Title :
Modeling IC Snapback Characteristics Under Electrostatic Discharge Stress
Author :
Ramanujan, Abhishek ; Kadi, Moncef ; Tremenbert, J. ; Lafon, Frédéric ; Mazari, Bélahcène
Author_Institution :
Res. Inst. for Embedded Syst., Ecole Super. d´´Ing., Rouen, France
Abstract :
This paper presents a novel technique for modeling the electrostatic discharge snapback phenomenon in integrated circuits (ICs). The macromodel is built using standard components: BSIM3v3.2 model for the MOSFET, a bipolar transistor modeled by Mextram 504.7, and a substrate resistor. The IC under test is characterized by its die and package impedance. The model should allow easier simulation program with IC emphasis implementation, high simulation speed, less convergence issues, and wider availability of a gate-grounded n-type MOSFET protection device. Our model determines the interaction between the protection device and the internal circuitry of the IC. The model parameters are extracted with MATLAB script. Simulation results are compared with transmission-line pulsing measurement for a voltage regulator NCV4949 and a controller area network transceiver TLE6250G.
Keywords :
MOSFET; bipolar transistors; electronic engineering computing; electrostatic discharge; integrated circuit modelling; BSIM3v3.2 model; IC snapback characteristics; MATLAB script; MOSFET; Mextram 504.7; NCV4949 voltage regulator; TLE6250G; bipolar transistor; controller area network transceiver; electrostatic discharge snapback phenomenon; electrostatic discharge stress; gate-grounded n-type MOSFET protection device; integrated circuits; package impedance; substrate resistor; transmission-line pulsing measurement; Bipolar transistors; Circuit simulation; Circuit testing; Electrostatic discharge; Integrated circuit modeling; MOSFET circuits; Mathematical model; Protection; Resistors; Stress; Electrostatic discharge (ESD); IC modeling; gate-grounded n-type MOSFET (ggNMOS); simulation program with IC emphasis (SPICE) equivalent model;
Journal_Title :
Electromagnetic Compatibility, IEEE Transactions on
DOI :
10.1109/TEMC.2009.2029092