Abstract:
A semiconductor structure is provided. The semiconductor structure includes a first stacked structure. The first stacked structure includes a first stacked portion disposed along a first direction, at least one second stacked portion connected with the first stacked portion and disposed along a second direction perpendicular to the first direction, and at least one third stacked portion connected with the first direction and arranged alternately with the second stacked portion along the first direction. The width of the third stacked portion is smaller than the width of the second stacked portion along the second direction.
Abstract:
A memory device comprises plural of silicon-containing layers, string select lines (SSLs), strings, bit lines, metal strapped word lines and plural sets of multi-plugs structure. The silicon-containing layers stacked at a substrate. The SSLs are disposed on the silicon-containing layers and extend along a first direction. The strings are perpendicular to the silicon-containing layers and the SSLs and electrically connected to the SSLs. The bit lines are disposed on the SSLs extending along a second direction and electrically connected to the strings. The plural sets of multi-plugs structure are arranged along the first direction, so as to make the strings disposed between two adjacent sets of multi-plugs structure, wherein each set of multi-plugs structure has plural plugs each corresponding to and connected with one of the silicon-containing layers. Each of the metal strapped word lines is connected to the plugs that are connected to the identical silicon-containing layer.
Abstract:
A memory device comprises plural of silicon-containing layers, string select lines (SSLs), strings, bit lines, metal strapped word lines and plural sets of multi-plugs structure. The silicon-containing layers stacked at a substrate. The SSLs are disposed on the silicon-containing layers and extend along a first direction. The strings are perpendicular to the silicon-containing layers and the SSLs and electrically connected to the SSLs. The bit lines are disposed on the SSLs extending along a second direction and electrically connected to the strings. The plural sets of multi-plugs structure are arranged along the first direction, so as to make the strings disposed between two adjacent sets of multi-plugs structure, wherein each set of multi-plugs structure has plural plugs each corresponding to and connected with one of the silicon-containing layers. Each of the metal strapped word lines is connected to the plugs that are connected to the identical silicon-containing layer.
Abstract:
A three-dimensional stacked IC device includes a stack of at least first, second, third and fourth contact levels at an interconnect region. Each contact level has a conductive layer and an insulation layer. First, second, third and fourth electrical conductors pass through portions of the stack of contact levels. The first, second, third and fourth electrical conductors are in electrical contact with the first, second, third and fourth conductive layers, respectively. A dielectric sidewall spacer circumferentially surrounds the second, third and fourth electrical conductors so that the second, third and fourth electrical conductors only electrically contact the respective second, third and fourth conductive layers.
Abstract:
A three dimensional stacked multi-chip structure including M chips, a first conductive pillar, and N second conductive pillars is provided. Each chip has a common connection area and a chip-enable area, and includes a substrate and a patterned circuit layer disposed on the substrate. The patterned circuit layer includes an active element, at least one common conductive structure in the common connection area, and N chip-enable conductive structures in the chip-enable area. The first conductive pillar connects the common conductive structure of the M chips. Each second conductive pillar connects one of the N chip-enable conductive structures of the M chips. The chip-conductive areas of the M chips have different conducting states. N is large than 1, M is large than 2, and M is smaller than or equal to 2N.
Abstract:
A 3D stacking semiconductor device and a manufacturing method thereof are provided. The manufacturing method includes the following steps. N layers of stacking structures are provided. Each stacking structure includes a conductive layer and an insulating layer. A first photoresist layer is provided. The stacking structures are etched P-1 times by using the first photoresist layer as a mask. A second photoresist layer is provided. The stacking structures are etched Q-1 times by using the second photoresist layer as a mask. The first photoresist layer is trimmed along a first direction. The second photoresist layer is trimmed along a second direction. The first direction is different from the second direction. A plurality of contact points are arranged along the first and the second directions in a matrix. The included angle between the first direction and the second direction is an acute angle.
Abstract:
A 3D semiconductor device and a 3D logic array structure thereof are provided. The 3D semiconductor device includes an array structure, a periphery line structure and a 3D logic array structure. The array structure has Y contacts located at a side of the array structure. Y is within MN-1 to MN. Y, M and N are natural numbers. M is larger or equal to 2. The 3D logic array structure includes N sets of gate electrodes, an input electrode and Y output electrodes. Each set of the gate electrodes has M gate electrodes. The Y output electrodes connect the Y contacts. The M·N gate electrodes and the input electrode connect the periphery line structure.
Abstract:
A method for forming a contact structure includes forming a stack of alternating active layers and insulating layers. The stack includes first and second sub stacks each with active layers separated by insulating layers. The active layers of each sub stack include an upper boundary active layer. A sub stack insulating layer is formed between the first and second sub stacks with an etching time different from the etching times of the insulating layers for a given etching process. The upper boundary active layers are accessed, after which the remainder of the active layers are accessed to create a stairstep structure of landing areas on the active layers. Interlayer conductors are formed to extend to the landing areas, the interlayer conductors separated from one another by insulating material.
Abstract:
A memory array structure is provided. The memory array structure comprises a ring-shaped electrical pattern comprising a plurality of word lines, an array area comprising a first array, a second array and a plurality of bit lines, and a contact area comprising a plurality of contact points. The first array comprises one part of the word lines, and a first ground select line and a first string select line disposed on both sides of the word lines. The second array comprises another part of the word lines, and a second ground select line and a second string select line disposed on both sides of the word lines. The bit lines are disposed on the first array and the second array, and cross both of the first array and the second array. The word lines electrically contact with an external circuit through the contact points.
Abstract:
To form an interconnect conductor structure, a stack of pads, coupled to respective active layers of a circuit, is formed. Rows of interlayer conductors are formed to extend in an X direction in contact with landing areas on corresponding pads in the stack. Adjacent rows are separated from one another in a Y direction generally perpendicular to the X direction. The interlayer conductors in a row have a first pitch in the X direction. The interlayer conductors in adjacent rows are offset in the X direction by an amount less than the first pitch. Interconnect conductors are formed over and in contact with interlayer conductors. The interconnect conductors extend in the Y direction and have a second pitch less than the first pitch.