Andrew P. Moor


General Information

Education: BSEE from UT Knoxville, Magna Cum Laude (May 1999)
MSEE from UT Knoxville (May 2001)
Thesis Title: A PLL Frequency Synthesizer For A High Temperature Transceiver Realized In 0.5um SOS Technology (PDF version available)
Thesis Advisor: Dr. Jim Rochelle
Assistantship: UT Graduate Research Assistant (GRA)
Research conducted at the Oak Ridge National Laboratory
Fellowship: Lucent Fellowship in the UT/ORNL Joint Program
Employer: Siemens Molecular Imaging
Prior Employment: Analysis and Measurement Services Corporation
Flextronics Semiconductor (formerly ASIC International)
Interests: Analog, digital, and mixed-signal circuit design
Signal analysis
ASIC design
Programming
Wireless systems
Hobbies: Snow skiing, rock climbing, playing the bass guitar, watching the Vols...
E-Mail: amoor@utk.edu
   


Thesis Links

My thesis (PDF version available) involves the design of a 300 MHz PLL for a high-temperature environment. My first chip was submitted to MOSIS in February 2000 and returned in July. It works, and I have a functioning prototype PLL circuit. My second chip includes some improvements to the VCO and divider circuits, and was submitted in September 2000. Both chips used the Peregrine Semiconductor silicon-on-sapphire insulating substrate process.

Thesis chip: RF_CHIP_1 (GIF)
Voltage-controlled oscillator: VCO (GIF)
Programmable frequency divider: DIVIDER (GIF)




EE 652 Homework Links

HW 1 - tutor1.spice (Two-transistor inverting amplifier) AC analysis
HW 1 - tutor1.spice transient analysis
HW 1 - tutor2.spice (Two-transistor CMOS current mirror) DC analysis

HW 2 - tutor3.spice (9-transistor CMOS operational amplifier) ac analysis - part 1
HW 2 - tutor3.spice ac analysis - part 2
HW 2 - tutor3.spice dc analysis
HW 2 - tutor4.spice (switched capacitor filter circuit) transient analysis
HW 2 - tutor5.spice (ring oscillator) transient analysis
HW 2 - tutor6.spice (4-bit DAC without buffer) transient analysis


EE 651 Homework Links

HW 2 - Datapath layout

HW 3 - IRSIM simulation

HW 4 - Timing report
HW 4 - Part A (no load)
HW 4 - Part B (single load) zoomed in
HW 4 - Part B (single load) full
HW 4 - Part C (single load w/1000u M2) zoomed in
HW 4 - Part C (single load w/1000u M2) full
HW 4 - Part D (single load w/1000u M1) zoomed in
HW 4 - Part D (single load w/1000u M1) full
HW 4 - Part E (single load w/1000u poly) zoomed in
HW 4 - Part E (single load w/1000u poly) full
HW 4 - Part F (single load w/1000u ndiff) zoomed in
HW 4 - Part F (single load w/1000u ndiff) full

HW 5 - SPICE simulation
HW 5 - Part B (before PFET optimization)
HW 5 - Part B (after PFET optimization)

HW 6 - Standard-height layout
HW 6 - Summary report

HW 7 - AOI Schematic (SUE)
HW 7 - AOI Pre-layout simulation (IRSIM)
HW 7 - AOI Layout (MAX)
HW 7 - AOI Post-layout simulation (IRSIM)

HW 8 - Design considerations for 2-input AND and 3-input AND
HW 8 - 2-input AND Schematic (SUE)
HW 8 - 2-input AND Pre-layout simulation (IRSIM)
HW 8 - 2-input AND Layout (MAX)
HW 8 - 2-input AND Post-layout simulation (IRSIM)
HW 8 - 3-input AND Schematic (SUE)
HW 8 - 3-input AND Pre-layout simulation (IRSIM)
HW 8 - 3-input AND Layout (MAX)
HW 8 - 3-input AND Post-layout simulation (IRSIM)
HW 8 - 4-input AND: See Aaron Symko's web site

Project - Non-inverting 2-input multiplexer simulation
FET-level schematic
Truth table
Datapath Cell Layout
Datapath Cell Simulation (no load)
Datapath Cell Simulation (4-bit parallel array)
Standard Cell Layout
Standard Cell Simulation (no load)
Standard Cell SPICE Simulation (no load)
Summary of Datapath and Standard Cell Simulation Results (with loading)
 Final Project Report"

Revised SMART FRAME layout




EE 552 Homework Links

Homework 1



EE 551 Project Information

My partner for the final project in this class was Aaron Symko.

Our project was a Differential Score-Keeping System.