1960
DOI: 10.1016/0013-4686(60)87006-5
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Wirkungen der inhibitoren bei der elektrokristallisation

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Cited by 60 publications
(8 citation statements)
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“…It is known that the presence of impurities influences greatly both the type of morphology obtained in metal electrodeposition and also the kinetic parameters (2)(3)(4)(5). For example, the presence of 10 -s mole liter -1 of n-decylamine was found (3) to be effective in preventing a full development of pyramids on the (100) face of copper single crystals; and 10 -7 mole liter -1 completely prevented their formation.…”
mentioning
confidence: 99%
“…It is known that the presence of impurities influences greatly both the type of morphology obtained in metal electrodeposition and also the kinetic parameters (2)(3)(4)(5). For example, the presence of 10 -s mole liter -1 of n-decylamine was found (3) to be effective in preventing a full development of pyramids on the (100) face of copper single crystals; and 10 -7 mole liter -1 completely prevented their formation.…”
mentioning
confidence: 99%
“…Comparison of the images obtained one day after deposition clearly shows that cross-sectional structures were different for the deposits obtained from the different baths. According to Fischer's classification [67], the deposit from the Cl-PEG-SPS bath (Fig. 13.9c) is regarded as an "unoriented dispersion (UD)"-type deposit.…”
Section: Crystallographic Analysis Of Copper Electrodepositsmentioning
confidence: 99%
“…[53, 59 to 61]) and which can be categorized in various ways according to chemical nature, mode of action and selectivity. Some of the proposed mechanisms according to Franklin [61] include surface blocking mechanisms [53,62] (strongly adsorbing additives with hydroxyl, thiol, disulfide and thioether groups [63]); changes in the potential drop across the double layer (caused by ionic additives); complex formation (by complexing agents), thereby lowering the concentration of the ion and causing a shift in the Nernst potential; enhanced adsorption of the complexed ion or introduction of a bridging ligand [64]; ion pairing [65] (synergistic effect, for example using a quarternary salt); changes in interfacial tension (surfactants) and film formation on the electrode; formation of insoluble films on the electrode surface.…”
Section: Cu Deposition In the Presence Of Plating Additivesmentioning
confidence: 99%