User managed power system with security
View Patent ↗The present invention is related to user managed power systems with security. The invention encompasses a method and system of managing a power system wherein a data center user determines whether there is a desire to control remote power supply socket assigned to the user's data module. The data center user is able to sign into the remote power supply through a security protocol. Then the data center user can gain control over the remote power supply socket assigned to the user's data module. Finally, this allows the data center user to remotely control the power supply socket assigned to the user's data module.
1. A method of managing power to a remote device comprising:
connecting the remote device to an IP configurable power strip having multiple power sockets, the remote device receiving power through a specific one of the power sockets, the remote device and the IP configurable power strip each adapted to require authentication by a user;
connecting each of the IP configurable power strip and the remote device to a network, the IP configurable power strip having an IP address assigned thereto;
determining whether the user has been successfully authenticated on the remote device in accordance with a predefined security protocol, the IP configurable power strip configured to permit the user control of the specific one of the power sockets over the network without authentication by the user on the IP configurable power strip if the user has been successfully authenticated on the remote device;
accessing the IP configurable power strip over the network using the IP address assigned thereto; and
manipulating the power supplied to the remote device by controlling the specific one of the power sockets on the IP configurable power strip over the network.
2. The method of claim 1 , wherein the remote device is a server.
3. The method of claim 2 , wherein the server is a computer server or web hosting server.
4. The method of claim 1 , further wherein manipulating the power comprises turning off, on, and off then on the power supplied to the remote device.
5. The method of claim 1 , wherein the security protocol is Kerberos.
6. The method of claim 1 , wherein the security protocol is Active Desktop.
7. The method of claim 1 , wherein the security protocol is an external security protocol such as RADIUS.
8. The method of claim 1 , further comprising accessing the specific power socket assigned to the device.
9. The method of claim 8 , wherein manipulating the power comprises turning off, on, and off then on the power supplied to the device.
10. A user managed power system comprising:
an interface configured for data communication with a powered user device at a first location, the interface residing at a second location remote from the first location and connected to the powered user device at the first location;
a power distribution device at the first location having a plurality of power sockets and supplying power to the powered user device through a specific one of the power sockets, the power distribution device in data communication with the interface, the powered user device and the power distribution device each adapted to require authentication by a user; and
wherein, upon successful authentication of the user on the powered user device in accordance with a security protocol, a command entered at the interface causes manipulation of the power supplied to the powered user device through the specific one of the power sockets without authentication by the user on the power distribution device.
11. The user managed power system of claim 10 , wherein the user device is a server.
12. The user managed power system of claim 10 , wherein the security protocol is Kerberos.
13. The user managed power system of claim 10 , wherein the security protocol is Active Desktop.
14. The user managed power system of claim 10 , wherein the security protocol is an external security protocol, such as RADIUS.
15. A user managed power system comprising:
one or more AC power supplies configured to be connected to a powered user device at a first location, each AC power supply having multiple power sockets thereon, the one or more AC power supplies providing power to the powered user device through a specific power socket thereof, the powered user device and the one or more AC power supplies each requiring authentication by a user; and
a network interface residing in each AC power supply, the network interface configured to connect each AC power supply to an authentication server at a second location using a communications protocol, the authentication server configured to authenticate the user on the powered user device;
wherein each AC power supply is further configured to allow the power provided to the powered user device through the specific power socket thereof to be manipulated by the user without authentication by the user on the AC power supply upon successful authentication of the user on the powered user device.
16. The user managed power system of claim 15 , further comprising a mid-level manager connected to the one or more AC power supplies.
17. The user managed power system of claim 16 , wherein the one or more AC power supplies is adapted to be controlled remotely by a user through the mid-level manager.
18. The user managed power system of claim 17 wherein the user controls the one or more AC power supplies through a web based interface.
19. The user managed power system of claim 18 wherein the web based interface contains security protocols.
20. The user managed power system of claim 15 , wherein the one or more AC power supplies are power strips.