Abstract: The disclosed and claimed subject matter relates to crystalline ferroelectric materials that include a mixture of hafnium oxide and zirconium oxide having a substantial (i.e., approximately 40% or more) or majority portion of the material in a ferroelectric phase as deposited (i.e., without the need for further processing, such as a subsequent capping or annealing) and methods for preparing and depositing these materials.

Abstract: Provided are novel compositions of current compliance layers (CCLs) as well as novel methods of fabricating such CCLs and novel architectures of arranging CCLs and memory cells in memory arrays. A CCL may comprise one of sulfur (S), selenium (Se), and tellurium (Te). The CCL may further comprise one of germanium (Ge) and silicon (Si). CCLs may be fabricated as amorphous structure and remain amorphous when heated to 400° C. or 450° C. and above. In some embodiments, CCLs have crystallization temperatures of greater than 400° C. and, in some embodiments, glass transition temperatures of greater than 400° C. CCLs may be fabricated using atomic layer deposition (ALD) as a nanolaminate of layers having different compositions. The composition, number, and arrangement of the layers in the nanolaminate is specifically selected to yield a desired composition of CCL.

Abstract: Provided are novel compositions of current compliance layers (CCLs) as well as novel methods of fabricating such CCLs and novel architectures of arranging CCLs and memory cells in memory arrays. A CCL may comprise one of sulfur (S), selenium (Se), and tellurium (Te). The CCL may further comprise one of germanium (Ge) and silicon (Si). CCLs may be fabricated as amorphous structure and remain amorphous when heated to 400° C. or 450° C. and above. In some embodiments, CCLs have crystallization temperatures of greater than 400° C. and, in some embodiments, glass transition temperatures of greater than 400° C. CCLs may be fabricated using atomic layer deposition (ALD) as a nanolaminate of layers having different compositions. The composition, number, and arrangement of the layers in the nanolaminate is specifically selected to yield a desired composition of CCL.

Abstract: Provided are novel compositions of current compliance layers (CCLs) as well as novel methods of fabricating such CCLs and novel architectures of arranging CCLs and memory cells in memory arrays. A CCL may comprise one of sulfur (S), selenium (Se), and tellurium (Te). The CCL may further comprise one of germanium (Ge) and silicon (Si). CCLs may be fabricated as amorphous structure and remain amorphous when heated to 400° C. or 450° C. and above. In some embodiments, CCLs have crystallization temperatures of greater than 400° C. and, in some embodiments, glass transition temperatures of greater than 400° C. CCLs may be fabricated using atomic layer deposition (ALD) as a nanolaminate of layers having different compositions. The composition, number, and arrangement of the layers in the nanolaminate is specifically selected to yield a desired composition of CCL.

Abstract: Provided are novel compositions of current compliance layers (CCLs) as well as novel methods of fabricating such CCLs and novel architectures of arranging CCLs and memory cells in memory arrays. A CCL may comprise one of sulfur (S), selenium (Se), and tellurium (Te). The CCL may further comprise one of germanium (Ge) and silicon (Si). CCLs may be fabricated as amorphous structure and remain amorphous when heated to 400° C. or 450° C. and above. In some embodiments, CCLs have crystallization temperatures of greater than 400° C. and, in some embodiments, glass transition temperatures of greater than 400° C. CCLs may be fabricated using atomic layer deposition (ALD) as a nanolaminate of layers having different compositions. The composition, number, and arrangement of the layers in the nanolaminate is specifically selected to yield a desired composition of CCL.

Abstract: A multi-band antenna is provided. The antenna includes a radiating element resonant for at least two resonant frequencies, and at least two matching elements that are electrically connectable to the radiating element to substantially match an input impedance of the antenna to a reference impedance for each one of the at least two resonant frequencies. A method for transmitting and receiving on one or more frequency bands is also provided that includes selecting at least one resonant frequency, selectively electrically connecting a matching element corresponding to the at least one selected resonant frequency to a radiating element resonant at the one or more frequency bands, and receiving or transmitting a wireless signal at the at least one selected resonant frequency with the radiating element.

Abstract: A multi-band antenna is provided. The antenna includes a radiating element resonant for at least two resonant frequencies, and at least two matching elements that are electrically connectable to the radiating element to substantially match an input impedance of the antenna to a reference impedance for each one of the at least two resonant frequencies. A method for transmitting and receiving on one or more frequency bands is also provided that includes selecting at least one resonant frequency, selectively electrically connecting a matching element corresponding to the at least one selected resonant frequency to a radiating element resonant at the one or more frequency bands, and receiving or transmitting a wireless signal at the at least one selected resonant frequency with the radiating element.