Abstract: This disclosure describes techniques for network file sharing. In one example, this disclosure describes systems and techniques for enabling network file sharing by processing server message block protocol messages. In one example, the systems and techniques for processing server message block protocol messages include transport layer processing of server message block protocol messages.

Abstract: A device configured to enable multi-room streaming is described. The device may be configured to enable multi-room streaming at diverse destination devices. The device may be configured to receive a user selection of a media item for playback at a plurality of diverse destination devices using a unified graphical user interface. The device may be configured to transmit respective commands such that the media item is paused at a start position without audible playback occurring at each of the destination devices.

Abstract: Techniques for enabling fail-safe operations of storage devices are described. A device may be configured to delete an inode in a failsafe manner. A device may be configured to mark directory entries as not in use and ensure this goes to disk before anything else. A device may be configured to create an inode in a failsafe manner. A device may be configured to allocate and initialize a cluster and ensure this is written to disk before anything else. In this manner, a volume may be in a predictable state upon a failure occurring.

Abstract: This disclosure describes techniques for storing large files to file system volumes. In some examples, this disclosure describes techniques for storing files larger than a maximum file size allowed for File Allocation Table (FAT) file systems to a volume formatted according to a FAT file system. In this manner, the techniques described here may support larger file sizes while being backwards compatible.

Abstract: Techniques for enabling fail-safe operations of storage devices are described. A device may be configured to deallocate one or more clusters assigned to an inode by writing an end of chain terminator value into a new last cluster of a file allocation table entry. In one example, a device may update an allocation bitmap subsequent to writing an end of chain terminator value into a new last cluster of a file allocation table entry. In one example, a device may mark remain clusters as free subsequent to writing an end of chain terminator value into a new last cluster of a file allocation table entry. A device may be configured to allocate clusters to an inode by writing file access table entries for newly allocated clusters.

Abstract: This disclosure describes techniques for storing large files to file system volumes. In some examples, this disclosure describes techniques for storing files larger than a maximum file size allowed for File Allocation Table (FAT) file systems to a volume formatted according to a FAT file system. This disclosure describes techniques for handling calls associated with large files. In this manner, the techniques described here may support larger file sizes while being backwards compatible.

Abstract: This disclosure describes techniques performing data object renaming operations. This disclosure describes techniques for performing data object renaming operations in a manner that may reduce file system corruption and data loss. The techniques described herein may include selectively journaling particular types of renaming operations. Selectively journaling particular types of renaming operations may mitigate potential data loss and file system corruption.

Abstract: Techniques for enabling fail-safe operations of storage devices are described. A device may be configured to delete an inode in a failsafe manner. A device may be configured to mark directory entries as not in use and ensure this goes to disk before anything else. A device may be configured to create an inode in a failsafe manner. A device may be configured to allocate and initialize a cluster and ensure this is written to disk before anything else. In this manner, a volume may be in a predictable state upon a failure occurring.

Abstract: A device may be configured to perform techniques that efficiently write back data to a storage device. A file system driver may be configured to delay write backs. A file system driver may be configured to extend a range of pages that are written back to a storage device.

Abstract: This disclosure describes techniques for network file sharing. In one example, this disclosure describes systems and techniques for enabling network file sharing by processing server message block protocol messages. In one example, the systems and techniques for processing server message block protocol messages include transport layer processing of server message block protocol messages.

Abstract: A device may be configured to perform techniques that enable may be used to allocate allocation units within a file system volume to data objects in a parallel manner. A file system driver may be configured to perform allocation operations based on an allocation mapping structure being logically partitioned into one or more of windows. Each window may be able to be lock independently during allocation operations. Window metadata may be used to evaluate windows of an allocation mapping structure.

Abstract: Techniques for enabling fail-safe operations of storage devices are described. A device may be configured to delete an inode in a failsafe manner. A device may be configured to mark directory entries as not in use and ensure this goes to disk before anything else. A device may be configured to create an inode in a failsafe manner. A device may be configured to allocate and initialize a cluster and ensure this is written to disk before anything else. In this manner, a volume may be in a predictable state upon a failure occurring.

Abstract: Techniques for recovering lost clusters are described herein. In particular, this disclosure describes techniques for generating an allocation bitmap. The allocation bitmap may be used to recover lost clusters on a mounted volume.

Abstract: This disclosure describes techniques for storing large files to file system volumes. In some examples, this disclosure describes techniques for storing files larger than a maximum file size allowed for File Allocation Table (FAT) file systems to a volume formatted according to a FAT file system. This disclosure describes techniques for handling calls associated with large files. In this manner, the techniques described here may support larger file sizes while being backwards compatible.

Abstract: This disclosure describes techniques for storing large files to file system volumes. In some examples, this disclosure describes techniques for storing files larger than a maximum file size allowed for File Allocation Table (FAT) file systems to a volume formatted according to a FAT file system. In this manner, the techniques described here may support larger file sizes while being backwards compatible.

Abstract: A device may be configured to perform techniques that efficiently write back data to a storage device. A file system driver may be configured to delay write backs. A file system driver may be configured to extend a range of pages that are written back to a storage device.

Abstract: This disclosure describes techniques performing data object renaming operations. This disclosure describes techniques for performing data object renaming operations in a manner that may reduce file system corruption and data loss. The techniques described herein may include selectively journaling particular types of renaming operations. Selectively journaling particular types of renaming operations may mitigate potential data loss and file system corruption.

Abstract: To increase the efficiency of a running application, it is determined whether using a cache or directly a storage is more efficient block size-specifically; and the determined memory type is used for a data stream having a corresponding block size.

Abstract: To increase the efficiency of a running application, it is determined whether using a cache or directly a storage is more efficient block size-specifically; and the determined memory type is used for a data stream having a corresponding block size.