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    • 6. 发明申请
    • STRUCTURE AND METHOD TO OPTIMIZE STRAIN IN CMOSFETS
    • 在CMOSFET中优化应变的结构和方法
    • WO2006078740A2
    • 2006-07-27
    • PCT/US2006001768
    • 2006-01-19
    • IBMCHEN XIANGDONGYANG HAINING S
    • CHEN XIANGDONGYANG HAINING S
    • H01L29/78H01L21/8238
    • H01L29/7843H01L21/823807H01L21/823842H01L2924/0002H01L2924/00
    • A semiconductor structure of strained MOSFETs, comprising both PMOSFETs and NMOSFETS, and a method for fabricating strained MOSFETs are disclosed that optimize strain in the MOSFETs, and more particularly maximize the strain in one kind (P or N) of MOSFET and minimize and relax the strain in another kind (N or P) of MOSFET, A strain inducing CA nitride coating having an original full thickness is formed over both the PMOSFETs and the NMOSFETs, wherein the strain inducing coating produces an optimized full strain in one kind of semiconductor device and degrades the performance of the other kind of semiconductor device. The strain inducing CA nitride coating is etched to a reduced thickness over the other kind of semiconductor devices, wherein the reduced thickness of the strain inducing coating relaxes and produces less strain in the other MOSFETs.
    • 公开了包括PMOSFET和NMOSFETS的应变MOSFET的半导体结构以及制造应变MOSFET的方法,其优化MOSFET中的应变,并且更特别地使MOSFET的一种(P或N)中的应变最大化并且使 在另一种(N或P)MOSFET的应变中,在PMOSFET和NMOSFET两者上形成具有原始全厚度的A应变诱导氮化镓氮化物涂层,其中应变诱导涂层在一种半导体器件中产生优化的全应变, 降低了另一种半导体器件的性能。 诱导氮化钛涂层的应变被蚀刻到比另一种半导体器件更薄的厚度,其中应变诱导涂层的减小的厚度在其它MOSFET中松弛并产生较小的应变。
    • 7. 发明申请
    • HIGH-DRIVE CURRENT MOSFET
    • 高驱动电流MOSFET
    • WO2011056391A3
    • 2011-08-04
    • PCT/US2010052989
    • 2010-10-18
    • IBMPARK JAE-EUNWANG XINLINCHEN XIANGDONG
    • PARK JAE-EUNWANG XINLINCHEN XIANGDONG
    • H01L29/78H01L21/336
    • H01L29/7394H01L29/66325
    • A method of forming a semiconductor device 100 having an asymmetrical source and drain. In one embodiment, the method includes forming a gate structure 15 on a first portion of the substrate 5 having a well 35 of a first conductivity. A source region 20 of a second conductivity and drain region 25 of the second conductivity is formed within the well 35 of the first conductivity in a portion of the substrate that is adjacent to the first portion of the substrate on which the gate structure is present. A doped region 30 of a second conductivity is formed within the drain region to provide an integrated bipolar transistor on a drain side of the semiconductor device, in which a collector is provided by the well of the first conductivity, the base is provided by the drain region of the second conductivity and the emitter is provided by the doped region of the second conductivity that is present in the drain region. A semiconductor device formed by the above-described method is also provided.
    • 一种形成具有不对称源极和漏极的半导体器件100的方法。 在一个实施例中,该方法包括在具有第一导电性的阱35的基板5的第一部分上形成栅极结构15。 在基板的与存在栅极结构的第一部分相邻的部分中,在第一导电体的阱35内形成具有第二导电性的第二导电和漏极区域25的源极区域20。 在漏区内形成具有第二导电性的掺杂区域30,以在半导体器件的漏极侧提供集成的双极晶体管,其中集电极由第一导电性阱提供,基极由漏极 第二电导率的区域和发射极由存在于漏极区域中的第二导电性的掺杂区域提供。 还提供了通过上述方法形成的半导体器件。
    • 10. 发明专利
    • High-drive current mosfet
    • GB2487158A
    • 2012-07-11
    • GB201206425
    • 2010-10-18
    • IBM
    • PARK JAE-EUNWANG XINLINCHEN XIANGDONG
    • H01L21/8249H01L27/06H01L27/12H01L29/66
    • A method of forming a semiconductor device 100 having an asymmetrical source and drain. In one embodiment, the method includes forming a gate structure 15 on a first portion of the substrate 5 having a well 35 of a first conductivity. A source region 20 of a second conductivity and drain region 25 of the second conductivity is formed within the well 35 of the first conductivity in a portion of the substrate that is adjacent to the first portion of the substrate on which the gate structure is present. A doped region 30 of a second conductivity is formed within the drain region to provide an integrated bipolar transistor on a drain side of the semiconductor device, in which a collector is provided by the well of the first conductivity, the base is provided by the drain region of the second conductivity and the emitter is provided by the doped region of the second conductivity that is present in the drain region. A semiconductor device formed by the above-described method is also provided.