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    • 4. 发明授权
    • Integrated circuit device and fabrication using metal-doped chalcogenide materials
    • 集成电路器件和使用金属掺杂的硫族化物材料的制造
    • US06730547B2
    • 2004-05-04
    • US10285462
    • 2002-11-01
    • Jiutao LiAllen McTeer
    • Jiutao LiAllen McTeer
    • H01L2182
    • C23C14/5846C23C14/0623C23C14/544H01L27/2409H01L45/085H01L45/1233H01L45/141H01L45/143H01L45/1658
    • Methods of forming metal-doped chalcogenide layers and devices containing such doped chalcogenide layers include using a plasma to induce diffusion of metal into a chalcogenide layer concurrently with metal deposition. The plasma contains at least one noble gas of low atomic weight, such as neon or helium. The plasma has a sputter yield sufficient to sputter a metal target and a UV component of its emitted spectrum sufficient to induce diffusion of the sputtered metal into the chalcogenide layer. Using such methods, a conductive layer can be formed on the doped chalcogenide layer in situ. In integrated circuit devices, such as non-volatile chalcogenide memory devices, doping of the chalcogenide layer concurrently with metal deposition and formation of a conductive layer in situ with the doping of the chalcogenide layer reduces contamination concerns and physical damage resulting from moving the device substrate from tool to tool, thus facilitating improved device reliability.
    • 形成掺杂金属的硫族化物层的方法和包含这种掺杂的硫族化物层的器件包括使用等离子体来诱导金属与金属沉积同时扩散到硫族化物层中。 等离子体包含至少一种低原子量的惰性气体,例如氖或氦。 等离子体具有足以溅射金属靶的溅射产率和其发射光谱的UV分量足以引起溅射金属扩散到硫族化物层中。 使用这种方法,可以在原位在掺杂的硫族化物层上形成导电层。 在诸如非挥发性硫族化物存储器件的集成电路器件中,与金属沉积同时掺杂硫族化物层并且通过掺杂硫族化物层而原位形成导电层减少了由于移动器件衬底而引起的污染问题和物理损坏 从工具到工具,从而有助于提高设备的可靠性。
    • 6. 发明授权
    • Structure and method for wafer comprising dielectric and semiconductor
    • 包括电介质和半导体的晶片的结构和方法
    • US06649451B1
    • 2003-11-18
    • US09776000
    • 2001-02-02
    • Michael A. VyvodaJames M. CleevesCalvin K. LiSamuel V. Dunton
    • Michael A. VyvodaJames M. CleevesCalvin K. LiSamuel V. Dunton
    • H01L2182
    • H01L21/76224H01L21/76819H01L23/5254H01L27/10H01L2924/0002H01L2924/00
    • Wafers of the present invention comprise a semiconductor layer and a dielectric layer. The semiconductor layer is patterned to form semiconductor regions, and the dielectric layer is deposited on top of the semiconductor layer. Chemical mechanical planarization (CMP) is performed to remove a portion of the dielectric layer, exposing the upper surfaces of the semiconductor regions. The amount of CMP necessary to expose all of the semiconductor regions on the wafer is reduced, because the dielectric is targeted to deposit up to the upper edge of the semiconductor regions in the spaces in between the semiconductor regions. This technique reduces non-uniformities in the thickness of the dielectric and semiconductor layers across the wafer. The thickness of the dielectric or semiconductor layer deposited on polish monitor pads located at the edges of each die may be monitored to determine when enough CMP has been performed to expose each of the semiconductor regions.
    • 本发明的晶片包括半导体层和电介质层。 图案化半导体层以形成半导体区域,并且电介质层沉积在半导体层的顶部上。 执行化学机械平面化(CMP)以去除电介质层的一部分,暴露半导体区域的上表面。 由于电介质被靶向沉积到半导体区域之间的空间中的半导体区域的上边缘,因此减小了使晶片上的所有半导体区域露出所需的CMP量。 该技术降低了跨晶片的电介质层和半导体层的厚度的不均匀性。 可以监测沉积在位于每个管芯边缘的抛光监测器焊盘上的电介质层或半导体层的厚度,以确定何时已经执行了足够的CMP来暴露每个半导体区域。
    • 8. 发明授权
    • Method of making memory cell arrays
    • 制造存储单元阵列的方法
    • US06607944B1
    • 2003-08-19
    • US09918345
    • 2001-07-30
    • Luan TranD. Mark DuncanTyler A. LowreyRob B. KerrKris K. Brown
    • Luan TranD. Mark DuncanTyler A. LowreyRob B. KerrKris K. Brown
    • H01L2182
    • H01L27/10852H01L27/10808H01L27/10885
    • A memory device includes memory cells, bit lines, active area lines running generally in parallel to the bit lines, and transistors formed in each active area line and electrically coupling memory cells to corresponding bit lines. Each bit line includes slanted portions that intersect a corresponding portion of an active area line at an angle. Contacts electrically coupling the bit line to portions of the active area line are formed in a region generally defined by the angled intersection of the bit line to the active area line. The memory cells can have an area of about 6F2, and the bit lines can be coupled to sense amplifiers in a folded bit line configuration. Each bit line includes a first level portion and a second level portion.
    • 存储器件包括存储器单元,位线,通常与位线平行地运行的有源区线以及在每个有源区域线中形成的晶体管,并将存储单元电耦合到相应的位线。 每个位线包括以一角度与有源区域线的相应部分相交的倾斜部分。 将位线电耦合到有源区域线的部分的触点形成在通常由位线到有源区域线的成角度的交叉点限定的区域中。 存储器单元可以具有约6F2的面积,并且位线可以以折叠位线配置耦合到读出放大器。 每个位线包括第一电平部分和第二电平部分。
    • 10. 发明授权
    • Formation of antifuse structure in a three dimensional memory
    • 在三维记忆体中形成反熔丝结构
    • US06541312B2
    • 2003-04-01
    • US09746083
    • 2000-12-22
    • James M. CleevesMichael A. VyvodaN. Johan Knall
    • James M. CleevesMichael A. VyvodaN. Johan Knall
    • H01L2182
    • H01L23/5252H01L2924/0002H01L2924/00
    • The present invention is directed to novel antifuse arrays and their methods of fabrication. According to an embodiment of the present invention an array comprises a plurality of first spaced apart rail-stacks having a top semiconductor material. A fill dielectric is located between the first plurality of spaced apart rail-stacks wherein the fill dielectric extends above the top surface of the semiconductor material. An antifuse material is formed on the top of the semiconductor material of the first plurality of spaced apart rail-stacks. A second plurality of spaced apart rail-stacks having a lower semiconductor material is formed on the antifuse material. In the second embodiment of the present invention the array comprises a first plurality of spaced apart rail-stacks having a top semiconductor material. A fill dielectric is located between the first plurality of spaced apart rail-stacks wherein the fill dielectric is recessed below the top surface of the semiconductor material. An antifuse material is formed on the top semiconductor material of the first plurality of spaced apart rail-stacks. A second plurality of spaced apart rail-stacks having a lower semiconductor film is formed on the antifuse material.
    • 本发明涉及新颖的反熔丝阵列及其制造方法。 根据本发明的实施例,阵列包括具有顶部半导体材料的多个第一间隔开的轨道堆叠。 填充电介质位于第一多个间隔开的轨道堆叠之间,其中填充电介质延伸到半导体材料的顶表面之上。 在第一多个间隔开的轨道堆叠的半导体材料的顶部上形成反熔丝材料。 在反熔丝材料上形成具有下半导体材料的第二多个间隔开的轨道堆叠。在本发明的第二实施例中,阵列包括具有顶部半导体材料的第一多个间隔开的轨道堆叠。 填充电介质位于第一多个间隔开的轨道堆叠之间,其中填充电介质凹陷在半导体材料的顶表面下方。 在第一多个间隔开的轨道堆叠的顶部半导体材料上形成反熔丝材料。 在反熔丝材料上形成具有下半导体膜的第二多个间隔开的轨道堆叠。