A process of fabricating a p-type metal oxide semiconductor to affect reduction of negative bias temperature instability (NBTI) in the formed p-type metal oxide semiconductor structure by: a) forming a gate on a gate oxide in a substrate; b) forming a spacer on a sidewall of the gate; c) forming a source/drain extension beside the gate oxide in the substrate or forming a lightly doped drain (LDD) implantation into the gate oxide; and d) implanting F between the gate oxide and the source drain extension at a sufficiently large tilted angle and in sufficient amount to affect reduction of negative bias temperature instability characteristics lower than without F implantation.
Reduction Of Negative Bias Temperature Instability In Narrow Width Pmos Using F2 Implantation
In a process of fabricating a narrow channel width PMOSFET device, the improvement of affecting reduction of negative bias temperature instability by use of F side wall implantation, comprising: a) forming a shallow trench isolation (STI) region in a substrate; b) forming a gate on a gate oxide in the substrate; c) forming a liner layer in said shallow trench isolation region and subjecting the liner layer to oxidation to form a STI liner oxidation layer; d) implanting F into side walls of the STI liner oxidation layer at a large tilted angle in sufficient amounts to affect reduction of negative bias temperature instability after a high density plasma fill of the STI F implanted liner oxidation layer; and e) filling the STI F implanted structure from step d) with a high density plasma (HDP) fill to affect reduction of negative bias temperature instability.
Helen Sarris - Burlington NJ, US Timothy B. Byrd - Charlotte NC, US Rhonna J. Clark - Charlotte NC, US Chuan Bin Lin - Richardson TX, US Daniel P. Shnowske - Waxahachie TX, US William Treadwell - Addison TX, US Mian Zhou - Dallas TX, US
Assignee:
Bank of America Corporation - Charlotte NC
International Classification:
G06Q 40/00 G07D 11/00 G07F 19/00
US Classification:
235379, 705 43, 705 44
Abstract:
Systems and methods are provided for protecting against bank card fraud and related crimes by providing a distress/fraud trigger at bank card machines, such as automated teller machines and point-of-sale terminals. The trigger initiates certain heightened-security processes designed to stop the crime, control damage, and help apprehend the criminal. For example, in one embodiment, the trigger involves the cardholder inputting a “panic” personal identification code into the bank card machine. The panic personal identification code indicates to a party involved in the bank card transaction that a fraudulent transaction may be taking place. The heightened-security processes may include, for example, displaying that the bank card machine is out-of-order, dispensing money with a GPS tracking device, requesting additional identification steps, instituting delay tactics, notifying on-site personnel, or forwarding audio or video information from the bank card machine to a bank's command center in real time or near real time.
Pulse Voltage Breakdown (Vbd) Technique For Inline Gate Oxide Reliability Monitoring
Disclosed is a method of testing a dielectric, comprising setting a reference current below a breakdown current of the dielectric, applying a stress voltage to the dielectric below a breakdown voltage of the dielectric and measuring a stress current resulting therefrom, incrementally increasing said stress voltage until said measured stress current exceeds said reference current.
Chuan Lin - Poughquag NY Thomas Schafbauer - Wappingers Falls NY Paul Wensley - Wappingers Falls NY
Assignee:
Infineon Technologies AG - Munich
International Classification:
H01L 218242
US Classification:
438524, 438433, 438527, 438224
Abstract:
A method (see e. g. , FIG. ) of fabricating a semiconductor device includes forming a trench in a semiconductor body. A dielectric layer is formed within the trench. Dielectric layer lines the sidewall and, possibly, the bottom portions of the trench in a manner where the thickness of the dielectric at the sidewall is greater than the thickness of the dielectric at the bottom. A dopant can then be implanted into the semiconductor body beneath the trench.
Agilent Technologies
Product Security Program Manager
Trimble Sep 2015 - Apr 2018
Information Security Analyst
City of Cincinnati Apr 2009 - Aug 2015
Informaton Security Office
City of Cincinnati Jun 2003 - Feb 2013
Senior Programmer Analyst and It Security
City of Cincinnati Dec 2010 - Feb 2013
Project Manager
Education:
Xavier University 1996 - 1998
Master of Business Administration, Masters, General Studies
Drexel University 1993
Drexel University 1987 - 1992
Bachelors, Bachelor of Science
Skills:
Access Microsoft Exchange Software Documentation Visual Basic Security Software Installation Hardware Project Management Visio Databases Information Technology Training Sharepoint Windows Xp System Administration Iis Active Directory Servers Networking Microsoft Office Computer Hardware
Interests:
Securing the Human Element C# Programming Chinese Calligraphy Economic Empowerment Chinese Classics Translation Education Meditation Environment Arts and Culture Rpg Strategy Game Science Fiction Chinese Chess Practicing Tai Chi Buddhism Health
May 2009 to 2000 Information Security OfficerCity of Cincinnati Cincinnati, OH Dec 2010 to Feb 2013 Project ManagerCity of Cincinnati Cincinnati, OH Jun 2003 to Feb 2013 Senior Programmer Analyst
Education:
Xavier University Cincinnati, OH 1996 to 1998 MBA in Business MarketingDrexel University Philadelphia, PA 1987 to 1992 BS in Computer Information Science