Michael W. Halpin - Phoenix AZ Mark R. Hawkins - Gilbert AZ Derrick W. Foster - Scottsdale AZ Robert M. Vyne - Gilbert AZ John F. Wengert - Jacksonville OR Cornelius A. van der Jeugd - Portland OR Loren R. Jacobs - Mesa AZ Frank B. M. Van Bilsen - Phoenix AZ Matthew Goodman - Tempe AZ Hartmann Glenn - Phoenix AZ Jason M. Layton - Chandler AZ
A wafer support system comprising a segmented susceptor having top and bottom sections and gas flow passages therethrough. A plurality of spacers projecting from a recess formed in the top section of the susceptor support a wafer in spaced relationship with respect to the recess. A sweep gas is introduced to the bottom section of the segmented susceptor and travels through the gas flow passages to exit in at least one circular array of outlets in the recess and underneath the spaced wafer. The sweep gas travels radially outward between the susceptor and wafer to prevent back-side contamination of the wafer. The gas is delivered through a hollow drive shaft and into a multi-armed susceptor support underneath the susceptor. The support arms conduct the sweep gas from the drive shaft to the gas passages in the segmented susceptor. The gas passages are arranged to heat the sweep gas prior to delivery underneath the wafer.
Michael W. Halpin - Phoenix AZ Mark R. Hawkins - Gilbert AZ Derrick W. Foster - Scottsdale AZ Robert M. Vyne - Gilbert AZ John F. Wengert - Jacksonville OR Cornelius A. van der Jeugd - Portland OR Loren R. Jacobs - Mesa AZ Frank B. M. Van Bilsen - Phoenix AZ Matthew Goodman - Tempe AZ Hartmann Glenn - Phoenix AZ Jason M. Layton - Chandler AZ
Assignee:
ASM America, Inc. - Phoenix AZ
International Classification:
C23C 1600
US Classification:
118730, 118715, 118725, 118728, 118500
Abstract:
A wafer support system comprising a segmented susceptor having top and bottom sections and gas flow passages therethrough. A plurality of spacers projecting from a recess formed in the top section of the susceptor support a wafer in spaced relationship with respect to the recess. A sweep gas is introduced to the bottom section of the segmented susceptor and travels through the gas flow passages to exit in at least one circular array of outlets in the recess and underneath the spaced wafer. The sweep gas travels radially outward between the susceptor and wafer to prevent back-side contamination of the wafer. The gas is delivered through a hollow drive shaft and into a multi-armed susceptor support underneath the susceptor. The support arms conduct the sweep gas from the drive shaft to the gas passages in the segmented susceptor. The gas passages are arranged to heat the sweep gas prior to delivery underneath the wafer.
Michael W. Halpin - Phoenix AZ Mark R. Hawkins - Gilbert AZ Derrick W. Foster - Scottsdale AZ Robert M. Vyne - Gilbert AZ John F. Wengert - Jacksonville OR Cornelius A. van der Jeugd - Portland OR Loren R. Jacobs - Mesa AZ Frank B. M. Van Bilsen - Phoenix AZ Matthew Goodman - Tempe AZ Hartmann Glenn - Phoenix AZ Jason M. Layton - Chandler AZ
An apparatus for processing a substrate comprises a susceptor for supporting the substrate, an upper heat source spaced above the susceptor, a lower heat source spaced below the susceptor, and a controller. The controller provides power to the heat sources at a selected ratio between the sources. The controller is configured to vary the ratio during a high temperature processing cycle of a substrate to thereby vary the ratio of the heat provided by the heat sources during the cycle.
Michael W. Halpin - Phoenix AZ, US Mark R. Hawkins - Gilbert AZ, US Derrick W. Foster - Scottsdale AZ, US Robert M. Vyne - Gilbert AZ, US John F. Wengert - Jacksonville OR, US Cornelius A. van der Jeugd - Portland OR, US Loren R. Jacobs - Mesa AZ, US Frank B. M. Van Bilsen - Phoenix AZ, US Matthew Goodman - Tempe AZ, US Hartmann Glenn - Phoenix AZ, US Jason M. Layton - Chandler AZ, US
A wafer support system comprising a susceptor having top and bottom sections and gas flow passages therethrough. One or more spacers projecting from a recess formed in the top section of the susceptor support a wafer in spaced relationship with respect to the recess. A sweep gas is introduced to the bottom section of the susceptor and travels through the gas flow passages to exit in at least one circular array of outlets in the recess and underneath the spaced wafer. The sweep gas travels radially outward between the susceptor and wafer to prevent back-side contamination of the wafer. The gas is delivered through a hollow drive shaft and into a multi-armed susceptor support underneath the susceptor. The support arms conduct the sweep gas from the drive shaft to the gas passages in the susceptor. The gas passages are arranged to heat the sweep gas prior to delivery underneath the wafer.
Michael Halpin - Phoenix AZ, US Mark Hawkins - Gilbert AZ, US Derrick Foster - Scottsdale AZ, US Robert Vyne - Gilbert AZ, US John Wengert - Jacksonville OR, US Cornelius van der Jeugd - Portland OR, US Loren Jacobs - Mesa AZ, US Frank Van Bilsen - Phoenix AZ, US Matthew Goodman - Tempe AZ, US Hartmann Glenn - Phoenix AZ, US Jason Layton - Chandler AZ, US
International Classification:
C23C014/00 C23F001/00 C23C016/00
US Classification:
156/345510, 118/728000, 156/345500, 118/050100
Abstract:
A wafer support system comprising a segmented susceptor having top and bottom sections and gas flow passages therethrough. A plurality of spacers projecting from a recess formed in the top section of the susceptor support a wafer in spaced relationship with respect to the recess. A sweep gas is introduced to the bottom section of the segmented susceptor and travels through the gas flow passages to exit in at least one circular array of outlets in the recess and underneath the spaced wafer. The sweep gas travels radially outward between the susceptor and wafer to prevent back-side contamination of the wafer. The gas is delivered through a hollow drive shaft and into a multi-armed susceptor support underneath the susceptor. The support arms conduct the sweep gas from the drive shaft to the gas passages in the segmented susceptor. The gas passages are arranged to heat the sweep gas prior to delivery underneath the wafer. Short purge channels may be provided to deliver some of the sweep gas to regions surrounding the spacers to cause a continuous flow of protective purge gas around the spacers. A common bottom section may cooperate with a plurality of different top sections to form segmented susceptors suitable for supporting various sized wafers.
Michael Halpin - Phoenix AZ, US Mark Hawkins - Gilbert AZ, US Derrick Foster - Scottsdale AZ, US Robert Vyne - Gilbert AZ, US John Wengert - Jacksonville OR, US Cornelius Jeugd - Portland OR, US Loren Jacobs - Mesa AZ, US Frank Van Bilsen - Phoenix AZ, US Matthew Goodman - Tempe AZ, US Hartmann Glenn - Phoenix AZ, US Jason Layton - Chandler AZ, US
International Classification:
B24B007/00
US Classification:
446/259000, 451/064000
Abstract:
A wafer support system comprising a segmented susceptor having top and bottom sections and gas flow passages therethrough. A plurality of spacers projecting from a recess formed in the top section of the susceptor support a wafer in spaced relationship with respect to the recess. A sweep gas is introduced to the bottom section of the segmented susceptor and travels through the gas flow passages to exit in at least one circular array of outlets in the recess and underneath the spaced wafer. The sweep gas travels radially outward between the susceptor and wafer to prevent back-side contamination of the wafer. The gas is delivered through a hollow drive shaft and into a multi-armed susceptor support underneath the susceptor. The support arms conduct the sweep gas from the drive shaft to the gas passages in the segmented susceptor. The gas passages are arranged to heat the sweep gas prior to delivery underneath the wafer. Short purge channels may be provided to deliver some of the sweep gas to regions surrounding the spacers to cause a continuous flow of protective purge gas around the spacers. A common bottom section may cooperate with a plurality of different top sections to form segmented susceptors suitable for supporting various sized wafers.
Franciscus Bernardus Maria Van Bilsen - Phoenix AZ Jason Mathew Layton - Chandler AZ Ivo Raaijmakers - Phoenix AZ
Assignee:
ASM America, Inc. - Phoenix AZ
International Classification:
H01L 2166 G01R 3126
US Classification:
438 14
Abstract:
A method is provided for treating wafers on a low mass support. The method includes mounting a temperature sensor in proximity to the wafer, which is supported on the low mass support, such that the sensor is only loosely thermally coupled to the wafer. A temperature controller is programmed to critically tune the wafer temperature in a temperature ramp, though the controller directly controls the sensor temperature. A wafer treatment, such as epitaxial silicon deposition, is started before the sensor temperature has stabilized. Accordingly, significant time is saved for the treatment process, and wafer throughput improved.
Michael W. Halpin - Phoenix AZ Mark R. Hawkins - Gilbert AZ Derrick W. Foster - Scottsdale AZ Robert M. Vyne - Gilbert AZ John F. Wengert - Jacksonville OR Cornelius A. van der Jeugd - Portland OR Loren R. Jacobs - Mesa AZ Frank B. M. Van Bilsen - Phoenix AZ Matthew Goodman - Tempe AZ Hartmann Glenn - Phoenix AZ Jason M. Layton - Chandler AZ
Assignee:
ASM America, Inc. - Phoenix AZ
International Classification:
C23C 1600
US Classification:
118725
Abstract:
A wafer support system comprising a segmented susceptor having top and bottom sections and gas flow passages therethrough. A plurality of spacers projecting from a recess formed in the top section of the susceptor support a wafer in spaced relationship with respect to the recess. A sweep gas is introduced to the bottom section of the segmented susceptor and travels through the gas flow passages to exit in at least one circular array of outlets in the recess and underneath the spaced wafer. The sweep gas travels radially outward between the susceptor and wafer to prevent back-side contamination of the wafer. The gas is delivered through a hollow drive shaft and into a multi-armed susceptor support underneath the susceptor. The support arms conduct the sweep gas from the drive shaft to the gas passages in the segmented susceptor. The gas passages are arranged to heat the sweep gas prior to delivery underneath the wafer.
RFMD Oct 2009 - Oct 2012
Applications Engineer
Crane Aerospace - Chandler, AZ May 2004 - Oct 2009
Value Stream Manager
Honeywell - Phoenix, AZ May 2002 - May 2004
Product Engineer Lab Technician
Comtech EF Data - Tempe, AZ Nov 1999 - Dec 2002
RF Test Supervisor
USMC - MCAS Yuma / MACS-7 Oct 1988 - Oct 1993
RADAR Repairman
Education:
Arizona State University 2000 - 2007
BSEE, Elecrtical Engineering
Tampa Bay Buccaneers - Tampa/St. Petersburg, Florida Area Jul 2011 - Feb 2012
Senior Director of Business Administration
Tampa Bay Buccaneers - Tampa/St. Petersburg, Florida Area Feb 2010 - Jul 2011
Senior Director of Sales and Advertising
Tampa Bay Buccaneers - Tampa/St. Petersburg, Florida Area Jan 2009 - Feb 2010
Senior Director of Sales and Finance
Tampa Bay Buccaneers - Tampa/St. Petersburg, Florida Area Jan 2007 - Jan 2009
Director of Ticketing and Sales
Tampa Bay Buccaneers - Tampa/St. Petersburg, Florida Area Jan 2006 - Jan 2007
Director of Ticketing and Business Administration
Oct 2009 to 2000 Applications EngineerSignal Technology Corp. - Crane Electronics Group Chandler, AZ May 2004 to Oct 2009 Product Engineer / Value Stream ManagerHoneywell BRGA Glendale, AZ May 2002 to May 2004 Engineering Lab TechnicianComtech EFData Corp Tempe, AZ Dec 1997 to Apr 2002 Lead/Supervising RF/Microwave Test TechnicianASM America Phoenix, AZ Jun 1995 to Dec 1997 Process Engineering AssociateComtech EFData Corp Tempe, AZ Oct 1993 to Jun 1995 RF/Microwave Test TechnicianRADAR
Oct 1988 to Oct 1993 Repair Technician
Education:
Arizona State University 2007 Bachelor of Science in Electrical Engineering
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Dayton Street Elementary School Newark NJ 1984-1993
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