Trifásico Simulación

Worked for 56 sec

Referenced guidance.

Thought for 15 sec — Searching for library schema

Created 6 tasks.

1/6 Rename project, create specification, and record initial requirements/power budget

Thought for 8 sec

Reading project docs.

Renamed USB-C WiFi BLE TH Sensor.

Updated project description.

Set Domain, Connectivity, Connectivity and 2 more.

Thought for 1 min 40 sec — Creating documentation and estimates

2/6 Select library parts for MCU, T/RH sensor, USB-C input, regulator, and protection

Rename project, create specification, and record initial requirements/power budget

Select library parts for MCU, T/RH sensor, USB-C input, regulator, and protection

Add main components and supporting passives to the schematic

Wire USB-C power/protection, 3.3 V rail, MCU boot/debug, USB data, I2C sensor, and indicators

Create firmware/regulatory/bring-up project files

Run schematic/design checks and fix actionable issues

Thought for 38 sec

Refining search for Select a low-power Wi-Fi plus Bluetooth LE 5.x MCU module for a USB-C powered consumer temperature/humidity sensor node. Need 2.4 GHz 802.11 b/g/n, BLE 5.x, native USB programming preferred, integrated antenna/certified module, 3.3 V operation, suitable Flux library part..

Search Select a digital temperature and relative humidity sensor IC for an indoor consumer environmental node. Need I2C interface, 3.3 V operation, low power, good accuracy, SMD package, available Flux library part, modern non-EOL part..

Found 3 results for Select a USB-C receptacle for a 5 V sink-only consumer IoT sensor node. Need USB 2.0 data pins D+ D-, CC1 CC2 pins, SMD or hybrid mechanical shell, Flux library part with footprint..

Refining search for Select a 5 V USB input protection IC or eFuse/load switch for consumer USB-C powered IoT node. Need overvoltage protection, undervoltage lockout, overcurrent/current limit around 0.5 to 3 A capable sources, reverse-current blocking if possible, output to 3.3 V regulator, SMD Flux library part..

Search Select a 5 V to 3.3 V regulator for ESP32-class Wi-Fi sensor node. Need low quiescent current, at least 600 mA transient capability, thermally suitable for USB 5 V to 3.3 V, SMD Flux library part. Buck or thermally capable LDO acceptable..

Search Select USB ESD protection for USB 2.0 D+ D- lines and 5 V VBUS on a USB-C powered consumer IoT node. Need low capacitance data line TVS array and VBUS TVS/protection parts available in Flux library..

Analyzing in depth.

Deeply thought for a moment

Thought for 3 sec

Deeply thought for a moment

Analyzing in depth.

Completed design checks.

Getting a schematic overview.

Getting a BOM overview.

Thought for 2 sec

Thought for a moment

Searching for project data

I'm realizing that I don't have any project data available right now. I need to create an independent critique, which means I'll probably want to dive into the documentation for context and details. Let's see what resources I can find to help guide my critique. I’m curious what insights I can uncover from the docs available, so I will focus on that!

Created a project doc

Project Specification — USB-C WiFi BLE TH Sensor

View Document

Status: Draft schematic in progress. A consumer USB-C powered temperature and relative humidity sensor node with Wi-Fi and Bluetooth Low Ene...

deceiver

Necesito realizar ese circuito para una simulación

image.png

Thought for 3 sec

flux

No puedo ejecutar ni modificar el proyecto ahora porque la cuenta no dispone de ACUs. Aún no se ha creado ningún esquema ni simulación en el proyecto.

Para simular el circuito de la imagen necesitas modelar:

Fuente trifásica equilibrada de 380 V línea a línea, secuencia directa.
- (V_{RN}=380/\sqrt3=219.4\ \text{V}_{RMS}\angle0^\circ)
- (V_{SN}=219.4\ \text{V}_{RMS}\angle-120^\circ)
- (V_{TN}=219.4\ \text{V}_{RMS}\angle+120^\circ)
Tres cargas idénticas en estrella:
- (Z=10\angle36.87^\circ\ \Omega=8+j6\ \Omega)
- Implementación equivalente por fase: R = 8 Ω en serie con L = 15.9 mH si la frecuencia es 60 Hz; para 50 Hz, L = 19.1 mH.
Interruptor K1: conecta/desconecta el neutro de la fuente al punto estrella de cargas.
Interruptor K2: conecta/desconecta la carga de fase R.

Casos de simulación requeridos:

K1 y K2 cerrados.
K1 abierto, K2 cerrado.
K1 cerrado, K2 abierto.
K1 y K2 abiertos.

Falta crear el circuito en Flux y ejecutar los cuatro estados de interruptores cuando haya ACUs disponibles.

Crear esquema trifásico

Calcular corrientes fasoriales

Usar 50 Hz

Preparar simulaciones

No schematic yet

Talk to Flux to get started.