Bus structure for power system
Abstract
A power system plant includes a backplane arrangement including a primary and secondary bus to which intermediate power processing modules are selectively connected to the input and output power control and monitors of the plant. The backplane connections are controlled by the plug-in power processing modules. , the resulting connections are unique to the type of plug-in module placeed placed on an input shelf (i.e. rectifier or converter plug-in module) and determine how the plant is to operated. The connections of these plug-in modules to the backplane connector are such that the plug-in module is designed to have its connectors connect to either primary or secondary referenced control signals. The connectors of the backplane accept both type of plug-in modules so that any plug-in module inserted is automatically connected to respond to the appropriate primary or secondary referenced control signals.
Claims
exact text as granted — not AI-modifiedWe claim:
1. A power plant system, comprising:
a shelf including a backplane, the backplane having a pin receptacle connector, the pin receptacle connector having primary and secondary buses connected thereto;
a source of primary referenced control signals connected to the primary bus and a source of secondary referenced control signals connected to the secondary bus;
the pin receptacle connector also providing one or more modular plug-in locations, the shelf further disposed to receive plug-in power processing modules, each of said modules, when received, disposed to plug in to one of said plug-in locations;
each of said plug-in locations disposed to connect a module received therein to the primary and secondary buses in a first pinout arrangement if said received module is a rectifier; and
each of said plug-in locations further disposed to connect a module received therein to the primary and secondary buses in a second pinout arrangement if said received module is a converter.
2. The power plant system of claim 1 , further comprising a monitor and control unit, said unit monitoring and controlling the source of primary referenced control signals and the source of secondary referenced control signals.
3. The power plant system of claim 2 , further comprising a source of alarm referenced control signals, the source of alarm referenced control signals feeding, responsive to the monitor and control unit, the source of primary referenced control signals and the source of secondary referenced control signals.
4. The power plant system of claim 1 , further comprising a source of alarm referenced control signals, the source of alarm referenced control signals feeding the source of primary referenced control signals and the source of secondary referenced control signals.
5. A method of distributing power control signals comprising the steps of:
providing one or more modular connectors to which power processing modules of differing types may be connected, each modular connector predesigned so as to present a first connector configuration when the power processing module connected thereto is of a first type, each modular connector further predesigned so as to present a second connector configuration when the power processing module connected thereto is of a second type;
feeding a primary bus with a supply of primary referenced signals and a secondary bus with a supply of secondary reference signals;
connecting the primary bus and the secondary bus to the modular connectors, the first connector configuration permitting power processing modules of the first type to interface with primary referenced signals and secondary referenced signals according to a first mode, the second connector configuration permitting power processing modules of the second type to interface with primary referenced signals and secondary referenced signals according to a second mode.
6. The method of claim 5 , in which power processing modules of the first type are rectifiers.
7. The method of claim 5 , in which power processing modules of the first type are converters.
8. The method of claim 5 , in which power processing modules of the first type are rectifiers and power processing modules of the second type are converters.
9. The method of claim 5 , further comprising the step of:
monitoring and controlling the supply of primary referenced control signals and the supply of secondary referenced control signals.
10. The method of claim 9 , further comprising the step of:
responsive to said monitoring and controlling step, feeding alarm referenced control signals to the supply of primary referenced control signals and the supply of secondary referenced control signals.
11. The method of claim 5 , further comprising the step of:
feeding alarm referenced control signals to the supply of primary referenced control signals and the supply of secondary referenced control signals.
12. A plug- in converter module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, comprising:
a chassis:
power processing circuitry located within the chassis: and
an interface, coupled to the power processing circuitry and arranged in a plug - in connection pattern that is a function of an identity of the module, that is adapted to carry signals, including:
primary referenced control signals including primary bus power output connection signals, and
secondary referenced control signals, including:
current share signals for secondary power processing modules coupled to the secondary bus,
current monitor signals,
control signals for the secondary power processing modules, and
secondary bus output voltage connection signals.
13. The module of claim 12 , wherein the interface is further adapted to carry alarm return referenced control signals, including:
fail alarm lead signals,
ON/standby control signals,
alarm return lead signals, and
lamp test control signals.
14. The module of claim 12 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
15. The module of claim 12 , wherein the interface couples the module to a source of alarm referenced signals.
16. The module of claim 12 , wherein the interface includes an AC input connector that couples the module to a source of input AC power.
17. For use with a plug- in converter module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, the module including a chassis and power processing circuitry located therein, an interface, coupled to the power processing circuitry and arranged in a plug - in connection pattern that is a function of an identity of the module, that is adapted to carry signals, comprising:
primary referenced control signals including primary bus power output connection signals, and
secondary referenced control signals, including:
current share signals for secondary power processing modules coupled to the secondary bus,
current monitor signals,
control signals for the secondary power processing modules, and
secondary bus output voltage connection signals.
18. The interface of claim 17 , wherein the interface is further adapted to carry alarm return referenced control signals, including:
fail alarm lead signals,
ON/standby control signals,
alarm return lead signals, and
lamp test control signals.
19. The interface of claim 17 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
20. The interface of claim 17 , wherein the interface couples the module to a source of alarm referenced signals.
21. The interface of claim 17 , wherein the interface includes an AC input connector that couples the module to a source of input AC power.
22. A method of operating a plug- in power converter module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, comprising:
locating power processing circuitry within a chassis;
providing an interface arranged in a plug - in connection pattern that is a function of an identity of the module on an exterior wall of the chassis and coupled to the power processing circuitry; and
carrying, over the interface, signals, including:
primary referenced control signals including primary bus power output connection signals, and
secondary referenced control signals, including:
current share signals for secondary power processing modules coupled to the secondary bus,
current monitor signals,
control signals for the secondary power processing modules, and
secondary bus output voltage connection signals.
23. The method of claim 22 , further comprising carrying, over the interface, alarm return referenced control signals, including:
fail alarm lead signals,
ON/standby control signals,
alarm return lead signals, and
lamp test control signals.
24. The method of claim 22 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
25. The method of claim 22 , wherein the interface couples the module to a source of alarm referenced signals.
26. The method of claim 22 , wherein the act of coupling comprises coupling an AC input connector to the power processing circuitry to allow the module to be coupled to a source of input AC power.
27. A plug- in rectifier module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, comprising:
a chassis:
power processing circuitry located within the chassis; and
an interface, coupled to the power processing circuitry and arranged in a plug - in connection pattern that is a function of an identity of the module, that is adapted to carry signals, including:
primary referenced control signals, including:
primary bus power output connection signals,
remote sense lead signals for primary power processing modules coupled to the primary bus,
current monitor output signals for the primary power processing modules,
voltage control lead signals for the primary power processing modules, and
current share control lead signals for the primary power processing modules, and
secondary referenced control signals including current share signals for secondary power processing modules coupled to the secondary bus and secondary bus output voltage connection signals.
28. The module of claim 27 , wherein the interface is further adapted to carry alarm return referenced control signals, including:
fail alarm lead signals,
alarm return lead signals,
ON/standby control signals,
lamp test control signals, and
AC fail detection signals.
29. The module of claim 27 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
30. The module of claim 27 , wherein the interface couples the module to a source of alarm referenced signals.
31. The module of claim 27 , wherein the interface includes an AC input connector that couples the module to a source of input AC power.
32. For use with a plug- in rectifier module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, the module including a chassis and power processing circuitry located therein, an interface, coupled to the power processing circuitry and arranged in a plug - in connection pattern that is a function of an identity of the module, that is adapted to carry signals, comprising:
primary referenced control signals, including:
primary bus power output connection signals
remote sense lead signals for primary power processing modules coupled to the primary bus,
current monitor output signals for the primary power processing modules,
voltage control lead signals for the primary power processing modules, and
current share control lead signals for the primary power processing modules, and secondary referenced control signals including current share signals for secondary power processing modules coupled to the secondary bus and secondary bus output voltage connection signals.
33. The interface of claim 32 , wherein the interface is further adapted to carry alarm return referenced control signals, including:
fail alarm lead signals,
alarm return lead signals,
ON/standby control signals,
lamp test control signals, and
AC fail detection signals.
34. The interface of claim 32 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
35. The interface of claim 32 , wherein the interface couples the module to a source of alarm referenced signals.
36. The interface of claim 32 , wherein the interface includes an AC input connector that couples the module to a source of input AC power.
37. A method of operating a plug- in power rectifier module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, comprising:
locating power processing circuitry within a chassis;
providing an interface arranged in a plug - in connection pattern that is a function of an identity of the module on an exterior wall of the chassis and coupled to the power processing circuitry; and
carrying, over the interface, signals, including:
primary referenced control signals, including:
primary bus power output connection signals,
remote sense lead signals for primary power processing modules coupled to the primary bus,
current monitor output signals for the primary power processing modules,
voltage control lead signals for the primary power processing modules, and
current share control lead signals for the primary power processing modules, and
secondary referenced control signals including current share signals for secondary power processing modules coupled to the secondary bus and secondary bus output voltage connection signals.
38. The method of claim 37 , further comprising carrying, over the interface, alarm return referenced control signals including:
fail alarm lead signals,
alarm return lead signals,
ON/standby control signals,
lamp test control signals, and
AC fail detection signals.
39. The method of claim 37 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
40. The method of claim 37 , wherein the interface couples the module to a source of alarm referenced signals.
41. The method of claim 37 , wherein the act of coupling comprises coupling an AC input connector to the power processing circuitry to allow the module to be coupled to a source of input AC power.
42. A plug- in ringer module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, comprising:
a chassis;
power processing circuitry located within the chassis; and
an interface, coupled to the power processing circuitry and arranged in a plug - in connection pattern that is a function of an identity of the module, that is adapted to carry signals, including:
primary referenced control signals including primary bus power output connection signals, and
secondary referenced control signals, including:
current share signals for secondary power processing modules coupled to the secondary bus,
control interconnection signals for the secondary power processing modules,
control signals for the secondary power processing modules, and
secondary bus output voltage connection signals.
43. The module of claim 42 , wherein the interface is further adapted to carry alarm return referenced control signals including alarm return lead signals and lamp test control signals.
44. The module of claim 42 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
45. The module of claim 42 , wherein the interface couples the module to a source of alarm referenced signals.
46. The module of claim 42 , wherein the interface includes an AC input connector that couples the module to a source of input AC power.
47. For use with a plug- in ringer module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, the module including a chassis and power processing circuitry located therein, an interface, coupled to the power processing circuitry and arranged in a plug - in connection pattern that is a function of an identity of the module, that is adapted to carry signals, comprising:
primary referenced control signals including primary bus power output connection signals, and
secondary referenced control signals, including:
current share signals for secondary power processing modules coupled to the secondary bus,
control interconnection signals for the secondary power processing modules,
control signals for the secondary power processing modules, and
secondary bus output voltage connection signals.
48. The interface of claim 47 , wherein the interface is further adapted to carry alarm return referenced control signals including alarm return lead signals and lamp test control signals.
49. The interface of claim 47 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
50. The interface of claim 47 , wherein the interface couples the module to a source of alarm referenced signals.
51. The interface of claim 47 , wherein the interface includes an AC input connector that couples the module to a source of input AC power.
52. A method of operating a plug- in power ringer module for a power plant system having a plurality of power processing modules coupled to a backplane with primary and secondary buses, comprising:
locating power processing circuitry within a chassis;
providing an interface arranged in a plug - in connection pattern that is a function of an identity of the module on an exterior wall of the chassis and coupled to the power processing circuitry; and
carrying, over the interface, signals, including:
primary referenced control signals including primary bus power output connection signals, and
secondary referenced control signals, including:
current share signals for secondary power processing modules coupled to the secondary bus,
control interconnection signals for the secondary power processing modules,
control signals for the secondary power processing modules, and
secondary bus output voltage connection signals.
53. The method of claim 52 , further comprising carrying, over the interface, alarm return referenced control signals including alarm return lead signals and lamp test control signals.
54. The method of claim 52 , wherein the interface couples the module to sources of the primary and secondary referenced control signals.
55. The method of claim 52 , wherein the interface couples the module to a source of alarm referenced signals.
56. The method of claim 52 , wherein the act of coupling comprises coupling an AC input connector to the power processing circuitry to allow the module to be coupled to a source of input AC power.Join the waitlist — get patent alerts
Track USRE37182E — get alerts on status changes and closely related new filings.
We store only your email — no account needed. See our privacy policy.