When approaching failure, the slippages increased significantly.
Simulation results indicate that as the electrical load increases, the relative displacement between nanotube and polymer increases consequently, which leads to possible slippage increase.
Another possibility is that the rate of both DNA slippage and indel slippage increases with STR length.
While mitotic potential of the entire population declined with the duration of Ras activation, the percentage of mitoses that produced MNCs via slippage greatly increased.
Similar to mononucleotides, we observed an approximately 2-fold increase in Pol β EF between repeat numbers 2 and 4. The Pol EF continued to increase with length, and between repeat numbers 3 and 9, the polymerase strand slippage frequency increased approximately 10-fold, from approximately 1 × 10− to 1 × 10− (table 2).
Our results give further insights into the mode of microsatellite evolution, and support the assumption of increased slippage rate with increased microsatellite length and a stabilizing effect of interrupting motifs for microsatellite regions consisting of perfect repeats.
Coating the filler surface by a stearic acid monolayer reduces its tendency to agglomerate as well as the adhesion between the particles and the polymer, leading to lower viscosity and interfacial slippage with increasing strain amplitude.
The numerical simulation results confirm that joint slippage dramatically increases the deformation of the lattice towers, while its influence on load-bearing capacity will vary in different load cases according to the magnitude of vertical loading and the tower failure mode.
Furthermore, because replication slippage typically increases with repeat length [ 34], long repeats are also likely to exhibit genetic variation.
The increased slippage and joint capacity were attributed to the tensile resistance of the anchor spike, the clamping effect provided by the anchor, and friction between the debonded FRP strip and concrete.
