Abstract: In an aspect, a mixed metal oxide comprises or consists essentially of: a mixture comprises or consisting essentially of 0.30 to 0.69 parts by mole Mg, 0.20 to 0.69 parts by mole Zn, 0.01 to 0.30 parts by mole of a third element selected from Al and Ga, and, either, when the third element is Al, 0.00 to 0.31 parts by mole of other elements selected from metals and metalloids, or, when the third element is Ga, 0.00 to 0.15 parts by mole of other elements selected from metals and metalloids, wherein the sum of all parts by mole of Mg, Zn, the third element, and the other elements amounts to 1.00, wherein the amount in parts by mole of the other elements is lower than the amount in parts by mole of Mg and is lower than the amount in parts by mole of Zn; oxygen; and less than 0.01 parts by mole of non-metallic and non-metalloid impurities.

Abstract: A Conductive Bridge Random Access Memory (CBRAM) device is disclosed, comprising an insulating electrolyte element sandwiched between a cation supply electrode and a bottom electrode, whereby the cation supply electrode consists of a CuxZyeTez alloy with Z being Ge or Si and with y>15 at. %.

Abstract: The present invention discloses a method for forming germanides on substrates with exposed germanium and exposed dielectric(s) topography, thereby allowing for variations in the germanide forming process. The method comprises the steps of depositing nickel on a substrate having topography, performing a first thermal step to convert substantially all deposited nickel in regions away from the topography into a germanide, selectively removing the unreacted nickel, and performing a second thermal step to lower the resistance of formed germanide.

Abstract: The present invention discloses a method for forming germanides on substrates with exposed germanium and exposed dielectric(s) topography, thereby allowing for variations in the germanide forming process. The method comprises the steps of depositing nickel on a substrate having topography, performing a first thermal step to convert substantially all deposited nickel in regions away from the topography into a germanide, selectively removing the unreacted nickel, and performing a second thermal step to lower the resistance of formed germanide.

Abstract: A method for removing unreacted metal from a germanium layer, a germanide layer and or a dielectric material. The method includes removing the unreacted metal using a chemical composition that includes one or more hydrohalides, such as in an aqueous form. In certain embodiments, the chemical composition may also include H2SO4. Also, in certain embodiments, the chemical composition may be heated to increase the etch rate of the unreacted metal and/or improve the etch selectivity to the germanium, the germanide and/or the dielectric material.