A new high precision optical diamond turning machine was designed and developed with all ceramic slides, having submicrometer accuracy and mirror surface quality.
The present work integrates an interferometric probing system on an ultra-precision turning machine.
An adaptive and active approach of compensating positioning error has been demonstrated in this paper, in order to bring down the positioning error of a high precision slide of a CNC turning machine in sub micrometer range.
However, as mass spectrometry turns quantitative, optimizing analytical strategies for high precision and low measurement variability (i.e., low standard deviation of quantitative results) becomes an equally important goal.
The computer model used in our study allows a self-validation of the data that in turn results in GFR measurements of very high precision [ 17, 21– 23].
In this context, especially computer aided additive manufacturing (AM) has turned out as a promising tool to tailor scaffold architectures with high precision.
From equation (7), a small value for k FBB can reduce the dephosphorylation rate of CheB, this in turn increases the deactivation rate of the receptor complex, thereby ensuing high precision.
Following the described methodology most types of the turning tools can be redesigned for TASCF to enable its implementation within production lines where high precision and surface quality of components are required at enhanced productivity rates.
In turn, this allows the localization of individual active fluors to be achieved with very high precision, and repeated cycling of the fluors in a sample allows a very high resolution image to be built up over time.
Such conditions necessitate instrumentation of high precision and sensitivity.
