摘要:
By providing heat dissipation elements or heat pipes in temperature critical areas of a semiconductor device, enhanced performance, reliability and packing density may be achieved. The heat dissipation elements may be formed on the basis of standard manufacturing techniques and may be positioned in close proximity to individual transistor elements and/or may be used for shielding particular circuit portions.
摘要:
The amount of Pt residues remaining after forming Pt-containing NiSi is reduced by performing a rework including applying SPM at a temperature of 130° C. in a SWC tool, if Pt residue is detected. Embodiments include depositing a layer of Ni/Pt on a semiconductor substrate, annealing the deposited Ni/Pt layer, removing unreacted Ni from the annealed Ni/Pt layer, annealing the Ni removed Ni/Pt layer, removing unreacted Pt from the annealed Ni removed Ni/Pt layer, analyzing the Pt removed Ni/Pt layer for unreacted Pt residue, and if unreacted Pt residue is detected, applying SPM to the Pt removed Ni/Pt layer in a SWC tool. The SPM may be applied to the Pt removed Ni'/Pt layer at a temperature of 130° C.
摘要:
By selectively modifying the spacer width, for instance, by reducing the spacer width on the basis of implantation masks, an individual adaptation of dopant profiles may be achieved without unduly contributing to the overall process complexity. For example, in sophisticated integrated circuits, the performance of transistors of the same or different conductivity type may be individually adjusted by providing different sidewall spacer widths on the basis of an appropriate masking regime.
摘要:
In a replacement gate approach in sophisticated semiconductor devices, a tantalum nitride etch stop material may be efficiently removed on the basis of a wet chemical etch recipe using ammonium hydroxide. Consequently, a further work function adjusting material may be formed with superior uniformity, while the efficiency of the subsequent adjusting of the work function may also be increased. Thus, superior uniformity, i.e., less pronounced transistor variability, may be accomplished on the basis of a replacement gate approach in which the work function of the gate electrodes of P-channel transistors and N-channel transistors is adjusted after completing the basic transistor configuration.
摘要:
By recessing portions of the drain and source areas on the basis of a spacer structure, the subsequent implantation process for forming the deep drain and source regions may result in a moderately high dopant concentration extending down to the buried insulating layer of an SOI transistor. Furthermore, the spacer structure maintains a significant amount of a strained semiconductor alloy with its original thickness, thereby providing an efficient strain-inducing mechanism. By using sophisticated anneal techniques, undue lateral diffusion may be avoided, thereby allowing a reduction of the lateral width of the respective spacers and thus a reduction of the length of the transistor devices. Hence, enhanced charge carrier mobility in combination with reduced junction capacitance may be accomplished on the basis of reduced lateral dimensions.
摘要:
In a replacement gate approach, one work function metal may be provided in an early manufacturing stage, i.e., upon depositing the gate layer stack, thereby reducing the number of deposition steps required in a later manufacturing stage. Consequently, the further work function metal and the electrode metal may be filled into the gate trenches on the basis of superior process conditions compared to conventional replacement gate approaches.
摘要:
By selectively modifying the spacer width, for instance, by reducing the spacer width on the basis of implantation masks, an individual adaptation of dopant profiles may be achieved without unduly contributing to the overall process complexity. For example, in sophisticated integrated circuits, the performance of transistors of the same or different conductivity type may be individually adjusted by providing different sidewall spacer widths on the basis of an appropriate masking regime.
摘要:
In a stacked chip configuration, the “inter chip” connection is established on the basis of functional molecules, thereby providing a fast and space-efficient communication between the different semiconductor chips.
摘要:
Performance of P-channel transistors may be enhanced on the basis of an embedded strain-inducing semiconductor alloy by forming a gate electrode structure on the basis of a high-k dielectric material in combination with a metal-containing cap layer in order to obtain an undercut configuration of the gate electrode structure. Consequently, the strain-inducing semiconductor alloy may be formed on the basis of a sidewall spacer of minimum thickness in order to position the strain-inducing semiconductor material closer to a central area of the channel region.
摘要:
By recessing portions of the drain and source areas on the basis of a spacer structure, the subsequent implantation process for forming the deep drain and source regions may result in a moderately high dopant concentration extending down to the buried insulating layer of an SOI transistor. Furthermore, the spacer structure maintains a significant amount of a strained semiconductor alloy with its original thickness, thereby providing an efficient strain-inducing mechanism. By using sophisticated anneal techniques, undue lateral diffusion may be avoided, thereby allowing a reduction of the lateral width of the respective spacers and thus a reduction of the length of the transistor devices. Hence, enhanced charge carrier mobility in combination with reduced junction capacitance may be accomplished on the basis of reduced lateral dimensions.