Ok, everybody whose not a statistics freak please ignore the following (maybe the preceding, too)...
Take the top lineups (in terms of minutes played, I'd consider using lineups that average more than 5 minutes a game or so, then lump all of the remaining lineups in a lineup called 'other'). Plot them on an x-y chart with the following axis:
X axis for time (minutes per game)
y axis for points (average points per game)
Then plot each of the lineups as colored blocks, so lineup 1 has a block of points tall and minutes wide. Adjacent to lineup 1 plot lineup 2, and so on. What you'll see is a series of adjacent colored blocks of varying height and width. The total area defined by these blocks is the average points per game. The total width would be just the average minutes per game.
Then by reviewing the chart you'll be able to discern the lineups productivity and efficiency at the same time. The 'best' lineup is the tallest one that is also the widest (which is a judgment call). I think this is a volumetric analysis ( if you have to give it a name).
Take the top lineups (in terms of minutes played, I'd consider using lineups that average more than 5 minutes a game or so, then lump all of the remaining lineups in a lineup called 'other'). Plot them on an x-y chart with the following axis:
X axis for time (minutes per game)
y axis for points (average points per game)
Then plot each of the lineups as colored blocks, so lineup 1 has a block of points tall and minutes wide. Adjacent to lineup 1 plot lineup 2, and so on. What you'll see is a series of adjacent colored blocks of varying height and width. The total area defined by these blocks is the average points per game. The total width would be just the average minutes per game.
Then by reviewing the chart you'll be able to discern the lineups productivity and efficiency at the same time. The 'best' lineup is the tallest one that is also the widest (which is a judgment call). I think this is a volumetric analysis ( if you have to give it a name).
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