Days hunted and swept up
Hunters showed a decreasing trend in the number of days hunted over time (r = -0.63, P = 0.0020, Fig 1), but an increasing trend in the number of bobcats chased per day (r = 0.77, P < 0.0001, Fig 1). Contrary to our hypothesis, the number of days hunted did not differ between successful and unsuccessful hunters ( SE; SE; ? = 0.04, P = 0.13).
Trappers exhibited substantial annual variation in the number of days trapped over time, but without a clear trend (r = -0.15, P = 0.52). Trappers who harvested a bobcat used more trap sets than trappers who did not ( SE, SE; ? = 0.17, P < 0.01). The mean number of trap-days also showed an increasing trend (r = 0.52, P = 0.01, Fig 1). Trappers who harvested a bobcat had more trap-days ( SE) than trappers who did not harvest a bobcat ( SE) (? = 0.12, P = 0.04).
Bobcats put-out
This new mean number of bobcats put-out a-year from the seekers is actually 0.forty-five (range = 0.22–0.72) (Dining table step 1) and you may shown zero obvious pattern over the years (r = -0.10, P = 0.76). In contrast to all of our theory, there is certainly zero difference in how many bobcats released anywhere between successful and unproductive hunters (successful: SE; unsuccessful: SE) (? = 0.20, P = 0.14). The fresh yearly level of bobcats put-out because of the seekers wasn’t coordinated which have bobcat variety (roentgen = -0.14, P = 0.65).
The mean number of bobcats released annually by trappers was 0.21 (range = 0.10–0.52) (Table 1) but was not correlated with year (r = 0.49, P = 0.11). Trappers who harvested a bobcat released more bobcats ( SE) than trappers who did not harvest a bobcat ( SE) (? = 2.04, P < 0.0001). The annual number of bobcats released by trappers was not correlated with bobcat abundance (r = -0.45, P = 0.15).
Per-unit-energy metrics and you may variety
The mean CPUE was 0.19 bobcats/day for hunters (range = 0.05–0.42) and 2.10 bobcats/100 trap-days for trappers (range = 0.50–8.07) (Table 1). The mean ACPUE was 0.32 bobcats/day for hunters (range = 0.16–0.54) and 3.64 bobcats/100 trap-days for trappers (range = 1.49–8.61) (Table 1). The coefficient of variation for CPUE and ACPUE was greater for trappers than for hunters (trapper CPUE = 96%, hunter CPUE = 65%, trapper ACPUE = 68%, hunter ACPUE = 36%). All four metrics increased over time (Fig 2) although the strength of the relationship with year varied (hunter CPUE:, r = 0.92, P < 0.01; trapper CPUE: r = 0.73, P = < 0.01; hunter ACPUE: r = 0.82, P = < 0.01; trapper ACPUE: r = 0.66, P = 0.02).
Hunter and trapper CPUE across the most of the many years was not synchronised that have bobcat abundance (r = 0.38, P = 0.09 and you will roentgen = 0.32, P = 0.sixteen, respectively). However, inside two-time periods we checked (1993–2002 and you can 2003–2014), the latest correlations anywhere between hunter and trapper CPUE and you will bobcat variety was in fact most of the coordinated (|r| ? 0.63, P ? 0.05) with the exception of huntsman CPUE throughout 1993–2002 which had a marginal dating (roentgen = 0.54, P = 0.eleven, Dining table 2). This new matchmaking anywhere between CPUE and you will variety was basically self-confident through the 1993–2002 as the 95% CI to own ? was indeed wider and overlapped step one.0 for huntsman and trapper CPUE (Fig step 3). 0 exhibiting CPUE denied faster on down abundances (Fig step 3). Hunter CPUE encountered the strongest connection with bobcat abundance (Roentgen dos = 0.73, Desk 2).
Solid traces is actually projected suits away from linear regression patterns while you are dashed outlines try projected matches off less big axis regression of record away from CPUE/ACPUE up against the journal out-of wealth. The oriented and you will separate variables was indeed rescaled by separating from the the maximum value.