Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September Submicron Scaling of III-V HBTs for.

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Presentation transcript:

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September Submicron Scaling of III-V HBTs for GHz Analog & Digital ICs Mark Rodwell University of California, Santa Barbara , fax

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September State-of-art in HBTs, 2000: cutoff frequencies Si / SiGe have significantly poorer material parameters …but are much better scaled in size and current density ~1 um emitters ~1 um emitters (0.4 um) ~0.1 um emitters

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September State-of-Art in HBTs, 2000: small-scale circuits Si / SiGe has rough parity in logic with InP despite lower ft, fmax due to higher current density, better emitter contacts Si/SiGe has significantly slower amplifiers due to lower ft, fmax Si/SiGe has much better scales of integration, etc

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September 160 Gb/s is more than possible ! UCSB 160 Gb/s LIA simulations using UCSB HBT model Zach Griffith Agilent Conexant

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September for x 2 improvement of all parasitics: f t, f max, logic speed… base  2: 1 thinner collector 2:1 thinner emitter, collector junctions 4:1 narrower current density 4:1 higher emitter Ohmic 4:1 less resistive Scaling Laws for fast HBTs Challenges with Scaling: Collector mesa HBT: collector under base Ohmics. Base Ohmics must be one transfer length sets minimum size for collector Emitter Ohmic: hard to improve…how ? Current Density: dissipation, reliability Loss of breakdown avalanche Vbr never less than collector Egap (1.12 V for Si, 1.4 V for InP) ….sufficient for logic, insufficient for power Narrow-mesa with 1E20 carbon-doped base undercut-collector transferred-substrate

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September Submicron Transferred-Substrate HBT UCSB Michelle Lee 3000 Å collector 400 Å base with 52 meV grading AlInAs / GaInAs / GaInAs HBT (?)

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September Record f  HBT UCSB Yoram Betser Emitter 1 x 8  m 2, Collector 2 x 8.5  m Å collector 300 Å base with 52 meV grading AlInAs / GaInAs / GaInAs HBT

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September 10 5 A/cm 2 High Speed, High Breakdown DHBTs f   = 165 GHz; f max = 303 GHz 5 V breakdown at 10 5 A/cm 2 UCSB pk Sundararajan M Dahlstrom BV CEO >9 V 1x 8 micron emitter, 2x 10 micron collector

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September High Speed Amplifiers 18 dB, DC-50 GHz UCSB Dino Mensa PK Sundararajan 8.2 dB, DC-80 GHz 397 GHz gain x bandwidth from 2 HBTs S 22 S 11 S 21

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September HBT distributed amplifier UCSB PK Sundararajan 11 dB, DC-87 GHz AFOSR TWA with internal ft-doubler cells

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September InP-HBT W-band Amplifiers Balanced Amplifier: 10.7dBm at 78GHz (transferred-substrate HBT) InGaAs-collector:  V br =1.5 V  low power InP-collector:  V br ~5 V  higher powers expected UCSB ARO Caltech Common-Base Amplifier: 9.7dBm at 82.5 GHz James Guthrie

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September 66 GHz HBT master-slave flip-flop Objectives: GHz logic Approach: transferred-substrate HBTs, microwave / digital design Simulations: 95 GHz clock rate in SPICE Accomplishments: operation to 66 GHz UCSB 33.0 GHz static divider output at 66.0 GHz input Michelle Lee

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September UCSB 3500-HBT 20 GHz Sine ROM (it is hard to build large ICs in a university cleanroom) input latches decoder core receivers & drivers ROM core selectors receivers output latches Yoram Betser WOM

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September Delta-Sigma ADC 18 GHz clock rate 150 HBTs ADC Block Diagram Matlab Simulation <-signal ADC noise = 150 dB in 1 Hz UCSB 6.2 ENOB for a 1 GHz signal ( 2 GS/s equivalent Nyquist) Shrinivasan Jaganathan

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September 185 GHz HBT Amplifier UCSB Miguel Urteaga AFOSR

Rodwell et al, UCSB: Keynote talk, 2000 IEEE Bipolar/BICMOS Circuits and Technology Meeting, Minneapolis, September 19 GHz 2-bit adder UCSB Thomas Mathew