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Beilstein J. Nanotechnol. 2014, 5, 1104–1136, doi:10.3762/bjnano.5.123
Figure 1: Number of articles annually published featuring organic and hybrid inorganic–organic thin films dep...
Figure 2: Schematic illustration of purely organic thin films grown by MLD (left) and hybrid inorganic–organi...
Figure 3: An ALD/MLD cycle consisting of the following four steps: (1) the first (inorganic) precursor is pul...
Figure 4: Dependence of the film growth on the deposition temperature: (a) within the so-called ALD window th...
Figure 5: Ideally, the organic precursor molecule reacts with one surface site only and remains straight (lef...
Figure 6: Schematic illustration of ALD/MLD inorganic–organic hybrid thin films deposited by using (a) TMA wi...
Figure 7: Schematic illustration of ALD/MLD inorganic–organic hybrid thin films deposited using TMA together ...
Figure 8: Growth per cycle values for inorganic–organic hybrid films deposited by using TMA with different ca...
Figure 9: Schematic illustration of an ALD/MLD inorganic–organic hybrid thin film deposited using 7-octenyltr...
Figure 10: Electron microscope images of (a) 250 nm silica particles coated with a 25 nm thick layer of TMA+EG...
Figure 11: Field emission scanning electron microscopy image of a nanolaminate fabricated using five bilayers ...
Figure 12: A nanolaminate coating consisting of Al2O3 and TMA+EG alucone layers with targeted thicknesses of 2...
Figure 13: An HRTEM image of a capacitor memory device fabricated by using Al-containing hybrid (marked as AlO...