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Dive into the research topics where John M. Pierce is active.

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Featured researches published by John M. Pierce.


Seventh International IEEE Conference on VLSI Multilevel Interconnection | 1990

Characterization of mechanical planarization processes

Peter Renteln; Michael E. Thomas; John M. Pierce

A square-wave test structure is described which provides a useful vehicle for characterizing planarization processes. The structure is designed for easy replication in different laboratories to allow comparison of planarization methods in spite of their inherent pattern sensitivity. Results obtained for a number of mechanical planarization processes on this structure are presented. A planarization rate parameter p is defined and used to describe the planarization of features in the width range of 1-10 mm, a range which is important because of the effects of long-range pattern density variations in VLSI chips. Polishing pad structure and condition are found to be the most important determiners of p, and results for several commercially available pads are reported. Mechanical planarization adequate to handle the interlayer dielectric (ILD) planarization requirements of most chips is demonstrated.<<ETX>>


Seventh International IEEE Conference on VLSI Multilevel Interconnection | 1990

The mechanical planarization of interlevel dielectrics for multilevel interconnect applications

Michael E. Thomas; Satoshi Sekigahama; Peter Renteln; John M. Pierce

A description is given of the application of mechanical planarization to the interlevel dielectric (ILD) of a multilevel interconnect system. Experimental results obtained from large 80K, two-level metal CMOS gate arrays (0.7 cm/sup 2/) having mechanically planarized ILD indicated leveling lengths on the order of 0.5 cm and excellent via functionality. Surface leveling with variations of less than 200 AA was readily achieved over the whole gate array die. No detrimental effects were observed in a fully functional die when compared with devices using sacrificial spin-on glass. The results of this study indicate that mechanical planarization will make a critical contribution to the fabrication of ULSI devices having 0.25- mu m interconnect feature sizes.<<ETX>>


Archive | 1992

Polishing pad and method for polishing semiconductor wafers

John M. Pierce; Peter Renteln


Archive | 1990

Means of planarizing integrated circuits with fully recessed isolation dielectric

John M. Pierce; Sung Tae Ahn


Archive | 1992

Method of manufacturing a fully planarized MOSFET and resulting structure

John M. Pierce


Archive | 1992

Method for planarizing the surface of an integrated circuit over a metal interconnect layer

Ali A. Iranmanesh; John M. Pierce


Archive | 1996

Self-aligned polycide process that utilizes a planarized layer of material to expose polysilicon structures to a subsequently deposited metal layer that is reacted to form the metal silicide

Dah-Bin Kao; John M. Pierce


Archive | 1997

Method for protecting nonsilicided surfaces from silicide formation using spacer oxide mask

Richard B. Merrill; C. S. Teng; John M. Pierce


Archive | 1995

Method of making increased-density flash EPROM that utilizes a series of planarized, self-aligned, intermediate strips of conductive material to contact the drain regions

Ali A. Iranmanesh; John M. Pierce; Albert Bergemont


Archive | 1996

Method of fabricating self-aligned contacts and local interconnects in CMOS and BICMOS processes using chemical mechanical polishing (CMP)

Dah-Bin Kao; John M. Pierce

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Dah-Bin Kao

National Semiconductor

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C. S. Teng

National Semiconductor

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