Adjusting Trace Widths while Routing


can you change the width of a trace while still routing that path?
Yes.
This is what the Flux documentation says about the topic:
"Defines a set of widths which will show up in the Context Menu for easy access. The keyboard shortcut W will cycle through the set. Example 1: Suppose you know you will be alternating between routing power traces and data traces. Add the Preferred Trace Width Rule to the Object-specific Rules of the Nets object located in the Objects panel. Then, in the entry box input the desired widths of these two types of traces, (150um and 500um for example). When routing, press w to easily alternate between these trace widths."
Ask how to set widths
Clarify per-net behavior
Ask about editing rule
Different widths per layer
Keyboard shortcut details

I have the sensor with the following spec. Can you connect it to the ESP32 Spec...

@copilot I have the sensor with the following spec. Can you connect it to the ESP32
Spec:
Features:
brand new and high-quality.
The shell is made of stainless steel and equipped with advanced ceramic core and customized process chip.
High accuracy,small size ,light weigh,easy to install and use.
Stable performance, small long-term drift, long life.
It has through EMC ,more stable.
Specification:
Level of : IP65
Input Voltage: 5VDC
Technology: Piezoresistance
Screw Connection: G3/8
Output :Analog
Measuring Range(Optional):0~2/5/10/20/30/40/50 BAR
Output Pattern:Three-wire
Overload Pressure:2 Times Full Range Pressure
Blasting Pressure:3 Times Full Range Pressure
Comprehensive Accuracy (non-linearity + repeatability + hysteresis):
± 1% FS (0 ~ 80 ?)
± 1.5% FS (-20 ~ 100 ?)
± 3% FS (-40 ~ 125 ?)
Electrical Connection: Fit for Packard Connector (Three-core)
1y
To connect your analog pressure sensor to the ESP32-WROVER-E\text{ESP32-WROVER-E}, we need to consider the following:
  1. Input Voltage: The sensor operates at 5V, while the ESP32-WROVER-E\text{ESP32-WROVER-E} typically operates at 3.3V for GPIO. We need to power the sensor with 5V while also interfacing its analog output to the ESP32.
  2. Analog Output: This sensor provides an analog output, which means you'll use one of the ESP32's ADC (Analog-to-Digital Converter) pins to read it.
  3. Three-Wire Output Pattern: This typically indicates a power, ground, and signal wire.
  4. Voltage Level Shifting (if needed): The analog output of the sensor could be higher than 3.3V, so we might need a voltage divider to step down the voltage for safe ADC reading if it exceeds 3.3V.
Assuming you're using the sensor with a 0-5V output range and want to connect it to the ESP32, here's how you might proceed. If the output range is different, please let me know:
Connections:
  1. Power: Connect the sensor's power wire to the +5V net in your circuit (VCC).
  2. Ground: Connect the sensor's ground wire to the GND net.
  3. Signal: Connect the sensor's analog output to one of the ESP32’s ADC pins. For this example, we will use IO36, which is an ADC pin.
Here's how you can wire it up:
  • Connect the sensor power to +5V:
    • Sensor:VCC to VBUS:P1\text{VBUS:P1}
  • Connect the sensor ground to GND:
    • Sensor:GND to ESP1:GND\text{ESP1:GND}
  • Connect the sensor signal to the ESP32's ADC:
    • Sensor:Signal to ESP1:IO36\text{ESP1:IO36}
These connections effectively power the sensor from the 5V rail and read from the analog output using one of the ESP32's ADC pins.
If the output is 0-5V and you need to scale it to a 0-3.3V range, you might consider a voltage divider on the signal line before connecting it to the ESP32's ADC pin.
Would you like help designing that voltage divider or any other part of this connection?
1y
1
D2
ESP_RX
GPIO36
ESP_RX
CC1
ESP_TX
GPIO18
USBDP
USBDN
GPIO15
GPIO14
ESP_TX
GPIO21
USBDP
GPIO34
GPIO34
GPIO25
CC2
GPIO27
ESP_IO0
GPIO25
USBDN
ESP_IO0
GPIO22
GPIO5
ESP_IO0
CC1
USBDP
GPIO13
GPIO12
GPIO35
GPIO18
GPIO33
GPIO12
USBDN
ESP_RX
GPIO33
GPIO19
GPIO4
GPIO36
GPIO32
GPIO15
USBDN
ESP_EN
USBDP
GPIO2
GPIO26
GPIO13
GPIO22
CC2
GPIO2
GPIO4
GPIO39
GPIO26
GPIO19
GPIO39
USBDN
GPIO32
ESP_EN
GPIO14
GPIO21
ESP_TX
ESP_EN
GPIO23
GPIO23
ESP_IO0
GPIO5
GPIO27
ESP_EN
USBDP
GPIO35
D1
C4
Capacitance
10uF
+3V3
C3
Capacitance
10uF
VBUS
C11
Capacitance
0.1uF
+3V3
C8
Capacitance
10uF
ESP1
+5V
+3V3
C9
Capacitance
10uF
C6
Capacitance
0.1uF
C7
Capacitance
0.1uF
+5V
C5
Capacitance
10uF
C10
Capacitance
0.1uF
+3V3
C2
Capacitance
0.1uF
C1
Capacitance
0.1uF
VBUS
+5V
+3V3
+3V3
+3V3
+3V3
R1
Resistance
Resistance
Resistance
10kΩ
J1
PWR
R2
Resistance
Resistance
Resistance
5.1kΩ
USB1
R4
Resistance
1kΩ
RST
J2
R3
Resistance
Resistance
Resistance
5.1kΩ
BOOT
Q1
U1
IC1
Q2

ESP32-WROVER-E Reference Design u4en