DNA is a fragile molecule, and it tends to break up into short sections fairly quickly.
However, when a receptor detected a capsaicin molecule and opened, it tended to move more slowly when calcium ions were present outside the cells.
The results collectively suggested that the IFN-like molecule existed in oyster and it tended to present conserved functions rather than conserved amino acid sequence in comparison with vertebrate IFNs.
Conformational flexibility in the molecule also tends to make crystallization less likely, due to entropy.
For example, if a substituent in the molecule tends to donate electrons toward the reactive centre in the molecule and this change favours the reaction, it can be concluded that an electron-rich centre is involved in the transition state.
Pauling and Slater were able to explain the tetrahedral carbon structure in terms of a particular mixture of wave functions that has a lower energy than the original wave functions, so that the molecule tends to go into that state.
Moore and Steitz found that one obstacle may have been that the giant molecule tends to make twinned crystals.
The hydroxyl group of the eugenol molecule tends to protonize the free radicals formed during the polymerization of resin-based materials, thereby blocking their reactivity and reducing the degree of conversion of these materials [3, 18].
Compared with the weak adsorption on pure AlN and SiC nanotubes, CH4 molecule tends to be strongly physisorbed to the Ni-doped AlN and SiC nanotubes with appreciable adsorption energy.
Increasing the strain hardening effect in the polymer solution, achieved by increasing number of arms at the branch point in the XPP molecule, tends to stabilize the electrospinning jet against axisymmetric disturbances potentially producing smooth bead-less fibers.
