The films were deposited at 500 °C on stainless steel substrates using a single molecular titanium isopropoxide liquid solution as the precursor, without any reactant gas.
We present here a novel approach to achieve the selective formation of different in-plane boron nitrogen carbon heterostructures on Pt(111) using a single molecular precursor, namely dimethylamine borane (DMAB).
Growth of titanium dioxide (TiO2) thin films on Si(100) substrates was carried out using a single molecular precursor at deposition temperature in the range of 300 700°C by the metal organic chemical vapor deposition (MOCVD) method.
Thin films of titanium dioxie (TiO2) were deposited on glass using a single molecular precursor such as titanium (IV) iso-propoxide (Ti[OCH(CH3 2] 4, 97%) by sol-gel processing.
The deposition has been carried out in oxidizing conditions at atmospheric or sub-atmospheric pressure (103 Pa) using a single molecular source: magnesium [bis(2,2,6,6-tetramethyl-3,5-heptanedionate)] (Mg(thd 2).
To comparative study on the growth behavior and structural properties of thin films, in this work, we have deposited the titanium oxide (TiO2) thin films on both Si(1 0 0) and Si(1 1 1) substrates using a single molecular precursor by metal-organic chemical vapor deposition method at temperature in the range of 600 750 °C and working pressure of 1.0×10−5 Torr.
The polymer film was deposited on a Si substrate by the PECVD method using a single molecular precursor, and the film was then treated using the DBD plasma surface treatment (or modification) method in N2 plasma under atmospheric pressure to form the amine groups on the surface.
The plasma-polymerized cyclohexane film was deposited on the Si substrate according to the radio frequency plasma-enhanced chemical vapor deposition method using a single molecular precursor, and it was then treated by the dielectric barrier discharge method in a nitrogen environment under atmospheric pressure.
To be able to perfom measurements using a single molecular system, we studied the binding of the signaling molecule calmodulin (CaM) to a family of peptides that mimic the CaM-binding domain of Ca2+/(CaM) dependent protein kinase II (CKII) [12].
Strong genetic differentiation between adjacent populations of coastal and inland wolves in British Columbia was shown with mtDNA, demonstrating that fine-scale genetic differentiation can be detected with denser sampling alone, even using a single molecular mtDNA marker.
