If the predefined stopping rule (the SE of 0.5 or less) is not satisfied, Step 5 involves repeating Steps 3 4 until the stopping rule is met.
Once you're satisfied, step back and enjoy it.
This is similar to the "Be Satisfied" step; you need to do what's right for you sometimes, regardless of what the world seems to be demanding.
Therefore, this configuration satisfies step 2 and the analysis proceeds to step 3.
Therefore, this 1D wire mechanism satisfies step 1 and the analysis proceeds to the step 2 as follows.
Therefore, this 3D RDWM candidate satisfies step 1 and the analysis proceeds to step 2. rank(({{varvec{W}}}_{{G}})) = 6.
Therefore, this planar RDWM candidate satisfies step 1 and the analysis proceeds to the step 2 as follows.
Consequently, this wire mechanism satisfies step 3 and the resultant force can be produced in any direction within the active constraint space ({{varvec{S}}}_{AC}). rank((widetilde{{{varvec{W}}}}_{{CVC}})) = 1.
Consequently, this RDWM candidate satisfies step 3 and the resultant force can be produced in any direction within the active constraint space ({{varvec{S}}}_{AC}). rank(({{varvec{W}}}_{{CVC}})) = 2.
Then, similar to step 1, we can easily determine that this RDWM candidate satisfies step 3 and generates a resultant force in any direction within the active constraint space ({{varvec{S}}}_{AC}). Finally, we configure a 3D RDWM with four sets of DAMs each with a VCM (see Fig. 10).
Moreover, as there exists a vector ({{varvec{T}}}_{{C}{0}}) satisfying ({{varvec{W}}}_{{CVC}}{{varvec{T}}}_{{C}{0}}={{varvec{0}}}), this RDWM candidate satisfies step 3 and the resultant force can be produced in any direction within the active constraint space ({{varvec{S}}}_{AC}).
