Patent classifications
H10D62/124
Integrated circuit containing standard logic cells and library-compatible, NCEM-enabled fill cells, including at least Via-open-configured, AACNT-short-configured, GATE-short-configured, and TS-short-configured NCEM-enabled fill cells
- Stephen Lam ,
- Dennis Ciplickas ,
- Tomasz Brozek ,
- Jeremy Cheng ,
- Simone Comensoli ,
- Indranil De ,
- Kelvin Doong ,
- Hans Eisenmann ,
- Timothy Fiscus ,
- Jonathan Haigh ,
- Christopher Hess ,
- John Kibarian ,
- Sherry Lee ,
- Marci Liao ,
- Sheng-Che Lin ,
- Hideki Matsuhashi ,
- Kimon Michaels ,
- Conor O'Sullivan ,
- Markus Rauscher ,
- Vyacheslav Rovner ,
- Andrzej Strojwas ,
- Marcin Strojwas ,
- Carl Taylor ,
- Rakesh Vallishayee ,
- Larg Weiland ,
- Nobuharu Yokoyama
An IC includes logic cells, selected from a standard cell library, and fill cells, configured for compatibility with the standard logic cells. The fill cells contain structures configured to obtain in-line data via non-contact electrical measurements (NCEM). The IC includes such NCEM-enabled fill cells configured to enable detection and/or measurement of a variety of open-circuit and short-circuit failure modes, including at least one via-open-related failure mode, one AACNT-short-related failure mode, one GATE-short-related failure mode, and one metal-short-related failure mode.
BULK TO SILICON ON INSULATOR DEVICE
A method for forming a semiconductor device comprises forming a fin in a bulk semiconductor substrate and depositing a first insulator layer over portions of the bulk semiconductor substrate adjacent to the fin. The method further includes removing portions of the first insulator layer to reduce a thickness of the first insulator layer and expose a sidewall of the fin. An etch stop layer is deposited on the first insulator layer. A gate stack is formed over a channel region of the fin and over portions of the etch stop layer. A portion of the bulk semiconductor substrate is removed to expose portions of the etch stop layer and the fin, and a second insulator layer is deposited over exposed portions of the fin and the etch stop layer.
BULK TO SILICON ON INSULATOR DEVICE
A method for forming a semiconductor device comprises forming a fin in a bulk semiconductor substrate and depositing a first insulator layer over portions of the bulk semiconductor substrate adjacent to the fin. The method further includes removing portions of the first insulator layer to reduce a thickness of the first insulator layer and expose a sidewall of the fin. An etch stop layer is deposited on the first insulator layer. A gate stack is formed over a channel region of the fin and over portions of the etch stop layer. A portion of the bulk semiconductor substrate is removed to expose portions of the etch stop layer and the fin, and a second insulator layer is deposited over exposed portions of the fin and the etch stop layer.
BULK TO SILICON ON INSULATOR DEVICE
A method for forming a semiconductor device comprises forming a fin in a bulk semiconductor substrate and depositing a first insulator layer over portions of the bulk semiconductor substrate adjacent to the fin. The method further includes removing portions of the first insulator layer to reduce a thickness of the first insulator layer and expose a sidewall of the fin. An etch stop layer is deposited on the first insulator layer. A gate stack is formed over a channel region of the fin and over portions of the etch stop layer. A portion of the bulk semiconductor substrate is removed to expose portions of the etch stop layer and the fin, and a second insulator layer is deposited over exposed portions of the fin and the etch stop layer.
BULK TO SILICON ON INSULATOR DEVICE
A method for forming a semiconductor device comprises forming a fin in a bulk semiconductor substrate and depositing a first insulator layer over portions of the bulk semiconductor substrate adjacent to the fin. The method further includes removing portions of the first insulator layer to reduce a thickness of the first insulator layer and expose a sidewall of the fin. An etch stop layer is deposited on the first insulator layer. A gate stack is formed over a channel region of the fin and over portions of the etch stop layer. A portion of the bulk semiconductor substrate is removed to expose portions of the etch stop layer and the fin, and a second insulator layer is deposited over exposed portions of the fin and the etch stop layer.
Process for making semiconductor dies, chips, and wafers using non-contact measurements obtained from DOEs of NCEM-enabled fill cells on wafers that include multiple steps for enabling NC detecteion of AACNT-TS via opens
- Stephen Lam ,
- Dennis Ciplickas ,
- Tomasz Brozek ,
- Jeremy Cheng ,
- Simone Comensoli ,
- Indranil De ,
- Kelvin Doong ,
- Hans Eisenmann ,
- Timothy Fiscus ,
- Jonathan Haigh ,
- Christopher Hess ,
- John Kibarian ,
- Sherry Lee ,
- Marci Liao ,
- Sheng-Che Lin ,
- Hideki Matsuhashi ,
- Kimon Michaels ,
- Conor O'Sullivan ,
- Markus Rauscher ,
- Vyacheslav Rovner ,
- Andrzej Strojwas ,
- Marcin Strojwas ,
- Carl Taylor ,
- Rakesh Vallishayee ,
- Larg Weiland ,
- Nobuharu Yokoyama
Improved processes for manufacturing semiconductor wafers, chips, or dies utilize in-line data obtained from non-contact electrical measurements (NCEM) of fill cells that contain structures configured to target/expose a variety of open-circuit, short-circuit, leakage, and/or excessive resistance failure modes. Such processes include evaluating one or more Designs of Experiments (DOEs), each comprised of multiple NCEM-enabled fill cells, in at least two variants, targeted to the same failure mode. Such DOEs include multiple means/steps for enabling non-contact (NC) detection of AACNT-TS via opens.
Process for making and using a semiconductor wafer containing first and second DOEs of standard cell compatible, NCEM-enabled fill cells, with the first DOE including snake open configured fill cells, and the second DOE including metal island open configured fill cells
- Stephen Lam ,
- Dennis Ciplickas ,
- Tomasz Brozek ,
- Jeremy Cheng ,
- Simone Comensoli ,
- Indranil De ,
- Kelvin Doong ,
- Hans Eisenmann ,
- Timothy Fiscus ,
- Jonathan Haigh ,
- Christopher Hess ,
- John Kibarian ,
- Sherry Lee ,
- Marci Liao ,
- Sheng-Che Lin ,
- Hideki Matsuhashi ,
- Kimon Michaels ,
- Conor O'Sullivan ,
- Markus Rauscher ,
- Vyacheslav Rovner ,
- Andrzej Strojwas ,
- Marcin Strojwas ,
- Carl Taylor ,
- Rakesh Vallishayee ,
- Larg Weiland ,
- Nobuharu Yokoyama
A process for making and using a semiconductor wafer includes instantiating first and second designs of experiments (DOES), each comprised of at least two fill cells. The fill cells contain structures configured to obtain in-line data via non-contact electrical measurements (NCEM). The first DOE contains fill cells configured to enable non-contact (NC) detection of snake opens, and the second DOE contains fill cells configured to enable NC detection of metal island opens. The process may further include obtaining NC measurements from the first and/or second DOE(s) and using such measurements, at least in part, to selectively perform additional processing, metrology or inspection steps on the wafer, and/or on other wafer(s) currently being manufactured.
Integrated circuit containing standard logic cells and library-compatible, NCEM-enabled fill cells, including at least chamfer-short-configured, AACNT-short-configured, GATECNT-short-configured, and TS-short-configured, NCEM-enabled fill cells
- Stephen Lam ,
- Dennis Ciplickas ,
- Tomasz Brozek ,
- Jeremy Cheng ,
- Simone Comensoli ,
- Indranil De ,
- Kelvin Doong ,
- Hans Eisenmann ,
- Timothy Fiscus ,
- Jonathan Haigh ,
- Christopher Hess ,
- John Kibarian ,
- Sherry Lee ,
- Marci Liao ,
- Sheng-Che Lin ,
- Hideki Matsuhashi ,
- Kimon Michaels ,
- Conor O'Sullivan ,
- Markus Rauscher ,
- Vyacheslav Rovner ,
- Andrzej Strojwas ,
- Marcin Strojwas ,
- Carl Taylor ,
- Rakesh Vallishayee ,
- Larg Weiland ,
- Nobuharu Yokoyama
An IC includes logic cells, selected from a standard cell library, and fill cells, configured for compatibility with the standard logic cells. The fill cells contain structures configured to obtain in-line data via non-contact electrical measurements (NCEM). The IC includes such NCEM-enabled fill cells configured to enable detection and/or measurement of a variety of short-circuit failure modes, including at least one chamfer-short-related failure mode, one AACNT-short-related failure mode, one GATECNT-short-related failure mode, and one TS-short-related failure mode.
Integrated circuit containing first and second DOEs of standard cell compatible, NCEM-enabled fill cells, with the first DOE including snake open configured fill cells, and the second DOE including metal island open configured fill cells
- Stephen Lam ,
- Dennis Ciplickas ,
- Tomasz Brozek ,
- Jeremy Cheng ,
- Simone Comensoli ,
- Indranil De ,
- Kelvin Doong ,
- Hans Eisenmann ,
- Timothy Fiscus ,
- Jonathan Haigh ,
- Christopher Hess ,
- John Kibarian ,
- Sherry Lee ,
- Marci Liao ,
- Sheng-Che Lin ,
- Hideki Matsuhashi ,
- Kimon Michaels ,
- Conor O'Sullivan ,
- Markus Rauscher ,
- Vyacheslav Rovner ,
- Andrzej Strojwas ,
- Marcin Strojwas ,
- Carl Taylor ,
- Rakesh Vallishayee ,
- Larg Weiland ,
- Nobuharu Yokoyama
An IC includes first and second designs of experiments (DOEs), each comprised of at least two fill cells. The fill cells contain structures configured to obtain in-line data via non-contact electrical measurements (NCEM). The first DOE contains fill cells configured to enable non-contact (NC) detection of snake opens, and the second DOE contains fill cells configured to enable NC detection of metal island opens.
Integrated circuit containing standard logic cells and library-compatible, NCEM-enabled fill cells, including at least via-open-configured, TS-short-configured, metal-short configured, and AA-short-configured, NCEM-enabled fill cells
- Stephen Lam ,
- Dennis Ciplickas ,
- Tomasz Brozek ,
- Jeremy Cheng ,
- Simone Comensoli ,
- Indranil De ,
- Kelvin Doong ,
- Hans Eisenmann ,
- Timothy Fiscus ,
- Jonathan Haigh ,
- Christopher Hess ,
- John Kibarian ,
- Sherry Lee ,
- Marci Liao ,
- Sheng-Che Lin ,
- Hideki Matsuhashi ,
- Kimon Michaels ,
- Conor O'Sullivan ,
- Markus Rauscher ,
- Vyacheslav Rovner ,
- Andrzej Strojwas ,
- Marcin Strojwas ,
- Carl Taylor ,
- Rakesh Vallishayee ,
- Larg Weiland ,
- Nobuharu Yokoyama
An IC includes logic cells, selected from a standard cell library, and fill cells, configured for compatibility with the standard logic cells. The fill cells contain structures configured to obtain in-line data via non-contact electrical measurements (NCEM). The IC includes such NCEM-enabled fill cells configured to enable detection and/or measurement of a variety of open-circuit and short-circuit failure modes, including at least one via-open-related failure mode, one TS-short-related failure mode, one metal-short-related failure mode, and one AA-short-related failure mode.