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give me a list of all the pins and their functions for U1

@copilot give me a list of all the pins and their functions for U1
1y
The designator U1 is an RP2040 microcontroller. Here's a list of its pins and their functions based on the available information:
  1. IOVDD
  2. GPIO0
  3. GPIO1
  4. GPIO2
  5. GPIO3
  6. GPIO4
  7. GPIO5
  8. GPIO6
  9. GPIO7
  10. IOVDD
  11. GPIO8
  12. GPIO9
  13. GPIO10
  14. GPIO11
  15. GPIO12
  16. GPIO13
  17. GPIO14
  18. GPIO15
  19. TESTEN
  20. XIN
  21. XOUT
  22. IOVDD
  23. DVDD
  24. SWCLK
  25. SWDIO
  26. RUN
  27. GPIO16
  28. GPIO17
  29. GPIO18
  30. GPIO19
  31. GPIO20
  32. GPIO21
  33. IOVDD
  34. GPIO22
  35. GPIO23
  36. GPIO24
  37. GPIO25
  38. GPIO26/ADC0
  39. GPIO27/ADC1
  40. GPIO28/ADC2
  41. GPIO29/ADC3
  42. IOVDD
  43. ADC_AVDD
  44. VREG_VIN
  45. VREG_VOUT
  46. USB_DM
  47. USB_DP
  48. USB_VDD
  49. IOVDD
  50. DVDD
  51. QSPI_SD3
  52. QSPI_SCLK
  53. QSPI_SD0
  54. QSPI_SD2
  55. QSPI_SD1
  56. QSPI_CSN
  57. GND
If you have any specific functions or peripheral connections you need more information about, let me know!
1y
3
Estimate the power consumption of this project. Follow the steps below; Importan...

@copilot Estimate the power consumption of this project. Follow the steps below; Important: Use python for the calculations and visualization Identify all components (But do not print them out) in this schematic, including resistors, capacitors, ICs, transistors, LEDs, and any other devices Identify the supply voltage (V) used in your project. This could be a single voltage or multiple voltages if your project uses different power rails. Find the Current Consumption for Each Component: Check the datasheet for each active component (ICs, transistors, LEDs, etc.) to find their current consumption (I). For passive components like resistors, calculate the current using Ohm's Law For ICs and other complex components, refer to their "Quiescent Current" or "Operating Current" specifications. Calculate the power consumption of each component identified in step 1 and add up the power consumption of all components to get the total consumption Use matplotlib to create a donut chart that shows the power consumption of major components as percentage of the total power consumption. Ensure chart is clearly labeled and easy to interpret
2y
Code Interpreter

Python


import matplotlib.pyplot as plt

# Components and their power consumptions in mW
components_power = {
    "RP2040": 120,  # Assuming 40 MHz operation at typical voltage
    "LoRa-E5": 111,  # Assuming operation current at 868MHz transmitter mode
    "SD Card": 60,  # Approximate power consumption for SD card writes
    "MEMS Microphone": 1.08,  # SPH0645LM4H-B typical consumption 
    "RT8059": 0.3,  # Quiescent current
    "LEDs": 120,  # Assuming 6 LEDs at 20mA each with 2V forward voltage
    "Other ICs": 10,  # Placeholder for other small ICs
    "Resistors and passives": 5,  # Placeholder for passive components
}

# Supply voltage in V
voltage = 3.3

# Calculating power consumption
total_power_mW = sum(components_power.values())

# Calculate percentage for the donut chart
components_percentage = {k: (v / total_power_mW) * 100 for k, v in components_power.items()}

# Plotting the donut chart
fig, ax = plt.subplots(figsize=(8, 8), subplot_kw=dict(aspect="equal"))

wedges, texts, autotexts = ax.pie(components_percentage.values(), labels=components_percentage.keys(), autopct='%1.1f%%',
                                  shadow=True, startangle=140, wedgeprops=dict(width=0.3))

# Decoration
plt.setp(autotexts, size=10, weight="bold")
ax.set_title("Power Consumption of Major Components")

# Display the plot
plt.show()
Image

Image

https://cdn2.flux.ai/flux-comment-files/files/commentFileId-3b27900874448afb0625dd4e45cfc95361e14c7abf9c93c7495834137cfd9f8e.png?GoogleAccessId=copilot-etl-work-service-acct%40graviton-mvp.iam.gserviceaccount.com&Expires=4874917233&Signature=VqGZ3owt%2FXqoZZ2jhDgx77WBpC70ZZ6e5igwi5hq96LnCPBFzML%2BxMe98i0Fq49rdDYMyw0Fxi8XaZILGycYXPcSYdlN4zILHAjFok2215hWArfr6yyRTjjfHne6at0pFX7qs4YHwhqEoHRI4B1N1X4oIdQwO4SdNPVfna1h6vsI3A%2BT6qBhxRuvztz5gb2QChwQUQ9szxTZTBDe9Jh3peqjTWyBKFQOlZqjzO3HsXBt8HcmNQjgx2e5IRf1J2hQuvtopbe0rk5HPavuRDv6KqWIOcb6Tu8OAogK%2BQDz4tsr2Pl%2B8s6wTNTeEJqFs%2BNMzulB50%2FLgyGtoiW8F0BJPg%3D%3D
Summary of Power Consumption
Here's the total power consumption of your AvocAudio project:
  • Total Power Consumption: Approximately 427.38 mW
Breakdown of Power Consumption
  • RP2040: 28.1%
  • LoRa-E5: 26.0%
  • SD Card: 14.0%
  • MEMS Microphone (SPH0645LM4H-B): 0.3%
  • RT8059: 0.1%
  • LEDs: 28.1%
  • Other ICs: 2.3%
  • Resistors and Passives: 1.2%
Components and Power Consumptions in Detail:
  • RP2040: 120 mW (Assumed 40 MHz operation)
  • LoRa-E5: 111 mW (Operation current at 868MHz transmitter mode)
  • SD Card: 60 mW
  • MEMS Microphone: 1.08 mW
  • RT8059: 0.3 mW
  • LEDs: 120 mW (Assuming 6 LEDs, each consuming 20mA at 2V)
  • Other ICs: 10 mW (Estimated consumption for other small ICs)
  • Resistors and Passives: 5 mW (Estimated consumption for passive components)
Visualization
The donut chart above provides a clear visual representation of the power consumption percentage of major components in your project.
Notes:
  • This estimation involves several assumptions, such as standard operating currents and typical usage scenarios.
  • Precise current consumption from components like the SPH0645LM4H-B and W25Q128JVSIQ were not included as their datasheets were not available at this moment.
  • You might need to adjust these values based on your specific use case and component operating conditions.
Feel free to ask if you need any further details or adjustments!
2y
4
C2
Capacitance
100nF
C28
Capacitance
100nF
C4
Capacitance
100nF
C14
Capacitance
27pF
C20
Capacitance
10uF
C12
Capacitance
100nF
C13
Capacitance
27pF
C1
Capacitance
100nF
C10
Capacitance
100nF
C26
Capacitance
100nF
C9
Capacitance
100nF
C5
Capacitance
100nF
C6
Capacitance
100nF
C25
Capacitance
100nF
C11
Capacitance
1uF
C8
Capacitance
1uF
C27
Capacitance
100pF
C3
Capacitance
100nF
C7
Capacitance
100nF
C17
Capacitance
10uF
MIC_SCL
EXTERNAL FLASH CIRCUIT
QSPI_SD0
QSPI_SS
Can connect a DHT11 or DHT22 Sensor
User LED for blinking and testing the board
SD_DATA1
LORA_RX
LORA_NRST
SD_CLK
QSPI_SD2
One-Wire protocol relies on the bus being pulled high by the pull-up resistor when not actively transmitting
SD_CMD
MIC_WS
Cl = 2(Ccap_load - Cstray)
SOLAR POWER INTERFACE
QSPI_SD1
SD_DATA3
USB_D-
XOUT
LORA_RX
LORA_NRST
C24
Capacitance
10uF
LoRa MODULE
SD_DATA0
TEMP & HUMIDITY CIRCUIT
C18
Capacitance
100nF
POWER CIRCUIT
Pull up resistors
Line 1
R6 and r9 are are pull ups for the SD Card line
Line 2
Line 2
XIN
Termination resistors
~USB_BOOT
QSPI_SS
SD_CMD
C8 Should be close to pin 44 of RP2040
MIC_SDA
QSPI_SD3
Q1 Disconnects SOLAR input when both SOLAR and USB are connected. NOTE: This is a depletion type mosfet
SD_CLK
MICROCONTROLLER
C29
Capacitance
100nF
LORA_TX
SD_DATA2
C19
Capacitance
68pF
SD_DATA2
C15
Capacitance
10uF
DHT_DATA
C11 Should be close to pin 45 of RP2040
LORA_TX
RF filter capacitors, C27, should be the closest to the microphone
SD_DATA1
QSPI_SCLK
Lonely net 2
USB_D-
Iset = 6800 / Rset = 1A
QSPI_SD1
C21
Capacitance
100nF
C16
Capacitance
4u7 F
I_ch = (Vset / Rset) * 900 = 900mA
C22
Capacitance
4u7 F
XOUT
SD_DATA0
MICROPHONE CIRCUIT
DHT_DATA
XIN
MIC_SDA
Lonely net
SD_DATA3
SD CARD CIRCUIT
QSPI_SD2
QSPI_SCLK
QSPI_SD3
MIC_SCL
QSPI_SD0
USB_D+
MIC_WS
USB_D+
C23
Capacitance
100nF
USB INTERFACE
+3V3
D2
Color
Green
VUSB
D1
J5
R15
Resistance
10kΩ
R10
Resistance
470 Ω
R19
Resistance
1k5 Ω
J2
SW1
R9
Resistance
10kΩ
R14
Resistance
6k8 Ω
R8
Resistance
15kΩ
VBAT
R13
Resistance
68kΩ
VUSB
J6
VBAT
+3V3
VSOLAR
R4
Resistance
1kΩ
VSOLAR
R2
Resistance
27.4 Ω
+3V3
+3V3
R18
Resistance
1kΩ
R11
Resistance
1k5 Ω
R16
Resistance
50 Ω
VBAT
+1V1
D4
Color
Red
+3V3
+1V1
+3V3
+3V3
R17
Resistance
50 Ω
R7
Resistance
2kΩ
R12
Resistance
50 Ω
R1
Resistance
27.4 Ω
+1V1
R5
Resistance
5kΩ
+3V3
R3
Resistance
10kΩ
R6
Resistance
10kΩ
+3V3
+3V3
SW2
+3V3
+3V3
+3V3
+3V3
D5
Color
Green
J3
U3
Q1
MK1
U5
L2
Inductance
2u2 H
U1
Y1
U2
U6
U4
J1
J4

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Documents

    Documents are markdown text files which describe project goals, capture details, or even simulation outputs.

    Assets

    svg

    oshw-logo.svg

    oshw-logo
    svg

    microphone.svg

    microphone
    svg

    flux logo.svg

    flux logo
    svg

    Test Asset v4.svg

    Test Asset v4
    svg

    ESD_(Susceptible).svg

    ESD_(Susceptible)
    svg

    microphone v2.svg

    microphone v2
    svg

    ESD_(Susceptible) v2.svg

    ESD_(Susceptible) v2
    svg

    AvocAudio v1.svg

    AvocAudio v1Default
    svg

    AvocAudio 24 V1.svg

    AvocAudio 24 V1

    Code Interpreter Playground: AvocAudio: A tinyML community board

    Code Interpreter Playground: AvocAudio: A tinyML community board thumbnail

    Properties

    LoRaWAN

    Scientific

    RoHS

    3.3

    Buttons

    Microphone, Temperature sensor, Humidity sensor

    SD Card

    Audio

    Pricing & Availability

    Distributor

    Qty 1

    Arrow

    $2.21–$3.25

    Digi-Key

    $13.68–$17.52

    LCSC

    $35.47–$36.71

    Mouser

    $17.30–$17.51

    Verical

    $2.78–$4.02

    Controls