with the dry treatments. CEA values were greater in the ENP-TS cores in both the benthic and 0 to -10 cm layers (Figures 5-1 & 5-2) and mimicked the CES relationships between treatments with the exception of the WCA-3A cores in the 0 to -10 cm layer. There was not a consistent trend with depth in either the CES or CEA values. The rate of increase of PER CES in the benthic layer was higher in the ENP-TS cores. ENP-TS wet treatments exhibited greater CES values in both the benthic and 0 to -10 cm layers (Table 5-4) which was also reflected in the CEA values (Figures 5-1 & 5- 2). PER CEA values mirrored the relationships between treatments in a similar fashion to BGL, PHO, and PHE in the benthic layer. PER CES values decreased between the benthic and -10 to -20 cm layers, reflecting decreases in the rate of PER production with depth. Nutrients Site core variability generally exceeded any differences between wet/dry treatments as well as time effects. Therefore, the most consistent difference in nutrient concentrations as well as lignin and cellulose occurred in comparisons between WCA-3A and ENP-TS soil cores (Figure 5-3). Averages were calculated from a total of 15 cores per layer-site combination from 0, 2, and 12 week incubations. Average cellulose content ranged from 6.2 to 41% and was significantly greater in the WCA-3A cores, with an inverse relationship in the -10 to -20 cm layer. Cellulose content increased dramatically in the ENP-TS cores in the -10 to -20 cm layer, otherwise there was not a significant relationship with increasing depth. Average lignin content ranged from 7.7 to 47.7% with significantly higher concentrations found within the WCA-3A cores. Lignin content