Name
Affiliation
Papers
LUDOVIC HENRIO
CNRS---I3S---UNS---INRIA Sophia-Antipolis 2004, route des Lucioles, F-06902 Sophia-Antipolis, France
73
Collaborators
Citations 
PageRank 
110
304
34.43
Referers 
Referees 
References 
450
1207
849
Search Limit
1001000
Title
Citations
PageRank
Year
Distributed futures for efficient data transfer between parallel processes00.342020
Leveraging access mode declarations in a model for memory consistency in heterogeneous systems00.342020
Active Objects with Deterministic Behaviour.00.342020
Preface for the special issue on Interaction and Concurrency Experience 201700.342019
Godot: All the Benefits of Implicit and Explicit Futures (Artifact).00.342019
Godot - All the Benefits of Implicit and Explicit Futures.00.342019
Proceedings 10th Interaction and Concurrency Experience.00.342018
Preface for the special issue on Interaction and Concurrency Experience 201600.342018
On Reachability in Parameterized Phaser Programs.00.342018
Active Objects for Coordinating BSP Computations (Short Paper).00.342018
Ensuring Memory Consistency In Heterogeneous Systems Based On Access Mode Declarations00.342018
Multiactive objects and their applications.10.362017
Trustable virtual machine scheduling in a cloud.00.342017
Monitoring as-a-service to drive more efficient future system design.00.342017
A Survey of Active Object Languages.80.582017
Behavioural semantics for asynchronous components.40.422017
Analysis of Synchronisations in Stateful Active Objects.30.382017
A Theory for the Composition of Concurrent Processes.10.352016
Integrated Environment for Verifying and Running Distributed Components.00.342016
From Modelling To Systematic Deployment Of Distributed Active Objects60.482016
Actors may synchronize, safely!50.512016
Reconfigurable Applications Using GCMScript.00.342016
Verifying The Correct Composition Of Distributed Components: Formalisation And Tool10.362015
Management of service compositionbased on self-controlled components90.542015
Painless support for static and runtime verification of component-based applications00.342015
Programming distributed and adaptable autonomous components--the GCM/ProActive framework70.582015
pNets: An Expressive Model for Parameterised Networks of Processes00.342015
Bringing Coq into the World of GCM Distributed Applications40.432014
Self-Configuration and Self-Optimization Autonomic Skeletons using Events00.342014
Declarative scheduling for active objects30.392014
A mechanized model for CAN protocols10.362013
Multi-Threaded Active Objects40.432013
Formally Reasoning on a Reconfigurable Component-Based System - A Case Study for the Industrial World.00.342013
An Optimal Broadcast Algorithm for Content-Addressable Networks.00.342013
ASPfun: A typed functional active object calculus20.362012
Verifying Safety of Fault-Tolerant Distributed Components.30.402011
Adapting Active Objects to Multicore Architectures10.412011
Unifying Architectural and Behavioural Specifications of Distributed Components40.542010
Behavioural Models For Group Communications30.462010
First class futures: specification and implementation of update strategies30.382010
Transparent First-class Futures and Distributed Components30.412010
Asynchronous Components with Futures: Semantics and Proofs in Isabelle/HOL40.462010
Mixing Workflows and Components to Support Evolving Services00.342010
Locally Nameless Sigma Calculus.00.342010
Behavioural models for distributed Fractal components331.252009
GCM: a grid extension to Fractal for autonomous distributed components411.722009
Functional Active Objects: Typing and Formalisation40.452009
Structural Reconfiguration: An Autonomic Strategy for GCM Components40.462009
A framework for reasoning on component composition50.492009
Asynchronous sequential processes100.842009
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