![]() ![]() The tricky part is not putting more than about 1,000 or so directories or objects in a directory. The FileSystemFileLocator implements FileLocator and would locate the file on the filesystem. On the server side you have an interface, such as FileLocator which takes a file id and a user. With either sockets or HTTP requests, the following will be the same on the server side. However, you could probably write a very efficient implementation in sockets. Even if you're using sockets, I would consider an HTTP based approach so you can roll the same service out to multiple types of clients and platforms. So the user POSTs a file and gets back a response that's usually a 201/204 with the URL of the new file. A user can upload a file and is returned a URL with the file's location. Having cracked this nut before, I would say start at the highest abstraction. It's possible to do but doing it well, especially where people may be uploading arbitrary sized files, is extremely difficult. If you 'roll your own' the thing you don't want to do is to store the bytes you upload into the database. ![]() Since I don't have a lot of specifics to work from, I'll give you things to think about and general suggestions. Azure Backup also integrates with your on-premises servers, so when you restore to the cloud, these changes are automatically downloaded on your Windows Servers.This is actually really common in Web applications. SMB Azure file shares have native snapshot capabilities, and the process can be automated using Azure Backup to schedule your backups and manage their retention. Reduce your on-premises backup spending by taking centralized backups in the cloud using Azure Backup. For even faster recovery, you can have a warm stand by server as part of your deployment, or you can use Azure File Sync with Windows Clustering. Azure File Sync downloads your file namespace before downloading data, so that your server can be up and running as soon as possible. Rather than restoring from a local backup, you provision another Windows Server, install the Azure File Sync agent on it, and then add it to your Azure File Sync deployment. Because Azure contains resilient copies of your data, your local server becomes a disposable caching device, and recovering from a failed server can be done by adding a new server to your Azure File Sync deployment. Business continuity and disaster recoveryĪzure File Sync is backed by Azure Files, which offers several redundancy options for highly available storage. Changes made to a server in one office automatically sync to the servers in all other offices. For each of your offices, you can provision a local Windows Server as part of your Azure File Sync deployment. Multi-site access and syncĪzure File Sync is ideal for distributed access scenarios. For more information about cloud tiering, see Cloud tiering overview. Tiered files can quickly be recalled on-demand, making the experience seamless while enabling you to cut down on costs as you only need to store a fraction of your data on-premises. You can control how much local disk space is used for caching. With cloud tiering enabled, your most frequently accessed files are cached on your local server and your least frequently accessed files are tiered to the cloud. Videos Introducing Azure File Syncīenefits of Azure File Sync Cloud tiering ![]() You can have as many caches as you need across the world. You can use any protocol that's available on Windows Server to access your data locally, including SMB, NFS, and FTPS. While some users may opt to keep a full copy of their data locally, Azure File Sync additionally has the ability to transform Windows Server into a quick cache of your Azure file share. ![]() Azure File Sync enables centralizing your organization's file shares in Azure Files, while keeping the flexibility, performance, and compatibility of a Windows file server. ![]()
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