Abstract: Files can be located using a durable and universal file identifier. A content URI includes a file protocol URI specifying a path to a file. The file protocol URI includes a query string specifying properties of the file that can be utilized to locate the file, such as an object ID property specifying a GUID for the file and a volume ID property specifying a GUID for a storage volume storing the file. The content URI can be utilized to locate the file using the file protocol URI and its associated query string even if the file has been moved, renamed, or is accessed on a different computing device. Operations can then be performed using the file, such as resuming a previously performed activity that used the file.

Abstract: Files can be located using a durable and universal file identifier. A content URI includes a file protocol URI specifying a path to a file. The file protocol URI includes a query string specifying properties of the file that can be utilized to locate the file, such as an object ID property specifying a GUID for the file and a volume ID property specifying a GUID for a storage volume storing the file. The content URI can be utilized to locate the file using the file protocol URI and its associated query string even if the file has been moved, renamed, or is accessed on a different computing device. Operations can then be performed using the file, such as resuming a previously performed activity that used the file.

Abstract: Files can be located using a durable and universal file identifier. A content URI includes a file protocol URI specifying a path to a file. The file protocol URI includes a query string specifying properties of the file that can be utilized to locate the file, such as an object ID property specifying a GUID for the file and a volume ID property specifying a GUID for a storage volume storing the file. The content URI can be utilized to locate the file using the file protocol URI and its associated query string even if the file has been moved, renamed, or is accessed on a different computing device. Operations can then be performed using the file, such as resuming a previously performed activity that used the file.

Abstract: Files can be located using a durable and universal file identifier. A content URI includes a file protocol URI specifying a path to a file. The file protocol URI includes a query string specifying properties of the file that can be utilized to locate the file, such as an object ID property specifying a GUID for the file and a volume ID property specifying a GUID for a storage volume storing the file. The content URI can be utilized to locate the file using the file protocol URI and its associated query string even if the file has been moved, renamed, or is accessed on a different computing device. Operations can then be performed using the file, such as resuming a previously performed activity that used the file.

Abstract: Determination logic for a cloud content states framework is described herein. In implementations, a framework is configured to perform operations for management of cloud content files at the computing device on behalf of cloud storage providers. Determination logic for the framework is utilized to make state determinations in dependence upon a defined set of file sync properties. The framework operates to make assessments of the file sync properties and set states for files in accordance with the assessments. In implementations, file sync properties are related to corresponding states through a mapping data structure that maps file sync property values to different states and enables look-ups of states based on property values. The framework utilizes and references the mapping data structure to match file sync properties identified for cloud content files to corresponding states and then set states for the cloud content files accordingly.

Abstract: A contextual file manager is described herein. Contextual information regarding files and folders of a file system of an operating system is collected. The contextual information may be collected from a variety of different sources, such as contents of the file or folder, an application associated with the file, a service provider, or a cloud storage service. The contextual information is then exposed in a file system interface of the operating system along with representations of the files and folders. In some cases, the contextual information is exposed in response to detection of an intuitive user action to a representation of one of the files or folders via the file system interface.

Abstract: Files can be located using a durable and universal file identifier. A content URI includes a file protocol URI specifying a path to a file. The file protocol URI includes a query string specifying properties of the file that can be utilized to locate the file, such as an object ID property specifying a GUID for the file and a volume ID property specifying a GUID for a storage volume storing the file. The content URI can be utilized to locate the file using the file protocol URI and its associated query string even if the file has been moved, renamed, or is accessed on a different computing device. Operations can then be performed using the file, such as resuming a previously performed activity that used the file.

Abstract: A contextual file manager is described herein. Contextual information regarding files and folders of a file system of an operating system is collected. The contextual information may be collected from a variety of different sources, such as contents of the file or folder, an application associated with the file, a service provider, or a cloud storage service. The contextual information is then exposed in a file system interface of the operating system along with representations of the files and folders. In some cases, the contextual information is exposed in response to detection of an intuitive user action to a representation of one of the files or folders via the file system interface.

Abstract: Determination logic for a cloud content states framework is described herein. In implementations, a framework is configured to perform operations for management of cloud content files at the computing device on behalf of cloud storage providers. Determination logic for the framework is utilized to make state determinations in dependence upon a defined set of file sync properties. The framework operates to make assessments of the file sync properties and set states for files in accordance with the assessments. In implementations, file sync properties are related to corresponding states through a mapping data structure that maps file sync property values to different states and enables look-ups of states based on property values. The framework utilizes and references the mapping data structure to match file sync properties identified for cloud content files to corresponding states and then set states for the cloud content files accordingly.

Abstract: Populating a contact entry with selected entity information based on an identifier associated with a call (e.g., a telephone call, VoIP call, text message, electronic mail message, or any other communication). As the call is detected, entity information for the identifier (e.g., a telephone number, VoIP address, MAC address, etc.) is generated. The entity information is filtered based on a category of the entity information, user preferences, location of a computing device (e.g., mobile telephone) of the user, or other filtering criteria. The filtered entity information is associated with the contact entry for the identifier, thereby enhancing the contact entry while reducing typing on the computing device. In some embodiments, additional information such as advertisements for a competitor of the entity are provided to the user.

Abstract: Populating a contact entry with selected entity information based on an identifier associated with a call (e.g., a telephone call, VoIP call, text message, electronic mail message, or any other communication). As the call is detected, entity information for the identifier (e.g., a telephone number, VoIP address, MAC address, etc.) is generated. The entity information is filtered based on a category of the entity information, user preferences, location of a computing device (e.g., mobile telephone) of the user, or other filtering criteria. The filtered entity information is associated with the contact entry for the identifier, thereby enhancing the contact entry while reducing typing on the computing device. In some embodiments, additional information such as advertisements for a competitor of the entity are provided to the user.

Abstract: Populating a contact entry with selected entity information based on an identifier associated with a call (e.g., a telephone call, VoIP call, text message, electronic mail message, or any other communication). As the call is detected, entity information for the identifier (e.g., a telephone number, VoIP address, MAC address, etc.) is generated. The entity information is filtered based on a category of the entity information, user preferences, location of a computing device (e.g., mobile telephone) of the user, or other filtering criteria. The filtered entity information is associated with the contact entry for the identifier, thereby enhancing the contact entry while reducing typing on the computing device. In some embodiments, additional information such as advertisements for a competitor of the entity are provided to the user.

Abstract: Populating a contact entry with selected entity information based on an identifier associated with a call (e.g., a telephone call, VoIP call, text message, electronic mail message, or any other communication). As the call is detected, entity information for the identifier (e.g., a telephone number, VoIP address, MAC address, etc.) is generated. The entity information is filtered based on a category of the entity information, user preferences, location of a computing device (e.g., mobile telephone) of the user, or other filtering criteria. The filtered entity information is associated with the contact entry for the identifier, thereby enhancing the contact entry while reducing typing on the computing device. In some embodiments, additional information such as advertisements for a competitor of the entity are provided to the user.

Abstract: A method for denial of service attack deterrence involves receiving requests from clients, where the requests include a server protocol component, designating a client as a malicious client based on the requests, intercepting and inspecting, prior to the clients receiving a response, the server protocol component of each response to the clients, and rewriting at least a portion of the server protocol component of each response destined for the malicious client.

Abstract: A method for congestion recovery during a denial of service attack involves creating a split horizon zone on a server, where the split horizon zone includes a fictitious zone mapped to a fictitious address, receiving and investigating requests from clients, designating a malicious client based on investigating the requests, where the malicious client is associated with a client address, assigning the client address to the fictitious zone, and routing network traffic from the malicious client to the fictitious address.

Abstract: Populating a contact entry with selected entity information based on an identifier associated with a call (e.g., a telephone call, VoIP call, text message, electronic mail message, or any other communication). As the call is detected, entity information for the identifier (e.g., a telephone number, VoIP address, MAC address, etc.) is generated. The entity information is filtered based on a category of the entity information, user preferences, location of a computing device (e.g., mobile telephone) of the user, or other filtering criteria. The filtered entity information is associated with the contact entry for the identifier, thereby enhancing the contact entry while reducing typing on the computing device. In some embodiments, additional information such as advertisements for a competitor of the entity are provided to the user.

Abstract: A method for congestion recovery during a denial of service attack involves creating a split horizon zone on a server, where the split horizon zone includes a fictitious zone mapped to a fictitious address, receiving and investigating requests from clients, designating a malicious client based on investigating the requests, where the malicious client is associated with a client address, assigning the client address to the fictitious zone, and routing network traffic from the malicious client to the fictitious address.

Abstract: A method for denial of service attack deterrence involves receiving requests from clients, where the requests include a server protocol component, designating a client as a malicious client based on the requests, intercepting and inspecting, prior to the clients receiving a response, the server protocol component of each response to the clients, and rewriting at least a portion of the server protocol component of each response destined for the malicious client.