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Dive into the research topics where Kelly W. Kyler is active.

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Featured researches published by Kelly W. Kyler.


IEEE Journal of Solid-state Circuits | 2003

A 1-Mbit MRAM based on 1T1MTJ bit cell integrated with copper interconnects

Mark Durlam; P.J. Naji; A. Omair; Mark DeHerrera; J. Calder; Jon M. Slaughter; Bradley N. Engel; Nicholas D. Rizzo; Gregory W. Grynkewich; B. Butcher; C. Tracy; Kenneth H. Smith; Kelly W. Kyler; J. Jack Ren; J.A. Molla; W.A. Feil; R.G. Williams; Saied N. Tehrani

A low-power 1-Mb magnetoresistive random access memory (MRAM) based on a one-transistor and one-magnetic tunnel junction (1T1MTJ) bit cell is demonstrated. This is the largest MRAM memory demonstration to date. In this circuit, the magnetic tunnel junction (MTJ) elements are integrated with CMOS using copper interconnect technology. The copper interconnects are cladded with a high-permeability layer which is used to focus magnetic flux generated by current flowing through the lines toward the MTJ devices and reduce the power needed for programming. The 25-mm/sup 2/ 1-Mb MRAM circuit operates with address access times of less than 50 ns, consuming 24 mW at 3.0 V and 20 MHz. The 1-Mb MRAM circuit is fabricated in a 0.6-/spl mu/m CMOS process utilizing five layers of metal and two layers of poly.


symposium on vlsi circuits | 2002

A low power 1 Mbit MRAM based on 1T1MTJ bit cell integrated with copper interconnects

Mark Durlam; P. Naji; A. Omair; Mark DeHerrera; J. Calder; Jon M. Slaughter; B. Engel; Nicholas D. Rizzo; Gregory W. Grynkewich; B. Butcher; C. Tracy; Kenneth H. Smith; Kelly W. Kyler; J. Ren; J. Molla; B. Feil; R. Williams; Saied N. Tehrani

A low power 1 Mb Magnetoresistive Random Access Memory (MRAM) based on a 1-Transistor and 1-Magnetic Tunnel Junction (1T1MTJ) bit cell is demonstrated. This is the largest MRAM memory demonstration to date. In this circuit, MTJ elements are integrated with CMOS using copper interconnect technology. The copper interconnects are cladded with a high permeability layer which is used to focus magnetic flux generated by current flowing through the lines toward the MTJ devices and reduce the power needed for programming the bits. The 25 mm/sup 2/ 1 Mb MRAM circuit operates with address access times of less than 50 ns, consuming 24 mW at 3.0 V and 20 MHz. The circuit is fabricated in a 0.6 /spl mu/m CMOS process utilizing five layers of metal and two layers of poly.


Archive | 1999

Magnetic random access memory and fabricating method thereof

Mark Durlam; Gloria Kerszykowski; Jon M. Slaughter; Theodore Zhu; Eugene Chen; Saied N. Tehrani; Kelly W. Kyler


Archive | 2001

Method of fabricating flux concentrating layer for use with magnetoresistive random access memories

Mark Durlam; Eugene Youjun Chen; Saied N. Tehrani; Jon M. Slaughter; Gloria Kerszykowski; Kelly W. Kyler


Archive | 1998

Method of fabricating a magnetic random access memory

Mark Durlam; Gloria Kerszykowski; Jon M. Slaughter; Eugene Chen; Saied N. Tehrani; Kelly W. Kyler; X. Theodore Zhu


Archive | 2001

High density mram cell array

Mark Durlam; Mark DeHerrera; Eugene Chen; Saied N. Tehrani; Gloria Kerszykowski; Peter K. Naji; Jon M. Slaughter; Kelly W. Kyler


Archive | 2003

Method of fabricating a magnetic element with insulating veils

Eugene Youjun Chen; Mark Durlam; Saied N. Tehrani; Mark DeHerrera; Gloria Kerszykowski; Kelly W. Kyler


Archive | 2003

Methods for fabricating MRAM device structures

Gregory W. Grynkewich; Brian R. Butcher; Mark Durlam; Kelly W. Kyler; Kenneth H. Smith; Clarence J. Tracy


Archive | 2005

Methods for contacting conducting layers overlying magnetoelectronic elements of MRAM devices

Gregory W. Grynkewich; Brian R. Butcher; Mark Durlam; Kelly W. Kyler; Charles A. Synder; Kenneth H. Smith; Clarence J. Tracy; Richard G. Williams


Archive | 2004

Magnetic element with insulating veils and fabricating method thereof

Eugene Youjun Chen; Mark Durlam; Saied N. Tehrani; Mark DeHerrera; Gloria Kerszykowski; Kelly W. Kyler

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