Abstract: This invention is a prediction and reward system and method based on pooling the opinions of experts by using quantitative measures of prior prediction performance to weigh the opinions. This invention enables a computer-network based system capable of generating predictions based on expert opinions as well as measures of expert performance.

Abstract: A method for forming an integrated circuit having multiple gate oxide thicknesses is disclosed herein. The circuit (10) is processed up to gate oxide formation. A first gate dielectric (20) is formed. Next, a disposable layer (22) is formed over the first gate dielectric (20). The disposable layer (22) comprises a material that may be removed selectively with respect to silicon and the gate dielectric, such as germanium. If desired, a second dielectric layer (24) may be formed over the disposable layer (22). A pattern (26) is then formed exposing areas (14) of the circuit where a thinner gate dielectric is desired. The second dielectric layer (24), if it is present, and the disposable layer (22) are removed from the exposed areas. The pattern (26) is then removed. Following pre-gate cleaning, the second gate dielectric (30) is formed. The remaining portions of the disposable layer (22) may be removed either prior to, during, or after the second gate dielectric formation (30).

Abstract: A method of forming a metal-to-metal antifuse. An antifuse stack 32 is formed comprising a first metal layer 16, an antifuse dielectric layer, and an etchstop layer. The etchstop layer may, for example, comprise an oxide layer 24 and an amorphous silicon layer 28. An antifuse via 44 is etched through an interlevel dielectric layer 36 to the antifuse stack 32. Next, a portion of the etchstop layer at the bottom of via 44 is removed. Finally, a second layer of metal 48 is deposited to fill antifuse via 44 and etched to form the desired interconnections.

Abstract: A method of forming a metal-to-metal antifuse. An antifuse stack 32 is formed comprising a first metal layer 16, an antifuse dielectric layer, and an etchstop layer. The etchstop layer may, for example, comprise an oxide layer 24 and an amorphous silicon layer 28. An antifuse via 44 is etched through an interlevel dielectric layer 36 to the antifuse stack 32. Next, a portion of the etchstop layer at the bottom of via 44 is removed. Finally, a second layer of metal 48 is deposited to fill antifuse via 44 and etched to form the desired interconnections.