GUID partition table based hidden data store system
A GUID partition table (GPT) based Hidden Data Store (HDS) system includes first computing systems that include networked storage devices and that are coupled to a second computing system through a network. The second computing system include local storage devices that provide a GPT having a GPT entry that identifies local HDS elements that provides an HDS and that are included on the local storage devices, and networked HDS elements that provide the HDS and that are included on the networked storage devices. The second computing system also includes an HDS engine that receives the GPT entry and authorization credentials, determines that the authorization credentials allow access to the HDS and, in response, provides access to the local HDS elements that are included on the local storage devices, and provide access to the networked HDS elements that are included on the networked storage devices.
1. A Globally Unique Identifier (GUID) partition table (GPT) based Hidden Data Store (HDS) system, comprising:
a network;
at least one first computing system that is coupled to the network and that includes at least one networked storage device; and
a second computing system that is coupled to the network and that includes:
at least one local storage device including a Globally Unique Identifier (GUID) partition table (GPT) that includes a GPT entry that identifies: (1) at least one local Hidden Data Store (HDS) element that provides an HDS and that is included on the at least one local storage device, and (2) at least one networked HDS element that provides the HDS and that is included on the at least one networked storage device; and
an HDS engine that is configured to:
receive the GPT entry and authorization credentials; and
determine that the authorization credentials allow access to the HDS and, in response, provide access to the at least one local HDS element that is included on the at least one local storage device, and provide access to the at least one networked HDS element that is included on the at least one networked storage device.
2. The GPT based HDS system of claim 1 , wherein the second computing system includes:
a local HDS element database that associates the at least one local HDS element identified by the GPT entry with the at least one local storage device; and
a networked HDS element database that associates the at least one networked HDS element identified by the GPT entry with the at least one networked storage device.
3. The GPT based HDS system of claim 2 , wherein the second computing system includes:
a remote access controller that is configured to utilize the networked HDS element database to provide access to the at least one networked HDS element that is included on the at least one networked storage device.
4. The GPT based HDS system of claim 1 , wherein a copy of the GPT is provided on each at least one local storage device and each at least one networked storage device.
5. The GPT based HDS system of claim 1 , wherein the HDS engine is configured to:
receive a request to create a redundant storage for a primary storage subsystem and, in response, create the HDS including the at least one local HDS element that is included on the at least one local storage device, and the at least one networked HDS element that is included on the at least one networked storage device;
create and store the GPT entry in the GPT; and
periodically update the at least one local HDS element and the at least one networked HDS element with data provided on the primary storage subsystem.
6. The GPT based HDS system of claim 5 , wherein the HDS engine is configured to:
receive a request to access the data in the primary storage subsystem; and
determine that the primary storage subsystem is unavailable and, in response, automatically provide access to the data included in the at least one local HDS element and the at least one networked HDS element.
7. The GPT based HDS system of claim 1 , wherein the second computing system includes:
a remote access controller that is configured, when an operating system for the second computing system is unavailable, to:
receive the GPT entry and the authorization credentials;
determine that the authorization credentials allow access to the HDS and, in response, provide access to the at least one local HDS element that is included on the at least one local storage device, and provide access to the at least one networked HDS element that is included on the at least one networked storage device.
8. An Information Handling System (IHS), comprising:
a communication system;
at least one local storage device;
a processing system that is coupled to the communication system and the at least one storage device; and
a memory system that is coupled to the processing system and that includes instruction that, when executed by the processing system, cause the processing system to:
receive a GPT entry and authorization credentials;
determine that the authorization credentials allow access to a Hidden Data Store (HDS) and, in response, access a Globally Unique Identifier (GUID) partition table (GPT) that includes the GPT entry that identifies: (1) at least one local HDS element that provides the HDS and that is included on at least one local storage device included in the first computing system, and: (2) at least one networked HDS element that provides the HDS and that is included on at least one networked storage device that is coupled to the communication system; and
providing access to the at least one local HDS element that is included on the at least one local storage device, and providing access to the at least one networked HDS element that is included on the at least one networked storage device.
9. The IHS of claim 8 , further comprising:
a local HDS element database that associates the at least one local HDS element identified by the GPT entry with the at least one local storage device; and
a networked HDS element database that associates the at least one networked HDS element identified by the GPT entry with the at least one networked storage device.
10. The IHS of claim 9 , further comprising:
a remote access controller that is configured to utilize the networked HDS element database to provide access to the at least one networked HDS element that is included on the at least one networked storage device.
11. The IHS of claim 8 , wherein the memory system includes instruction that, when executed by the processing system, cause the processing system to:
receive a request to create a redundant storage for a primary storage subsystem and, in response, create the HDS including the at least one local HDS element that is included on the at least one local storage device, and the at least one networked HDS element that is included on the at least one networked storage device;
create and store the GPT entry in the GPT; and
periodically update the at least one local HDS element and the at least one networked HDS element with data provided on the primary storage subsystem.
12. The IHS of claim 11 , wherein the memory system includes instruction that, when executed by the processing system, cause the processing system to:
receive a request to access the data in the primary storage subsystem; and
determine that the primary storage subsystem is unavailable and, in response, automatically provide access to the data included in the at least one local HDS element and the at least one networked HDS element.
13. The IHS of claim 12 , wherein the memory system includes instruction that, when executed by the processing system, cause the processing system to provide an operating system, and wherein the IHS further comprises:
a remote access controller that is configured, when the operating system is unavailable, to:
receive the GPT entry and the authorization credentials;
determine that the authorization credentials allow access to the HDS and, in response, provide access to the at least one local HDS element that is included on the at least one local storage device, and provide access to the at least one networked HDS element that is included on the at least one networked storage device.
14. A method for providing a hidden data store, comprising:
receiving, by a computing system, a GPT entry and authorization credentials; and
determining, by the computing system, that the authorization credentials allow access to a Hidden Data Store (HDS) and, in response, accessing a Globally Unique Identifier (GUID) partition table (GPT) that includes the GPT entry that identifies: (1) at least one local HDS element that provides the HDS and that is included on at least one local storage device included in the first computing system, and (2) at least one networked HDS element that provides the HDS and that is included on at least one networked storage device that is coupled to the computing system through a network; and
providing, by the computing system, access to the at least one local HDS element that is included on the at least one local storage device, and providing access to the at least one networked HDS element that is included on the at least one networked storage device.
15. The method of claim 14 , further comprising:
utilizing, by an HDS engine in the computing system, a local HDS element database that associates the at least one HDS element identified by the GPT entry with the at least one local storage device.
16. The method of claim 14 , further comprising:
utilizing, by a remote access controller in the computing system, a networked HDS element database that associates the at least one networked HDS element identified by the GPT entry with the at least one networked storage device.
17. The method of claim 14 , wherein a copy of the GPT is provided on each at least one local storage device and each at least one networked storage device.
18. The method of claim 14 , further comprising:
receiving, by the computing system, a request to create a redundant storage for a primary storage subsystem and, in response, creating the HDS including the at least one local HDS element that is included on the at least one local storage device, and the at least one networked HDS element that is included on the at least one networked storage device;
creating and storing, by the computing system, the GPT entry in the GPT; and
periodically updating, by the computing system, the at least one local HDS element and the at least one networked HDS element with data provided on the primary storage subsystem.
19. The method of claim 18 , further comprising:
receiving, by the computing system, a request to access the data in the primary storage subsystem; and
determining, by the computing system, that the primary storage subsystem is unavailable and, in response, automatically providing access to the data included in the at least one local HDS element and the at least one networked HDS element.
20. The method of claim 14 , further comprising:
receiving, by a remote access controller in the computing system while an operating system for the computing system is unavailable, the GPT entry and the authorization credentials;
determining, by the remote access controller in the computing system while the operating system for the computing system is unavailable, that the authorization credentials allow access to the HDS and, in response, providing access to the at least one local HDS element that is included on the at least one local storage device, and provide access to the at least one networked HDS element that is included on the at least one networked storage device.