Abstract: A method of Back-End-Of-Line processing of a semiconductor device is provided including providing a layout for metal lines of a metallization layer of the semiconductor device, determining a semi-isolated metal line in the provided layout and shifting at least a portion of the determined semi-isolated metal line.

Abstract: A method of Back-End-Of-Line processing of a semiconductor device is provided including providing a layout for metal lines of a metallization layer of the semiconductor device, determining a semi-isolated metal line in the provided layout and shifting at least a portion of the determined semi-isolated metal line.

Abstract: A method includes providing a semiconductor structure. An external mechanical stress is applied to the semiconductor structure. One or more semiconductor manufacturing processes are performed while the external mechanical stress is applied to the semiconductor structure. The one or more semiconductor manufacturing processes provide one or more material layers having an intrinsic stress at the semiconductor structure. After performing the one or more semiconductor manufacturing processes, the external mechanical stress is removed from the semiconductor structure. The removal of the external mechanical stress at least partially relaxes the intrinsic stress of the one or more material layers.

Abstract: By moderately introducing defects into a highly conductive material, such as copper, the resistance versus temperature behavior may be significantly modified so that enhanced electromigration behavior and/or electrical performance may be obtained in metallization structures of advanced semiconductor devices. The defect-related portion of the resistance may be moderately increased so as to change the slope of the resistance versus temperature curve, thereby allowing the incorporation of impurity atoms for enhancing the electromigration endurance while not unduly increasing the overall resistance at the operating temperature or even reducing the corresponding resistance at the specified operating temperature. Thus, by appropriately designing the electrical resistance for a target operating temperature, both the electromigration behavior and the electrical performance may be enhanced.

Abstract: By introducing a metallic species into an exposed surface area of a copper region, the electromigration behavior of this surface area may be significantly enhanced. The incorporation of the metallic species may be accomplished in a highly selective manner so as to not unduly affect dielectric material positioned adjacent to the metal region, thereby essentially avoiding undue increase of leakage currents.

Abstract: By moderately introducing defects into a highly conductive material, such as copper, the resistance versus temperature behavior may be significantly modified so that enhanced electromigration behavior and/or electrical performance may be obtained in metallization structures of advanced semiconductor devices. The defect-related portion of the resistance may be moderately increased so as to change the slope of the resistance versus temperature curve, thereby allowing the incorporation of impurity atoms for enhancing the electromigration endurance while not unduly increasing the overall resistance at the operating temperature or even reducing the corresponding resistance at the specified operating temperature. Thus, by appropriately designing the electrical resistance for a target operating temperature, both the electromigration behavior and the electrical performance may be enhanced.

Abstract: A method comprises providing a semiconductor structure. The semiconductor structure comprises a feature comprising a first material and a layer of a second material formed over the feature. The semiconductor structure is exposed to an etchant. The etchant is adapted to selectively remove the first material, leaving the second material substantially intact. After exposing the semiconductor structure to the etchant, it is detected whether the feature has been affected by the etchant.

Abstract: By moderately introducing defects into a highly conductive material, such as copper, the resistance versus temperature behavior may be significantly modified so that enhanced electromigration behavior and/or electrical performance may be obtained in metallization structures of advanced semiconductor devices. The defect-related portion of the resistance may be moderately increased so as to change the slope of the resistance versus temperature curve, thereby allowing the incorporation of impurity atoms for enhancing the electromigration endurance while not unduly increasing the overall resistance at the operating temperature or even reducing the corresponding resistance at the specified operating temperature. Thus, by appropriately designing the electrical resistance for a target operating temperature, both the electromigration behavior and the electrical performance may be enhanced.

Abstract: An alloy forming dopant material is deposited prior to the formation of a copper line, for instance by incorporating the dopant material into the barrier layer, which is then driven into the vicinity of a weak interface by means of a heat treatment. As indicated by corresponding investigations, the dopant material is substantially transported to the weak interface through grain boundary regions rather than through the bulk copper material (copper grains), thereby enabling moderately high alloy concentrations in the vicinity of the interface while maintaining a relatively low overall concentration within the grains. The alloy at the interface reduces electromigration along the interface.

Abstract: By introducing a metallic species into an exposed surface area of a copper region, the electromigration behavior of this surface area may be significantly enhanced. The incorporation of the metallic species may be accomplished in a highly selective manner so as to not unduly affect dielectric material positioned adjacent to the metal region, thereby essentially avoiding undue increase of leakage currents.

Abstract: By performing x-ray analysis of stacked metallization layers on the basis of data reduction, the crystalline structure of individual metallization layers may be determined. Consequently, a relationship between electromigration and crystallinity, as well as a correlation between process parameters and materials and the finally obtained crystalline structures of metal lines, may be estimated in a highly efficient manner compared to measurement techniques based on charged particles.

Abstract: By introducing a metallic species into an exposed surface area of a copper region, the electromigration behavior of this surface area may be significantly enhanced. The incorporation of the metallic species may be accomplished in a highly selective manner so as to not unduly affect dielectric material positioned adjacent to the metal region, thereby essentially avoiding undue increase of leakage currents.

Abstract: By moderately introducing defects into a highly conductive material, such as copper, the resistance versus temperature behavior may be significantly modified so that enhanced electromigration behavior and/or electrical performance may be obtained in metallization structures of advanced semiconductor devices. The defect-related portion of the resistance may be moderately increased so as to change the slope of the resistance versus temperature curve, thereby allowing the incorporation of impurity atoms for enhancing the electromigration endurance while not unduly increasing the overall resistance at the operating temperature or even reducing the corresponding resistance at the specified operating temperature. Thus, by appropriately designing the electrical resistance for a target operating temperature, both the electromigration behavior and the electrical performance may be enhanced.

Abstract: A method comprises providing a semiconductor structure. The semiconductor structure comprises a feature comprising a first material and a layer of a second material formed over the feature. The semiconductor structure is exposed to an etchant. The etchant is adapted to selectively remove the first material, leaving the second material substantially intact. After exposing the semiconductor structure to the etchant, it is detected whether the feature has been affected by the etchant.

Abstract: The present invention provides a technique for estimating critical dimensions of highly scaled circuit features on the basis of scanning electron microscopy, wherein area fractions of a scan area are determined. Preferably, the SEM is operated with high electron beam energies to enhance the overall resolution and to reduce edge effects and image artifacts. Thus, fast and statistically significant measurement results may be obtained, thereby allowing enhanced process control.

Abstract: By performing x-ray analysis of stacked metallization layers on the basis of data reduction, the crystalline structure of individual metallization layers may be determined. Consequently, a relationship between electromigration and crystallinity, as well as a correlation between process parameters and materials and the finally obtained crystalline structures of metal lines, may be estimated in a highly efficient manner compared to measurement techniques based on charged particles.

Abstract: The present invention provides a technique for estimating critical dimensions of highly scaled circuit features on the basis of scanning electron microscopy, wherein area fractions of a scan area are determined. Preferably, the SEM is operated with high electron beam energies to enhance the overall resolution and to reduce edge effects and image artifacts. Thus, fast and statistically significant measurement results may be obtained, thereby allowing enhanced process control.

Abstract: By preparing fully-embedded interconnect structure samples for a cross-section analysis by means of electron microscopy or x-ray microscopy, degradation mechanisms may be efficiently monitored. Moreover, displaying some of the measurement results as a quick motion representation enables the detection of subtle changes of characteristics of an interconnect structure in a highly efficient manner.

Abstract: An alloy forming dopant material is deposited prior to the formation of a copper line, for instance by incorporating the dopant material into the barrier layer, which is then driven into the vicinity of a weak interface by means of a heat treatment. As indicated by corresponding investigations, the dopant material is substantially transported to the weak interface through grain boundary regions rather than through the bulk copper material (copper grains), thereby enabling moderately high alloy concentrations in the vicinity of the interface while maintaining a relatively low overall concentration within the grains. The alloy at the interface reduces electromigration along the interface.