Fuel cell having improved condensation and reaction product management capabilities

A bipolar plate assembly, comprising:

• a first plurality of substantially linear reactant channels located on a first side of the bipolar plate defining respective inlets and outlets, the inlets of adjacent first reactant channels being adjacent one another and the outlets of adjacent first reactant channels being adjacent one another,
• a second plurality of substantially linear reactant channels defining respective inlets and outlets on a second side of the bipolar plate;
• first and second inlet manifolds respectively associated with the inlets of the first and second pluralities of substantially linear reactant channels;
• first and second outlet manifolds respectively associated with the outlets of the first and second pluralities of substantially linear reactant channels;
• a plurality of first inlet fluid connectors respectively associated with adjacent first reactant channels and extending from the first inlet manifold to the inlets of the first reactant channels and defining respective first inlet flow areas;
• a plurality of second inlet fluid connectors extending from the second inlet manifold to the inlets of the second reactant channels and defining respective second inlet flow areas;
• a plurality of first fluid outlet connectors extending from the outlets of the first reactant channels to the first outlet manifold and defining respective first outlet flow areas that are greater than the first inlet flow areas;
• and
• a plurality of second fluid outlet connectors extending from outlets of the second reactant channels to the second outlet manifolds and defining respective second outlet flow areas that are greater than the second inlet flow areas.

A fuel cell, comprising:

• at least two membrane electrode assemblies;
• and
• a bipolar plate assembly between the membrane electrode assemblies, the bipolar plate assembly including
• a plurality of reactant channels defining respective inlets and outlets, the inlets of adjacent reactant channels being adjacent one another and the outlets of adjacent reactant channels being adjacent one another,
• a common reactant inlet manifold,
• a common reactant outlet manifold,
• at least two inlet connectors defining inlet connector flow areas respectively extending from at least two adjacent reactant channels to the common reactant inlet manifold directly individually connecting the at least two adjacent reactant channels to the common reactant inlet manifold, and
• at least two outlet connectors respectively extending from the at least two adjacent reactant channels to the reactant outlet manifold, the outlet connectors defining outlet connector flow areas that are greater than the inlet connector flow areas.