Utilities
R2026aDiese Bibliothek enthält erforderliche und häufig verwendete Blöcke zum Einrichten der Simulationsumgebung, zur Anbindung an Simulink-Modelle und zur sofortigen Generierung benutzerdefinierter Komponenten.
Die Blöcke in der Bibliothek „Network Couplers“ bieten Ihnen Ausgangspunkte für die Aufteilung Ihres Simscape™-Netzes in separate kleinere Netze, die über Simulink-Verbindungen aneinander gekoppelt sind.
Simscape-Blöcke
 | ArrayConnection | Concatenate arrays of conserving connections into single array-of-nodes port (Seit R2025a) |
 | ConnectionLabel | Virtual connection between conserving ports |
 | Connection Port | Physical Modeling connector port for subsystem |
 | Probe | Output block variables as signals during simulation |
 | PS-Simulink Converter | Convert physical signal into Simulink output signal |
 | Simulink-PS Converter | Convert Simulink input signal into physical signal |
 | SimscapeBus | Bus for conserving connection lines |
 | Simscape Component | Deploy Simscape language component as block |
 | Solver Configuration | Physical network environment and solver configuration |
 | VariantConnector | Remove or disconnect physical components from network |
 | Network Coupler(Compressible Link) | Split network at a mechanical translational connection (Seit R2022a) |
 | Network Coupler(Flexible Shaft) | Split network at a mechanical rotational connection (Seit R2022a) |
 | Network Coupler(Inductor) | Split network at an electrical connection by replacing an inductor (Seit R2022a) |
 | Network Coupler(Capacitor) | Split network at an electrical connection by replacing a capacitor (Seit R2022a) |
 | Network Coupler(Current-Voltage) | Split network at an electrical connection (Seit R2022a) |
 | Network Coupler(Voltage-Current) | Split network at an electrical connection (Seit R2022a) |
 | Network Coupler(Voltage-Voltage) | Split network at an electrical connection (Seit R2022a) |
 | Network Coupler(Thermal Mass) | Split network at a thermal connection (Seit R2022a) |
 | Network Coupler(Constant Volume Chamber (IL)) | Split network at an isothermal liquid connection (Seit R2022a) |
 | Network Coupler(Constant Volume Chamber (TL)) | Split network at a thermal liquid connection (Seit R2022a) |
 | Prediction(discrete->continuous) | Prevent accuracy loss when connecting fixed-step network to variable-step network (Seit R2022a) |
 | Prediction(slow->fast) | Prevent accuracy loss when connecting fixed-step networks with different step sizes (Seit R2022a) |
 | Smoothing(continuous->discrete) | Apply output smoothing when connecting variable-step network to fixed-step network (Seit R2022a) |
 | Smoothing(fast->slow) | Apply output smoothing when connecting fixed-step networks with different step sizes (Seit R2022a) |
Blöcke
 | Spectrum Analyzer | Display frequency spectrum |
Funktionen
Themen
Grundlegende Verfahren
- Creating a New Simscape Model
Quick way to create a new model. - Essential Physical Modeling Techniques
Brief summary of physical modeling rules and techniques. - Modeling Best Practices
How to use best practices in your model architecture to avoid numerical simulation issues.
Verbindungsbusse
- Design Rigid Interface Specifications for Conserving Connections
Lock down connection types for Simscape Bus and Connection Port blocks.
Netzkoppler
- Using Network Couplers to Split Physical Networks
General workflow and types of models that can benefit from splitting their network.
Varianten
- Using Variant Connectors to Implement Variations in Physical Networks
Implement variations in physical network.
Enthaltene Beispiele
Circuit Breaker with Probe Block
Models a circuit breaker using a Simscape Probe block to access the current and voltage within the electrical switch block and another Simscape Probe block to access the voltage across a load.
Cooling Plate with Channels
A discretized cooling plate with cooling channels, divided into six segments: three on the top and three on the bottom. Each cooling plate segment is modeled as a thermal mass, while cooling channels are modeled using the Pipe (TL). The ConductiveHeatTransferArray, a custom component, models thermal conduction between the cooling plate segments.
Configuring an EV Simulation for Multirate HIL
An electric vehicle model suitable for multirate Hardware-In-the-Loop (HIL) deployment. The example uses the Simscape™ Network Couplers Library to split the model into separate Simulink® subsystems that can be deployed at different sample rates. This allows you to run parts of the system (for example thermal components) with a slower sample time thereby reducing overall computational cost.
Variant Leaf Region in Mechanical System
Simulate the displacement of velocity sources and mass for different variant configurations using leaf type Variant Connector blocks. Variant Connector blocks allow you to activate or deactivate a set of components in the network during simulation without having to physically remove the components or exclude them from simulation.
Variant Bounded Region in Electrical Circuit
Simulate the flow of a current in an electrical circuit for different variant configurations using primary and nonprimary type Variant Connector blocks. Variant Connector blocks allow you to activate or deactivate a set of components in the network during simulation without having to physically remove the components or exclude them from simulation.
Variant Connector Block with Simscape Bus Block
Use Variant Connector blocks with the Simscape Bus block.
Mask Workspace Variable in Variant Connector Block
Use a mask workspace variable as a variant control variable in a Variant Connector block.
