeParameters, you can add your own logic.

    As you can see, you don’t need to adopt complex tools to perform operations like this: just knowing that you can access the static details of each class and method can be enough (of course, it depends on the use!).

    I hope you enjoyed this article! Let’s keep in touch on LinkedIn, Twitter or BlueSky! 🤜🤛

    Happy coding!

    🐧





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  • Why Threat Intelligence is the Missing Link in Your Cybersecurity Strategy

    Why Threat Intelligence is the Missing Link in Your Cybersecurity Strategy


    In the ever-evolving landscape of cyber threats, organizations are no longer asking if they’ll be targeted but when. Traditional cybersecurity measures, such as firewalls, antivirus software, and access control, remain essential. But they’re often reactive, responding only after a threat has emerged. In contrast, threat intelligence enables organizations to get ahead of the curve by proactively identifying and preparing for risks before they strike.

    What is Threat Intelligence?

    At its core, threat intelligence is the process of gathering, analyzing, and applying information about existing and potential attacks. This includes data on threat actors, tactics and techniques, malware variants, phishing infrastructure, and known vulnerabilities.

    The value of threat intelligence lies not just in raw data, but in its context—how relevant it is to your environment, and how quickly you can act on it.

    Why Organizations Need Threat Intelligence

    1. Cyber Threats Are Evolving Rapidly

    New ransomware variants, phishing techniques, and zero-day vulnerabilities emerge daily. Threat intelligence helps organizations stay informed about these developments in real time, allowing them to adjust their defenses accordingly.

    1. Contextual Awareness Improves Response

    When a security event occurs, knowing whether it’s a one-off anomaly or part of a broader attack campaign is crucial. Threat intelligence provides this clarity, helping teams prioritize incidents that pose real risk over false alarms.

    1. It Powers Proactive Defense

    With actionable intelligence, organizations can proactively patch vulnerabilities, block malicious domains, and tighten controls on specific threat vectors—preventing breaches before they occur.

    1. Supports Compliance and Risk Management

    Many data protection regulations require businesses to demonstrate risk-based security practices. Threat intelligence can support compliance with frameworks like ISO 27001, GDPR, and India’s DPDP Act by providing documented risk assessments and preventive actions.

    1. Essential for Incident Detection and Response

    Modern SIEMs, SOAR platforms, and XDR solutions rely heavily on enriched threat feeds to detect threats early and respond faster. Without real-time intelligence, these systems are less effective and may overlook critical indicators of compromise.

    Types of Threat Intelligence

    • Strategic Intelligence: High-level trends and risks to inform business decisions.
    • Tactical Intelligence: Insights into attacker tools, techniques, and procedures (TTPs).
    • Operational Intelligence: Real-time data on active threats, attack infrastructure, and malware campaigns.
    • Technical Intelligence: Specific IOCs (indicators of compromise) like IP addresses, hashes, or malicious URLs.

    Each type plays a unique role in creating a layered defense posture.

    Challenges in Implementing Threat Intelligence

    Despite its benefits, threat intelligence can be overwhelming. The sheer volume of data, lack of context, and integration issues often dilute its impact. To be effective, organizations need:

    • Curated, relevant intelligence feeds
    • Automated ingestion into security tools
    • Clear mapping to business assets and risks
    • Skilled analysts to interpret and act on the data

     The Way Forward: Intelligence-Led Security

    Security teams must shift from passive monitoring to intelligence-led security operations. This means treating threat intelligence as a core input for every security decision, such as prioritizing vulnerabilities, hardening cloud environments, or responding to an incident.

    In a world where attackers collaborate, automate, and innovate, defenders need every edge. Threat intelligence provides that edge.

    Ready to Build an Intelligence-Driven Defense?

    Seqrite Threat Intelligence helps enterprises gain real-time visibility into global and India—specific emerging threats. Backed by over 10 million endpoint signals and advanced malware analysis, it’s designed to supercharge your SOC, SIEM, or XDR. Explore Seqrite Threat Intelligence to strengthen your cybersecurity strategy.



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  • Designing Momentum: The Story Behind Meet Your Legend

    Designing Momentum: The Story Behind Meet Your Legend



    We partnered with Meet Your Legend to bring their groundbreaking vision to life — a mentorship platform that seamlessly blends branding, UI/UX, full-stack development, and immersive digital animation.

    Meet Your Legend isn’t just another online learning platform. It’s a bridge between generations of creatives. Focused on VFX, animation, and video game production, it connects aspiring talent — whether students, freelancers, or in-house studio professionals — with the industry’s most accomplished mentors. These are the legends behind the scenes: lead animators, FX supervisors, creative directors, and technical wizards who’ve shaped some of the biggest productions in modern entertainment.

    Our goal? To create a vivid digital identity and interactive platform that captures three core qualities:

    • The energy of creativity
    • The precision of industry-level expertise
    • The dynamism of motion graphics and storytelling

    At the heart of everything was a single driving idea: movement. Not just visual movement — but career momentum, the transfer of knowledge, and the emotional propulsion behind creativity itself.

    We built the brand identity around the letter “M” — stylized with an elongated tail that represents momentum, legacy, and forward motion. This tail forms a graphic throughline across the platform. Mentor names, modules, and animations plug into it, creating a modular and adaptable system that evolves with the content and contributors.

    From the visual system to the narrative structure, we wanted every interaction to feel alive — dynamic, immersive, and unapologetically aspirational.

    The Concept

    The site’s architecture is built around a narrative arc, not just a navigation system.

    Users aren’t dropped into a menu or a generic homepage. Instead, they’re invited into a story. From the moment the site loads, there’s a sense of atmosphere and anticipation — an introduction to the platform’s mission, mood, and voice before unveiling the core offering: the mentors themselves, or as the platform calls them, “The Legends.”

    Each element of the experience is structured with intention. We carefully designed the content flow to evoke a sense of reverence, curiosity, and inspiration. Think of it as a cinematic trailer for a mentorship journey.

    We weren’t just explaining the brand — we were immersing visitors in it.

    Typography & Color System

    The typography system plays a crucial role in reinforcing the platform’s dual personality: technical sophistication meets expressive creativity.

    We paired two distinct sans-serif fonts:

    – A light-weight, technical font to convey structure, clarity, and approachability — ideal for body text and interface elements

    – A bold, expressive typeface that commands attention — perfect for mentor names, quotes, calls to action, and narrative highlights

    The contrast between these two fonts helps create rhythm, pacing, and emotional depth across the experience.

    The color palette is deliberately cinematic and memorable:

    • Flash orange signals energy, creative fire, and boldness. It’s the spark — the invitation to engage.
    • A range of neutrals — beige, brown, and warm grays — offer a sense of balance, maturity, and professionalism. These tones ground the experience and create contrast for vibrant elements.

    Together, the system is both modern and timeless — a tribute to craft, not trend.

    Technology Stack

    We brought the platform to life with a modern and modular tech stack designed for both performance and storytelling:

    • WordPress (headless CMS) for scalable, easy-to-manage content that supports a dynamic editorial workflow
    • GSAP (GreenSock Animation Platform) for fluid, timeline-based animations across scroll and interactions
    • Three.js / WebGL for high-performance visual effects, shaders, and real-time graphical experiences
    • Custom booking system powered by Make, Google Calendar, Whereby, and Stripe — enabling seamless scheduling, video sessions, and payments

    This stack allowed us to deliver a responsive, cinematic experience without compromising speed or maintainability.

    Loader Experience

    Even the loading screen is part of the story.

    We designed a cinematic prelude using the “M” tail as a narrative element. This loader animation doesn’t just fill time — it sets the stage. Meanwhile, key phrases from the creative world — terms like motion 2D & 3D, vfx, cgi, and motion capture — animate in and out of view, building excitement and immersing users in the language of the craft.

    It’s a sensory preview of what’s to come, priming the visitor for an experience rooted in industry and artistry.

    Title Reveal Effects

    Typography becomes motion.

    To bring the brand’s kinetic DNA to life, we implemented a custom mask-reveal effect for major headlines. Each title glides into view with trailing motion, echoing the flowing “M” mark. This creates a feeling of elegance, control, and continuity — like a shot dissolving in a film edit.

    These transitions do more than delight — they reinforce the platform’s identity, delivering brand through movement.

    Menu Interaction

    We didn’t want the menu to feel like a utility. We wanted it to feel like a scene transition.

    The menu unfolds within the iconic M-shape — its structure serving as both interface and metaphor. As users open it, they reveal layers: content categories, mentor profiles, and stories. Every motion is deliberate, reminiscent of opening a timeline in an editing suite or peeling back layers in a 3D model.

    It’s tactile, immersive, and true to the world the platform celebrates.

    Gradient & WebGL Shader

    A major visual motif was the idea of “burning film” — inspired by analog processes but expressed through modern code.

    To bring this to life, we created a custom WebGL shader, incorporating a reactive orange gradient from the brand palette. As users move their mouse or scroll, the shader responds in real-time, adding a subtle but powerful VFX-style distortion to the screen.

    This isn’t just decoration. It’s a living texture — a symbol of the heat, friction, and passion that fuel creative careers.

    Scroll-Based Storytelling

    The homepage isn’t static. It’s a stage for narrative progression.

    We designed the flow as a scroll-driven experience where content and story unfold in sync. From an opening slider that introduces the brand, to immersive sections that highlight individual mentors and their work, each moment is carefully choreographed.

    Users aren’t just reading — they’re experiencing a sequence, like scenes in a movie or levels in a game. It’s structured, emotional, and deeply human.

    Who We Are

    We are a digital studio at the intersection of design, storytelling, and interaction. Our approach is rooted in concept and craft. We build digital experiences that are not only visually compelling but emotionally resonant.

    From bold brands to immersive websites, we design with movement in mind — movement of pixels, of emotion, and of purpose.

    Because we believe great design doesn’t just look good — it moves you.



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  • In-Demand Front-End Development Skills to Future-Proof Your Career



    In-Demand Front-End Development Skills to Future-Proof Your Career



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  • How an XDR Platform Transforms Your SOC Operations

    How an XDR Platform Transforms Your SOC Operations


    XDR solutions are revolutionizing how security teams handle threats by dramatically reducing false positives and streamlining operations. In fact, modern XDR platforms generate significantly fewer false positives than traditional SIEM threat analytics, allowing security teams to focus on genuine threats rather than chasing shadows. We’ve seen firsthand how security operations centers (SOCs) struggle with alert fatigue, fragmented visibility, and resource constraints. However, an XDR platform addresses these challenges by unifying information from multiple sources and providing a holistic view of threats. This integration enables organizations to operate advanced threat detection and response with fewer SOC resources, making it a cost-effective approach to modern security operations.

    An XDR platform consolidates security data into a single system, ensuring that SOC teams and surrounding departments can operate from the same information base. Consequently, this unified approach not only streamlines operations but also minimizes breach risks, making it an essential component of contemporary cybersecurity strategies.

    In this article, we’ll explore how XDR transforms SOC operations, why traditional tools fall short, and the practical benefits of implementing this technology in your security framework.

    The SOC Challenge: Why Traditional Tools Fall Short

    Security Operations Centers (SOCs) today face unprecedented challenges with their traditional security tools. While security teams strive to protect organizations, they’re increasingly finding themselves overwhelmed by fundamental limitations in their security infrastructure.

    Alert overload and analyst fatigue

    Modern SOC teams are drowning in alerts. As per Vectra AI, an overwhelming 71% of SOC practitioners worry they’ll miss real attacks buried in alert floods, while 51% believe they simply cannot keep pace with mounting security threats. The statistics paint a troubling picture:

    Siloed tools and fragmented visibility

    The tool sprawl in security operations creates massive blind spots. According to Vectra AI findings, 73% of SOCs have more than 10 security tools in place, while 45% juggle more than 20 different tools. Despite this arsenal, 47% of practitioners don’t trust their tools to work as needed.

    Many organizations struggle with siloed security data across disparate systems. Each department stores logs, alerts, and operational details in separate repositories that rarely communicate with one another. This fragmentation means threat hunting becomes guesswork because critical artifacts sit in systems that no single team can access.

    Slow response times and manual processes

    Traditional SOCs rely heavily on manual processes, significantly extending detection and response times. When investigating incidents, analysts must manually piece together information from different silos, losing precious time during active cyber incidents.

    According to research by Palo Alto Networks, automation can reduce SOC response times by up to 50%, significantly limiting breach impacts. Unfortunately, most traditional SOCs lack this capability. The workflow in traditional environments is characterized by manual processes that exacerbate alert fatigue while dealing with massive threat alert volumes.

    The complexity of investigations further slows response. When an incident occurs, analysts must combine data from various sources to understand the full scope of an attack, a time-consuming process that allows threats to linger in systems longer than necessary.

    What is an XDR Platform and How Does It Work?

    Extended Detection and Response (XDR) platforms represent the evolution of cybersecurity technology, breaking down traditional barriers between security tools. Unlike siloed solutions, XDR solutions provide a holistic approach to threat management through unified visibility and coordinated response.

    Unified data collection across endpoints, network, and cloud

    At its core, an XDR platform aggregates and correlates data from multiple security layers into a centralized repository. This comprehensive data collection encompasses:

    • Endpoints (computers, servers, mobile devices)
    • Network infrastructure and traffic
    • Cloud environments and workloads
    • Email systems and applications
    • Identity and access management

    This integration eliminates blind spots that typically plague security operations. By collecting telemetry from across the entire attack surface, XDR platforms provide security teams with complete visibility into potential threats. The system automatically ingests, cleans, and standardizes this data, ensuring consistent, high-quality information for analysis.

    Real-time threat detection using AI and ML

    XDR platforms leverage advanced analytics, artificial intelligence, and machine learning to identify suspicious patterns and anomalies that human analysts might miss. These capabilities enable:

    • Automatic correlation of seemingly unrelated events across different security layers
    • Identification of sophisticated multi-vector attacks through pattern recognition
    • Real-time monitoring and analysis of data streams for immediate threat identification
    • Reduction in false positives through contextual understanding of alerts

    The AI-powered capabilities enable XDR platforms to detect threats at a scale and speed impossible for human analysts alone. Moreover, these systems continuously learn and adapt to evolving threats through machine learning models.

    Automated response and orchestration capabilities

    Once threats are detected, XDR platforms can initiate automated responses without requiring manual intervention. This automation includes:

    • Isolation of compromised devices to contain threats
    • Blocking of malicious IP addresses and domains
    • Execution of predefined response playbooks for consistent remediation
    • Prioritization of incidents based on severity for efficient resource allocation

    Key Benefits of XDR for SOC Operations

    Implementing an XDR platform delivers immediate, measurable advantages to security operations centers struggling with traditional tools and fragmented systems. SOC teams gain specific capabilities that fundamentally transform their effectiveness against modern threats.

    Faster threat detection and reduced false positives

    The strategic advantage of XDR solutions begins with their ability to dramatically reduce alert volume. XDR tools automatically group related alerts into unified incidents, representing entire attack sequences rather than isolated events. This correlation across different security layers identifies complex attack patterns that traditional solutions might miss.

    Improved analyst productivity through automation

    As per the Tines report, 64% of analysts spend over half their time on tedious manual work, with 66% believing that half of their tasks could be automated. XDR platforms address this challenge through built-in orchestration and automation that offload repetitive tasks. Specifically, XDR can automate threat detection through machine learning, streamline incident response processes, and generate AI-powered incident reports. This automation allows SOC teams to detect sophisticated attacks with fewer resources while reducing response time.

    Centralized visibility and simplified workflows

    XDR provides a single pane view that eliminates “swivel chair integration,” where analysts manually interface across multiple security systems. This unified approach aggregates data from endpoints, networks, applications, and cloud environments into a consolidated platform. As a result, analysts gain swift investigation capabilities with instant access to all forensic artifacts, events, and threat intelligence in one location. This centralization particularly benefits teams during complex investigations, enabling them to quickly understand the complete attack story.

    Better alignment with compliance and audit needs

    XDR strengthens regulatory compliance through detailed documentation and monitoring capabilities. The platform generates comprehensive logs and audit trails of security events, user activities, and system changes, helping organizations demonstrate compliance to regulators. Additionally, XDR’s continuous monitoring adapts to new threats and regulatory changes, ensuring consistent compliance over time. Through centralized visibility and data aggregation, XDR effectively monitors data flows and access patterns, preventing unauthorized access to sensitive information.

    Conclusion

    XDR platforms clearly represent a significant advancement in cybersecurity technology.  At Seqrite, we offer a comprehensive XDR platform designed to help organizations simplify their SOC operations, improve detection accuracy, and automate responses. If you are looking to strengthen your cybersecurity posture with an effective and scalable XDR solution, Seqrite XDR is built to help you stay ahead of evolving threats.

     



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  • Pre-commit hooks with Husky.NET – build, format, and test your .NET application before a Git commit &vert; Code4IT

    Pre-commit hooks with Husky.NET – build, format, and test your .NET application before a Git commit | Code4IT


    A Git commit represents the status of a system. Learn how to validate that your code builds, is well-formatted, and all the tests pass by adding a Git hook!

    Table of Contents

    Just a second! 🫷
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    So, you know that storage, networking, and domain management have a cost .

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    Davide

    If you need to run operations before completing a Git commit, you can rely on Git Hooks.

    Git hooks are scripts that run automatically whenever a particular event occurs in a Git repository. They let you customize Git’s internal behaviour and trigger customizable actions at key points in the development life cycle.

    Extending Git hooks allows you to plug in custom functionalities to the regular Git flow, such as Git message validation, code formatting, etc.

    I’ve already described how to use Husky with NPM, but here I’m gonna use Husky.NET, the version of Husky created for .NET-based applications.

    Git hooks: a way to extend Git operations

    As we said, Git hooks are actions that run during specific phases of Git operations.

    Git hooks fall into 4 categories:

    • client-side hooks related to the committing workflow: they execute when you run git commit on your local repository;
    • client-side hooks related to the email workflow: they are executed when running git am, which is a command that allows you to integrate mails and Git repositories (I’ve never used it. If you are interested in this functionality, here’s the official documentation);
    • client-side hooks related to other operations: these hooks run on your local repository when performing operations like git rebase;
    • server-side hooks: they run after a commit is received on the remote repository, and they can reject a git push operation.

    Let’s focus on the client-side hooks that run when you commit changes using git commit.

    Hook name Description
    pre-commit This hook is the first invoked by git commit (if you don’t use the -m flag, it is invoked before asking you to insert a commit message) and can be used to inspect the snapshot that is about to be committed.
    prepare-commit-msg This hook is invoked by git commit and can be used to edit the default commit message when it is generated by an automated tool.
    commit-msg This hook is invoked by git commit and can be used to validate or modify the commit message after it is entered by the user.
    post-commit This hook is invoked after the git commit execution has run correctly, and it is generally used to fire notifications.

    How to install Husky.NET and its dependencies in a .NET Application

    Husky.NET must be installed in the root folder of the solution.

    You first have to create a tool-manifest file in the root folder by running:

    This command creates a file named dotnet-tools.json under the .config folder: here you can see the list of external tools used by dotnet.

    After running the command, you will see that the dotnet-tools.json file contains this element:

    {
      "version": 1,
      "isRoot": true,
      "tools": {}
    }
    

    Now you can add Husky as a dotnet tool by running:

    dotnet tool install Husky
    

    After running the command, the file will contain something like this:

    {
      "version": 1,
      "isRoot": true,
      "tools": {
        "husky": {
          "version": "0.6.2",
          "commands": ["husky"]
        }
      }
    }
    

    Now that we have added it to our dependencies, we can add Husky to an existing .NET application by running:

    If you open the root folder, you should be able to see these 3 folders:

    • .git, which contains the info about the Git repository;
    • .config that contains the description of the tools, such as dotnet-tools;
    • .husky that contains the files we are going to use to define our Git hooks.

    Finally, you can add a new hook by running, for example,

    dotnet husky add pre-commit -c "echo 'Hello world!'"
    git add .husky/pre-commit
    

    This command creates a new file, pre-commit (without file extension), under the .husky folder. By default, it appears like this:

    #!/bin/sh
    . "$(dirname "$0")/_/husky.sh"
    
    ## husky task runner examples -------------------
    ## Note : for local installation use 'dotnet' prefix. e.g. 'dotnet husky'
    
    ## run all tasks
    #husky run
    
    ### run all tasks with group: 'group-name'
    #husky run --group group-name
    
    ## run task with name: 'task-name'
    #husky run --name task-name
    
    ## pass hook arguments to task
    #husky run --args "$1" "$2"
    
    ## or put your custom commands -------------------
    #echo 'Husky.Net is awesome!'
    
    echo 'Hello world!'
    

    The default content is pretty useless; it’s time to customize that hook.

    Notice that the latest command has also generated a task-runner.json file; we will use it later.

    Your first pre-commit hook

    To customize the script, open the file located at .husky/pre-commit.

    Here, you can add whatever you want.

    In the example below, I run commands that compile the code, format the text (using dotnet format with the rules defined in the .editorconfig file), and then run all the tests.

    #!/bin/sh
    . "$(dirname "$0")/_/husky.sh"
    
    echo 'Building code'
    dotnet build
    
    echo 'Formatting code'
    dotnet format
    
    echo 'Running tests'
    dotnet test
    

    Then, add it to Git, and you are ready to go. 🚀 But wait…

    3 ways to manage dotnet format with Husky.NET

    There is a problem with the approach in the example above.

    Let’s simulate a usage flow:

    1. you modify a C# class;
    2. you run git commit -m "message";
    3. the pre-commit hook runs dotnet build;
    4. the pre-commit hook runs dotnet format;
    5. the pre-commit hook runs dotnet test;
    6. after the hooks, the commit is created.

    What is the final result?

    Since dotnet format modifies the source files, and given that the snapshot has already been created before executing the hook, all the modified files will not be part of the final commit!

    Also, dotnet format executes linting on every file in the solution, not only those that are part of the current snapshot. The operation might then take a lot of time, depending on the size of the repository, and most of the time, it will not update any file (because you’ve already formatted everything in a previous run).

    We have to work out a way to fix this issue. I’ll suggest three approaches.

    Include all the changes using Git add

    The first approach is quite simple: run git add . after dotnet format.

    So, the flow becomes:

    1. you modify a C# class;
    2. you run git commit -m "message";
    3. the pre-commit hook runs dotnet build;
    4. the pre-commit hook runs dotnet format;
    5. the pre-commit hook runs git add .;
    6. the pre-commit hook runs dotnet test;
    7. Git creates the commit.

    This is the most straightforward approach, but it has some downsides:

    • dotnet format is executed on every file in the solution. The more your project grows, the slower your commits become;
    • git add . adds to the current snapshot all the files modified, even those you did not add to this commit on purpose (maybe because you have updated many files and want to create two distinct commits).

    So, it works, but we can do better.

    Execute a dry run of dotnet-format

    You can add the --verify-no-changes to the dotnet format command: this flag returns an error if at least one file needs to be updated because of a formatting rule.

    Let’s see how the flow changes if one file needs to be formatted.

    1. you modify a C# class;
    2. you run git commit -m "message";
    3. the pre-commit hook runs dotnet build;
    4. the pre-commit hook runs dotnet format --verify-no-changes;
    5. the pre-commit hook returns an error and aborts the operation;
    6. you run dotnet format on the whole solution to fix all the formatting issues;
    7. you run git add .;
    8. you run git commit -m "message";
    9. the pre-commit hook runs dotnet build;
    10. the pre-commit hook runs dotnet format --verify-no-changes. Now, there is nothing to format, and we can proceed;
    11. the pre-commit hook runs dotnet test;
    12. Git creates the commit.

    Notice that, this way, if there is something to format, the whole commit is aborted. You will then have to run dotnet format on the entire solution, fix the errors, add the changes to the snapshot, and restart the flow.

    It’s a longer process, but it allows you to have complete control over the formatted files.

    Also, you won’t risk including in the snapshot the files you want to keep staged in order to add them to a subsequent commit.

    Run dotnet-format only on the staged files using Husky.NET Task Runner

    The third approach is the most complex but with the best result.

    If you recall, during the initialization, Husky added two files in the .husky folder: pre-commit and task-runner.json.

    The key to this solution is the task-runner.json file. This file allows you to create custom scripts with a name, a group, the command to be executed, and its related parameters.

    By default, you will see this content:

    {
      "tasks": [
        {
          "name": "welcome-message-example",
          "command": "bash",
          "args": ["-c", "echo Husky.Net is awesome!"],
          "windows": {
            "command": "cmd",
            "args": ["/c", "echo Husky.Net is awesome!"]
          }
        }
      ]
    }
    

    To make sure that dotnet format runs only on the staged files, you must create a new task like this:

    {
      "name": "dotnet-format-staged-files",
      "group": "pre-commit-operations",
      "command": "dotnet",
      "args": ["format", "--include", "${staged}"],
      "include": ["**/*.cs"]
    }
    

    Here, we have specified a name, dotnet-format-staged-files, the command to run, dotnet, with some parameters listed in the args array. Notice that we can filter the list of files to be formatted by using the ${staged} parameter, which is populated by Husky.NET.

    We have also added this task to a group named pre-commit-operations that we can use to reference a list of tasks to be executed together.

    If you want to run a specific task, you can use dotnet husky run --name taskname. In our example, the command would be dotnet husky run --name dotnet-format-staged-files.

    If you want to run a set of tasks belonging to the same group, you can run dotnet husky run --group groupname. In our example, the command would be dotnet husky run --group pre-commit-operations.

    The last step is to call these tasks from within our pre-commit file. So, replace the old dotnet format command with one of the above commands.

    Final result and optimizations of the pre-commit hook

    Now that everything is in place, we can improve the script to make it faster.

    Let’s see which parts we can optimize.

    The first step is the build phase. For sure, we have to run dotnet build to see if the project builds correctly. You can consider adding the --no-restore flag to skip the restore step before building.

    Then we have the format phase: we can avoid formatting every file using one of the steps defined before. I’ll replace the plain dotnet format with the execution of the script defined in the Task Runner (it’s the third approach we saw).

    Then, we have the test phase. We can add both the --no-restore and the --no-build flag to the command since we have already built everything before. But wait! The format phase updated the content of our files, so we still have to build the whole solution. Unless we swap the build and the format phases.

    So, here we have the final pre-commit file:

    #!/bin/sh
    . "$(dirname "$0")/_/husky.sh"
    
    echo 'Ready to commit changes!'
    
    echo 'Format'
    
    dotnet husky run --name dotnet-format-staged-files
    
    echo 'Build'
    
    dotnet build --no-restore
    
    echo 'Test'
    
    dotnet test --no-restore
    
    echo 'Completed pre-commit changes'
    

    Yes, I know that when you run the dotnet test command, you also build the solution, but I prefer having two separate steps just for clarity!

    Ah, and don’t remove the #!/bin/sh at the beginning of the script!

    How to skip Git hooks

    To trigger the hook, just run git commit -m "message". Before completing the commit, the hook will run all the commands. If one of them fails, the whole commit operation is aborted.

    There are cases when you have to skip the validation. For example, if you have integration tests that rely on an external source currently offline. In that case, some tests will fail, and you will be able to commit your code only once the external system gets working again.

    You can skip the commit validation by adding the --no-verify flag:

    git commit -m "my message" --no-verify
    

    Further readings

    Husky.NET is a porting of the Husky tool we already used in a previous article, using it as an NPM dependency. In that article, we also learned how to customize Conventional Commits using Git hooks.

    🔗 How to customize Conventional Commits in a .NET application using GitHooks | Code4IT

    As we learned, there are many more Git hooks that we can use. You can see the complete list on the Git documentation:

    🔗 Customizing Git – Git Hooks | Git docs

    This article first appeared on Code4IT 🐧

    Of course, if you want to get the best out of Husky.NET, I suggest you have a look at the official documentation:

    🔗 Husky.Net documentation

    One last thing: we installed Husky.NET using dotnet tools. If you want to learn more about this topic, I found an excellent article online that you might want to read:

    🔗 Using dotnet tools | Gustav Ehrenborg

    Wrapping up

    In this article, we learned how to create a pre-commit Git hook and validate all our changes before committing them to our Git repository.

    We also focused on the formatting of our code: how can we format only the files we have changed without impacting the whole solution?

    I hope you enjoyed this article! Let’s keep in touch on Twitter or LinkedIn! 🤜🤛

    Happy coding!

    🐧





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  • What is MDM and Why Your Business Can’t Ignore It Anymore

    What is MDM and Why Your Business Can’t Ignore It Anymore


    In today’s always-connected, mobile-first world, employees are working on the go—from airports, cafes, living rooms, and everywhere in between. That’s great for flexibility and productivity—but what about security? How do you protect sensitive business data when it’s spread across dozens or hundreds of mobile devices?  This is where Mobile Device Management (MDM) steps in. Let’s see what is MDM.

     

    What is MDM?

    MDM, short for Mobile Device Management, is a system that allows IT teams to monitor, manage, and secure employees’ mobile devices—whether company-issued or BYOD (Bring Your Own Device).

    It’s like a smart control panel for your organization’s phones and tablets. From pushing software updates and managing apps to enforcing security policies and wiping lost devices—MDM gives you full visibility and control, all from a central dashboard.

    MDM helps ensure that only secure, compliant, and authorized devices can access your company’s network and data.

     

    Why is MDM Important?

    As the modern workforce becomes more mobile, data security risks also rise. Devices can be lost, stolen, or compromised. Employees may install risky apps or access corporate files from unsecured networks. Without MDM, IT teams are essentially blind to these risks.

    A few common use cases of MDM:

    • A lost smartphone with access to business emails.
    • An employee downloading malware-infected apps.
    • Data breaches due to unsecured Wi-Fi use on personal devices.
    • Non-compliance with industry regulations due to lack of control.

    MDM helps mitigate all these risks while still enabling flexibility.

     

    Key Benefits of MDM Solution

    Enhanced Security

    Remotely lock, wipe, or locate lost devices. Prevent unauthorized access, enforce passcodes, and control which apps are installed.

    Centralized Management

    Manage all mobile devices, iOS and Android from a single dashboard. Push updates, install apps, and apply policies in bulk.

    Improved Productivity

    Set devices in kiosk mode for focused app usage. Push documents, apps, and files on the go. No downtime, no waiting.

    Compliance & Monitoring

    Track usage, enforce encryption, and maintain audit trails. Ensure your devices meet industry compliance standards at all times. 

     

    Choosing the Right MDM Solution

    There are many MDM solutions out there, but the right one should go beyond basic management. It should make your life easier, offer deep control, and scale with your organization’s needs—without compromising user experience.

    Why Seqrite MDM is Built for Today’s Mobile Workforce

     Seqrite Enterprise Mobility Management (EMM) is a comprehensive MDM solution tailored for businesses that demand both security and simplicity. Here’s what sets it apart:

    1. Unified Management Console: Manage all enrolled mobile devices in one place—track location, group devices, apply custom policies, and more.
    1. AI-Driven Security: Built-in antivirus, anti-theft features, phishing protection, and real-time web monitoring powered by artificial intelligence.
    1. Virtual Fencing: Set geo, Wi-Fi, and time-based restrictions to control device access and usage great for field teams and remote employees.
    1. App & Kiosk Mode Management: Push apps, lock devices into single- or multi-app kiosk mode, and publish custom apps to your enterprise app store.
    1. Remote File Transfer & Troubleshooting: Send files to one or multiple devices instantly and troubleshoot issues remotely to reduce device downtime.
    1. Automation & Reporting: Get visual dashboards, schedule regular exports, and access real-time logs and audit reports to stay ahead of compliance.

     

     Final Thoughts

    As work continues to shift beyond the boundaries of the office, MDM is no longer a luxury, it’s a necessity. Whether you’re a growing startup or a large enterprise, protecting your mobile workforce is key to maintaining both productivity and security.

    With solutions like Seqrite Enterprise Mobility Management, businesses get the best of both worlds powerful control and seamless management, all wrapped in a user-friendly experience.



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  • 5 Signs Your Organization Needs Zero Trust Network Access

    5 Signs Your Organization Needs Zero Trust Network Access


    In today’s hyperconnected business environment, the question isn’t if your organization will face a security breach, but when. With the growing complexity of remote workforces, cloud adoption, and third-party integrations, many businesses are discovering that their traditional security tools are no longer enough to keep threats at bay.

    Enter Zero Trust Network Access (ZTNA)—a modern security model that assumes no user, device, or request is trustworthy until proven otherwise. Unlike traditional perimeter-based security, ZTNA treats every access request suspiciously, granting application-level access based on strict verification and context.

    But how do you know when it’s time to make the shift?

    Here are five tell-tale signs that your current access strategy may be outdated—and why Zero Trust Network Access could be the upgrade your organization needs.

     

    1. Your VPN is Always on—and Always a Risk

    Virtual Private Networks (VPNs) were built for a simpler time when employees worked from office desktops, and network boundaries were clear. Today, they’re an overworked, often insecure solution trying to fit a modern, mobile-first world.

    The problem? Once a user connects via VPN, they often gain full access to the internal network, regardless of what they need. One compromised credential can unlock the entire infrastructure.

    How ZTNA helps:

    ZTNA enforces the principle of least privilege. Instead of exposing the entire network, it grants granular, application-specific access based on identity, role, and device posture. Even if credentials are compromised, the intruder won’t get far.

     

    1. Remote Access is a Growing Operational Burden

    Managing remote access for a distributed workforce is no longer optional—it’s mission-critical. Yet many organizations rely on patchwork solutions that are not designed for scale, leading to latency, downtime, and support tickets galore.

    If your IT team constantly fights connection issues, reconfigures VPN clients, or manually provisions contractor access, it’s time to rethink your approach.

    How ZTNA helps:

    ZTNA enables seamless, cloud-delivered access without the overhead of legacy systems. Employees, contractors, and partners can connect from anywhere, without IT having to manage tunnels, gateways, or physical infrastructure. It also supports agentless access, perfect for unmanaged devices or third-party vendors.

     

    1. You Lack Visibility into What Users do After They Log in

    Traditional access tools like VPNs authenticate users at the start of a session but offer little to no insight into what happens afterward. Did they access sensitive databases? Transfer files? Leave their session open on an unsecured device?

    This lack of visibility is a significant risk to security and compliance. It leaves gaps in auditing, limits forensic investigations, and increases your exposure to insider threats.

    How ZTNA helps:

    With ZTNA, organizations get deep session-level visibility and control. You can log every action, enforce session recording, restrict clipboard usage, and even automatically terminate sessions based on unusual behavior or policy violations. This isn’t just security, it’s accountability.

     

    1. Your Attack Surface is Expanding Beyond Your Control

    Every new SaaS app, third-party vendor, or remote endpoint is a new potential doorway into your environment. In traditional models, this means constantly updating firewall rules, managing IP allowlists, or creating segmented VPN tunnels—reactive and complex to scale tasks.

    How ZTNA helps:

    ZTNA eliminates network-level access. Instead of exposing apps to the public or placing them behind perimeter firewalls, ZTNA makes applications invisible, only discoverable to users with strict access policies. It drastically reduces your attack surface without limiting business agility.

     

    1. Security and User Experience Are at War

    Security policies are supposed to protect users, not frustrate them. But when authentication is slow, access requires multiple manual steps, or users are locked out due to inflexible policies, they look for shortcuts—often unsafe ones.

    This is where shadow IT thrives—and where security begins to fail.

    How ZTNA helps:

    ZTNA provides context-aware access control that strikes the right balance between security and usability. For example, a user accessing a low-risk app from a trusted device and location may pass through with minimal friction. However, someone connecting from an unknown device or foreign IP may face additional verification or be denied altogether.

    ZTNA adapts security policies based on real-time context, ensuring protection without compromising productivity.

     

    In Summary

    The traditional approach to access control is no match for today’s dynamic, perimeterless world. If you’re experiencing VPN fatigue, blind spots in user activity, growing exposure, or frustrated users, it’s time to rethink your security architecture.

    Zero Trust Network Access isn’t just another security tool—it’s a more innovative, adaptive framework for modern businesses.

    Looking to modernize your access control without compromising on security or performance? Explore Seqrite ZTNA—a future-ready ZTNA solution built for enterprises navigating today’s cybersecurity landscape.



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