摘要:
During the fabrication of advanced transistors, significant dopant diffusion may be suppressed by performing a millisecond anneal process after completing the basic transistor configuration, wherein a stress memorization technique may also be obtained by forming a strain-inducing area within a sidewall spacer structure. Due to the corresponding void formation in the spacer structure, a high tensile strain component may be obtained in the adjacent channel region.
摘要:
During the fabrication of advanced transistors, significant dopant diffusion may be suppressed by performing a millisecond anneal process after completing the basic transistor configuration, wherein a stress memorization technique may also be obtained by forming a strain-inducing area within a sidewall spacer structure. Due to the corresponding void formation in the spacer structure, a high tensile strain component may be obtained in the adjacent channel region.
摘要:
During the fabrication of advanced transistors, significant dopant diffusion may be suppressed by performing a millisecond anneal process after completing the basic transistor configuration, wherein a stress memorization technique may also be obtained by forming a strain-inducing area within a sidewall spacer structure. Due to the corresponding void formation in the spacer structure, a high tensile strain component may be obtained, in the adjacent channel region.
摘要:
During the fabrication of advanced transistors, significant dopant diffusion may be suppressed by performing a millisecond anneal process after completing the basic transistor configuration, wherein a stress memorization technique may also be obtained by forming a strain-inducing area within a sidewall spacer structure. Due to the corresponding void formation in the spacer structure, a high tensile strain component may be obtained, in the adjacent channel region.
摘要:
Disclosed herein are various methods of forming stressed silicon-carbon areas in an NMOS transistor device. In one example, a method disclosed herein includes forming a layer of amorphous carbon above a surface of a semiconducting substrate comprising a plurality of N-doped regions and performing an ion implantation process on the layer of amorphous carbon to dislodge carbon atoms from the layer of amorphous carbon and to drive the dislodged carbon atoms into the N-doped regions in the substrate.
摘要:
A method is disclosed for fabricating an integrated circuit in a replacement-gate process flow utilizing a dummy-gate structure overlying a plurality of fin structures. The method includes removing the dummy-gate structure to form a first void space, depositing a shaper material to fill the first void space, removing a portion of the plurality of fin structures to form a second void space, epitaxially growing a high carrier mobility material to fill the second void space, removing the shaper material to form a third void space, and depositing a replacement metal gate material to fill the third void space.
摘要:
Disclosed herein are various methods of forming stressed silicon-carbon areas in an NMOS transistor device. In one example, a method disclosed herein includes forming a layer of amorphous carbon above a surface of a semiconducting substrate comprising a plurality of N-doped regions and performing an ion implantation process on the layer of amorphous carbon to dislodge carbon atoms from the layer of amorphous carbon and to drive the dislodged carbon atoms into the N-doped regions in the substrate.
摘要:
Generally, the present disclosure is directed to various methods of making a semiconductor device by implanting hydrogen or hydrogen-containing clusters to improve the interface between a gate insulation layer and the substrate. One illustrative method disclosed herein involves forming a gate insulation layer on a substrate, forming a layer of gate electrode material above the gate insulation material and performing an ion implantation process with a material comprising hydrogen or a hydrogen-containing compound to introduce the hydrogen or hydrogen-containing compound proximate an interface between the gate insulation layer and said substrate with a concentration of the implanted hydrogen or hydrogen-containing compound being at least 1e10 ions/cm2.
摘要翻译:通常,本公开涉及通过注入氢或含氢簇来改善栅极绝缘层和衬底之间的界面来制造半导体器件的各种方法。 本文公开的一种说明性方法包括在衬底上形成栅极绝缘层,在栅极绝缘材料上方形成栅极材料层,并用含有氢或含氢化合物的材料进行离子注入工艺以引入氢或氢 邻近于栅极绝缘层和所述衬底之间的界面,其中所注入的氢或含氢化合物的浓度为至少1e 10离子/ cm 2。
摘要:
Generally, the present disclosure is directed to various methods of making a semiconductor device by implanting hydrogen or hydrogen-containing clusters to improve the interface between a gate insulation layer and the substrate. One illustrative method disclosed herein involves forming a gate insulation layer on a substrate, forming a layer of gate electrode material above the gate insulation material and performing an ion implantation process with a material comprising hydrogen or a hydrogen-containing compound to introduce the hydrogen or hydrogen-containing compound proximate an interface between the gate insulation layer and said substrate with a concentration of the implanted hydrogen or hydrogen-containing compound being at least 1e10 ions/cm2.
摘要翻译:通常,本公开涉及通过注入氢或含氢簇来改善栅极绝缘层和衬底之间的界面来制造半导体器件的各种方法。 本文公开的一种说明性方法包括在衬底上形成栅极绝缘层,在栅极绝缘材料上方形成栅极材料层,并用含有氢或含氢化合物的材料进行离子注入工艺以引入氢或氢 邻近于栅极绝缘层和所述衬底之间的界面,其中所注入的氢或含氢化合物的浓度为至少1e 10离子/ cm 2。
摘要:
A method is disclosed for fabricating an integrated circuit in a replacement-gate process flow utilizing a dummy-gate structure overlying a plurality of fin structures. The method includes removing the dummy-gate structure to form a first void space, depositing a shaper material to fill the first void space, removing a portion of the plurality of fin structures to form a second void space, epitaxially growing a high carrier mobility material to fill the second void space, removing the shaper material to form a third void space, and depositing a replacement metal gate material to fill the third void space.