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    • 3. 发明授权
    • Semiconductor doping with improved activation
    • 半导体掺杂改善激活
    • US07572716B2
    • 2009-08-11
    • US11739981
    • 2007-04-25
    • Haowen BuShashank S. EkboteBorna ObradovicSrinivasan Chakravarthi
    • Haowen BuShashank S. EkboteBorna ObradovicSrinivasan Chakravarthi
    • H01L21/425
    • H01L21/26506H01L21/26513H01L21/324
    • A method is disclosed for doping a target area of a semiconductor substrate, such as a source or drain region of a transistor, with an electronically active dopant (such as an N-type dopant used to create active areas in NMOS devices, or a P-type dopant used to create active areas in PMOS devices) having a well-controlled placement profile and strong activation. The method comprises placing a carbon-containing diffusion suppressant in the target area at approximately 50% of the concentration of the dopant, and activating the dopant by an approximately 1,040 degree Celsius thermal anneal. In many cases, a thermal anneal at such a high temperature induces excessive diffusion of the dopant out of the target area, but this relative concentration of carbon produces a heretofore unexpected reduction in dopant diffusion during such a high-temperature thermal anneal. The disclosure also pertains to semiconductor components produced in this manner, and various embodiments and improvements of such methods for producing such components.
    • 公开了一种用于将诸如晶体管的源极或漏极区域的半导体衬底的目标区域掺杂到电子有源掺杂剂(例如用于在NMOS器件中产生有源区域的N型掺杂剂)或P 用于在PMOS器件中产生有源区)的具有良好控制的放置曲线和强激活。 该方法包括将目标区域中的含碳扩散抑制剂置于掺杂剂浓度的约50%处,并使掺杂剂活化约1,040摄氏度的热退火。 在许多情况下,在这样高的温度下的热退火引起掺杂剂离开目标区域的过度扩散,但这种相对浓度的碳在这样的高温热退火期间产生了掺杂剂扩散的意外的减少。 本公开还涉及以这种方式制造的半导体部件,以及用于制造这种部件的这种方法的各种实施例和改进。
    • 5. 发明申请
    • SEMICONDUCTOR DOPING WITH IMPROVED ACTIVATION
    • 具有改进活性的半导体掺杂
    • US20080268623A1
    • 2008-10-30
    • US11739981
    • 2007-04-25
    • Haowen BuShashank S. EkboteBorna ObradovicSrinivasan Chakravarthi
    • Haowen BuShashank S. EkboteBorna ObradovicSrinivasan Chakravarthi
    • H01L21/425H01L21/26
    • H01L21/26506H01L21/26513H01L21/324
    • A method is disclosed for doping a target area of a semiconductor substrate, such as a source or drain region of a transistor, with an electronically active dopant (such as an N-type dopant used to create active areas in NMOS devices, or a P-type dopant used to create active areas in PMOS devices) having a well-controlled placement profile and strong activation. The method comprises placing a carbon-containing diffusion suppressant in the target area at approximately 50% of the concentration of the dopant, and activating the dopant by an approximately 1,040 degree Celsius thermal anneal. In many cases, a thermal anneal at such a high temperature induces excessive diffusion of the dopant out of the target area, but this relative concentration of carbon produces a heretofore unexpected reduction in dopant diffusion during such a high-temperature thermal anneal. The disclosure also pertains to semiconductor components produced in this manner, and various embodiments and improvements of such methods for producing such components.
    • 公开了一种用于将诸如晶体管的源极或漏极区域的半导体衬底的目标区域掺杂到电子有源掺杂剂(例如用于在NMOS器件中产生有源区域的N型掺杂剂)或P 用于在PMOS器件中产生有源区)的具有良好控制的放置曲线和强激活。 该方法包括将目标区域中的含碳扩散抑制剂置于掺杂剂浓度的约50%处,并使掺杂剂活化约1,040摄氏度的热退火。 在许多情况下,在这样高的温度下的热退火引起掺杂剂离开目标区域的过度扩散,但这种相对浓度的碳在这样的高温热退火期间产生了掺杂剂扩散的意外的减少。 本公开还涉及以这种方式制造的半导体部件,以及用于制造这种部件的这种方法的各种实施例和改进。
    • 10. 发明授权
    • Integrated circuit having silicide block resistor
    • 具有硅化物阻抗电阻的集成电路
    • US08748256B2
    • 2014-06-10
    • US13366903
    • 2012-02-06
    • Song ZhaoGregory Charles BaldwinShashank S. EkboteYoun Sung Choi
    • Song ZhaoGregory Charles BaldwinShashank S. EkboteYoun Sung Choi
    • H01L27/088
    • H01L27/0629
    • A method for forming an integrated circuit (IC) including a silicide block poly resistor (SIBLK poly resistor) includes forming a dielectric isolation region in a top semiconductor surface of a substrate. A polysilicon layer is formed including patterned resistor polysilicon on the dielectric isolation region and gate polysilicon on the top semiconductor surface. Implanting is performed using a first shared metal-oxide-semiconductor (MOS)/resistor polysilicon implant level for simultaneously implanting the patterned resistor polysilicon and gate polysilicon of a MOS transistor with at least a first dopant. Implanting is then performed using a second shared MOS/resistor polysilicon implant level for simultaneously implanting the patterned resistor polysilicon, gate polysilicon and source and drain regions of the MOS transistor with at least a second dopant. A metal silicide is formed on a first and second portion of a top surface of the patterned resistor polysilicon to form the SIBLK poly resistor.
    • 一种形成包括硅化物阻挡多晶硅电阻(SIBLK聚电阻)的集成电路(IC)的方法包括在衬底的顶部半导体表面中形成介电隔离区。 形成多晶硅层,其包括在电介质隔离区域上的图案化电阻多晶硅和顶部半导体表面上的栅极多晶硅。 使用第一共享金属氧化物半导体(MOS)/电阻器多晶硅注入电平进行植入,以同时用至少第一掺杂剂注入MOS图案化的多晶硅和栅极多晶硅。 然后使用第二共享MOS /电阻器多晶硅注入电平进行植入,以同时用至少第二掺杂剂注入MOS图案化电阻器多晶硅,栅极多晶硅以及MOS晶体管的源极和漏极区域。 金属硅化物形成在图案化电阻器多晶硅的顶表面的第一和第二部分上以形成SIBLK多晶硅电阻器。