"Now we have the time-trial and then a rest day so it's certainly some of the toughest stages ticked off, that's for sure.
A significant difference (p < 0.05) among treatments was noticed for the mean number of nymph-stage tick population per hectare.
Overall, the density of nymph- and adult-stage tick population per hectare was decreased by 30% and 18.8%, respectively, due to the control actions.
Accordingly, nymph-stage tick population per hectare was reduced significantly from 22,666.7 pre-control to 12,222.2 after control actions (Table 1).
Likewise, the number of adult-stage tick population per hectare was reduced from 22,666.7 before the control actions to 2,888.9 after the control actions.
The applied treatments significantly influenced (p < 0.05) basal cover, nymph- and adult-stage tick population and the two encroaching tree species.
Adult-stage tick density was increased by 1,111.1 hafterfthe the control actions only in the control plot (T5) probably due to their ability to escape from the plots that were cleared off encroaching trees/shrubs species to the plots that were untouched, i.e. T5 (no treatment application) (Table 1).
Tick host feeding behaviour has four stages: tick-host finding behaviour, contact and host identification, attachment site selection, and attachment and feeding [ 22, 23].
This gene index consists of 13, 643 unique transcripts derived from various tick life stages and tick strains exposed to various environmental conditions.
The highest reduction in number of nymph-stage tick per hectare was noticed for T1 (cutting at 0.5 m above ground and applying kerosene) that reduced by 15,000 ha−15,000
Data on basal and litter covers, soil erosion and compaction, dead and re-sprouted encroaching tree/shrub species and nymph- and adult-stage tick populations were collected before and after treatment applications.
