Install Wireshark latest version on Ubuntu

Install Wireshark latest version on Ubuntu:


Version: wireshark-4.0.6

 Below Dependency are required for instalation:

$sudo apt install qttools5-dev qttools5-dev-tools libqt5svg5-dev qtmultimedia5-dev build-essential automake autoconf libgtk2.0-dev libglib2.0-dev flex bison libpcap-dev libgcrypt20-dev cmake libc-ares-dev -y

If Cmake is not installed:

$ sudo apt-get install cmake 

1.    mkdir Wireshark
2.    cd Wireshark
3.    wget
4.    tar -xvf wireshark-4.0.6.tar.xz
5.    cd wireshark-4.0.6/
6.    cmake .
7.    make ; make install
8.    wireshark -version
9.    Place the dissector at below path:

Kubernetes: Your Guide to Container Magic

Kubernetes: Your Guide to Container Magic


  • Begin with a relatable scenario: Imagine you're running a busy restaurant with multiple chefs cooking different dishes. You need someone to manage it all seamlessly. That's where Kubernetes comes in!

What is Kubernetes?

  • Kubernetes is like your restaurant manager for software. It helps manage and organize containers, which are like individual dishes in our restaurant analogy. Containers are packages of software that can run consistently anywhere, from your laptop to a data center.

Why Kubernetes Matters:

  • Explain the need for Kubernetes by likening it to the chaos that can ensue in a busy kitchen without a manager. Kubernetes brings order to the chaos of running applications.

Key Concepts:

  • Pods: Pods are like small trays where dishes (containers) are placed. They can hold one or more containers that work closely together.
  • Services: Think of services as waiters. They help route customer (user) requests to the right dish (container).
  • ReplicaSets: These are like having multiple identical dishes of the same item on your menu. If one runs out, you still have more to serve.
  • Deployments: Deployments are instructions on how many of each dish (replica) you want. If you want 5 pizzas at all times, deployments make it happen.
  • Nodes: Nodes are the physical servers or virtual machines where your restaurant (Kubernetes cluster) operates.
  • Clusters: Clusters are a group of nodes that work together, just like a chain of restaurants under the same brand.

How Kubernetes Works:

  • Explain that Kubernetes has a central "brain" called the control plane (our head chef). It communicates with worker nodes (kitchen stations) to ensure that containers (dishes) are running as needed.

Kubernetes Architecture:

  • Describe the control plane (head chef's office) with its components like the API server (communicator), etcd (memory), and more.
  • Worker nodes (kitchen stations) host containers and include components like kubelet (station chef) and kube-proxy (order taker).

Benefits of Kubernetes:

  • Showcase the benefits: Kubernetes ensures your dishes (containers) are served quickly, consistently, and can handle many orders (scalability). It also fixes issues automatically (self-healing).

Use Cases:

  • Provide real-world examples: Imagine a popular food delivery app or a large e-commerce website. They use Kubernetes to manage their many containers efficiently.

Kubernetes Ecosystem:

  • Mention related tools (like Helm for recipes or Prometheus for quality control) as part of Kubernetes' extended family.

Challenges and Considerations:

  • Discuss challenges like a learning curve (like training your chefs) and resource requirements (you need good kitchen equipment).

Getting Started with Kubernetes:

  • Offer a simple guide to start learning Kubernetes, including online courses and interactive tutorials.

Kubernetes in the Future:

  • Discuss upcoming trends: Kubernetes is constantly evolving, and it's like adding new dishes to your menu. Future trends might include better security features or even more automation.

Docker Commands: A Comprehensive Guide for Beginners

Title: Docker Commands: A Comprehensive Guide for Beginners
Docker has revolutionized the way software is developed, deployed, and managed. As a powerful containerization platform, Docker provides a standardized environment for applications, making them portable, efficient, and isolated from their host systems. In this guide, we'll walk you through essential Docker commands that every beginner should be familiar with, empowering you to harness the full potential of containerization.
1. Docker Image Commands:
1.1. Pull an Image:

docker pull image_name:tag

This command fetches a Docker image from the Docker Hub or a registry.
1.2. List Images:

docker images

Displays a list of locally available Docker images.
1.3. Remove an Image:

docker rmi image_name

Deletes a specific Docker image from your local repository.
2. Docker Container Commands:
2.1. Run a Container:

docker run -it image_name command

Creates and starts a container from a specified image, with an interactive terminal.
2.2. List Running Containers:

docker ps

Shows a list of active containers.
2.3. List All Containers:

docker ps -a

Displays all containers, including inactive ones.
2.4. Start a Stopped Container:

docker start container_name_or_id

Restarts a stopped container.
2.5. Stop a Running Container:

docker stop container_name_or_id

Gracefully stops a running container.
2.6. Remove a Container:

docker rm container_name_or_id

Deletes a specific container.
3. Docker Network Commands:
3.1. List Networks:

docker network ls

Shows a list of Docker networks.
3.2. Create a Network:

docker network create network_name

Creates a new Docker network.
3.3. Connect a Container to a Network:

docker network connect network_name container_name

Links a container to a specific network.
4. Docker Volume Commands:
4.1. List Volumes:

docker volume ls

Displays a list of Docker volumes.
4.2. Create a Volume:

docker volume create volume_name

Creates a new Docker volume.
4.3. Remove a Volume:

docker volume rm volume_name

Deletes a specified Docker volume.
5. Docker Compose Commands:
5.1. Run Services with Compose:

docker-compose up

Starts services defined in a docker-compose.yml file.
5.2. Stop Services with Compose:

docker-compose down

Stops and removes services defined in a docker-compose.yml file.
Docker commands are the building blocks of efficient containerization. By mastering these commands, you'll gain the skills needed to manage Docker images, containers, networks, volumes, and even orchestrate multi-container applications using Docker Compose. As you continue your Docker journey, these fundamental commands will serve as your toolkit for seamless software development and deployment.

What is telco cloud?

Title: Exploring the Telco Cloud: A Transformative Approach to Telecommunications
In the ever-evolving landscape of telecommunications, a groundbreaking concept has emerged - the Telco Cloud. This innovative paradigm shift is revolutionizing how traditional telecom services are delivered, managed, and scaled. In this article, we delve into the world of Telco Cloud, uncovering its significance, benefits, and the transformative potential it holds for the future of communication.
Understanding Telco Cloud:
The Telco Cloud, short for Telecom Cloud, refers to the integration of cloud computing technologies into the telecommunications industry. It entails the virtualization of network functions, services, and infrastructure, enabling telecom operators to optimize their operations, enhance service agility, and provide a seamless user experience. Unlike the conventional hardware-based approach, the Telco Cloud leverages virtualization and software-defined networking (SDN) to create a dynamic and scalable ecosystem.
Key Advantages:
Agility and Scalability: Telco Cloud empowers telecom companies to swiftly adapt to changing market demands. Virtualized network functions can be rapidly deployed, scaled, or modified, allowing operators to introduce new services and features more efficiently.
Cost Efficiency: By replacing hardware-centric infrastructure with virtualized resources, telecom providers can reduce capital and operational expenditures. This shift towards a software-based model enhances resource utilization and lowers maintenance costs.
Service Innovation: Telco Cloud facilitates the creation of innovative and personalized services. Telecom operators can swiftly develop and launch new offerings, fostering customer loyalty and attracting new segments.
Network Resilience: Virtualization enhances network redundancy and disaster recovery capabilities. In the event of a failure, traffic can be rerouted dynamically, minimizing service disruptions.
Global Reach: The cloud-based nature of Telco Cloud enables services to be delivered globally, breaking down geographical barriers and expanding the provider's reach.
Challenges and Considerations:
Security: As data and services are virtualized, robust security measures must be in place to safeguard against potential breaches and vulnerabilities.
Network Performance: Maintaining high-quality network performance and low latency is crucial to ensure a seamless user experience.
Standardization: The telecom industry is working on standardizing Telco Cloud architectures to ensure interoperability and seamless integration of various components.
The Road Ahead:
The Telco Cloud is a paradigm that aligns with the digital transformation sweeping across industries. As 5G networks become more prevalent, Telco Cloud adoption will play a pivotal role in enabling the unprecedented connectivity, low latency, and high bandwidth required for emerging technologies like IoT, augmented reality, and autonomous vehicles.
The Telco Cloud represents a fundamental shift in how telecommunications services are conceptualized, designed, and delivered. Its ability to enhance agility, reduce costs, and foster innovation makes it a cornerstone of the telecom industry's evolution. By harnessing the power of virtualization and cloud computing, telecom operators are poised to redefine connectivity and reshape the future of communication.

Docker: What is Docker file?

 What is Docker file?

                 In simple words, a Dockerfile is like a step-by-step instruction manual for building a Docker image. It's a plain text file that contains a series of commands that tell Docker what to do to set up your application's environment inside a container.

Imagine a Dockerfile as a recipe that guides Docker in creating the perfect container for your application. It specifies which software, libraries, and configurations should be included in the container, ensuring that your application runs smoothly in any environment.

With a Dockerfile, you can easily customize and automate the process of building your Docker image. It saves you time and effort by allowing you to define the exact setup needed for your application, making it portable and consistent across different systems.

Using Dockerfiles simplifies the creation and management of Docker images, making it an essential tool for developers to package and distribute their applications efficiently.


Docker: What is Docker images?

 Docker: What is Docker images?

              In simple words, a Docker image is like a snapshot or a blueprint of your entire application and its dependencies. It's a single file that contains all the necessary components to run your software, such as the code, libraries, configurations, and even the operating system.

Imagine an image as a ready-to-use package that holds everything needed to set up and run your application. It's like a recipe that you can use to create multiple identical servings of your software.

With Docker images, you can easily share your application with others, ensuring that everyone uses the exact same setup. It saves you from the headache of dealing with different environments and ensures that your application works consistently, no matter where it's deployed.

In a nutshell, Docker images simplify the process of packaging and distributing your software, making it more convenient and reliable for software developers and system administrators.


container/ · e1fbbfa85833ab5b3112d2bc6213b787ae1e1be6 · balazsl /  MelArray · GitLab


Docker: what is Docker container?

Docker Containers: Streamlining Software Deployment with Visualized Efficiency


                           In simple words, a Docker container is like a compact and self-contained box that holds everything needed for a software application to run smoothly. It includes the application itself, along with all the necessary tools, libraries, and settings required to make it work correctly.

Imagine a container as a portable environment where your application lives, isolated from the rest of the computer. This isolation ensures that your application runs consistently, no matter where it's deployed—whether on your computer, a colleague's computer, or a server in the cloud.

With Docker containers, you can easily package your application, share it with others, and run it on any computer that has Docker installed. It's a game-changer for software development and deployment, making the process faster, more reliable, and hassle-free.

How Docker Containers Work

The technology behind Docker's containerization is what makes it so magical. Multiple containers can run simultaneously on the same machine thanks to containers, which eliminate the need for separate virtual machines. Each container functions independently, preventing interference between the programs it contains.