Abstract: A cubic memory array is fabricated on a substrate having a planar surface. The cubic memory array includes a plurality of first select-lines organized in more than one plane parallel to the planar surface. A plurality of second select-lines is formed in pillars disposed orthogonal to the planer surface of the substrate. A plurality of memory cells are respectively coupled to the plurality of first and plurality of second select-lines.

Abstract: A memory structure that includes a first electrode, a second electrode, a third electrode, a control element of a predetermined device type disposed between the first electrode and the second electrode, and a memory storage element of the predetermined device type disposed between the second electrode and the third electrode. The memory storage element has a has a cross-sectional area that is greater than a cross-sectional area of the control element.

Abstract: A cubic memory array is fabricated on a substrate having a planar surface. The cubic memory array includes a plurality of first select-lines organized in more than one plane parallel to the planar surface. A plurality of second select-lines is formed in pillars disposed orthogonal to the planer surface of the substrate. A plurality of memory cells are respectively coupled to the plurality of first and plurality of second select-lines.

Abstract: A memory structure that includes a first electrode, a second electrode, a third electrode, a control element disposed between the first electrode and the second electrode, and a memory storage element disposed between the second electrode and the third electrode. At least one of the control element and memory storage element is protected from contamination by at least one of the first electrode, second electrode and third electrode.

Abstract: A method of creating a memory circuit preferably includes (1) forming a first plurality of select-lines in a plane substantially parallel to a substrate, (2) forming a second plurality of select-lines in a plane substantially parallel to the substrate, where the second plurality of select-lines is divided into first and second groups, where the first group is formed in a direction normal to that of the first plurality of select-lines and the second group is formed in a direction substantially diagonal to that of the first group, (3) forming a plurality of pillars normal to the substrate, and (4) forming an array of memory cells, each memory cell being respectively coupled to a pillar and one of each of said first and second pluralities of select-lines.

Abstract: A memory structure that includes a first electrode, a second electrode having an edge, a third electrode, a control element disposed between the first electrode and the second electrode, and memory storage element disposed between the edge of the second electrode and the third electrode.

Abstract: A memory structure includes a memory storage element electrically coupled to a control element. The control element comprises a tunnel-junction device. The memory storage element may also comprise a tunnel-junction device. Methods for fusing a tunnel-junction device of a memory storage element without fusing a tunnel-junction device of an associated control element are disclosed. The memory storage element may have an effective cross-sectional area that is greater than an effective cross-sectional area of the control element. A memory structure comprises a memory storage element, a control element comprising a tunnel-junction device electrically coupled to the memory storage element and configured to control the state of the memory storage element, and a reference element. The reference element is configured as a reference to protect the control element when selectively controlling the state of the memory storage element.

Abstract: Tunnel-junction structures are fabricated by any of a set of related methods that form two or more tunnel junctions simultaneously. The fabrication methods disclosed are compatible with conventional CMOS fabrication practices, including both single damascene and dual damascene processes. The simultaneously formed tunnel junctions may have different areas. In some embodiments, tub-well structures are formed with sloped sidewalls. In some embodiments, an oxide-metal-oxide film stack on the sidewall of a tub-well is etched to form the tunnel junctions. Memory circuits, other integrated circuit structures, substrates carrying microelectronics, and other electronic devices made by the methods are disclosed.

Abstract: Interconnection structures for integrated circuits have a first array of cells, at least a second array of cells parallel to the first array, and interconnections disposed for connecting cells of the first array with cells of the second array, at least some of the interconnections being disposed along axes oriented obliquely to the first and second arrays. First and second sets of oblique axes of interconnections may be parallel or opposed to each other. The interconnections may include obliquely slanted pillars or stair-stepped pillars disposed along the oblique axes. Methods for fabricating and using such structures are disclosed.

Abstract: An antifuse structure has an antifuse between first and second thermal conduction regions. Each of the first and second thermal conduction regions has a portion of low thermal conductivity and a portion of high thermal conductivity. The portion having low thermal conductivity is between the respective portion of high thermal conductivity and the antifuse.

Abstract: A memory cell has a first and second conductor. The first conductor is oriented in a first direction and the second conductor is oriented in a second direction. The first conductor has at least one edge. A state-change layer is disposed on the first conductor and a control element is partially offset over the at least one edge of the first conductor. The control element is disposed between the first and second conductors. Preferably the state-change layer is a direct-tunneling or dielectric rupture anti-fuse. A memory array can be formed from a plurality of the memory cells. Optionally, creating multiple layers of the memory cells can form a three-dimensional memory array.

Abstract: The invention includes an electronic memory structure. The electronic memory structure includes a substrate. A substantially planar first conductor is formed adjacent to the substrate. An interconnection layer is formed adjacent to the first conductor. A phase change material element is formed adjacent to the interconnection layer. The interconnection layer includes a conductive interconnect structure extending from the first conductor to the phase change material element. The interconnect structure includes a first surface physically connected to the first conductor. The interconnect structure further includes a second surface attached to the phase change material element. The second surface area of the second surface is substantially smaller than a first surface area of the first surface. A substantially planar second conductor is formed adjacent to the phase change material element.

Abstract: A memory structure has a plurality of row conductors intersecting a plurality of column conductors at a plurality of intersections. Each intersection includes an electrically linear resistive element in series with a voltage breakdown element.

Abstract: A memory device includes memory components that represent a logic value corresponding to a data bit in a bit sequence. A defective memory component in the memory device represents a data bit in the bit sequence. An additional memory component in the memory device represents an encode bit in the bit sequence, where the encode bit indicates whether the bit sequence is inverted.

Abstract: An antifuse structure has an antifuse between first and second thermal conduction regions. Each of the first and second thermal conduction regions has a portion of low thermal conductivity and a portion of high thermal conductivity. The portion having low thermal conductivity is between the respective portion of high thermal conductivity and the antifuse.

Abstract: A memory cell has a first and second conductor. The first conductor is oriented in a first direction and the second conductor is oriented in a second direction. The first conductor has at least one edge. A state-change layer is disposed on the first conductor and a control element is partially offset over the at least one edge of the first conductor. The control element is disposed between the first and second conductors. Preferably the state-change layer is a direct-tunneling or dielectric rupture anti-fuse. A memory array can be formed from a plurality of the memory cells. Optionally, creating multiple layers of the memory cells can form a three-dimensional memory array.

Abstract: An integrated circuit includes an array of state-change devices, first and second decoder circuits for selecting a particular state-change device. A voltage source is coupled to the first decoder circuit and sense circuitry is coupled to the second decoder to receive an electrical parameter from the selected state-change device and to detect a particular value of the electrical parameter. A control circuit is coupled to the voltage source, the first and second decoders, and the sense circuitry to select a first voltage from the voltage source to alter the selected state-change device and to select a second voltage from the voltage source when the sense circuitry detects the particular value of the electrical parameter.

Abstract: A memory cell has a first and second conductor. The first conductor is oriented in a first direction and the second conductor is oriented in a second direction. The first conductor has at least one edge. A state-change layer is disposed on the first conductor and a control element is partially offset over the at least one edge of the first conductor. The control element is disposed between the first and second conductors. Preferably the state-change layer is a direct-tunneling or dielectric rupture anti-fuse. A memory array can be formed from a plurality of the memory cells. Optionally, creating multiple layers of the memory cells can form a three-dimensional memory array.

Abstract: A memory structure has an antifuse material that is unpatterned and sandwiched between each of a plurality of antifuse electrode pairs. The antifuse material is continuous between the antifuse electrode pairs. Furthermore the present invention includes a memory structure comprising a plurality of antifuse electrode pairs forming a plurality of row conductors and a plurality of middle conductors in electrical communication with a plurality of control elements.

Abstract: The invention relates to a process for the preparation of resols by reacting phenolic compounds with aldehydes with catalysis by metal salts whose cation can easily be precipitated as low-solubility salts in industrial processes. In this process, a dispersant is added to the reaction mixture comprising phenolic compound, aldehyde and metal salt before, during or after the condensation reaction, and a complexing agent is admixed after the condensation reaction is complete and after the dispersant has been admixed. The resultant resins are transparent even after neutralization using sulphuric acid.