DocumentCode
3470944
Title
Power integrity behavior for various packaging environments
Author
Terasaki, Masahiro ; Kiyosige, Sho ; Ichimura, Wataru ; Kobayashi, Ryota ; Kubo, Genki ; Otsuka, Hiroyuki ; Sudo, Toshio
Author_Institution
Shibaura Inst. of Technol., Tokyo, Japan
fYear
2013
fDate
11-13 Nov. 2013
Firstpage
1
Lastpage
4
Abstract
Power integrity design has become a critical issue in digital electronic systems, as advanced CMOS LSIs operate at higher clock frequency and at lower supply voltage. Power supply fluctuation excited by core circuits or I/O buffer circuits induces logic instability and electromagnetic radiation. Therefore, total impedance of power distribution network (PDN) must be taking into consideration in the chip-package-board co-design. Especially, anti-resonance peaks in the PDN created by the parallel combination of on-chip capacitance and package inductance induce the unwanted power supply fluctuation, and results in the degradation of signal integrity and electromagnetic interference (EMI). In this paper, effects of critical damping condition for the total PDN impedance on power supply noise has been studied by adding different RC circuit to the intrinsic on-die RC circuit of chip. Three test chips were assumed to be designed on-chip PDN properties. The measurement and analysis of power supply noises for the three test chips showed typical characteristics of oscillatory region and damped regions the critical damping condition against the anti-resonance peak has been proved to be effective to suppress the power supply noise on the chip. Furthermore QFP and BGA are used for a package and the effect of anti-resonance and power supply noise control by the total impedance of a chip package board are verified from the difference in inductance.
Keywords
RC circuits; ball grid arrays; chip-on-board packaging; damping; distribution networks; inductance; BGA; QFP; antiresonance effect; chip-package-board co-design; critical damping condition; damped regions; inductance; intrinsic on-die RC circuit; oscillatory region; power distribution network; power integrity design; power supply noise; test chips; total PDN impedance; Capacitance; Impedance; Integrated circuit modeling; Noise; Power supplies; Solid modeling; System-on-chip; Anti-resonance peak; Power integrity; co-design; total PDN impedance;
fLanguage
English
Publisher
ieee
Conference_Titel
CPMT Symposium Japan (ICSJ), 2013 IEEE 3rd
Conference_Location
Kyoto
Print_ISBN
978-1-4799-2718-0
Type
conf
DOI
10.1109/ICSJ.2013.6756112
Filename
6756112
Link To Document