Methods and apparatus for automated wiring diagram generation

• US 8,719,758 B1
• Filed: 09/21/2012
• Issued: 05/06/2014
• Est. Priority Date: 09/23/2011
• Status: Active Grant

• Current Assignee: Simply Reliable, Inc.
• Original Assignee: Custom Virtual Environments, Inc.
• Inventors: Knapp, Jonathan, Coffin, Thomas, Jaffe, Christopher
• Primary Examiner(s): DOAN, NGHIA M
• Application Number:
  US13/624,425
• Time in Patent Office: 592 Days
• Field of Search: 716/100, 716/118, 716/119, 716/126, 703 3- 4, 703 13- 14, 361/760, 439 43- 50, 439 59- 62, 715/100, 715/118, 715/119, 715/126
• US Class Current: 716/126
• CPC Class Codes: G06F 30/394 Routing G06F30/396 takes precedence

Abstract

The invention provides, in some aspects, a method of automated diagram generation that includes inputting a description of a plurality of entities and connectivity relationships in which those entities participate with one another; assigning the entities to each of one or more groups groups; assigning the entities to each of one or more columns, each of which has one or more lanes; determining a candidate layout of columns for placement into one or more workspaces based on widths assigned to those columns; assigning connectivity relationships of one or more entities in at least one column to each of one or more lanes based on the column(s) to which entities participating in those connectivity relationships are assigned; assigning widths to at least one of the columns as a function of those lane assignments; and outputting a representation of that candidate layout.

Claims

1. A method of automated diagram generation comprising executing on one or more digital data processors the steps of:

A. inputting a description of

(i) a plurality of entities;

(ii) connectivity relationships in which those entities participate with one another, wherein each entity includes one or more symbols representing ports that depict the termination of one or more connectivity relationships;

B. assigning a signal type classification to the symbols representing ports, said classification being used to determine compatibility between each port and other ports that share the same or compatible classification, said compatibility being determined by one or more of

i. electrical voltage,

ii. ac/dc/rf &

frequency,

iii. signal protocol, and

iv. the application for which the connection is used;

C. assigning the entities to each of one or more groups of entities (“

groups”

);

D. assigning the entities to each of one or more columns, where each column has one or more lanes;

E. determining a candidate layout of columns for placement into one or more workspaces based on widths assigned to those columns;

F. assigning connectivity relationships of one or more entities in at least one column to each of one or more lanes based on the column(s) to which entities participating in those connectivity relationships are assigned, and assigning widths to at least one of the columns as a function of those lane assignments;

G. repeating at least one of steps (D), (E) and (F) until a said candidate layout has a placement of columns that fits into one or more workspaces;

H. outputting a representation of the candidate layout that fits into the workspaces, and

I. assigning the symbols representing ports a directional classification selected from the group consisting of “

Input,”

“

Output,” and

“

Bidirectional”

.

2. The method of claim 1, wherein step (H) includes outputting the representation of the candidate layout such that any of:

i. one or more of the connectivity relationships is depicted by a symbol representing a wire,

ii. each workspace is placed on a separate respective page,

iii. one or more of the entities is depicted by a symbol representing an electronic device,

iv. one or more of the groups depict a physical location where electronic devices are located,

v. each entity includes one or more symbols representing ports that depict the termination of one or more connectivity relationships,

vi. one or more of ports represent electrical or electronic connectors, and

vii. the layout is an electronic schematic.

3. The method of claim 1, wherein step (A) further includes inputting the description using a graphical user interface.

4. The method of claim 1, wherein step (A) further includes parsing a home automation or other control system programming instructions.

5. The method of claim 4, wherein step (A) further includes identifying in the programming instructions any of entities, connectivity relationship in which the entities participate, and one or more groups in which the entities are to be assigned.

6. The method of claim 5, wherein one or more of the entities include ports, and wherein

step (A) includes the further step of assigning designations to those ports,

step (H) includes outputting the representation of the candidate layout to include text or other symbols based on those designations.

7. The method of claim 1 further comprising selecting lanes assigned to a connectivity relationship that do not overlap with any other connectivity relationship.

8. The method of claim 1 applying adjustments to the candidate layout that may include any of (i) tightening horizontal and vertical lane assignments to remove white space or unused lane positions and (ii) correcting adjacent lane conflicts.

9. The method of claim 1, further comprising adding text labels to the various shapes and symbols that represent one or more of (i) devices, (ii) connection points, (iii) cables, (iv) group boundaries, (v) page title block, and/or other shapes and symbols.

10. The method of claim 1, comprising the step of cleaning up connection point names. The system deans up connection point names by one or more of:

(i) applying renaming rules;

(ii) checking for and eliminating word redundancy;

(iii) looking up connection name text in a connection name substitution database and applying the substitute text.

11. A method of automated diagram generation comprising executing on one or more digital data processors the steps of:

A. inputting a description of (i) a plurality of entities and (ii) connectivity relationships in which those entities participate with one another;

B. assigning a signal type classification to the symbols representing ports, said classification being used to determine compatibility between each port and other ports that share the same or compatible classification, said compatibility being determined by one or more of;

i. electrical voltage,

ii. ac/dc/rf &

frequency,

iii. signal protocol, and

iv. the application for which the connection is used;

C. assigning the entities to each of one or more groups of entities (“

groups”

), and assigning ranks to each of one or more pairings of entities within each of one or more groups, wherein the ranks are assigned as a function of a number of connectivity relationships in which the entities in each pairing jointly participate;

D. assigning the entities to each of one or more columns, where each column has one or more lanes;

E. determining a candidate layout of columns for placement into one or more workspaces based on widths assigned to those columns;

F. assigning connectivity relationships of one or more entities in at least one column to each of one or more lanes based on the column(s) to which entities participating in those connectivity relationships are assigned, and assigning widths to at least one of the columns as a function of those lane assignments;

G. repeating at least one of steps (D), (E) and (F) until a said candidate layout has a placement of columns that fits into one or more workspaces;

H. outputting a representation of the candidate layout that fits into the workspaces; and

I. assigning the symbols representing ports a directional classification selected from the group consisting of “

Input,”

“

Output,” and

“

Bidirectional”

.

12. The method of claim 11, wherein step (F) further includes the step of iteratively assigning positions to lanes in order to prevent lanes that are assigned to different respective connectivity relationships from having a same position in a representation of a candidate layout.

13. The method of claim 11, wherein

step (D) further includes the step of assigning or re-assigning each connectivity relationship to a routing type selected from a group of routing types that includes the types:

(i) “

In Group Adjacent,”

(ii) “

In Group,”

(iii)“

Remote Group,”

(iv)“

Remote Group Jump,”

(v) “

Split Group Jump,”

step (D) further includes the step of sorting connectivity relationships by routing type, and

step (D) partially determines column width based on the number of connectivity relationships within each routing type.

14. The method of claim 13, wherein

step (D) includes a step where the user inputs any of a page size and page scaling factor,

step (E) takes into consideration the page size and scaling factor in determining a candidate layout of columns for placement into one or more workspaces,

step (E) determines the available workspace area based on the page size and scaling factor, and

step (E) further determining if the largest entity representation will fit with available workspace area.

15. The method of claim 14, wherein

step (F) includes assigning page jumps (“

jumps”

) to connectivity relationships that connect 2 entities that are located on different workspaces, and

step (F) re-calculates column widths and lane assignments for columns that are associated with connectivity relationships that have been assigned jumps.

16. The method of claim 14, comprising assigning a split group jump designation to a connectivity relationship directed to two (or more) entities that are in such a split group.

17. The method of claim 11, wherein one or more of:

step (A) further includes inputting signal types to be displayed via graphic user interface,

step (D) further includes assigning a signal type to each port,

step (D) further includes filtering ports to be displayed based on the list of signal types,

step (D) further includes a step of assigning a signal type to each connectivity relationship,

step (D) further includes a step of filtering connectivity relationships to be displayed based on the list of signal types, and

step (D) further includes a step of adjusting a candidate layout based on the ports and connectivity relationships.

18. The method of claim 11, comprising splitting a group such that the entities therein are placed on different respective workspaces.

19. A method of automated diagram generation comprising executing on one or more digital data processors the steps of:

A. inputting a description of (i) a plurality of entities and (ii) connectivity relationships in which those entities participate with one another;

B. assigning a signal type classification to the symbols representing ports, said classification being used to determine compatibility between each port and other ports that share the same or compatible classification, said compatibility being determined by one or more of;

i. electrical voltage,

ii. ac/dc/rf &

frequency,

iii. signal protocol, and

iv. the application for which the connection is used;

C. any of

(i) defining and/or removing one or more entities and/or connectivity relationships,

(ii) defining and/or removing one or more groups,

(iii) defining and/or removing one or more ports that reflect termination of one or more connectivity relationships as a function of one or more rules;

D. assigning the entities to each of one or more groups of entities (“

groups”

);

E. assigning the entities to each of one or more columns, where each column has one or more lanes;

F. determining a candidate layout of columns for placement into one or more workspaces based on widths assigned to those columns;

G. assigning connectivity relationships of one or more entities in at least one column to each of one or more lanes based on the column(s) to which entities participating in those connectivity relationships are assigned, and assigning widths to at least one of the columns as a function of those lane assignments;

H. repeating at least one of steps (E), (F) and (G) until a said candidate layout has a placement of columns that fits into one or more workspaces;

I. outputting a representation of the candidate layout that fits into the workspaces;

J. assigning the symbols representing ports a directional classification selected from the group consisting of “

Input,”

“

Output,” and

“

Bidirectional”

.

20. The method of claim 19, comprising executing at least one of steps (A)-(J) in accord with a filter that is based on signal or other type.

21. The method of claim 19, wherein step (I) includes outputting one or more of:

a schedule of connectivity relationships depicted in an output candidate layout sorted by identifier, a schedule of connectivity relationships depicted in an output candidate layout sorted by location, identifiers for wiring or other connectivity relationships realized in the candidate layout, a bill of materials for components realized in the candidate layout, an enumeration of IP addresses for components realized in the candidate layout, a cable connector list for a layout realized in the candidate layout, power requirements for a candidate layout.

22. The method of claim 19, that includes prioritizing placement of groups into workspaces based on numbers of entities participating in connectivity relationships within those groups.

23. The method of claim 19, comprising identifying pairs of groups that have one or more entities participating in mutual connectivity relationships and that ranks such pairs as a function of the numbers of those relationships.

24. The method of claim 19, comprising defining entities and/or connectivity relationships as a function of one or more rules.

25. The method of claim 24, comprising any of:

(i) defining one or more additional entities and/or connectivity relationships, and

(ii) removing one or more additional entities and/or connectivity relationships, based on those entities and/or connectivity relationships specified in the description.

26. The method of claim 19, wherein the outputting step includes depicting the candidate layout on any of a printout and a computer screen.