Nataša Jonoska is a mathematician and a Distinguished Professor at the University of South Florida known for her work in DNA computing. In 2007, she won the Rozenberg Tulip Award in DNA Computing for her work in applications of Automata theory and graph theory to DNA nanotechnology and was elected an AAAS Fellow in 2014 for advancements in understanding information processing in molecular self-assembly. She earned her PhD in mathematics from the State University of New York at Binghamton in 1993 when she joined USF. Erik Winfree is a Professor of Computer Science, Computation and Neural Systems, and Bioengineering at Caltech. Elected a Fellow of the AAAS (2015), he is the recipient of the Feynman Prize for Nanotechnology (2006), a MacArthur Fellowship (2000), and the first Rozenberg Tulip Award in DNA Computing (2000). Prior to starting his research group at Caltech in 2000, he did postdoctoral work at Princeton and was a visiting researcher at MIT. Professor Winfree earned his bachelor's degree in mathematics from the University of Chicago in 1991, and studied computation and neural systems at Caltech, earning his PhD in 1998.

• Beyond Watson-Crick.- DNA nanotechnology out of equilibrium.- The Evolution of DNA-Based Molecular Computing.- DNA Nanotechnology Research in Japan.- Reminiscences from the Trenches.- Beyond DNA.- Controlling single molecule conjugated oligomers and polymers with DNA.- Organizing charge flow with DNA.- DNA Assembly of Dye Aggregates.- Building with DNA.- From Molecules to Mathematics.- Origami Life.- Ok: a kinetic model for locally reconfigurable molecular systems.- Implementing a Theoretician’s Toolkit for Self-Assembly with DNA Components.- Reasoning As If.- Scaling up DNA computing with array-based synthesis and high-throughput sequencing.- Sequenceable Event Recorders.- Computational Design of Nucleic Acid Circuits.- Parallel computations with DNA-encoded chemical reaction networks.- Social DNA Nanorobots.- Models of Gellular Automata.- Patterning DNA origami on membranes through protein self-organization.

Nataša Jonoska is a mathematician and a Distinguished Professor at the University of South Florida known for her work in DNA computing. In 2007, she won the Rozenberg Tulip Award in DNA Computing for her work in applications of Automata theory and graph theory to DNA nanotechnology and was elected an AAAS Fellow in 2014 for advancements in understanding information processing in molecular self-assembly. She earned her PhD in mathematics from the State University of New York at Binghamton in 1993 when she joined USF. Erik Winfree is a Professor of Computer Science, Computation and Neural Systems, and Bioengineering at Caltech. Elected a Fellow of the AAAS (2015), he is the recipient of the Feynman Prize for Nanotechnology (2006), a MacArthur Fellowship (2000), and the first Rozenberg Tulip Award in DNA Computing (2000). Prior to starting his research group at Caltech in 2000, he did postdoctoral work at Princeton and was a visiting researcher at MIT. Professor Winfree earned his bachelor's degree in mathematics from the University of Chicago in 1991, and studied computation and neural systems at Caltech, earning his PhD in 1998.

• Beyond Watson-Crick.- DNA nanotechnology out of equilibrium.- The Evolution of DNA-Based Molecular Computing.- DNA Nanotechnology Research in Japan.- Reminiscences from the Trenches.- Beyond DNA.- Controlling single molecule conjugated oligomers and polymers with DNA.- Organizing charge flow with DNA.- DNA Assembly of Dye Aggregates.- Building with DNA.- From Molecules to Mathematics.- Origami Life.- Ok: a kinetic model for locally reconfigurable molecular systems.- Implementing a Theoretician’s Toolkit for Self-Assembly with DNA Components.- Reasoning As If.- Scaling up DNA computing with array-based synthesis and high-throughput sequencing.- Sequenceable Event Recorders.- Computational Design of Nucleic Acid Circuits.- Parallel computations with DNA-encoded chemical reaction networks.- Social DNA Nanorobots.- Models of Gellular Automata.- Patterning DNA origami on membranes through protein self-organization.