Program manual, NOR network transduction by generalized gate merging and substitution : (reference manual of NOR network transduction programs NETTRA-G3 and NETTRA-G4) /

Includes bibliographical references.

Design of Irredundant MOS Networks : a program manual for the design algorithm DIMN /

Thesis (M. S.)--University of Illinois at Urbana-Champaign.

Pruning procedures for NOR networks using permissible functions : principles of NOR network transduction programs NETTRA-PGI, NETTRA-P1, and NETTRA-P2 /

Bibliography: p. 49.

Network transduction programs based on connectable and disconnectable conditions with fan-in and fan-out restrictions : (a description of NETTRA-G1-FIFO and NETTRA-G2-FIFO) /

Includes bibliographical references.

Program manual : NOR network transduction based on error-compensation : (Reference manual of NOR network transduction programs NETTRA-EL, NETTRA-E2, and NETTRA-E3) /

"Work supported in part by the National Science Foundation under Grant no. GJ-40221."

Digital filtering using burst processing techniques /

Thesis (M. S.)--University of Illinois at Urbana-Champaign.

NOR network transduction by generalized gate merging and substitution procedures : (principles of NOR network transduction programs NETTRA-G3 and NETTRA-G4) /

Includes bibliographical references.

NOR network transduction procedures based on connectable and disconnectable conditions : principles of NOR network transduction programs NETTRA-G1 and NETTRA-G2 /

Bibliography: p. 63.

Alternative methods for solving the CC-table in Gimpel's algorithm for synthesizing optimal three level NAND networks /

Bibliography: p. 27.

Results of the synthesis of optimal networks of AND and OR gates for four-variable switching functions by a branch-and-bound computer program /

Bibliography: p. 39 (2d group)

The design of NOR networks under fan-in and fan-out const[r]aints : a programming manual for FIFOTRAN-G1 /

"Report No. UIUCDCS-R-74-661"

Level-restricted NOR network transduction procedures /

"UILU-ENG 77 1703."

Sneak circuit analysis : a means of verifying design integrity.

"July 1986."

Resonance Energy Transfer-Based Molecular Switch Designed Using a Systematic Design Process Based on Monte Carlo Methods and Markov Chains

A RET network consists of a network of photo-active molecules called chromophores that can participate in inter-molecular energy transfer called resonance energy transfer (RET). RET networks are used in a variety of applications including cryptographic devices, storage systems, light harvesting complexes, biological sensors, and molecular rulers. In this dissertation, we focus on creating a RET device called closed-diffusive exciton valve (C-DEV) in which the input to output transfer function is controlled by an external energy source, similar to a semiconductor transistor like the MOSFET. Due to their biocompatibility, molecular devices like the C-DEVs can be used to introduce computing power in biological, organic, and aqueous environments such as living cells. Furthermore, the underlying physics in RET devices are stochastic in nature, making them suitable for stochastic computing in which true random distribution generation is critical.

In order to determine a valid configuration of chromophores for the C-DEV, we developed a systematic process based on user-guided design space pruning techniques and built-in simulation tools. We show that our C-DEV is 15x better than C-DEVs designed using ad hoc methods that rely on limited data from prior experiments. We also show ways in which the C-DEV can be improved further and how different varieties of C-DEVs can be combined to form more complex logic circuits. Moreover, the systematic design process can be used to search for valid chromophore network configurations for a variety of RET applications.

We also describe a feasibility study for a technique used to control the orientation of chromophores attached to DNA. Being able to control the orientation can expand the design space for RET networks because it provides another parameter to tune their collective behavior. While results showed limited control over orientation, the analysis required the development of a mathematical model that can be used to determine the distribution of dipoles in a given sample of chromophore constructs. The model can be used to evaluate the feasibility of other potential orientation control techniques.

Graphene-MoS2 Hybrid Technology for Large-Scale Two-Dimensional Electronics

Two-dimensional (2D) materials have generated great interest in the last few years as a new toolbox for electronics. This family of materials includes, among others, metallic graphene, semiconducting transition metal dichalcogenides (such as MoS2) and insulating Boron Nitride. These materials and their heterostructures offer excellent mechanical flexibility, optical transparency and favorable transport properties for realizing electronic, sensing and optical systems on arbitrary surfaces. In this work, we develop several etch stop layer technologies that allow the fabrication of complex 2D devices and present for the first time the large scale integration of graphene with molybdenum disulfide (MoS2) , both grown using the fully scalable CVD technique. Transistor devices and logic circuits with MoS2 channel and graphene as contacts and interconnects are constructed and show high performances. In addition, the graphene/MoS2 heterojunction contact has been systematically compared with MoS2-metal junctions experimentally and studied using density functional theory. The tunability of the graphene work function significantly improves the ohmic contact to MoS2. These high-performance large-scale devices and circuits based on 2D heterostructure pave the way for practical flexible transparent electronics in the future. The authors acknowledge financial support from the Office of Naval Research (ONR) Young Investigator Program, the ONR GATE MURI program, and the Army Research Laboratory. This research has made use of the MI.