 Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Invited Paper |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Integration of Traffic Simulation and Propulsion Modeling to Estimate Energy Consumption for Battery Electric Vehicles |
| Full Papers |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| Speeding Up the Evaluation of a Mathematical Model for VANETs Using OpenMP |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| The Stability Box for Minimizing TotalWeighted Flow Time under Uncertain Data |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Numerical Modelling of Nonlinear Diffusion Phenomena on a Sphere |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| Simulation, Parameter Estimation and Optimization of an Industrial-Scale Evaporation System |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| High Detailed Lava Flows Hazard Maps by a Cellular Automata Approach |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Consistent Preliminary Design Process for Mechatronic Systems |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| A Process Based on the Model-Driven Architecture to Enable the Definition of Platform-Independent Simulation Models |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Dynamic Response of a Wind Farm Consisting of Doubly-Fed Induction Generators to Network Disturbance |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Educational Simulators for Industrial Process Control |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Simulation-Based Development of Safety Related Interlocks |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Modelling Molecular Processes by Individual-Based Simulations Applied to Actin Polymerisation |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Marine Ecosystem Model Calibration through Enhanced Surrogate-Based Optimization |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Hydrodynamic Shape Optimization of Axisymmetric Bodies Using Multi-fidelity Modeling |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Analysis of Bulky Crash Simulation Results: Deterministic and Stochastic Aspects |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Integration of Optimization to the Design of Pulp and Paper Production Processes |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Variation-Aware Circuit Macromodeling and Design Based on Surrogate Models |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |
| Analysis and Optimization of Bevel Gear Cutting Processes by Means of Manufacturing Simulation |