Generation-three (Gen-3) immersion lithography offers the promise of enabling the 32nm half-pitch node. For Gen-3 lithography to be successful, however, there must be major breakthroughs in materials development: The hope of obtaining numerical aperture imaging 1.70 is dependent on a high index lens, fluid, and resist. Assuming that a fluid and a lens will be identified, this paper focuses on a possible path to a high index resist. Simulations have shown that the index of the resist should be 1.9 with any index higher than 1.9 leading to an increased process latitude. Creation of a high index resist from conventional chemistry has been shown to be unrealistic. The answer may be to introduce a high index, polarizable material into a resist t...
As immersion lithography will be the lithography technique for sub-65nm generation device fabricatio...
We have performed high-index immersion fluid studies to define the levels of both soluble and insolu...
Image blur due to chemical amplification represents a fundamental limit to photoresist performance a...
The need to extend 193nm immersion lithography necessitates the development of a third generation (G...
The physical limitations of lithographic imaging are ultimately imposed by the refractive indices of...
A preliminary Quantitative Structure Property Relationship (QSPR) model for predicting the refractiv...
The physical limitations of lithographic imaging are ultimately imposed by the refractive indices of...
Generation-three (Gen-3) immersion lithography can be an enabler for the 32nm half-pitch node. For G...
Generation-three (Gen-3) immersion lithography can be an enabler for the 32nm half-pitch node. For G...
To identify the most practical and cost-effective technology after water immersion lithography (Gen1...
A critical aim within the field of 193 nm immersion lithography is the development of high refractiv...
The need to extend 193nm immersion lithography necessitates the development of a third generation (G...
aIntel assignees to SEMATECH, bSEMATECH, and cMIT-LL For several years, SEMATECH has invested signi...
For several years, SEMATECH has invested significant effort into extending 193 nm immersion lithogra...
To be able to extend the 193 nm immersion lithography technology platform, the development of high r...
As immersion lithography will be the lithography technique for sub-65nm generation device fabricatio...
We have performed high-index immersion fluid studies to define the levels of both soluble and insolu...
Image blur due to chemical amplification represents a fundamental limit to photoresist performance a...
The need to extend 193nm immersion lithography necessitates the development of a third generation (G...
The physical limitations of lithographic imaging are ultimately imposed by the refractive indices of...
A preliminary Quantitative Structure Property Relationship (QSPR) model for predicting the refractiv...
The physical limitations of lithographic imaging are ultimately imposed by the refractive indices of...
Generation-three (Gen-3) immersion lithography can be an enabler for the 32nm half-pitch node. For G...
Generation-three (Gen-3) immersion lithography can be an enabler for the 32nm half-pitch node. For G...
To identify the most practical and cost-effective technology after water immersion lithography (Gen1...
A critical aim within the field of 193 nm immersion lithography is the development of high refractiv...
The need to extend 193nm immersion lithography necessitates the development of a third generation (G...
aIntel assignees to SEMATECH, bSEMATECH, and cMIT-LL For several years, SEMATECH has invested signi...
For several years, SEMATECH has invested significant effort into extending 193 nm immersion lithogra...
To be able to extend the 193 nm immersion lithography technology platform, the development of high r...
As immersion lithography will be the lithography technique for sub-65nm generation device fabricatio...
We have performed high-index immersion fluid studies to define the levels of both soluble and insolu...
Image blur due to chemical amplification represents a fundamental limit to photoresist performance a...