Control Design |
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Automatic Code Generation
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Assess C/C++ Code Quality and Reuse Software with PolySpace Products
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Best Practices for Verification, Validation, and Test in Model-Based Design
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Building Quality in to Embedded Device Softwarenew
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Code Generation and Verification for TI DSPs
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Design and Verify Signal Processing and Communications Systems (part 2): HDL Functional Verification
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Developing a Permanent Magnet Synchronous Motor Controller using Model-Based Designnew
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Developing Software Defined Radio Systems Using MATLAB® and Simulink®
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DO-178B Certification: Automate and Streamline Using Code Verificationnew
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Embedded Code Generation & Verification Using Simulink
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Embedded Code Generation and Verification for the Aerospace Industry
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Fixed-Point Programming in MATLAB
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Fixed-Point Signal Processing with MATLAB and Simulink
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HDL Functional Verification with MATLAB and Simulink
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High Integrity Software Development 01: Introduction to Model-Based Design for High Integrity Software Developmentnew
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High Integrity Software Development 02: Requirements-Based Modeling and Traceabilitynew
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High Integrity Software Development 03: Conformance to Modeling Standardsnew
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High Integrity Software Development 04: Verification of the Model Against High-Level Requirementsnew
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High Integrity Software Development 05: Proving Algorithmic Correctnessnew
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High Integrity Software Development 06: Automatic Code Generation and Traceabilitynew
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High Integrity Software Development 07: Proving Code Correctnessnew
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High Integrity Software Development 08: Automatic Test Vector Generation and Software-In-the-Loop Testingnew
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High Integrity Software Development 09: Verification of the Object Code Against the Modelnew
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High Integrity Software Development 10: Measuring Object Code Coveragenew
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High Integrity Software Development 11: Verification of the Object Code Against High-Level Requirementsnew
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Implementing and Verifying Signal Processing, Communications, and Control Applications on TI DSPs
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Introducing Embedded IDE LINK for Green Hills MULTI
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Introduction to Simulink Design Verifier
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Model-Based Design and FPGA Implementation with Simulink
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Model-Based Design for DO-178B
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Model Based Design for Hardware Acceptance Testingnew
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Model Based Design for Small and Mid-Sized Aerospace Companies
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Model-Based Design of Embedded Control Systems
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PolySpace for Code Verification in Hand-Written and Automatically Generated Code
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PolySpace Products for Simulink Users: Code Generation and Code Verification
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Production Code Coaching Session: 1. Basic Software Design
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Production Code Coaching Session: 2. Basic Software Deployment
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Production Code Coaching Session: 3. Advanced Software Design
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Production Code Coaching Session: 4. Advanced Software Design and Deployment
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Production Code Generation and Verification for the Automotive Industry
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Rapid Design and Implementation of FPGA-Based Digital Down Converter Using MATLAB and Simulinkpartner
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Real-Time Execution Using Simulink and xPC Target
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Requirements Validation with Executable Specifications
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Stateflow Design Patterns (Part 1)
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Targeting Analog Devices Blackfin and SHARC processors from MATLABpartner
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Top 10 Features in 2009 for Embedded Code Generationnew
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Verification, Validation, and Test for Embedded Controls
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Verify Critical Ada, C and C++ Embedded Codenew
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Verifying Embedded MATLAB Functions and Truth Tables in Simulink and Stateflow
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What’s New in Embedded Code Generation and Verification
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Model-Based Design
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Accelerating Flight Vehicle Design with MATLAB and Simulink
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Acquiring Live Data into Simulink
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Advanced Aerospace Analysis with Aerospace Toolbox and Aerospace Blockset
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Advanced Modeling Techniques with SimEvents
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Analyzing Design and Cost Tradeoffs Using Optimization with Simulink
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Assess C/C++ Code Quality and Reuse Software with PolySpace Products
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Best Practices for Verification, Validation, and Test in Model-Based Design
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Building Quality in to Embedded Device Softwarenew
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Building Virtual Worlds for use with Simulink 3D Animation
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Design and Verify Control Systems Using Simulink (part 1): Introduction to Dynamic Simulation
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Design and Verify Control Systems Using Simulink (part 2): Plant Modeling
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Design and Verify Control Systems using Simulink (Part 3): Control Design
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Design and Verify Control Systems using Simulink (Part 4): Real-Time Testingnew
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Design and Verify Signal Processing and Communications Systems (part 2): HDL Functional Verification
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Designing Vehicle-Mounted Communications Systems with Simulinknew
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Developing Accurate Battery Simulation Modelsnew
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Developing a Permanent Magnet Synchronous Motor Controller using Model-Based Designnew
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Developing Models from Experimental Data using System Identification Toolbox
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Discrete Event and Hybrid Modeling with SimEvents
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Discrete Event Simulation Modeling with SimEvents
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Distributing a Monte Carlo Test Using SystemTest 2.0
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DO-178B Certification: Automate and Streamline Using Code Verificationnew
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DO-178B Certification with Model-Based Designnew
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Embeddable Algorithm Development and C Code Generation Workflow
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Embedded Code Generation & Verification Using Simulink
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Embedded MATLAB Design Optimizations: C code Customization, Fixed-Point, and HDL (3 of 3 in a series)
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Fault Management with Stateflow
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Five Reports to Carry into Design Reviews
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Fixed Point Filter Design with MATLAB & Simulink
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From SolidWorks Assemblies to SimMechanics Models and Animations from Simulink 3D Animation
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Getting Started with Stateflow: Part 1new
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Getting Started with Stateflow: Part 2new
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Getting Started with Stateflow: Part 3new
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Hardware-in-the-Loop (HIL) Testing of a Position Control System
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HDL Functional Verification with MATLAB and Simulink
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High Integrity Software Development 01: Introduction to Model-Based Design for High Integrity Software Developmentnew
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High Integrity Software Development 02: Requirements-Based Modeling and Traceabilitynew
|
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High Integrity Software Development 03: Conformance to Modeling Standardsnew
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High Integrity Software Development 04: Verification of the Model Against High-Level Requirementsnew
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High Integrity Software Development 05: Proving Algorithmic Correctnessnew
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High Integrity Software Development 06: Automatic Code Generation and Traceabilitynew
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High Integrity Software Development 07: Proving Code Correctnessnew
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High Integrity Software Development 08: Automatic Test Vector Generation and Software-In-the-Loop Testingnew
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High Integrity Software Development 09: Verification of the Object Code Against the Modelnew
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High Integrity Software Development 10: Measuring Object Code Coveragenew
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High Integrity Software Development 11: Verification of the Object Code Against High-Level Requirementsnew
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Hydromechanical Systems in Simulink: Control System Development
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Hydromechanical Systems in Simulink: Modeling Hydraulic Systems
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Implementation and Verification on TI DSPs with Link for Code Composer Studio++ 3.0
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Implementing and Verifying Signal Processing, Communications, and Control Applications on TI DSPs
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Integrating MATLAB, Simulink and Stateflow Components in a SimEvents Model
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Introducing Embedded IDE LINK for Green Hills MULTI
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Introduction to Electromechanical Modeling in Simulink
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Introduction to Model Predictive Control Toolbox
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Introduction to Simulinknew
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Introduction to Simulink 3D Animation
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Introduction to Simulink Design Optimization
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Introduction to Simulink Design Verifier
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Introduction to Simulink for Automotive Control Design
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Introduction to Simulink for Control Design
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Introduction to Stateflow®
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Introduction to Statistics Toolbox
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Linear System Analysis in Simulink
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Mealy and Moore Machines in Stateflow
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Model-Based Design and FPGA Implementation with Simulink
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Model-Based Design for DO-178B
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Model Based Design for Hardware Acceptance Testingnew
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Model-Based Design for Hybrid Electric Powertrain Systemsnew
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Model Based Design for Small and Mid-Sized Aerospace Companies
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Model-Based Design of Embedded Control Systems
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Model-Based Design of Landing Gear
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Modeling and Advanced Control Strategies for the Process Industries
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Modeling and Testing Hardware in the Simulink Environmentnew
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Modeling Mechanical, Electrical, and Hydraulic Systems in Simulink®
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Modeling of a Rolling Mill Stage and Control of Strip Thickness and Speed
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Multi-Loop Control Design in Simulink - Made Easy
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Open Architecture Solutions for Rapid Prototyping and HIL Using Simulink®
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Optimizing Simulation Performance in Simulinknew
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PolySpace Products for Simulink Users: Code Generation and Code Verification
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Real-Time Execution Using Simulink and xPC Target
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Requirements Modeling and Design Verification of Embedded Systemsnew
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Requirements Validation with Executable Specifications
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Stateflow Design Patterns (Part 1)
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Stateflow Design Patterns (Part 2)
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Stateflow Design Patterns (Part 3)
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Stateflow Design Patterns (Part 4)
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Stateflow Design Patterns (Part 5)new
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System Level Design through Simulation for Small and Midsize Aerospace Companies
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Test Management Tool for System Verification and Validation
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Top 10 Features in 2008 for Embedded Code Generation
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Using Model-Based Design in Vehicle Electronics
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Verification, Validation, and Test for Embedded Controls
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Verification and Validation within Model-Based Design
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Verifying Embedded MATLAB Functions and Truth Tables in Simulink and Stateflow
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What’s New for Simulink® with R2008a
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What’s New for Simulink with R2008b
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What’s New for Simulink with R2009a
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What’s New in Embedded Code Generation and Verification
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What’s New in Simulink®7 for Model-Based Design
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Modeling Tools
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Accelerating Flight Vehicle Design with MATLAB and Simulink
|
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Advanced Aerospace Analysis with Aerospace Toolbox and Aerospace Blockset
|
|
Advanced Modeling Techniques with SimEvents
|
|
Analyzing Design and Cost Tradeoffs Using Optimization with Simulink
|
|
Applications of Discrete Event Simulation in the Aerospace and Defense Industry
|
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Assess C/C++ Code Quality and Reuse Software with PolySpace Products
|
|
Building Virtual Worlds for use with Simulink 3D Animation
|
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Designing Control Systems For Wind Turbines
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Designing Pitch and Yaw Actuators for Wind Turbines
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Designing Vehicle-Mounted Communications Systems with Simulinknew
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Determining Mechanical Loads for Wind Turbines
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Developing Models from Experimental Data using System Identification Toolbox
|
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Discrete Event and Hybrid Modeling with SimEvents
|
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Discrete Event Simulation Modeling with SimEvents
|
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Document Generation for MATLAB and Simulink
|
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Fault Management with Stateflow
|
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Five Reports to Carry into Design Reviews
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From SolidWorks Assemblies to SimMechanics Models and Animations from Simulink 3D Animation
|
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Generating Optimal Engine Calibrations using Model-Based Calibration Toolbox
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Getting Started with Stateflow: Part 1new
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Getting Started with Stateflow: Part 2new
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Getting Started with Stateflow: Part 3new
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Hardware-in-the-Loop (HIL) Testing of a Position Control System
|
|
Hybrid Dynamic Systems in Automotive Control Design
|
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Hydromechanical Systems in Simulink: Control System Development
|
|
Hydromechanical Systems in Simulink: Modeling Hydraulic Systems
|
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Integrating MATLAB, Simulink and Stateflow Components in a SimEvents Model
|
|
Introduction to Electromechanical Modeling in Simulink
|
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Introduction to Simulinknew
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Introduction to Simulink 3D Animation
|
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Introduction to Simulink Design Verifier
|
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Introduction to Simulink for Automotive Control Design
|
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Introduction to Stateflow®
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Introduction to Stateflow for Signal Processing and Communications Applications
|
|
Linear System Analysis in Simulink
|
|
Mealy and Moore Machines in Stateflow
|
|
Model-Based Design and FPGA Implementation with Simulink
|
|
Model-Based Design for Hybrid Electric Powertrain Systemsnew
|
|
Model-Based Design of a Wind Turbine
|
|
Model-Based Design of Embedded Control Systems
|
|
Model-Based Design of Landing Gear
|
|
Modeling and Advanced Control Strategies for the Process Industries
|
|
Modeling and Testing Hardware in the Simulink Environmentnew
|
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Modeling a Wind Turbine using MathWorks Toolsnew
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Modeling Electromechanical Systems with SimElectronics
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Modeling Mechanical, Electrical, and Hydraulic Systems in Simulink®
|
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Modeling of a Rolling Mill Stage and Control of Strip Thickness and Speed
|
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Multidomain Plant Modeling in Simulink for Control System Design
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New Tools for Time-Series Analysis in MATLAB and Simulink
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Optimizing Mechatronic Systems Using Simulationnew
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Physical Modeling with the Simscape Languagenew
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Reliability Analysis and Robust Design with MATLAB Products
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Requirements Validation with Executable Specifications
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Stateflow Design Patterns (Part 1)
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Stateflow Design Patterns (Part 2)
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Stateflow Design Patterns (Part 3)
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Stateflow Design Patterns (Part 4)
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Stateflow Design Patterns (Part 5)new
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Teaching Mechatronics Using MATLAB and Simulinknew
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Using MathWorks Tools to Design Hybrid Vehicle Systems
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Using Model-Based Design in Vehicle Electronics
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Using Simulink Parameter Estimation & Test Data to Calibrate a Model of an Electric Motor
|
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Using SystemTest with Excel
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Verification, Validation, and Test for Embedded Controls
|