Distributed architecture for food and beverage dispensers

• US 20050061837A1
• Filed: 05/26/2004
• Published: 03/24/2005
• Est. Priority Date: 05/30/2003
• Status: Abandoned Application

• Current Assignee: Lancer Partnership Limited (Hoshizaki Corporation)
• Original Assignee: Lancer Partnership Limited (Hoshizaki Corporation)
• Inventors: Chadwell, Thomas J., Sudolcan, David S.
• Application Number:
  US10/854,749
• Publication Number:
  US 20050061837A1
• Time in Patent Office: Days
• US Class Current: 222/641
• CPC Class Codes: G07F 13/06 with selective dispensing of different fluids or materials or mixtures thereof

Abstract

A method and apparatus wherein traditional design methodologies directed toward obtaining minimized component costs are largely set aside in favor of mass customization, reduced design and ownership costs, and shorter design cycles. The distributed architecture contemplates widespread distribution of monitoring and control functions for most device-specific hardware under the direction of a CPU module. In implementation of the distributed architecture, various component modules are placed in communication with the CPU module through at least one and preferably multiple communication busses.

Claims

1. A distributed architecture for a food/beverage dispenser, comprising:

a CPU module that monitors and/or controls operations for the food/beverage dispenser; and

a first component module coupled with the CPU module wherein the first component module monitors and/or controls a first operation of the food/beverage dispenser responsive to instructions received from the CPU module.

2. The distributed architecture for a food/beverage dispenser according to claim 1, further comprising a communications interface that interfaces the CPU module with the first component module.

3. The distributed architecture for a food/beverage dispenser according to claim 2, further comprising a first bus that connects the CPU module with the first component module.

4. The distributed architecture for a food/beverage dispenser according to claim 3, further comprising a second component module connected with the CPU module, wherein the second component module controls a first operation of the food/beverage dispenser responsive to instructions received from the CPU module.

5. The distributed architecture for a food/beverage dispenser according to claim 4, wherein the second component module connects with the CPU module through a bus connection to the first component module.

6. The distributed architecture for a food/beverage dispenser according to claim 5, wherein:

the first component module comprises a microcontroller that executes the first operation of the food/beverage dispenser responsive to instructions received from the CPU module; and

the second component module comprises a microcontroller that executes the first operation of the food/beverage dispenser responsive to instructions received from the CPU module.

7. The distributed architecture for a food/beverage dispenser according to claim 6, wherein:

the first component module further comprises a bus interface that controls access to the first bus for the microcontroller of the first component module; and

the second component module further comprises a bus interface that controls access to the first bus for the microcontroller of the second component module.

8. The distributed architecture for a food/beverage dispenser according to claim 3, further comprising a second component module connected with the CPU module, wherein the second component module controls a second operation of the food/beverage dispenser responsive to instructions received from the CPU module.

9. The distributed architecture for a food/beverage dispenser according to claim 8, wherein the second component module connects with the CPU module through a bus connection to the first component module.

10. The distributed architecture for a food/beverage dispenser according to claim 9, wherein:

the first component module comprises a microcontroller that executes the first operation of the food/beverage dispenser responsive to instructions received from the CPU module; and

the second component module comprises a microcontroller that executes the second operation of the food/beverage dispenser responsive to instructions received from the CPU module.

11. The distributed architecture for a food/beverage dispenser according to claim 10, wherein:

the first component module further comprises a bus interface that controls access to the first bus for the microcontroller of the first component module; and

the second component module further comprises a bus interface that controls access to the first bus for the microcontroller of the second component module.

12. The distributed architecture for a food/beverage dispenser according to claim 2, further comprising a second component module coupled with the CPU module wherein the second component module controls a second operation of the food/beverage dispenser responsive to instructions received from the CPU module.

13. The distributed architecture for a food/beverage dispenser according to claim 12, wherein the communications interface interfaces the CPU module with the second component module.

14. The distributed architecture for a food/beverage dispenser according to claim 13, further comprising a second bus that connects the CPU module with the second component module.

15. The distributed architecture for a food/beverage dispenser according to claim 14, further comprising a third component module connected with the CPU module, wherein the third component module controls a second operation of the food/beverage dispenser responsive to instructions received from the CPU module.

16. The distributed architecture for a food/beverage dispenser according to claim 15, wherein the third component module connects with the CPU module through a bus connection to the second component module.

17. The distributed architecture for a food/beverage dispenser according to claim 16, wherein:

the first component module comprises a microcontroller that executes the first operation of the food/beverage dispenser responsive to instructions received from the CPU module;

the second component module comprises a microcontroller that executes the second operation of the food/beverage dispenser responsive to instructions received from the CPU module; and

the third component module comprises a microcontroller that executes the second operation of the food/beverage dispenser responsive to instructions received from the CPU module.

18. The distributed architecture for a food/beverage dispenser according to claim 17, wherein:

the first component module further comprises a bus interface that controls access to the first bus for the microcontroller of the first component module;

the second component module further comprises a bus interface that controls access to the second bus for the microcontroller of the second component module; and

the third component module further comprises a bus interface that controls access to the second bus for the microcontroller of the second component module.

19. The distributed architecture for a food/beverage dispenser according to claim 14, further comprising a third component module connected with the CPU module, wherein the third component module controls a third operation of the food/beverage dispenser responsive to instructions received from the CPU module.

20. The distributed architecture for a food/beverage dispenser according to claim 19, wherein the third component module connects with the CPU module through a bus connection to the second component module.

21. The distributed architecture for a food/beverage dispenser according to claim 20, wherein:

the first component module comprises a microcontroller that executes the first operation of the food/beverage dispenser responsive to instructions received from the CPU module;

the second component module comprises a microcontroller that executes the second operation of the food/beverage dispenser responsive to instructions received from the CPU module; and

the third component module comprises a microcontroller that executes the third operation of the food/beverage dispenser responsive to instructions received from the CPU module.

22. The distributed architecture for a food/beverage dispenser according to claim 21, wherein:

the first component module further comprises a bus interface that controls access to the first bus for the microcontroller of the first component module;

the second component module further comprises a bus interface that controls access to the second bus for the microcontroller of the second component module; and

the third component module further comprises a bus interface that controls access to the second bus for the microcontroller of the second component module.

23. The distributed architecture for a food/beverage dispenser according to claim 1, wherein the CPU module comprises a microcontroller for executing programming instructions that facilitate operations for the food/beverage dispenser.

24. The distributed architecture for a food/beverage dispenser according to claim 23, wherein the CPU module comprises a ROM for storing the application code executed by the microcontroller in facilitating operations for the food/beverage dispenser.

25. The distributed architecture for a food/beverage dispenser according to claim 24, wherein the CPU module comprises a RAM for storing variables required by the microcontroller in executing the programming instructions that facilitate the operations for the food/beverage dispenser.

26. The distributed architecture for a food/beverage dispenser according to claim 25, wherein the CPU module comprises a non-volatile memory for storing configuration information required by the microcontroller to execute application code stored in the ROM.

27. The distributed architecture for a food/beverage dispenser according to claim 26, wherein the non-volatile memory stores historical information for the food/beverage dispenser.

28. The distributed architecture for a food/beverage dispenser according to claim 1, wherein the CPU module comprises an auxiliary communications interface that interfaces the CPU module with external devices.

29. The distributed architecture for a food/beverage dispenser according to claim 1, further comprising a power module for supplying power to the CPU module, the power supply module selected from a group of different sized power supply modules.

30. A food/beverage dispenser, comprising:

a housing;

a first food/beverage source;

a first bus;

a CPU module disposed in the housing, wherein the CPU module monitors and/or controls operations for the food beverage dispenser; and

a first component module disposed in the housing and coupled with the first food/product source, the first component module connected with the CPU module through the first bus, wherein, responsive to instructions received from the CPU module, the first component module regulates the distribution of food/beverage from the first food/beverage source exterior to the housing.

31. The food/beverage dispenser according to claim 30, further comprising a second component module disposed in the housing, the second component module connected with the CPU module through the first bus, wherein the second component module receives user input.

32. The food/beverage dispenser according to claim 31, wherein the second component module connects with the CPU module through a bus connection to the first component module.

33. The food/beverage dispenser according to claim 32, further comprising a third component module disposed in the housing, the third component module connected with the CPU module through the first bus, wherein, responsive to instructions received from the CPU module, the third component module delivers food/beverage from the food/beverage source to the first component module.

34. The food/beverage dispenser according to claim 33, wherein the third component module connects with the CPU module through a bus connection to the second component module.

35. The food/beverage dispenser according to claim 34, wherein the first component module comprises a microcontroller that regulates a valve responsive to instructions received from the CPU module.

36. The food/beverage dispenser according to claim 35, wherein the second component module comprises a microcontroller that controls the receipt of user input into the food/beverage dispenser.

37. The food/beverage dispenser according to claim 36, wherein the third component module comprises a microcontroller that regulates a pump responsive to instructions received from the CPU module.

38. The food/beverage dispenser according to claim 37, wherein:

the first component module further comprises a bus interface that controls access to the first bus for the microcontroller of the first component module;

the second component module further comprises a bus interface that controls access to the first bus for the microcontroller of the second component module; and

the third component module further comprises a bus interface that controls access to the first bus for the microcontroller of the second component module.

39. The food/beverage dispenser according to claim 30, further comprising:

a second bus; and

a second component module disposed in the housing, the second component module connected to the CPU module through the second bus, wherein the second component module receives user input.

40. The food/beverage dispenser according to claim 39, further comprising:

a third bus; and

a third component module disposed in the housing, the third component module connected to the CPU module through the third bus, wherein, responsive to instructions received from the CPU module, the third component module delivers food/beverage from the food/beverage source to the first component module.

41. The food/beverage dispenser according to claim 30, further comprising:

a second food/beverage source; and

a second component module disposed in the housing and coupled with the second food/product source, the second component module connected with the CPU module through the first bus, wherein, responsive to instructions received from the CPU module, the second component module regulates the distribution of food/beverage from the second food/beverage source exterior to the housing.

42. The food/beverage dispenser according to claim 41, wherein the second component module connects with the CPU module through a bus connection to the first component module.

43. The food/beverage dispenser according to claim 42, wherein the first component module comprises a microcontroller that regulates a first valve responsive to instructions received from the CPU module.

44. The food/beverage dispenser according to claim 43, wherein the second component module comprises a microcontroller that regulates a second valve responsive to instructions received from the CPU module.

45. The food/beverage dispenser according to claim 44, wherein:

the first component module further comprises a bus interface that controls access to the first bus for the microcontroller of the first component module; and

the second component module further comprises a bus interface that controls access to the first bus for the microcontroller of the second component module.

46. A distributed architecture for a food/beverage dispenser, comprising:

a CPU module that monitors and/or controls operations for the food/beverage dispenser; and

a first component module coupled with the CPU module for controlling an operation of the food/beverage dispenser responsive to instructions received from the CPU module, wherein the first component module is enabled during initialization of the food/beverage dispenser such that the first component module responds to a component identifier signal output by the CPU module.

47. The distributed architecture for a food/beverage dispenser according to claim 46, wherein the CPU module assigns an address for the first component module after receiving a response to the component identifier signal.

48. The distributed architecture for a food/beverage dispenser according to claim 47, wherein the CPU module requests the first component module provide a component type after assigning an address to the first component module.

49. The distributed architecture for a food/beverage dispenser according to claim 47, further comprising a second component module coupled to the CPU module through a bus connection with the first component module, the second component module controlling an operation of the food/beverage dispenser responsive to instructions received from the CPU module, wherein the CPU module instructs the first component module to enable the second component module after assigning an address to the first component module.

50. The distributed architecture for a food/beverage dispenser according to claim 49, wherein the CPU module outputs a component identifier signal and instructs the first component module to ignore the component identifier signal.

51. The distributed architecture for a food/beverage dispenser according to claim 50, wherein the second component module responds to the component identifier signal output from the CPU module.

52. The distributed architecture for a food/beverage dispenser according to claim 51, wherein the CPU module assigns an address for the second component module after receiving a response to the component identifier signal.

53. The distributed architecture for a food/beverage dispenser according to claim 52, wherein the CPU module requests the second component module provide a component type after assigning an address to the second component module.

54. A method of addressing component modules of a food/beverage dispenser, comprising:

enabling a first component module during initialization of the food/beverage dispenser;

outputting a component identifier signal from a CPU module to the first component module;

outputting a response from the first component module to the CPU module; and

assigning an address for the first component module after the CPU module receives a response to the component identifier signal from the first component module.

55. The method of addressing component modules of a food/beverage dispenser according to claim 54, further comprising requesting the first component module provide a component type after assigning an address to the first component module.

56. The method of addressing component modules of a food/beverage dispenser according to claim 54, further comprising:

instructing the first component module to enable a second component module;

instructing the first component module to ignore a component identifier signal;

outputting a component identifier signal from a CPU module to the second component module;

outputting a response from the second component module to the CPU module; and

assigning an address for the second component module after the CPU module receives a response to the component identifier signal from the first component module.

57. The method of addressing component modules of a food/beverage dispenser according to claim 56, further comprising requesting the second component module provide a component type after assigning an address to the second component module.