Utilidades
R2026aEsta biblioteca contiene bloques requeridos y de uso común para establecer un entorno de simulación, interconectando con modelos de Simulink y generando componentes personalizados de forma dinámica.
Los bloques en la biblioteca Network Couplers proporcionan puntos de partida para dividir la red de Simscape™ en redes más pequeñas interconectadas entre sí con conexiones de Simulink.
Bloques de Simscape
 | Array Connection | Concatenate arrays of conserving connections into single array-of-nodes port (Desde R2025a) |
 | Connection Label | Virtual connection between conserving ports |
 | Connection Port | Puerto de conexión de modelado físico para un subsistema |
 | Probe | Output block variables as signals during simulation |
 | PS-Simulink Converter | Convertir una señal física a una señal de salida de Simulink |
 | Simulink-PS Converter | Convertir una señal de entrada de Simulink a una señal física |
 | Simscape Bus | Bus for conserving connection lines |
 | Simscape Component | Desplegar un componente de lenguaje de Simscape como un bloque personalizado en el diagrama del modelo |
 | Solver Configuration | Entorno de red física y configuración de solver |
 | Variant Connector | Remove or disconnect physical components from network |
 | Network Coupler (Compressible Link) | Split network at a mechanical translational connection (Desde R2022a) |
 | Network Coupler (Flexible Shaft) | Split network at a mechanical rotational connection (Desde R2022a) |
 | Network Coupler (Inductor) | Split network at an electrical connection by replacing an inductor (Desde R2022a) |
 | Network Coupler (Capacitor) | Split network at an electrical connection by replacing a capacitor (Desde R2022a) |
 | Network Coupler (Current-Voltage) | Split network at an electrical connection (Desde R2022a) |
 | Network Coupler (Voltage-Current) | Split network at an electrical connection (Desde R2022a) |
 | Network Coupler (Voltage-Voltage) | Split network at an electrical connection (Desde R2022a) |
 | Network Coupler (Thermal Mass) | Split network at a thermal connection (Desde R2022a) |
 | Network Coupler (Constant Volume Chamber (IL)) | Split network at an isothermal liquid connection (Desde R2022a) |
 | Network Coupler (Constant Volume Chamber (TL)) | Split network at a thermal liquid connection (Desde R2022a) |
 | Prediction (discrete->continuous) | Prevent accuracy loss when connecting fixed-step network to variable-step network (Desde R2022a) |
 | Prediction (slow->fast) | Prevent accuracy loss when connecting fixed-step networks with different step sizes (Desde R2022a) |
 | Smoothing (continuous->discrete) | Apply output smoothing when connecting variable-step network to fixed-step network (Desde R2022a) |
 | Smoothing (fast->slow) | Apply output smoothing when connecting fixed-step networks with different step sizes (Desde R2022a) |
Bloques
 | Spectrum Analyzer | Display frequency spectrum |
Funciones
Temas
Técnicas básicas
- Crear un modelo de Simscape nuevo
Una manera rápida de crear un modelo nuevo. - Técnicas esenciales de modelado físico
Breve resumen de las reglas y técnicas de modelado físico. - Prácticas recomendadas de modelado
Cómo utilizar las prácticas recomendadas en la arquitectura del modelo para evitar problemas de simulación numérica.
Buses de conexión
- Design Rigid Interface Specifications for Conserving Connections
Lock down connection types for Simscape Bus and Connection Port blocks.
Network Couplers
- Using Network Couplers to Split Physical Networks
General workflow and types of models that can benefit from splitting their network.
Variantes
- Using Variant Connectors to Implement Variations in Physical Networks
Implement variations in physical network.
Ejemplos destacados
Disyuntor con bloque Probe
En este ejemplo se muestra un disyuntor que utiliza un bloque Probe de Simscape para acceder a la corriente y a la tensión dentro del bloque Electrical Switch y otro bloque Probe de Simscape para acceder a la tensión de una carga.
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.
