## Rules: The Connecting Tissue

The nodes for the network graphics are Cause states, Observer states, Energy states, Mass states, Space states and Time states.  To make this more relevant to business we can use the terms Goals, People, Functions, Data, Locations and Events.  The edges that connect the nodes in all the networks are Cause rules, Observer rules, Energy rules, Mass rules, Space rules and Time rules.  Nodes give the system its concepts, while edges give the system context.  States provide extegrity (new term) while Rules provide integrity.

Each of the networks is composed of finite steps between the starting and terminal node called paths, the potential ways of following the rules to perform the steps are called the strategies, the actual strategy followed is called the tactics, the edges operations and the  nodes are states .

Whether you are negotiating Goals, People, Functions, Data, Locations or Events, you have to create and observe the rules to maintain the integrity of the networks.  Goals are connected by Rules, People are connected by Rules, Functions are connected by Rules, Data are connected by Rules, Locations are connected by Rules and Events are connected by Rules.  Even Events (Time) is a network, because we are continuously referring to different clocks in different frames of reference.

All rules have the same characteristics:

We’ll explore how we will model this for each of the Six Hats, Six Coats networks in a subsequent post.

Now we have the connecting tissue of our networks.  Knowing this, we can embark on a course to model all six networks separately.  Once that is complete we can work on integrating two, three, four, five and finally all six networks into a single set of conventions.

Related Posts:

## Systema: Whyever? Part 2

Part 1 is here.

strategy (n)

4. a plan, method, or series of maneuvers or stratagems for obtaining a specific goal or result: a strategy for getting ahead in the world.

goal (n)

1.the result or achievement toward which effort is directed; aim; end.

rule (n)

1. a principle or regulation governing conduct, action, procedure, arrangement, etc.: the rules of chess.

An extensive form game is a specification of a game in game theory. This form represents the game as a tree. Each node (called a decision node) represents every possible state of play of the game as it is played. Play begins at a unique initial node, and flows through the tree along a path determined by the players until a terminal node is reached, where play ends and payoffs are assigned to all players. Each non-terminal node belongs to a player; that player chooses among the possible moves at that node, each possible move is an edge leading from that node to another node.

It should be noted that even in a game with a finite number of moves (steps) there are generally countless strategies (paths).

Looking at the Extensive Form diagram above and considering the definitions, we can see that the game above has two players: 1 and 2. The numbers by every non-terminal node indicate to which player that decision node belongs. The numbers by every terminal node represent the payoffs to the players (e.g. 2,1 represents a payoff of 2 to player 1 and a payoff of 1 to player 2). The labels by every edge of the graph are the name of the action that that edge represents.

I would like to play with the terminology. I would call the nodes “goals”, I would call the edges “rules” and the paths I would call “strategies”. Goals are actually states of the system and the rules are actually processes. Thinking about it this way makes me think of information architecture and website architecture. Browsing and navigation in this case becomes a one player strategy where the website provides the goals and rule set. However, the design process of the system is to determine the goal set and rule set of the player and provide a “natural” or even more optimal set of strategies for the user to follow.

Part 3 is here.