Alternatives to IPFS Cluster

A Comprehensive Solution for Streamlined File Orchestration and Management across Edge, Data Center, and Cloud Storage PeerGFS presents an exclusively software-based solution designed to address file management and replication challenges within multi-site and hybrid multi-cloud environments. With our extensive expertise spanning over 25 years, we specialize in file replication for geographically dispersed organizations. Here's how PeerGFS can benefit your operations: Enhanced Availability: Achieve high availability through Active-Active data centers, whether located on-premises or in the cloud. Edge Data Protection: Safeguard your valuable data at the Edge with continuous protection to the central Data Center. Improved Productivity: Empower distributed project teams by providing swift, local access to critical file information. In today's world, having a real-time data infrastructure is paramount. PeerGFS seamlessly integrates with your existing storage systems, supporting: High-volume data replication between interconnected data centers. Wide area networks characterized by lower bandwidth and higher latency. Rest assured, PeerGFS is designed to be user-friendly, making installation and management a breeze.

Distcc is a system designed for distributed compilation that speeds up the build process for C, C++, Objective-C, and Fortran by distributing compile tasks across various networked machines. This tool works effectively with both GCC and Clang toolchains, seamlessly intercepting compiler commands and redistributing them to remote daemons while maintaining optimization settings, include directories, and tracking of dependencies. The architecture is client-server based, featuring a lightweight listener that oversees job queues, prioritizes local compilation as necessary, and easily identifies available hosts through straightforward configuration or DNS. Additionally, Distcc accommodates cross-compilation setups, offers SSH tunneling for secure clusters, allows for the blacklisting of unreliable servers, and integrates well with modern build systems such as Make, CMake, and Ninja. It also includes monitoring tools that supply real-time data on job distribution and performance, and its compatibility with compilation databases (compdb) permits detailed management of distributed workloads. Overall, Distcc is a powerful solution that significantly enhances build efficiency across diverse development environments.

DRBD® (Distributed Replicated Block Device) is an open source, software-centric solution for block storage replication on Linux, engineered to provide high-performance and high-availability (HA) data services by synchronously or asynchronously mirroring local block devices between nodes in real-time. As a virtual block-device driver deeply integrated into the Linux kernel, DRBD guarantees optimal local read performance while facilitating efficient write-through replication to peer devices. The user-space tools, including drbdadm, drbdsetup, and drbdmeta, support declarative configuration, metadata management, and overall administration across different installations. Initially designed to support two-node HA clusters, DRBD 9.x has evolved to accommodate multi-node replication and seamlessly integrate into software-defined storage (SDS) systems like LINSTOR, which enhances its applicability in cloud-native frameworks. This evolution reflects the growing demand for robust data management solutions in increasingly complex environments.

Tungsten Clustering is the only fully-integrated, fully-tested, fully-tested MySQL HA/DR and geo-clustering system that can be used on-premises or in the cloud. It also offers industry-leading, fastest, 24/7 support for Percona Server, MariaDB and MySQL applications that are business-critical. It allows businesses that use business-critical MySQL databases to achieve cost-effective global operations with commercial-grade high availabilty (HA), geographically redundant disaster relief (DR), and geographically distributed multimaster. Tungsten Clustering consists of four core components: data replication, cluster management, and cluster monitoring. Together, they handle all of the messaging and control of your Tungsten MySQL clusters in a seamlessly-orchestrated fashion.

Zdaemon is a Python application designed for Unix-based systems, including Linux and Mac OS X, that simplifies the process of running commands as standard daemons. The primary utility, zdaemon, allows users to execute other programs in compliance with POSIX daemon standards, making it essential for those working in Unix-like environments. To utilize zdaemon, users must provide various options, either through a configuration file or directly via command-line inputs. The program supports several commands that facilitate different actions, such as initiating a process as a daemon, halting an active daemon, restarting a program after stopping it, checking the status of a running program, signaling the daemon, and reopening the transcript log. These commands can be entered through the command line or an interactive interpreter, enhancing user flexibility. Furthermore, users can specify both the program name and accompanying command-line options, though it's important to note that the command-line parsing feature is somewhat basic. Overall, zdaemon is a crucial tool for managing daemon processes effectively in a Unix environment.

Valkey is a high-performance key/value datastore that is open source and designed to handle diverse workloads, including caching and message queuing, while also functioning as a primary database. With backing from the Linux Foundation, its open source status is guaranteed indefinitely. Valkey can be deployed as a standalone service or within a clustered environment, featuring options for replication and ensuring high availability. It provides a wide array of data types, such as strings, numbers, hashes, lists, sets, sorted sets, bitmaps, hyperloglogs, among others. Users have the ability to manipulate data structures directly with a comprehensive suite of commands. Additionally, Valkey offers native extensibility through built-in Lua scripting support and allows the use of module plugins to introduce new commands and data types. The latest version, Valkey 8.1, brings numerous enhancements that improve performance by reducing latency, boosting throughput, and optimizing memory consumption. This makes Valkey an increasingly efficient choice for developers looking for a flexible and powerful data management solution.

Apache Helix serves as a versatile framework for managing clusters, ensuring the automatic oversight of partitioned, replicated, and distributed resources across a network of nodes. This tool simplifies the process of reallocating resources during instances of node failure, system recovery, cluster growth, and configuration changes. To fully appreciate Helix, it is essential to grasp the principles of cluster management. Distributed systems typically operate on multiple nodes to achieve scalability, enhance fault tolerance, and enable effective load balancing. Each node typically carries out key functions within the cluster, such as data storage and retrieval, as well as the generation and consumption of data streams. Once set up for a particular system, Helix functions as the central decision-making authority for that environment. Its design ensures that critical decisions are made with a holistic view, rather than in isolation. Although integrating these management functions directly into the distributed system is feasible, doing so adds unnecessary complexity to the overall codebase, which can hinder maintainability and efficiency. Therefore, utilizing Helix can lead to a more streamlined and manageable system architecture.

Our ready-to-use solution empowers you to keep an eye on your cluster's health and resolve problems more swiftly with intuitive dashboards that function seamlessly. Coupled with transparent and budget-friendly pricing, initiating your journey is a breeze. ContainIQ operates three agents within your cluster: one single replica deployment that gathers metrics and events from the Kubernetes API, along with two daemon sets—one dedicated to capturing latency data for every pod on the node and the other focused on logging for all pods and containers. You can monitor latency metrics by microservice and path, including p95, p99, average response times, and requests per second (RPS). The system works immediately without the need for additional application packages or middleware. Set alerts to notify you of significant changes and utilize search functionality to filter by date ranges while observing data trends over time. You can see all incoming and outgoing requests along with their associated metadata. Additionally, visualize P99, P95, average latency, and error rates over time for each specific URL path, and correlate logs for a particular trace, which is invaluable for troubleshooting when issues occur. This comprehensive approach ensures you have all the tools needed to maintain optimal performance and swiftly diagnose any challenges that arise.

Concentrate on creating applications for processing data streams instead of spending time on infrastructure upkeep. The Managed Service for Apache Kafka takes care of Zookeeper brokers and clusters, handling tasks such as configuring the clusters and performing version updates. To achieve the desired level of fault tolerance, distribute your cluster brokers across multiple availability zones and set an appropriate replication factor. This service continuously monitors the metrics and health of the cluster, automatically replacing any node that fails to ensure uninterrupted service. You can customize various settings for each topic, including the replication factor, log cleanup policy, compression type, and maximum message count, optimizing the use of computing, network, and disk resources. Additionally, enhancing your cluster's performance is as simple as clicking a button to add more brokers, and you can adjust the high-availability hosts without downtime or data loss, allowing for seamless scalability. By utilizing this service, you can ensure that your applications remain efficient and resilient amidst any unforeseen challenges.

Zettar zx - High-Performance Data Migration and Transfer Use Cases • Replication and Sync Data Migration • Transparent Tiering • In-Cloud Migration • Hybrid Cloud Data Movement • Data centralization for AI and Analytics platforms • Autonomous vehicle data collection • Recurring edge to core and edge-to cloud ingest workloads • Data Backup and Recovery • Data staging • Data transfer at petabyte scale & Billion files Transfer • Data Transfer and Forwarding Real-time streaming Key Features • Peer-toPeer Scale Out: Lightning-fast data transfer with cluster-level parallel computing. • Transparent Compression • Works with Ethernet and InfiniBand. • Supports files, objects (including S3 AWS) and S3 multipart APIs. • Send and receive simultaneously. Users can have a separate data area to read and write. • Secure and Reliable : TLS encryption to secure data transmission • SDK & API Integration • Web Access

Evidian SafeKit is a robust software solution aimed at achieving high availability for crucial applications across both Windows and Linux systems. This comprehensive tool combines several features, including load balancing, real-time synchronous file replication, automatic failover for applications, and seamless failback after server outages, all packaged within one product. By doing so, it removes the requirement for additional hardware like network load balancers or shared disks, and it also eliminates the need for costly enterprise versions of operating systems and databases. SafeKit's innovative software clustering allows users to establish mirror clusters that ensure real-time data replication and failover, as well as farm clusters that facilitate both load balancing and failover capabilities. Furthermore, it supports advanced configurations like farm plus mirror clusters and active-active clusters, enhancing flexibility and performance. Its unique shared-nothing architecture greatly simplifies the deployment process, making it particularly advantageous for use in remote locations by circumventing the challenges typically associated with shared disk clusters. In summary, SafeKit provides an effective and streamlined solution for maintaining application availability and data integrity across diverse environments.

NetApp MetroCluster setups consist of two geographically distinct, mirrored ONTAP clusters that function together to ensure ongoing data availability and SVM safeguarding. Each cluster continuously replicates its data aggregates to its counterpart, ensuring that both locations maintain identical copies of the data. In case one of the sites experiences a failure, administrators can quickly activate the mirrored SVM on the operational cluster, allowing for uninterrupted data service. The MetroCluster system accommodates both fabric-attached (FC) and IP-based cluster configurations: the fabric-attached MetroCluster utilizes FC transport for SyncMirror synchronization between sites, while MetroCluster IP operates over layer-2 stretched IP networks. Deployments of Stretch MetroCluster facilitate coverage across an entire campus, and with ONTAP versions 9.12.1 and 9.15.1, MetroCluster IP configurations can support up to four nodes using NVMe/FC or NVMe/TCP. Furthermore, it is important to note that front-end SAN protocols such as FC, FCoE, and iSCSI are fully supported within this architecture, enhancing the overall versatility of MetroCluster solutions. This flexible design accommodates various enterprise needs, making it an attractive option for organizations looking to optimize their data management strategies.

A framework for distributed data integration that streamlines essential functions of Big Data integration, including data ingestion, replication, organization, and lifecycle management, is designed for both streaming and batch data environments. It operates as a standalone application on a single machine and can also function in an embedded mode. Additionally, it is capable of executing as a MapReduce application across various Hadoop versions and offers compatibility with Azkaban for initiating MapReduce jobs. In standalone cluster mode, it features primary and worker nodes, providing high availability and the flexibility to run on bare metal systems. Furthermore, it can function as an elastic cluster in the public cloud, maintaining high availability in this setup. Currently, Gobblin serves as a versatile framework for creating various data integration applications, such as ingestion and replication. Each application is usually set up as an independent job and managed through a scheduler like Azkaban, allowing for organized execution and management of data workflows. This adaptability makes Gobblin an appealing choice for organizations looking to enhance their data integration processes.

This robust enterprise platform, built on Apache Ignite, delivers lightning-fast in-memory performance and extensive scalability for data-heavy applications, ensuring real-time access across various datastores and applications. Transitioning from Ignite to GridGain requires no code modifications, allowing for secure deployment of clusters on a global scale without experiencing any downtime. You can conduct rolling upgrades on your production clusters without affecting application availability, and replicate data across geographically dispersed data centers to balance workloads and mitigate the risk of outages in specific regions. Your data remains secure both at rest and in transit, while compliance with security and privacy regulations is guaranteed. Seamless integration with your organization’s existing authentication and authorization frameworks is straightforward, and comprehensive auditing of data and user activities can be enabled. Additionally, you can establish automated schedules for both full and incremental backups, ensuring that restoring your cluster to its most stable state is achievable through snapshots and point-in-time recovery. This platform not only promotes efficiency but also enhances resilience and security for all data operations.

Reduce unexpected downtime and lessen the risk of data loss resulting from corruption or system failures. The SLE HA extension features geo clustering capabilities to oversee clustered servers, whether they are located on-premises or in cloud environments globally. Our policy-driven, robust extension for Linux clusters ensures that your business remains operational while significantly reducing unplanned downtime across various locations and regions. With flexible, policy-driven clustering and continuous data replication, you can enhance adaptability while improving service availability and resource efficiency by integrating both physical and virtual Linux server clusters. A powerful unified interface allows you to install, configure, manage, and monitor your clustered Linux environments seamlessly. Additionally, multi-tenancy functionality enables you to organize geo clusters in alignment with specific business requirements, ensuring tailored management and optimal performance. This comprehensive approach offers a strategic advantage in maintaining system resilience and operational excellence.

Red Hat Advanced Cluster Management for Kubernetes allows users to oversee clusters and applications through a centralized interface, complete with integrated security policies. By enhancing the capabilities of Red Hat OpenShift, it facilitates the deployment of applications, the management of multiple clusters, and the implementation of policies across numerous clusters at scale. This solution guarantees compliance, tracks usage, and maintains uniformity across deployments. Included with Red Hat OpenShift Platform Plus, it provides an extensive array of powerful tools designed to secure, protect, and manage applications effectively. Users can operate from any environment where Red Hat OpenShift is available and can manage any Kubernetes cluster within their ecosystem. The self-service provisioning feature accelerates application development pipelines, enabling swift deployment of both legacy and cloud-native applications across various distributed clusters. Additionally, self-service cluster deployment empowers IT departments by automating the application delivery process, allowing them to focus on higher-level strategic initiatives. As a result, organizations can achieve greater efficiency and agility in their IT operations.

Rocket iCluster's high availability and disaster recovery (HA/DR) solutions guarantee seamless operation for your IBM i applications, ensuring consistent access by actively monitoring, detecting, and automatically rectifying replication issues. The iCluster's administration console, which supports both traditional green screen and contemporary web interfaces, provides real-time monitoring of events. By implementing real-time, fault-tolerant, object-level replication, Rocket iCluster minimizes downtime caused by unforeseen IBM i system failures. Should an outage occur, you can quickly activate a “warm” mirror of a clustered IBM i system within minutes. The disaster recovery capabilities of iCluster create a high-availability environment, facilitating simultaneous access to both master and replicated data for business applications. This configuration not only enhances system resilience but also allows for the delegation of essential business operations, such as running reports, executing queries, and managing ETL, EDI, and web tasks, from the secondary system without compromising the primary system's performance. Such flexibility ultimately leads to improved operational efficiency and reliability across your business processes.

Shoreline is the only cloud reliability platform that allows DevOps engineers to build automations in a matter of minutes and fix problems forever. Shoreline’s modern “Operations at the Edge” architecture runs efficient agents in the background of all monitored hosts. Agents run as a DaemonSet on Kubernetes or an installed package on VMs (apt, yum). The Shoreline backend is hosted by Shoreline in AWS, or deployed in your AWS virtual private cloud. Debugging and repairing issues is easy with advanced tooling for your best SREs, Jupyter style notebooks for the broader team, and a platform that makes building automations 30X faster by allowing operators to manage their entire fleet as if it were a single box. Shoreline does the heavy lifting, setting up monitors and building repair scripts, so that customers only need to configure them for their environment.

Once an application is launched, developers and IT teams often find themselves preoccupied with securing it through measures such as configuring access control lists, changing IP addresses, and implementing cumbersome solutions like GRE tunnels. However, there exists a more straightforward and robust method for safeguarding your applications and web servers against direct threats: Cloudflare Tunnel. This solution ensures the protection of your server regardless of its hosting environment—be it a public cloud, private cloud, a Kubernetes cluster, or even a Mac mini positioned beneath your television. Cloudflare Tunnel serves as tunneling software that enables swift security and encryption of application traffic across diverse infrastructures, effectively concealing your web server's IP addresses, thwarting direct assaults, and allowing you to focus on delivering exceptional applications. By utilizing the Tunnel daemon, an encrypted connection is established between your origin web server and the closest Cloudflare data center, all without the need to open any public inbound ports. This way, your applications can thrive in a secure environment while you maintain peace of mind.

SIOS DataKeeper is a block-level replication solution tailored for host-based environments, providing real-time redundancy either synchronously or asynchronously for Windows Server setups, and it integrates effortlessly with Windows Server Failover Clustering (WSFC). This innovative solution facilitates the creation of "SANless" clusters, removing the need for shared-storage systems by enabling data replication across various local, virtual, or cloud servers such as VMware, Hyper-V, AWS, Azure, and Google Cloud Platform, all while ensuring optimized performance without the necessity for specialized hardware accelerators or compression tools. After installation, it introduces a new SIOS DataKeeper Volume resource within WSFC, allowing for the support of geographically distributed clusters through cross-subnet failover and customizable heartbeat settings. Additionally, it features built-in WAN optimization and effective compression to enhance bandwidth utilization over both local and wide-area networks, thereby improving overall network efficiency. This combination of features makes SIOS DataKeeper an excellent choice for organizations looking to enhance their data availability without the complexities of traditional storage solutions.

SurveyDaemon serves as Xendica's platform for managing online research and interactivity, designed to handle surveys of any magnitude. Its robust features are particularly advantageous for large, multi-wave surveys where it isn't practical to complete all questions in one session. By implementing a question prioritization mechanism, SurveyDaemon ensures the essential data is captured frequently while keeping each session within manageable time frames. This adaptability allows for an optimal balance of scale and relevance tailored to each study, which helps to enhance both the quality and volume of data gathered, ultimately reducing the risk of "survey fatigue." The platform's distinctiveness lies in its ability to facilitate multi-wave surveys, which decompose extensive questionnaires into manageable modules, each assigned a priority for refreshment. This innovative approach not only streamlines data collection but also fosters participant engagement throughout the research process.

Red Hat® Data Grid is a robust, in-memory distributed NoSQL database solution designed for high-performance applications. By enabling your applications to access, process, and analyze data at lightning-fast in-memory speeds, it ensures an exceptional user experience. With its elastic scalability and constant availability, users can quickly retrieve information through efficient, low-latency data processing that leverages RAM and parallel execution across distributed nodes. The system achieves linear scalability by partitioning and distributing data among cluster nodes, while also providing high availability through data replication. Fault tolerance is ensured via cross-datacenter geo-replication and clustering, making recovery from disasters seamless. Furthermore, the platform offers development flexibility and boosts productivity with its versatile and functionally rich NoSQL capabilities. Comprehensive data security features, including encryption and role-based access, are also included. Notably, the release of Data Grid 7.3.10 brings important security enhancements to address a known CVE. It is crucial for users to upgrade any existing Data Grid 7.3 installations to version 7.3.10 promptly to maintain security and performance standards. Regular updates ensure that the system remains resilient and up-to-date with the latest technological advancements.

Apache CouchDB™ provides seamless access to your data wherever you require it. The Couch Replication Protocol is utilized across a wide range of projects and products, accommodating diverse computing environments that include everything from globally distributed server clusters to mobile devices and web browsers. You can securely store your data on your own servers or with any major cloud service provider. Both web-based and native applications benefit from CouchDB's native JSON support and its capability to handle binary data efficiently for all storage requirements. The Couch Replication Protocol facilitates smooth data transfers between server clusters, mobile phones, and web browsers, delivering an impressive offline-first user experience while ensuring strong performance and reliability. Additionally, CouchDB features a developer-friendly query language and offers optional MapReduce functionality, enabling straightforward, efficient, and comprehensive data retrieval, making it an excellent choice for developers looking for flexibility and power in their data management solutions. This versatility in accessing and managing data makes CouchDB a valuable asset for modern application development.

As the utilization of Kubernetes continues to increase, organizations are discovering the necessity of managing and deploying several clusters in order to support essential capabilities such as geo-redundancy, scalability, and fault isolation for their applications. Submariner enables your applications and services to operate seamlessly across various cloud providers, data centers, and geographical regions. To initiate this process, the Broker must be set up on a singular Kubernetes cluster. It is essential that the API server of this cluster is accessible to all other Kubernetes clusters that are linked through Submariner. This can either be a dedicated cluster or one of the already connected clusters. Once Submariner is installed on a cluster equipped with the appropriate credentials for the Broker, it facilitates the exchange of Cluster and Endpoint objects between clusters through mechanisms such as push, pull, and watching, thereby establishing connections and routes to other clusters. It's crucial that the worker node IP addresses on all connected clusters reside outside of the Pod and Service CIDR ranges. By ensuring these configurations, teams can maximize the benefits of multi-cluster setups.

OrbitDB functions as a decentralized, serverless, peer-to-peer database that leverages IPFS for data storage and utilizes Libp2p Pubsub for seamless synchronization among peers. It incorporates Merkle-CRDTs to facilitate conflict-free writing and merging of database entries, making it ideal for decentralized applications, blockchain projects, and web apps designed to operate primarily offline. The platform provides a range of database types that cater to distinct requirements: 'events' serves as immutable append-only logs, 'documents' allows for JSON document storage indexed by specific keys, 'keyvalue' offers conventional key-value pair storage, and 'keyvalue-indexed' provides LevelDB-indexed key-value data. Each of these database types is constructed on OpLog, a structure that is immutable, cryptographically verifiable, and based on operation-driven CRDT principles. The JavaScript implementation is compatible with both browser and Node.js environments, while a version in Go is actively maintained by the Berty project, ensuring a wide range of support for developers. This flexibility and adaptability make OrbitDB a powerful choice for those looking to implement modern data solutions in distributed systems.

The Knox API Gateway functions as a reverse proxy, prioritizing flexibility in policy enforcement and backend service management for the requests it handles. It encompasses various aspects of policy enforcement, including authentication, federation, authorization, auditing, dispatch, host mapping, and content rewriting rules. A chain of providers, specified in the topology deployment descriptor associated with each Apache Hadoop cluster secured by Knox, facilitates this policy enforcement. Additionally, the cluster definition within the descriptor helps the Knox Gateway understand the structure of the cluster, enabling effective routing and translation from user-facing URLs to the internal workings of the cluster. Each secured Apache Hadoop cluster is equipped with its own REST APIs, consolidated under a unique application context path. Consequently, the Knox Gateway can safeguard numerous clusters while offering REST API consumers a unified endpoint for seamless access. This design enhances both security and usability by simplifying interactions with multiple backend services.

Historically, integrating replicated storage into Kubernetes clusters has posed significant challenges for ITOps and DevOps teams, leading to a lack of support for persistent storage in many on-premises Kubernetes environments. Additionally, external storage solutions are often costly and lack portability. In contrast, Longhorn provides a user-friendly, easily deployable, and fully open-source option for cloud-native persistent block storage, eliminating the financial burdens associated with proprietary systems. Its features include built-in incremental snapshots and backup capabilities that ensure the safety of volume data both within and outside the Kubernetes ecosystem. Longhorn also streamlines the process of scheduling backups for persistent storage volumes through its intuitive and complimentary management interface. Unlike traditional external replication methods, which can take days to recover from a disk failure by re-replicating the entire dataset, Longhorn significantly reduces recovery time, thereby enhancing cluster performance and minimizing the risk of failure during critical periods. With Longhorn, organizations can achieve more reliable and efficient storage solutions for their Kubernetes deployments.

Efficiently manage multicluster environments for Azure Kubernetes Service (AKS) that involve tasks such as workload distribution, north-south traffic load balancing for incoming requests to various clusters, and coordinated upgrades across different clusters. The fleet cluster offers a centralized management system for overseeing all your clusters on a large scale. A dedicated hub cluster manages the upgrades and the configuration of your Kubernetes clusters seamlessly. Through Kubernetes configuration propagation, you can apply policies and overrides to distribute resources across the fleet's member clusters effectively. The north-south load balancer regulates the movement of traffic among workloads situated in multiple member clusters within the fleet. You can group various Azure Kubernetes Service (AKS) clusters to streamline workflows involving Kubernetes configuration propagation and networking across multiple clusters. Furthermore, the fleet system necessitates a hub Kubernetes cluster to maintain configurations related to placement policies and multicluster networking, thereby enhancing operational efficiency and simplifying management tasks. This approach not only optimizes resource usage but also helps in maintaining consistency and reliability across all clusters involved.

TrinityX is a cluster management solution that is open source and developed by ClusterVision, aimed at ensuring continuous monitoring for environments focused on High-Performance Computing (HPC) and Artificial Intelligence (AI). It delivers a robust support system that adheres to service level agreements (SLAs), enabling researchers to concentrate on their work without the burden of managing intricate technologies such as Linux, SLURM, CUDA, InfiniBand, Lustre, and Open OnDemand. By providing an easy-to-use interface, TrinityX simplifies the process of cluster setup, guiding users through each phase to configure clusters for various applications including container orchestration, conventional HPC, and InfiniBand/RDMA configurations. Utilizing the BitTorrent protocol, it facilitates the swift deployment of AI and HPC nodes, allowing for configurations to be completed in mere minutes. Additionally, the platform boasts a detailed dashboard that presents real-time data on cluster performance metrics, resource usage, and workload distribution, which helps users quickly identify potential issues and optimize resource distribution effectively. This empowers teams to make informed decisions that enhance productivity and operational efficiency within their computational environments.

Failover Clustering in Windows Server (and Azure Local) allows a collection of independent servers to collaborate, enhancing both availability and scalability for clustered roles, which were previously referred to as clustered applications and services. These interconnected nodes utilize a combination of hardware and software solutions, ensuring that if one node encounters a failure, another node seamlessly takes over its responsibilities through an automated failover mechanism. Continuous monitoring of clustered roles ensures that if they cease to function properly, they can be restarted or migrated to uphold uninterrupted service. Additionally, this feature includes support for Cluster Shared Volumes (CSVs), which create a cohesive, distributed namespace and enable reliable shared storage access across all nodes, thereby minimizing potential service interruptions. Common applications of Failover Clustering encompass high‑availability file shares, SQL Server instances, and Hyper‑V virtual machines. This functionality is available on Windows Server versions 2016, 2019, 2022, and 2025, as well as within Azure Local environments, making it a versatile choice for organizations looking to enhance their system resilience. By leveraging Failover Clustering, organizations can ensure their critical applications remain available even in the event of hardware failures.

Percona Backup is a distributed, low impact solution to ensure consistent backups of MongoDB replica sets and clusters. Percona Backup is compatible with Percona Server MongoDB and MongoDB Community versions 3.6 or higher, with MongoDB replication enabled. Percona Backup is an alternative to MongoDB Enterprise and Ops Manager. You can use the easy command-line interface to perform consistent backup/restore of clusters or non-sharded replica set, and improve cluster backup consistency. This is a time-saving feature that can be used to implement MongoDB backups first.

IBM Analytics Engine offers a unique architecture for Hadoop clusters by separating the compute and storage components. Rather than relying on a fixed cluster with nodes that serve both purposes, this engine enables users to utilize an object storage layer, such as IBM Cloud Object Storage, and to dynamically create computing clusters as needed. This decoupling enhances the flexibility, scalability, and ease of maintenance of big data analytics platforms. Built on a stack that complies with ODPi and equipped with cutting-edge data science tools, it integrates seamlessly with the larger Apache Hadoop and Apache Spark ecosystems. Users can define clusters tailored to their specific application needs, selecting the suitable software package, version, and cluster size. They have the option to utilize the clusters for as long as necessary and terminate them immediately after job completion. Additionally, users can configure these clusters with third-party analytics libraries and packages, and leverage IBM Cloud services, including machine learning, to deploy their workloads effectively. This approach allows for a more responsive and efficient handling of data processing tasks.

Displaying only an RTF-Editor in a pop-up does not align with our vision of WYSIWYG; authors require precise control over aspects such as paragraph lengths, line breaks, table dimensions, and image sizes to produce visually appealing content. The system should utilize tags and server-side JavaScript, devoid of any Java within template code. OpenWGA Developer Studio enhances the software development journey by providing all essential tools for the creation, development, deployment, and sharing of OpenWGA web applications. With a suite of advanced technologies—including secure cluster architecture, JMX monitoring, SSO via SPNEGO, CMIS, and an integrated REST-API—OpenWGA Java CMS stands out as the ideal platform for executing business-critical enterprise applications. Additionally, the OpenWGA CMS cluster management framework facilitates not only secure inter-cluster communication and distributed task execution but also incorporates its own session replication system, optimizing resource management for better performance. This comprehensive approach ensures that developers can focus on delivering high-quality applications without the overhead of managing complex backend processes.

Picture the simplicity of sharing files as effortlessly as counting to three. Just select a file and send it to any device connected to your network at incredible speeds, without using mobile data and ensuring top-notch security. This is the most user-friendly application for managing disk images to date, featuring ad-free installation and updates. You’ll receive lifetime updates for up to three computers and enjoy priority support. Starting from just $5.99, you can mount various file types, including images, VHD drives, and ZIP archives. Create disk images in formats such as ISO, MDX, MDS, and APE, keeping all your preferred images easily accessible. DAEMON Tools Lite 10 can mount all recognized types of disk image files and can emulate up to four DT, SCSI, and HDD devices simultaneously. It also enables you to create images from your optical discs and conveniently access them via a well-structured catalog. Ideal for managing existing files and crafting new images from optical media, data files, and audio CDs, DAEMON Tools Lite 10 is an essential tool for safeguarding and enhancing your data management experience. With its intuitive interface and powerful capabilities, it opens up a world of possibilities for file organization and retrieval.

Manage and orchestrate applications seamlessly on a Kubernetes platform that is fully managed, utilizing a centralized SaaS approach for overseeing distributed applications through a unified interface and advanced observability features. Streamline operations by handling deployments uniformly across on-premises, cloud, and edge environments. Experience effortless management and scaling of applications across various Kubernetes clusters, whether at customer locations or within the F5 Distributed Cloud Regional Edge, all through a single Kubernetes-compatible API that simplifies multi-cluster oversight. You can deploy, deliver, and secure applications across different sites as if they were all part of one cohesive "virtual" location. Furthermore, ensure that distributed applications operate with consistent, production-grade Kubernetes, regardless of their deployment sites, which can range from private and public clouds to edge environments. Enhance security with a zero trust approach at the Kubernetes Gateway, extending ingress services backed by WAAP, service policy management, and comprehensive network and application firewall protections. This approach not only secures your applications but also fosters a more resilient and adaptable infrastructure.

Develop high-speed, data-centric applications that can dynamically adapt to performance needs regardless of scale. Leverage the distinctive technology of Apache Geode, which integrates sophisticated methods for data replication, partitioning, and distributed processing. With a database-like consistency model, Apache Geode guarantees dependable transaction handling and employs a shared-nothing architecture that supports remarkably low latency, even under high concurrency. The platform allows for seamless data partitioning (sharding) and replication across nodes, enabling performance to grow in accordance with demand. Reliability is bolstered by maintaining redundant in-memory copies along with disk-based persistence. Additionally, it features rapid write-ahead logging (WAL) persistence, optimized for quick parallel recovery of individual nodes or the entire cluster, ensuring robust performance even during failures. This combination of features not only enhances efficiency but also significantly improves overall system resilience.

You have the ability to deploy clusters as needed and automatically manage their scaling, allowing you to concentrate solely on processing, analyzing, and reporting big data. Leveraging years of experience in massively distributed computing, our operations team expertly handles the intricacies of cluster management. During peak demand, clusters can be automatically expanded to enhance computing power, while they can be contracted during quieter periods to minimize costs. A user-friendly management console is available to simplify tasks such as cluster oversight, template customization, task submissions, and monitoring of alerts. By integrating with the BCC, it enables businesses to focus on their core operations during busy times while assisting the BMR in processing big data during idle periods, ultimately leading to reduced overall IT costs. This seamless integration not only streamlines operations but also enhances efficiency across the board.

Hazelcast Jet offers enhanced application performance at scale, making it easier than ever to develop lightning-fast applications. Our platform provides access to a scalable, shared RAM pool across multiple computers in a cluster. As the industry's most thorough in-memory computing solution, it combines the fastest in-memory data grid with cutting-edge high-speed event processing, all accessible through the cloud. Hazelcast empowers you to create new data-enabled applications that can drive significant business impact, provided they meet the urgent demands of modern enterprises. With Hazelcast, you can utilize the shared RAM pool across a cluster to ensure your applications run at peak speed. The distributed architecture of Hazelcast guarantees redundancy, ensuring continuous cluster uptime and the availability of data for even the most resource-intensive applications. As capacity scales smoothly in response to demand, performance and availability remain uncompromised. Additionally, Hazelcast's in-memory solutions work alongside traditional databases, offering speeds that are exponentially greater. Ultimately, Hazelcast enables organizations to harness the full potential of real-time data processing, positioning them for success in a competitive landscape.

TKE seamlessly integrates with the full spectrum of Kubernetes features and has been optimized for Tencent Cloud's core IaaS offerings, including CVM and CBS. Moreover, Tencent Cloud's Kubernetes-driven products like CBS and CLB facilitate one-click deployments to container clusters for numerous open-source applications, significantly enhancing the efficiency of deployments. With the implementation of TKE, the complexities associated with managing large clusters and the operations of distributed applications are greatly reduced, eliminating the need for specialized cluster management tools or the intricate design of fault-tolerant cluster systems. You simply initiate TKE, outline the tasks you wish to execute, and TKE will handle all cluster management responsibilities, enabling you to concentrate on creating Dockerized applications. This streamlined process allows developers to maximize their productivity and innovate without being bogged down by infrastructure concerns.

Filebase is the first S3-compatible object storage platform that allows you to store data in a secure, redundant, and performant manner across multiple decentralized storage networks. Filebase acts as an easy on-ramp to IPFS and decentralized storage by offering a user-friendly web console dashboard, making drag-and-dropping files onto Web3 simple and easy. Filebase also provides an S3-compatible API for widespread integrations and configurations in current workflows. Filebase offers a geo-redundant IPFS pinning service that allows you to pin files to IPFS across multiple diverse geographic locations. All files uploaded to IPFS through Filebase are automatically pinned to the Filebase infrastructure with 3x replication across the globe. This ensures that your data is globally available and redundant at all times.

Gain access to the latest features, security updates, and enhancements for Elasticsearch through official subscriptions. You can quickly set up a fully functional cluster in a matter of minutes. The configurations for Elasticsearch and Kibana are automatically tailored to fit the size of the cluster you choose. Focus on your project while we handle cluster upkeep, software backups, monitoring, fault tolerance, and updates. With index sharding, you can lessen the burden on each server and easily scale your cluster to accommodate high traffic. Developing infrastructure becomes significantly easier when you can visualize system performance and behavior. Utilize a user-friendly interface to identify trends, make predictions, and assess the stability of your system. To build resilient, geo-distributed Elasticsearch and Kibana clusters, simply choose the desired number of hosts and determine the availability zones. After selecting the required computing power, you can swiftly create an operational Elasticsearch cluster that meets your needs. This streamlined process not only enhances productivity but also ensures your system remains robust and efficient.

Amazon EC2 UltraClusters allow for the scaling of thousands of GPUs or specialized machine learning accelerators like AWS Trainium, granting users immediate access to supercomputing-level performance. This service opens the door to supercomputing for developers involved in machine learning, generative AI, and high-performance computing, all through a straightforward pay-as-you-go pricing structure that eliminates the need for initial setup or ongoing maintenance expenses. Comprising thousands of accelerated EC2 instances placed within a specific AWS Availability Zone, UltraClusters utilize Elastic Fabric Adapter (EFA) networking within a petabit-scale nonblocking network. Such an architecture not only ensures high-performance networking but also facilitates access to Amazon FSx for Lustre, a fully managed shared storage solution based on a high-performance parallel file system that enables swift processing of large datasets with sub-millisecond latency. Furthermore, EC2 UltraClusters enhance scale-out capabilities for distributed machine learning training and tightly integrated HPC tasks, significantly decreasing training durations while maximizing efficiency. This transformative technology is paving the way for groundbreaking advancements in various computational fields.

Rocks is an open-source Linux distribution designed for building computational clusters, grid endpoints, and visualization tiled-display walls with ease for end users. Since its inception in May 2000, the Rocks team has worked to simplify the deployment and management of clusters, focusing on making them easy to deploy, manage, upgrade, and scale effectively. The most recent version, Rocks 7.0, also known as Manzanita, is exclusively a 64-bit release based on CentOS 7.4, incorporating all updates as of December 1, 2017. This distribution comes with a variety of tools, including the Message Passing Interface (MPI), which are essential for converting a collection of computers into a functional cluster. Users can customize their installations by incorporating additional software packages during the installation process using specially provided CDs. Moreover, recent security vulnerabilities known as Spectre and Meltdown impact nearly all hardware, and appropriate mitigations are implemented through operating system updates to enhance security. As a result, Rocks not only facilitates the creation of clusters but also ensures that they remain secure and up-to-date with the latest patches and enhancements.

Expanso operates jobs directly at the location of your data, harnessing local computing power while significantly reducing data transfer requirements. By employing a peer-to-peer network of nodes, we effectively decrease latency dependence and improve your data governance practices. You can fine-tune your data flows with remarkable precision. Through its container orchestration, Expanso facilitates distributed application deployments by utilizing this peer-to-peer architecture, which enhances redundancy and fault tolerance in your deployments. This distributed framework minimizes the chances of single points of failure, resulting in a more dependable system with enhanced reliability. Moreover, Expanso supports on-device computing, which can lead to notable cost reductions. By executing computations on edge devices, you can greatly lower data transmission and cloud infrastructure costs. This approach also reduces the frequency of data leaving your facilities, thereby decreasing the potential for regulatory challenges. In addition, this innovative method empowers businesses to maintain better control over their sensitive information.

ClusterVisor serves as an advanced system for managing HPC clusters, equipping users with a full suite of tools designed for deployment, provisioning, oversight, and maintenance throughout the cluster's entire life cycle. The system boasts versatile installation methods, including an appliance-based deployment that separates cluster management from the head node, thereby improving overall system reliability. Featuring LogVisor AI, it incorporates a smart log file analysis mechanism that leverages artificial intelligence to categorize logs based on their severity, which is essential for generating actionable alerts. Additionally, ClusterVisor streamlines node configuration and management through a collection of specialized tools, supports the management of user and group accounts, and includes customizable dashboards that visualize information across the cluster and facilitate comparisons between various nodes or devices. Furthermore, the platform ensures disaster recovery by maintaining system images for the reinstallation of nodes, offers an easy-to-use web-based tool for rack diagramming, and provides extensive statistics and monitoring capabilities, making it an invaluable asset for HPC cluster administrators. Overall, ClusterVisor stands as a comprehensive solution for those tasked with overseeing high-performance computing environments.