Jérôme Olivier Durand-Lose

dblp:d/JODurandLose · also Jérôme Durand-Lose · DBLP profile ↗
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33ranked-venue papers
29as first author
4since 2021 · last 2026
0000-0001-6506-074XORCID · verified

Domains — the database's venue-derived domains; a paper can count in several

Theory of computation · 24 · 21 first-author · 3 since 2021Artificial intelligence and machine learning · 6 · 6 first-author · 1 since 2021Databases, data management, data science and information retrieval · 2 · 2 first-authorSystems, architecture and hardware · 1Applied, interdisciplinary, general and emerging computing · 1 · 1 first-author
YearPublicationVenuePosition
2026 Algorithmic quipu representation of non-cooperative directed 2D tile assembly
Jérôme Olivier Durand-Lose, Hendrik Jan Hoogeboom, Natasa Jonoska
Theor. Comput. Sci.1
2025 Abstract geometrical computation 12: generating representation of infinite countable linear orderings
Jérôme Olivier Durand-Lose
Nat. Comput.1
2021 Preface
abstract
The conference series Machines, Computations and Universality (MCU) traces its roots back to mid of 1990's, and has since been concerned with gaining a deeper understanding of computation through the study of models of general purpose computation.MCU explores computation in the setting of various discrete models (Turing machines, register machines, cellular automata, tile assembly systems, rewriting systems, molecular computing models, neural models, concurrent systems, etc.) and analog and hybrid models (BSS machines, infinite time cellular automata, real machines, quantum computing, etc.).There is a particular (but not exclusive) emphasis given towards the following:
Jérôme Olivier Durand-Lose, Jarkko Kari 0001, Sergey Verlan
Fundam. Informaticae1
2021 Abstract geometrical computation 11: Slanted firing squad synchronisation on signal machines
abstract
Firing Squad Synchronisation on Cellular Automata is the dynamical synchronisation of finitely many cells without any prior knowledge of their range. This can be conceived as a signal with an infinite speed. Most of the proposed constructions naturally translate to the continuous setting of signal machines and generate fractal figures with an accumulation on a horizontal line, i.e. synchronously, in the space-time diagram. Signal machines are studied in a series of articles named Abstract Geometrical Computation. In the present article, we design a signal machine that is able to synchronise/accumulate on any non-infinite slope. The slope is encoded in the initial configuration. This is done by constructing an infinite tree such that each node computes the way the tree expands. The interest of Abstract Geometrical computation is to do away with the constraint of discrete space, while tackling new difficulties from continuous space. The interest of this paper in particular is to provide basic tools for further study of computable accumulation lines in the signal machine model.
Jérôme Olivier Durand-Lose, Aurélien Emmanuel
Theor. Comput. Sci.1
2020 Self-assembly of 3-D structures using 2-D folding tiles
Jérôme Olivier Durand-Lose, Jacob Hendricks, Matthew J. Patitz, Ian Perkins, Michael Sharp
Nat. Comput.1
2018 Self-assembly of 3-D Structures Using 2-D Folding Tiles
Jérôme Olivier Durand-Lose, Jacob Hendricks, Matthew J. Patitz, Ian Perkins, Michael Sharp
DNA1
2018 Abstract geometrical computation 8: Small machines, accumulations & rationality
Florent Becker, Mathieu Chapelle, Jérôme Olivier Durand-Lose, Vincent Levorato, Maxime Senot
J. Comput. Syst. Sci.3
2017 Preface / Editorial
abstract
[Abstract Not Available]
Jérôme Olivier Durand-Lose, Jarkko Kari 0001, Benedek Nagy
Fundam. Informaticae1
2014 Preface
Jérôme Olivier Durand-Lose, Natasa Jonoska
Nat. Comput.1
2013 Irrationality Is Needed to Compute with Signal Machines with Only Three Speeds
Jérôme Olivier Durand-Lose
CiE1
2012 Computing in the Fractal Cloud: Modular Generic Solvers for SAT and Q-SAT Variants
Denys Duchier, Jérôme Olivier Durand-Lose, Maxime Senot
TAMC2
2012 Abstract geometrical computation 7: geometrical accumulations and computably enumerable real numbers
Jérôme Olivier Durand-Lose
Nat. Comput.1
2011 Geometrical Accumulations and Computably Enumerable Real Numbers
Jérôme Olivier Durand-Lose
UC1
2011 Abstract geometrical computation 5: embedding computable analysis
Jérôme Olivier Durand-Lose
Nat. Comput.1
2011 Abstract geometrical computation 4: Small Turing universal signal machines
Jérôme Olivier Durand-Lose
Theor. Comput. Sci.1
2010 Fractal Parallelism: Solving SAT in Bounded Space and Time
Denys Duchier, Jérôme Olivier Durand-Lose, Maxime Senot
ISAAC (1)2
2009 Abstract Geometrical Computation and Computable Analysis
Jérôme Olivier Durand-Lose
UC1
2009 Abstract geometrical computation 3: black holes for classical and analog computing
Jérôme Olivier Durand-Lose
Nat. Comput.1
2007 Abstract Geometrical Computation and the Linear Blum, Shub and Smale Model
Jérôme Olivier Durand-Lose
CiE1
2006 Reversible Conservative Rational Abstract Geometrical Computation Is Turing-Universal
Jérôme Olivier Durand-Lose
CiE1
2006 Forecasting Black Holes in Abstract Geometrical Computation is Highly Unpredictable
Jérôme Olivier Durand-Lose
TAMC1
2006 Abstract Geometrical Computation 1: Embedding Black Hole Computations with Rational Numbers
Jérôme Olivier Durand-Lose
Fundam. Informaticae1
2005 Abstract Geometrical Computation: Turing-Computing Ability and Undecidability
Jérôme Olivier Durand-Lose
CiE1
2004 Abstract Geometrical Computation for Black Hole Computation
Jérôme Olivier Durand-Lose
MCU1
2004 A Kleene theorem for splitable signals
Jérôme Olivier Durand-Lose
Inf. Process. Lett.1
2002 Token-Based Self-Stabilizing Uniform Algorithms
Joffroy Beauquier, Maria Potop-Butucaru, Colette Johnen, Jérôme Olivier Durand-Lose
J. Parallel Distributed Comput.4
2000 Randomized uniform self-stabilizing mutual exclusion
Jérôme Olivier Durand-Lose
Inf. Process. Lett.1
2000 Reversible space-time simulation of cellular automata
Jérôme Olivier Durand-Lose
Theor. Comput. Sci.1
1998 About the Universality of the Billiard ball model
Jérôme Olivier Durand-Lose
MCU (2)1
1998 Randomized Uniform SelfStabilizing Mutual Exclusion
Jérôme Olivier Durand-Lose
OPODIS1
1998 Parallel Transient Time of One-Dimensional Sand Pile
Jérôme Olivier Durand-Lose
Theor. Comput. Sci.1
1997 Intrinsic Universality of a 1-Dimensional Reversible Cellular Automaton
Jérôme Olivier Durand-Lose
STACS1
1995 Reversible Cellular Automaton Able to Simulate Any Other Reversible One Using Partitioning Automata
Jérôme Olivier Durand-Lose
LATIN1