The impact of semiconductor technology scaling on CMOS RF and digital circuits for wireless application

The impact of CMOS technology scaling on the various radio frequency (RF) circuit components such as active, passive and digital circuits is presented. Firstly, the impact of technology scaling on the noise and linearity of the low-noise amplifier (LNA) is thoroughly analyzed. Then two new circuits, i.e., CMOS complementary parallel push-pull (CCPP) circuit and vertical-NPN (V-NPN) circuit for direct-conversion receiver (DCR), are introduced. In CCPP, the high RF performance of pMOS comparable to nMOS provides single ended differential RF signal processing capability without the use of a bulky balun. The use of parasitic V-NPN bipolar transistor, available in triple well CMOS technology, has shown to provide more than an order of magnitude improvement in 1/f noise and dc offset related problems, which have been the bottleneck for CMOS single chip integration. Then CMOS technology scaling for various passive device performances such as the inductor, varactor, MIM capacitor, and switched capacitor, is discussed. Both the forward scaling of the active devices and the inverse scaling of interconnection layer, i.e., more interconnection layers with effectively thicker total dielectric and metal layers, provide very favorable scenario for all passive devices. Finally, the impact of CMOS scaling on the various digital circuits is introduced, taking the digital modem blocks, the various digital calibration circuits, the switching RF power amplifier, and eventually the software defined radio, as examples.

[1]  Bonkee Kim,et al.  Monolithic planar RF inductor and waveguide structures on silicon with performance comparable to those in GaAs MMIC , 1995, Proceedings of International Electron Devices Meeting.

[2]  Hyungcheol Shin,et al.  A -119.2 dBc/Hz at 1 MHz, 1.5 mW, fully integrated, 2.5-GHz, CMOS VCO using helical inductors , 2003 .

[3]  Lawrence E. Larson,et al.  Silicon technology tradeoffs for radio-frequency/mixed-signal (quote)systems-on-a-chip(quote) , 2003 .

[4]  Ihn S. Kim,et al.  Microstrip Posts and Dielectric Resonators Showing a Steep Slope at Lower and Upper Stopbands for , 2000 .

[5]  Kwyro Lee,et al.  A new linearization technique for MOSFET RF amplifier using multiple gated transistors , 2000 .

[6]  Ingrid Verbauwhede,et al.  Turbo codes on the fixed point DSP TMS320C55x , 2000, 2000 IEEE Workshop on SiGNAL PROCESSING SYSTEMS. SiPS 2000. Design and Implementation (Cat. No.00TH8528).

[7]  Hyungcheol Shin,et al.  A simple wide-band on-chip inductor model for silicon-based RF ICs , 2003 .

[8]  Juin J. Liou,et al.  Modern Microwave Transistors: Theory, Design, and Performance , 2002 .

[9]  Trudy D. Stetzler,et al.  DSP-based architectures for mobile communications: past, present and future , 2000, IEEE Commun. Mag..

[10]  Seong-Sik Song,et al.  An RF model of the accumulation-mode MOS varactor valid in both accumulation and depletion regions , 2003 .

[11]  Kwyro Lee,et al.  Highly linear receiver front-end adopting MOSFET transconductance linearization by multiple gated transistors , 2004, IEEE Journal of Solid-State Circuits.

[12]  Ilku Nam,et al.  Single-ended differential amplifier and mixer circuits utilizing complementary RF characteristics of both NMOS and PMOS , 2003, IEEE Radio Frequency Integrated Circuits (RFIC) Symposium, 2003.

[13]  Kwangseok Han,et al.  Analytical drain thermal noise current model valid for deep submicron MOSFETs , 2004 .

[14]  Lawrence E. Larson,et al.  Linear high-efficiency microwave power amplifiers using bandpass delta-sigma modulators , 1998 .

[15]  K.K. O,et al.  A 25.9-GHz voltage-controlled oscillator fabricated in a CMOS process , 2000, 2000 Symposium on VLSI Circuits. Digest of Technical Papers (Cat. No.00CH37103).

[16]  Kwyro Lee,et al.  A comparative study on the various monolithic low noise amplifier circuit topologies for RF and microwave applications , 1996 .

[17]  Ilku Nam,et al.  An experimental coin-sized radio for extremely low-power WPAN (IEEE 802.15.4) application at 2.4 GHz , 2003 .

[18]  H. Fukui,et al.  Design of Microwave GaAs MESFET's for Broad-Band Low-Noise Amplifiers , 1979 .

[19]  J. Gil,et al.  Complete high-frequency thermal noise modeling of short-channel MOSFETs and design of 5.2-GHz low noise amplifier , 2005, IEEE Journal of Solid-State Circuits.

[20]  Joseph R. Cavallaro,et al.  Viturbo: a reconfigurable architecture for Viterbi and turbo decoding , 2003, 2003 IEEE International Conference on Acoustics, Speech, and Signal Processing, 2003. Proceedings. (ICASSP '03)..

[21]  Hyungcheol Shin,et al.  A -119.2 dBc/Hz at 1 MHz, 1.5 mW, fully integrated, 2.5-GHz, CMOS VCO using helical inductors , 2003, IEEE Microwave and Wireless Components Letters.

[22]  Joonho Gil,et al.  A Simple Wide-Band MIM Capacitor Model for RF Applications and the Effect of Substrate Grounded Shields , 2003 .

[23]  Ilku Nam,et al.  Single-ended Differential RF Circuit Topologies Utilizing Complementary MOS Devices , 2002 .

[24]  P.W.H. de Vreede,et al.  RF-CMOS Performance Trends , 2000, 30th European Solid-State Device Research Conference.

[25]  Joonho Gil,et al.  Simple Wide-Band Metal-Insulator-Metal (MIM) Capacitor Model for RF Applications and Effect of Substrate Grounded Shields , 2004 .

[26]  S. Cherry,et al.  Edholm's law of bandwidth , 2004, IEEE Spectrum.

[27]  James D. Warnock,et al.  Silicon bipolar device structures for digital applications: technology trends and future directions , 1995 .

[28]  Eby G. Friedman,et al.  A comparison of analog and digital circuit implementations of low power matched filters for use in portable wireless communication terminals , 1997 .

[29]  I. Nam,et al.  High-performance RF mixer and operational amplifier BiCMOS circuits using parasitic vertical bipolar transistor in CMOS technology , 2005, IEEE Journal of Solid-State Circuits.

[30]  Kwyro Lee,et al.  A Simple and Analytical Design Approach for Input Power Matched On-chip CMOS LNA , 2002 .