A Review of Event Formats as Enablers of Event-Driven BPM. - Jörg Becker 001; Martin Matzner; Oliver Müller 001; Marcel Walter (Business Process Management Workshops (1), 2011)

Look-ahead schemes for nearest neighbor optimization of 1D and 2D quantum circuits. - Robert Wille; Oliver Keszöcze; Marcel Walter; Patrick Rohrs; Anupam Chattopadhyay; Rolf Drechsler (ASP-DAC, 2016)

Synthesis of approximate coders for on-chip interconnects using reversible logic. - Robert Wille; Oliver Keszöcze; Stefan Hillmich; Marcel Walter; Alberto García Ortiz (DATE, 2016)

An exact method for design exploration of quantum-dot cellular automata. - Marcel Walter; Robert Wille; Daniel Große; Frank Sill Torres; Rolf Drechsler (DATE, 2018)

Evaluating the Impact of Interconnections in Quantum-Dot Cellular Automata. - Frank Sill Torres; Robert Wille; Marcel Walter; Philipp Niemann 001; Daniel Große; Rolf Drechsler (DSD, 2018)

Scalable design for field-coupled nanocomputing circuits. - Marcel Walter; Robert Wille; Frank Sill Torres; Daniel Große; Rolf Drechsler (ASP-DAC, 2019)

Towards Formal Verification of Plans for Cognition-Enabled Autonomous Robotic Agents. - Tim Meywerk; Marcel Walter; Vladimir Herdt; Daniel Große; Rolf Drechsler (DSD, 2019)

Ignore Clocking Constraints: An Alternative Physical Design Methodology for Field-Coupled Nanotechnologies. - Robert Wille; Marcel Walter; Frank Sill Torres; Daniel Große; Rolf Drechsler (ISVLSI, 2019)

fiction: An Open Source Framework for the Design of Field-coupled Nanocomputing Circuits. - Marcel Walter; Robert Wille; Frank Sill Torres; Daniel Große; Rolf Drechsler (CoRR, 2019)

Placement and Routing for Tile-based Field-coupled Nanocomputing Circuits Is NP-complete (Research Note). - Marcel Walter; Robert Wille; Daniel Große; Frank Sill Torres; Rolf Drechsler (ACM J. Emerg. Technol. Comput. Syst., 2019)

Verification for Field-coupled Nanocomputing Circuits. - Marcel Walter; Robert Wille; Frank Sill Torres; Daniel Große; Rolf Drechsler (DAC, 2020)

ToPoliNano and fiction: Design Tools for Field-coupled Nanocomputing. - Umberto Garlando; Marcel Walter; Robert Wille; Fabrizio Riente; Frank Sill Torres; Rolf Drechsler (DSD, 2020)

Clustering-Guided SMT($ mathcal {L !R !A}$) Learning. - Tim Meywerk; Marcel Walter; Daniel Große; Rolf Drechsler (IFM, 2020)

Verifying Safety Properties of Robotic Plans Operating in Real-World Environments via Logic-Based Environment Modeling. - Tim Meywerk; Marcel Walter; Vladimir Herdt; Jan Kleinekathöfer; Daniel Große; Rolf Drechsler (ISoLA (3), 2020)

Design Automation for Field-Coupled Nanotechnologies. - Marcel Walter; Rolf Drechsler (ISVLSI, 2020)

Bail on Balancing: An Alternative Approach to the Physical Design of Field-Coupled Nanocomputing Circuits. - Marcel Walter; Robert Wille; Frank Sill Torres; Rolf Drechsler (ISVLSI, 2020)

On the impact of the synchronization constraint and interconnections in quantum-dot cellular automata. - Frank Sill Torres; Pedro Arthur Silva; Geraldo Fontes; Marcel Walter; José Augusto Miranda Nacif; Ricardo Santos Ferreira 001; Omar Paranaiba Vilela Neto; Jeferson F. Chaves; Robert Wille; Philipp Niemann 001; Daniel Große; Rolf Drechsler (Microprocess. Microsystems, 2020)

One-pass Synthesis for Field-coupled Nanocomputing Technologies. - Marcel Walter; Winston Haaswijk; Robert Wille; Frank Sill Torres; Rolf Drechsler (ASP-DAC, 2021)

Hexagons are the bestagons: design automation for silicon dangling bond logic. - Marcel Walter; Samuel Sze Hang Ng; Konrad Walus; Robert Wille (DAC, 2022)

Exploiting the Third Dimension: Stackable Quantum-dot Cellular Automata. - Willem Lambooy; Marcel Walter; Robert Wille (NANOARCH, 2022)

Efficient Multi-Path Signal Routing for Field-coupled Nanotechnologies. - Marcel Walter; Robert Wille (NANOARCH, 2022)

Three-Input NPN Class Gate Library for Atomic Silicon Quantum Dots. - Maria D. Vieira; Samuel S. H. Ng; Marcel Walter; Robert Wille; Konrad Walus; Ricardo S. Ferreira 001; Omar P. Vilela Neto; José Augusto Miranda Nacif (IEEE Des. Test, 2022)

Late Breaking Results From Hybrid Design Automation for Field-coupled Nanotechnologies. - Simon Toni Hofmann; Marcel Walter; Lorenzo Servadei; Robert Wille (DAC, 2023)

Design Automation for Cryogenic CMOS Circuits. - Victor M. van Santen; Marcel Walter; Florian Klemme; Shivendra Singh Parihar; Girish Pahwa; Yogesh Singh Chauhan; Robert Wille; Hussam Amrouch (DAC, 2023)

Versatile Signal Distribution Networks for Scalable Placement and Routing of Field-coupled Nanocomputing Technologies. - Marcel Walter; Benjamin Hien; Robert Wille (ISVLSI, 2023)

Minimal Design of SiDB Gates: An Optimal Basis for Circuits Based on Silicon Dangling Bonds. - Jan Drewniok; Marcel Walter; Robert Wille (NANOARCH, 2023)

Post-Layout Optimization for Field-coupled Nanotechnologies. - Simon Toni Hofmann; Marcel Walter; Robert Wille (NANOARCH, 2023)

Reducing the Complexity of Operational Domain Computation in Silicon Dangling Bond Logic. - Marcel Walter; Jan Drewniok; Samuel Sze Hang Ng; Konrad Walus; Robert Wille (NANOARCH, 2023)

Atomic Defect-Aware Physical Design of Silicon Dangling Bond Logic on the H-Si(100)2x1 Surface. - Marcel Walter; Jeremiah Croshaw; Samuel Sze Hang Ng; Konrad Walus; Robert A. Wolkow; Robert Wille (CoRR, 2023)

The Need for Speed: Efficient Exact Simulation of Silicon Dangling Bond Logic. - Jan Drewniok; Marcel Walter; Robert Wille (ASPDAC, 2024)

Late Breaking Results: Wiring Reduction for Field-coupled Nanotechnologies. - Simon Toni Hofmann; Marcel Walter; Robert Wille (DAC, 2024)

MNT Bench: Benchmarking Software and Layout Libraries for Field-Coupled Nanocomputing. - Simon Toni Hofmann; Marcel Walter; Robert Wille (DATE, 2024)

Towards Atomic Defect-Aware Physical Design of Silicon Dangling Bond Logic on the H -Si $(100)-2 times 1$ Surface. - Marcel Walter; Jeremiah Croshaw; Samuel Sze Hang Ng; Konrad Walus; Robert A. Wolkow; Robert Wille (DATE, 2024)

Thinking Outside the Clock: Physical Design for Field-coupled Nanocomputing with Deep Reinforcement Learning. - Simon Toni Hofmann; Marcel Walter; Lorenzo Servadei; Robert Wille (ISQED, 2024)

Technology Mapping for Cryogenic CMOS Circuits. - Benjamin Hien; Marcel Walter; Victor M. van Santen; Florian Klemme; Shivendra Singh Parihar; Girish Pahwa; Yogesh Singh Chauhan; Hussam Amrouch; Robert Wille (ISVLSI, 2024)

Towards Fast Automatic Design of Silicon Dangling Bond Logic. - Jan Drewniok; Marcel Walter; Samuel Sze Hang Ng; Konrad Walus; Robert Wille (DATE, 2025)

Bias by Design: Diversity Quantification to Mitigate Structural Bias Effects in AIG Logic Optimization. - Isabella Venancia Gardner; Marcel Walter; Yukio Miyasaka; Robert Wille; Michael Cochez (DATE, 2025)

Late Breaking Results: Physical Co-Design for Field-Coupled Nanocomputing. - Simon Hofmann; Marcel Walter; Robert Wille (DATE, 2025)

QuickTrace: An Efficient Contour Tracing Algorithm for Defect Robustness Simulation of Silicon Dangling Bond Logic. - Jan Drewniok; Marcel Walter; Robert Wille (ISCAS, 2025)

Live Demonstration: An Application for Layout Resilience Analysis of Silicon Dangling Bond Logic. - Marcel Walter; Jan Drewniok; Robert Wille (ISCAS, 2025)

Physical Design for Field-coupled Nanocomputing with Discretionary Cost Objectives. - Simon Toni Hofmann; Marcel Walter; Robert Wille (LASCAS, 2025)

A Fully Planar Approach to Field-coupled Nanocomputing: Scalable Placement and Routing Without Wire Crossings. - Benjamin Hien; Marcel Walter; Simon Hofmann; Robert Wille (CoRR, 2025)