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Apache Mesos

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Complete container management platform

Deploy and manage containers (including Docker) on top of Apache Mesos at scale.

Quick Overview

Apache Mesos is an open-source cluster manager that provides efficient resource isolation and sharing across distributed applications or frameworks. It enables efficient resource utilization in large-scale cluster environments by abstracting CPU, memory, storage, and other compute resources away from machines.

Pros

  • Scalability: Can manage thousands of nodes in a cluster
  • Flexibility: Supports diverse workloads (e.g., containerized, non-containerized)
  • Resource efficiency: Improves cluster utilization through fine-grained resource sharing
  • Fault-tolerance: Provides high availability and recovery mechanisms

Cons

  • Complexity: Steep learning curve for setup and management
  • Limited native support: Fewer out-of-the-box integrations compared to some alternatives
  • Resource overhead: Can consume significant resources for its own operation
  • Community support: Less active community compared to some competing solutions

Code Examples

  1. Launching a Mesos task:
from mesos.interface import Executor, mesos_pb2
from mesos.native import MesosSchedulerDriver

class MyExecutor(Executor):
    def launchTask(self, driver, task):
        def run_task():
            print("Executing task...")
            update = mesos_pb2.TaskStatus()
            update.task_id.value = task.task_id.value
            update.state = mesos_pb2.TASK_RUNNING
            driver.sendStatusUpdate(update)
            
            # Task execution logic here
            
            print("Task finished")
            update = mesos_pb2.TaskStatus()
            update.task_id.value = task.task_id.value
            update.state = mesos_pb2.TASK_FINISHED
            driver.sendStatusUpdate(update)

        thread = threading.Thread(target=run_task)
        thread.start()

executor = MyExecutor()
driver = MesosExecutorDriver(executor)
driver.run()
  1. Defining a Mesos framework:
from mesos.interface import Scheduler
from mesos.native import MesosSchedulerDriver

class MyScheduler(Scheduler):
    def resourceOffers(self, driver, offers):
        for offer in offers:
            task = mesos_pb2.TaskInfo()
            task.task_id.value = "task_1"
            task.slave_id.value = offer.slave_id.value
            task.name = "Test task"
            task.executor.MergeFrom(self.executor)

            driver.launchTasks(offer.id, [task])

scheduler = MyScheduler()
framework = mesos_pb2.FrameworkInfo()
framework.user = ""  # Have Mesos fill in the current user.
framework.name = "Test Framework"
driver = MesosSchedulerDriver(scheduler, framework, "zk://localhost:2181/mesos")
driver.run()
  1. Configuring Mesos resources:
{
  "id": "mesos-cluster",
  "master": {
    "hostname": "master.mesos",
    "ip": "10.0.0.1",
    "zookeeper": "zk://10.0.0.2:2181/mesos"
  },
  "slaves": [
    {
      "hostname": "slave1.mesos",
      "ip": "10.0.0.3",
      "resources": {
        "cpus": 4,
        "mem": 8192,
        "disk": 10240
      }
    },
    {
      "hostname": "slave2.mesos",
      "ip": "10.0.0.4",
      "resources": {
        "cpus": 4,
        "mem": 8192,
        "disk": 10240
      }
    }
  ]
}

Getting Started

  1. Install Mesos:

    sudo apt-get update
    sudo apt-get install -y mesos
    
  2. Configure Mesos master:

    sudo nano /etc/mesos-master/hostname
    # Add your master hostname
    
  3. Configure Mesos agent

Competitor Comparisons

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Production-Grade Container Scheduling and Management

Pros of Kubernetes

  • More widespread adoption and larger community support
  • Better support for containerized applications and microservices architecture
  • Extensive ecosystem of tools and integrations

Cons of Kubernetes

  • Steeper learning curve and more complex setup
  • Higher resource overhead for smaller deployments
  • Less flexible for non-containerized workloads

Code Comparison

Kubernetes manifest example:

apiVersion: apps/v1
kind: Deployment
metadata:
  name: nginx-deployment
spec:
  replicas: 3
  selector:
    matchLabels:
      app: nginx

Mesos framework example:

{
  "id": "nginx-cluster",
  "instances": 3,
  "container": {
    "type": "DOCKER",
    "docker": {
      "image": "nginx:latest"
    }
  }
}

Both Kubernetes and Mesos provide container orchestration capabilities, but Kubernetes has become the de facto standard for container management. Kubernetes offers a more opinionated approach to container orchestration, while Mesos provides a more flexible framework for resource allocation across various types of workloads. Kubernetes excels in managing containerized applications, while Mesos can handle a broader range of distributed systems, including non-containerized workloads. The choice between the two depends on specific use cases, existing infrastructure, and team expertise.

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The Moby Project - a collaborative project for the container ecosystem to assemble container-based systems

Pros of Moby

  • More active development and larger community support
  • Better integration with Docker ecosystem and tools
  • Lighter weight and more flexible containerization solution

Cons of Moby

  • Steeper learning curve for beginners
  • Less suited for large-scale distributed computing tasks
  • More focused on containerization than cluster management

Code Comparison

Mesos (C++):

class MesosSchedulerDriver : public SchedulerDriver {
public:
  virtual Status start();
  virtual Status stop(bool failover = false);
  virtual Status abort();
  // ...
};

Moby (Go):

type Container struct {
    StreamConfig *stream.Config
    State        *State
    Root         string
    BaseFS       string
    // ...
}

The code snippets highlight the different focus areas of the two projects. Mesos emphasizes scheduler and resource management, while Moby concentrates on container management and orchestration.

Both projects are open-source and have significant contributions from their respective communities. Mesos is better suited for large-scale distributed systems and heterogeneous cluster management, while Moby excels in containerization and microservices architecture. The choice between them depends on specific use cases and infrastructure requirements.

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Nomad is an easy-to-use, flexible, and performant workload orchestrator that can deploy a mix of microservice, batch, containerized, and non-containerized applications. Nomad is easy to operate and scale and has native Consul and Vault integrations.

Pros of Nomad

  • Simpler architecture and easier to set up and maintain
  • Better support for non-containerized workloads
  • More lightweight and resource-efficient

Cons of Nomad

  • Less mature ecosystem and community compared to Mesos
  • Fewer advanced features for large-scale distributed systems
  • Limited support for fine-grained resource allocation

Code Comparison

Nomad job specification:

job "example" {
  datacenters = ["dc1"]
  type = "service"
  group "cache" {
    task "redis" {
      driver = "docker"
      config {
        image = "redis:3.2"
      }
    }
  }
}

Mesos framework example:

from mesos.interface import Scheduler
from mesos.native import MesosSchedulerDriver

class ExampleScheduler(Scheduler):
    def resourceOffers(self, driver, offers):
        for offer in offers:
            task = {'name': 'example-task', 'taskId': {'value': '1'}, 'slaveId': offer.slaveId}
            driver.launchTasks(offer.id, [task])

driver = MesosSchedulerDriver(ExampleScheduler(), "Example Framework", "zk://localhost:2181/mesos")
driver.run()

The code examples showcase the different approaches to job scheduling and task definition in Nomad and Mesos. Nomad uses a declarative job specification format, while Mesos requires implementing a custom scheduler using its API.

8,481

Conformance test suite for OpenShift

Pros of Origin

  • More comprehensive platform-as-a-service (PaaS) solution, offering a complete container application platform
  • Built on Kubernetes, providing better integration with cloud-native ecosystems
  • Stronger focus on developer experience and productivity

Cons of Origin

  • Steeper learning curve due to its more complex architecture
  • Potentially higher resource requirements for smaller deployments
  • Less flexibility for custom resource scheduling compared to Mesos

Code Comparison

Mesos (C++):

class MesosSchedulerDriver : public SchedulerDriver {
public:
  virtual Status start();
  virtual Status stop(bool failover = false);
  virtual Status abort();
  // ...
};

Origin (Go):

type OpenShiftAPIServer struct {
    GenericAPIServer *genericapiserver.GenericAPIServer
    KubeAPIServerClientConfig *restclient.Config
    KubeClientInternal kclientsetinternal.Interface
    KubeClientExternal kclientsetexternal.Interface
    // ...
}

The code snippets highlight the different languages and approaches used in each project. Mesos uses C++ and focuses on low-level resource management, while Origin uses Go and builds upon Kubernetes for container orchestration.

23,337

Complete container management platform

Pros of Rancher

  • More user-friendly web UI for managing Kubernetes clusters
  • Supports multiple Kubernetes distributions and cloud providers
  • Easier setup and maintenance for non-experts

Cons of Rancher

  • Less flexible for non-container workloads
  • More focused on Kubernetes, limiting options for other orchestration tools
  • Potentially higher resource overhead for smaller deployments

Code Comparison

Rancher (YAML configuration):

rancher:
  image: rancher/rancher:latest
  ports:
    - 80:80
    - 443:443
  volumes:
    - /opt/rancher:/var/lib/rancher

Mesos (JSON configuration):

{
  "id": "/mesos-master",
  "cmd": "mesos-master --zk=zk://localhost:2181/mesos --quorum=1 --work_dir=/var/lib/mesos",
  "cpus": 1,
  "mem": 1024
}

The code snippets show configuration differences:

  • Rancher uses YAML for Docker Compose setup
  • Mesos uses JSON for Marathon deployment
  • Rancher focuses on container ports and volumes
  • Mesos configuration includes resource allocation and command execution

Both projects aim to simplify cluster management, but Rancher is more Kubernetes-centric, while Mesos offers broader resource abstraction for various workloads.

Deploy and manage containers (including Docker) on top of Apache Mesos at scale.

Pros of Marathon

  • Focused on long-running services and applications
  • Provides a user-friendly web UI for managing applications
  • Offers built-in service discovery and load balancing

Cons of Marathon

  • More limited in scope compared to Mesos' broader resource management capabilities
  • Requires Mesos as an underlying framework, adding complexity
  • Less flexibility for short-lived or batch tasks

Code Comparison

Marathon application definition:

{
  "id": "/my-app",
  "cmd": "python3 -m http.server 8080",
  "cpus": 0.5,
  "mem": 32,
  "instances": 2
}

Mesos framework example:

from mesos.interface import Scheduler
from mesos.native import MesosSchedulerDriver

class MyScheduler(Scheduler):
    def resourceOffers(self, driver, offers):
        # Resource allocation logic here

Marathon is built on top of Mesos and provides a higher-level abstraction for deploying and managing long-running applications. It offers a more user-friendly interface and focuses on containerized applications, while Mesos provides a lower-level resource management framework with broader capabilities. Marathon is ideal for microservices architectures, while Mesos can handle a wider range of workloads, including batch processing and custom frameworks.

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README

Apache Mesos

Apache Mesos is a cluster manager that provides efficient resource isolation and sharing across distributed applications, or frameworks. It can run Hadoop, Jenkins, Spark, Aurora, and other frameworks on a dynamically shared pool of nodes.

Visit us at mesos.apache.org.

Mailing Lists

Documentation

Documentation is available in the docs/ directory. Additionally, a rendered HTML version can be found on the Mesos website's Documentation page.

Installation

Instructions are included on the Getting Started page.

License

Apache Mesos is licensed under the Apache License, Version 2.0.

For additional information, see the LICENSE and NOTICE files.