- Fri Jan 21, 2011 12:00 am
#40914
Setup and Rule Diagram Explanation
This is a Grouping: Defined-Fixed, Unbalanced: Overloaded game.
The game scenario produces the following initial setup:
While this game may initially appear be to be Linear, (based on the 9 A.M. and 3 P.M. Statistics courses), the course times play no linear role in the game, and the entire goal is to select a group of four compatible courses. Thus, this a Grouping game, with an 8-into-4 scenario where 4 courses must be selected, and 4 courses are unselected.
The first rule establishes that if R is not selected, then J must be selected:
R J
Rules with negative sufficient conditions and positive necessary conditions can be tricky, but this rule indicates that if either R or J are unselected, then the other must be selected. Thus, at least R or J must always appear among Alicia’s course choices (and possibly both):
The second rule establishes a relationship that appears frequently in Logic Games:
M J
This rule can also be diagrammed as:
M J
Combined with the contrapositive of the first rule, these two rules produce the inference that if M is selected, then R is selected:
M R
The third rule is similar to the second rule:
S9 W
This rule also means that when S9 is selected, W is not selected, and thus G must be selected:
S9 G
The fourth rule is a straight positive conditional relationship:
P S9
Combining the third and fourth rules produces the inference that P and W cannot be selected together:
P W
This inference also means that when P is selected, W is not selected, and thus G must be selected:
P G
The fifth rule establishes that G and W cannot be selected together, but that one must be selected. Thus, we can diagram the rule in traditional fashion, and then reserve a space on the diagram for a G/W dual-option:
G W
All of this information can be combined to form the final setup for the game:
This is a Grouping: Defined-Fixed, Unbalanced: Overloaded game.
The game scenario produces the following initial setup:
While this game may initially appear be to be Linear, (based on the 9 A.M. and 3 P.M. Statistics courses), the course times play no linear role in the game, and the entire goal is to select a group of four compatible courses. Thus, this a Grouping game, with an 8-into-4 scenario where 4 courses must be selected, and 4 courses are unselected.
The first rule establishes that if R is not selected, then J must be selected:
R J
Rules with negative sufficient conditions and positive necessary conditions can be tricky, but this rule indicates that if either R or J are unselected, then the other must be selected. Thus, at least R or J must always appear among Alicia’s course choices (and possibly both):
The second rule establishes a relationship that appears frequently in Logic Games:
M J
This rule can also be diagrammed as:
M J
Combined with the contrapositive of the first rule, these two rules produce the inference that if M is selected, then R is selected:
M R
The third rule is similar to the second rule:
S9 W
This rule also means that when S9 is selected, W is not selected, and thus G must be selected:
S9 G
The fourth rule is a straight positive conditional relationship:
P S9
Combining the third and fourth rules produces the inference that P and W cannot be selected together:
P W
This inference also means that when P is selected, W is not selected, and thus G must be selected:
P G
The fifth rule establishes that G and W cannot be selected together, but that one must be selected. Thus, we can diagram the rule in traditional fashion, and then reserve a space on the diagram for a G/W dual-option:
G W
All of this information can be combined to form the final setup for the game:
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