The hypothesis was that the change in crestal bone level between baseline and 6 months would be non-inferior for early loading compared to conventional loading.
The mean change in the bone level between baseline and 6 and 12 months of 0.561 and 0.760 mm, respectively, for early loading was similar to that found in other clinical studies of early loading with chemically modified SLA (SLActive®) implants.
In addition, surface topography leads to faster and stronger bone anchorage and may confer improved stability during the healing process, thus allowing earlier loading (dental terminology for usage) of the implant [ 9, 10].
In the maxilla, however, the levels of both primary and secondary stability 67.42 ± 8.87 and 71.52 ± 8.11, respectively were higher than those of minimal ISQ (65) for immediate or early loading [21].
Stages of larval development was explained by the first principle components (PC1), which explained 48.99% of the variation, with low component loading for earlier stages and high component loading for later stages.
Recent experimental and clinical evidence suggests that early loading and mobilisation for Achilles tendon ruptures may improve functional outcomes.
Results for pigs fed early load CMH were inconsistent compared to pigs fed maintenance or late load CMH.
The mean change in crestal bone level between baseline and 6 months was 0.56 ± 0.58 and 0.51 ± 0.62 mm for early and conventional loading, respectively; at 12 months, the mean change was 0.76 ± 0.60 and 0.73 ± 0.77 mm, respectively.
Experimental treatments consisted of: (1) a control diet; (2) control diet with 3 g CMH per pig per day for 30 days (maintenance); (3) 25 g CMH per pig per day for 5 days followed by 3 g CMH per pig per day for the next 25 days (early load); (4) or 25 g CMH per pig per day for 5 days before slaughter (late load).
Leave the house early, load early, and get there early.
