The technique is achieved as a processing step on OCT intensity images that does not require any modification to existing OCT hardware.
This timing-directed application of the technique is achieved through injection of adult females with a solution of double-stranded RNA artificially synthesized based on the sequence of the gene of interest (see [ 14, 26 28] for methods), which is transferred to the developing oocytes in the ovary.
The deposition technique was achieved on optical substrates (Glass BK-7 and Infrasil 301) by dielectric material combinations including Titanium dioxide (Ti2O3), Hafnium dioxide (HfO2), and Lima (mixture of oxides SiO2/Al2O3); deposition being achieved using an electron beam gun.
Third, further evolution of the surgical technique was achieved [ 11].
Template-switching essential for the SMART technique was achieved using a 5' primer (PD242, 5'-AAG CAG TGG TAT CAA CGC AGA GTG GCC ACG AAG GCC rGrGrG-3') with three RNA nucleotides at its 3' end, which contains an SfiI site.
Secure graft fixation using the press-fit technique was achieved in all cases.
Validation of the rapid APCI-MS headspace technique was achieved by comparing pretreated wheat straw hydrolysate and bioethanol fermentation data with conventional HPLC data obtained from the same samples.
Moreover, when the problem is particularized (but still of interest), additional results regarding the convergence rate of the proposed technique are achieved and an stopping criterion that enhances the performance of the method (in terms of the number of iterations required to achieve the optimal solution) is derived.
It is noteworthy to mention that in the majority of practical computational scenarios, significant savings in the number of arithmetic operations with the proposed technique are achieved, e.g., in Section 4.1, the DFTCOMM technique compared with split-radix FFT (SRFFT) algorithm produces savings of 42 to 92 %.
The design technique is achieved by the combination of a fully differential transconductor and an electronically variable current gain stage.
