CYPRESS PSoC 62S1 Wi-Fi BT Pioneer Kit User Guide

June 16, 2024
Cypress

PSoC 62S1 Wi-Fi BT Pioneer Kit

Product Information

Specifications

  • Product Name: CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer
    Kit

  • Manufacturer: Cypress Semiconductor

  • Model Number: CYW9P62S1-43438EVB-01

  • Product Type: Development Kit

Introduction

The CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit is a
development kit provided by Cypress Semiconductor. It is designed
to enable users to evaluate and prototype applications using the
PSoC 62S1 Wi-Fi BT module.

Kit Operation

Board Details

The kit includes a board with various components and interfaces
for development purposes. Refer to the user manual for detailed
information on the board layout and components.

KitProg3: On-Board Programmer/Debugger

The kit features an on-board programmer/debugger called
KitProg3. It allows programming and debugging of the PSoC 62S1
Wi-Fi BT module. The user manual provides instructions on how to
use KitProg3 with ModusToolbox, as well as how to utilize the
USB-UART and USB-I2C bridges for communication.

Hardware

Schematics

The user manual includes schematics that provide detailed
information on the electrical connections and circuit design of the
board.

Hardware Functional Description

The user manual provides a functional description of the
hardware components and their interactions. This information helps
users understand the capabilities and limitations of the kit.

Safety and Regulatory Compliance Information

The PSoC 62S1 Wi-Fi BT Pioneer Boards contain electrostatic
discharge (ESD)-sensitive devices. To avoid performance degradation
or loss of functionality, it is recommended to follow proper ESD
precautions. Store unused boards in the protective shipping
package.

End-of-Life/Product Recycling

The end-of-life cycle for this kit is five years from the date
of manufacture. To discard the kit, contact your nearest recycler
for proper recycling.

General Safety Instructions

ESD Protection

ESD can damage boards and associated components. It is
recommended to perform procedures at an ESD workstation. If
unavailable, use appropriate ESD protection by wearing an
anti-static wrist strap attached to a grounded metal object.

Handling Boards

The CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit is
sensitive to ESD. When handling the board, hold it only by its
edges. After removing the board from its box, place it on a
grounded, static-free surface. If available, use a conductive foam
pad to prevent sliding the board over any surface.

FAQ

Q: What is the lifespan of the CYW9P62S1-43438EVB-01 PSoC 62S1

Wi-Fi BT Pioneer Kit?

A: The kit has a lifespan of five years from the date of
manufacture.

Q: How should I handle the board to prevent ESD damage?

A: Hold the board only by its edges and place it on a grounded,
static-free surface. It is recommended to use an anti-static wrist
strap attached to a grounded metal object for ESD protection.

CYW9P62S1-43438EVB-01
PSoC 62S1 Wi-Fi BT Pioneer Kit Guide
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Cypress Semiconductor 198 Champion Court
San Jose, CA 95134-1709
Phone (USA): 800.858.1810 Phone (Intnl): +1.408.943.2600
www.cypress.com

Copyrights
Copyrights
© Cypress Semiconductor Corporation, 2019. This document is the property of Cypress Semiconductor Corporation and its subsidiaries (“Cypress”). This document, including any software or firmware included or referenced in this document (“Software”), is owned by Cypress under the intellectual property laws and treaties of the United States and other countries worldwide. Cypress reserves all rights under such laws and treaties and does not, except as specifically stated in this paragraph, grant any license under its patents, copyrights, trademarks, or other intellectual property rights. If the Software is not accompanied by a license agreement and you do not otherwise have a written agreement with Cypress governing the use of the Software, then Cypress hereby grants you a personal, non-exclusive, nontransferable license (without the right to sublicense) (1) under its copyright rights in the Software (a) for Software provided in source code form, to modify and reproduce the Software solely for use with Cypress hardware products, only internally within your organization, and (b) to distribute the Software in binary code form externally to end users (either directly or indirectly through resellers and distributors), solely for use on Cypress hardware product units, and (2) under those claims of Cypress’s patents that are infringed by the Software (as provided by Cypress, unmodified) to make, use, distribute, and import the Software solely for use with Cypress hardware products. Any other use, reproduction, modification, translation, or compilation of the Software is prohibited.
TO THE EXTENT PERMITTED BY APPLICABLE LAW, CYPRESS MAKES NO WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, WITH REGARD TO THIS DOCUMENT OR ANY SOFTWARE OR ACCOMPANYING HARDWARE, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE. No computing device can be absolutely secure. Therefore, despite security measures implemented in Cypress hardware or software products, Cypress shall have no liability arising out of any security breach, such as unauthorized access to or use of a Cypress product. CYPRESS DOES NOT REPRESENT, WARRANT, OR GUARANTEE THAT CYPRESS PRODUCTS, OR SYSTEMS CREATED USING CYPRESS PRODUCTS, WILL BE FREE FROM CORRUPTION, ATTACK, VIRUSES, INTERFERENCE, HACKING, DATA LOSS OR THEFT, OR OTHER SECURITY INTRUSION (collectively, “Security Breach”). Cypress disclaims any liability relating to any Security Breach, and you shall and hereby do release Cypress from any claim, damage, or other liability arising from any Security Breach. In addition, the products described in these materials may contain design defects or errors known as errata which may cause the product to deviate from published specifications. To the extent permitted by applicable law, Cypress reserves the right to make changes to this document without further notice. Cypress does not assume any liability arising out of the application or use of any product or circuit described in this document. Any information provided in this document, including any sample design information or programming code, is provided only for reference purposes. It is the responsibility of the user of this document to properly design, program, and test the functionality and safety of any application made of this information and any resulting product. “High-Risk Device” means any device or system whose failure could cause personal injury, death, or property damage. Examples of High-Risk Devices are weapons, nuclear installations, surgical implants, and other medical devices. “Critical Component” means any component of a High-Risk Device whose failure to perform can be reasonably expected to cause, directly or indirectly, the failure of the High-Risk Device, or to affect its safety or effectiveness. Cypress is not liable, in whole or in part, and you shall and hereby do release Cypress from any claim, damage, or other liability arising from any use of a Cypress product as a Critical Component in a High-Risk Device. You shall indemnify and hold Cypress, its directors, officers, employees, agents, affiliates, distributors, and assigns harmless from and against all claims, costs, damages, and expenses, arising out of any claim, including claims for product liability, personal injury or death, or property damage arising from any use of a Cypress product as a Critical Component in a High-Risk Device. Cypress products are not intended or authorized for use as a Critical Component in any High-Risk Device except to the limited extent that (i) Cypress’s published data sheet for the product explicitly states Cypress has qualified the product for use in a specific High-Risk Device, or (ii) Cypress has given you advance written authorization to use the product as a Critical Component in the specific High-Risk Device and you have signed a separate indemnification agreement.
Cypress, the Cypress logo, Spansion, the Spansion logo, and combinations thereof, WICED, PSoC, CapSense, EZ-USB, FRAM, and Traveo are trademarks or registered trademarks of Cypress in the United States and other countries. For a more complete list of Cypress trademarks, visit cypress.com. Other names and brands may be claimed as property of their respective owners.

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Contents

Safety and Regulatory Compliance Information

4

1. Introduction

6

1.1 Kit Contents …………………………………………………………………………………………………..7 1.2 Getting Started……………………………………………………………………………………………….8 1.3 Board Overview ……………………………………………………………………………………………..8 1.4 Additional Learning Resources…………………………………………………………………………9 1.5 Technical Support…………………………………………………………………………………………..9 1.6 Documentation Conventions…………………………………………………………………………….9 1.7 Acronyms………………………………………………………………………………………………………9

2. Kit Operation

11

2.1 Board Details ……………………………………………………………………………………………….11 2.2 KitProg3: On- Board Programmer/Debugger……………………………………………………..21
2.2.1 Programming and Debugging using ModusToolbox ………………………………..21 2.2.2 USB- UART Bridge………………………………………………………………………………25 2.2.3 USB-I2C Bridge………………………………………………………………………………….26

3. Hardware

27

3.1 Schematics ………………………………………………………………………………………………….27 3.2 Hardware Functional Description…………………………………………………………………….27
3.2.1 CYW9P62S1-43438CAR-01 (MOD1) ……………………………………………………27 3.2.2 PSoC 5LP-based KitProg3 (U2)……………………………………………………………31 3.2.3 Serial Interconnection between PSoC 5LP and PSoC 6 MCU ………………….32 3.2.4 Serial Interconnection Between PSoC 5LP and CYW43438 …………………….33 3.2.5 Power Supply System …………………………………………………………………………33 3.2.6 I/O Headers……………………………………………………………………………………….37 3.2.7 CapSense Circuit ……………………………………………………………………………….38 3.2.8 LEDs ………………………………………………………………………………………………..39 3.2.9 Push Buttons……………………………………………………………………………………..40 3.2.10 Cypress Quad SPI NOR Flash……………………………………………………………..40 3.2.11 Cypress Quad SPI F-RAM …………………………………………………………………..41 3.2.12 PSoC 6 USB ……………………………………………………………………………………..42 3.2.13 Potentiometer…………………………………………………………………………………….42 3.3 PSoC 62S1 Wi-Fi BT Pioneer Kit Rework ………………………………………………………..43 3.3.1 ETM Trace Header……………………………………………………………………………..43 3.4 Bill of Materials …………………………………………………………………………………………….43 3.5 Frequently Asked Questions…………………………………………………………………………..44

Revision History

46

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Safety and Regulatory Compliance Information
The CYW9P62S1-43438EVB-01 PSoC® 62S1 Wi-Fi BT Pioneer Kit is intended for development purposes only. Users are advised to test and evaluate this kit in an RF development environment. This kit is not a finished product and when assembled may not be resold or otherwise marketed unless all required authorizations are first obtained. Contact [email protected] for details. The CYW9P62S1-43438EVB-01, as shipped from the factory, has been verified to meet with the requirements of CE as a Class A product.
PSoC 62S1 Wi-Fi BT Pioneer Boards contain electrostatic discharge (ESD)- sensitive devices. Electrostatic charges readily accumulate on the human body and any equipment, which can cause a discharge without detection. Permanent damage may occur on devices subjected to high-energy discharges. Proper ESD precautions are recommended to avoid performance degradation or loss of functionality. Store unused PSoC 62S1 Wi-Fi BT Pioneer Boards in the protective shipping package.
End-of-Life/Product Recycling The end-of-life cycle for this kit is five years from the date of manufacture mentioned on the back of the box. Contact your nearest recycler to discard the kit.

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General Safety Instructions
ESD Protection
ESD can damage boards and associated components. Cypress recommends that you perform procedures only at an ESD workstation. If an ESD workstation is unavailable, use appropriate ESD protection by wearing an anti-static wrist strap attached to a grounded metal object.
Handling Boards
CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit is sensitive to ESD. Hold the board only by its edges. After removing the board from its box, place it on a grounded, static-free surface. Use a conductive foam pad, if available. Do not slide the board over any surface.

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1. Introduction
Thank you for your interest in the CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit. The PSoC 62S1 Wi-Fi BT Pioneer Kit enables you to evaluate and develop your applications using the PSoC 62 Series MCU (hereafter called “PSoC 6 MCU”) and CYW43438 Wi-Fi/BT combo device.
PSoC 6 MCU is Cypress’ latest, ultra-low-power PSoC specifically designed for wearables and IoT products. PSoC 6 MCU is a true programmable embedded system- on-chip, integrating a 150-MHz Arm® Cortex®-M4 as the primary application processor, a 100-MHz Arm Cortex-M0+ that supports low-power operations, up to 2 MB Flash and 1 MB SRAM, CapSense® touch-sensing, and programmable analog and digital peripherals that allow higher flexibility, in-field tuning of the design, and faster time-to-market. The PSoC 6 MCU on this kit, CY8C6247BZI-D54 has 1 MB Flash and 288 KB SRAM.
The PSoC 62S1 Wi-Fi BT Pioneer Board offers compatibility with ArduinoTM shields. The board features a PSoC 6 MCU, and a CYW43438 Wi-Fi/Bluetooth combo module. Cypress CYW43438 is a highly integrated single-chip solution and offers the lowest BOM in the industry for smartphones, tablets, and a wide range of other portable devices. The chip includes a 2.4 GHz WLAN IEEE 802.11 b/g/n MAC/baseband/radio, and Bluetooth 4.2. The WLAN section supports SDIO interface to the host MCU (PSoC 6 MCU), and the Bluetooth section supports high-speed 4-wire UART interface to the host MCU. In addition, the board features an onboard programmer/debugger (KitProg3), a 512Mbit Quad SPI NOR flash, a 4-Mbit Quad SPI F-RAM, a micro-B connector for USB device interface, a 5-segment CapSense slider, two CapSense buttons, an RGB LED, two user LEDs, one potentiometer, and two push buttons.
You can use ModusToolboxTM to develop and debug your PSoC 6 MCU projects. ModusToolbox software is a set of tools that enable you to integrate Cypress devices into your existing development methodology.
If you are new to PSoC 6 MCU and ModusToolbox IDE, refer to the application note AN228571 Getting Started with PSoC 6 MCU on ModusToolbox to help you familiarize with the PSoC 6 MCU and help you create your own design using the ModusToolbox IDE.

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Introduction

1.1

Kit Contents

The CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit has the following contents, as shown in Figure 1-1. PSoC 62S1 Wi-Fi BT Pioneer Board USB Type-A to Micro-B cable Four jumper wires (4 inches each) Two jumper wires (5 inches each) Quick Start Guide
Figure 1-1. Kit Contents

Inspect the contents of the kit; if you find any part missing, contact your nearest Cypress sales office for help: www.cypress.com/support.

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Introduction

1.2

Getting Started

This guide will help you get acquainted with the PSoC 62S1 Wi-Fi BT Pioneer Kit:
The Kit Operation chapter on page 11 describes the major features of the PSoC 62S1 Wi-Fi BT Pioneer Kit and functionalities such as programming, debugging, and the USB-UART and USBI2C bridges.
The Hardware chapter on page 27 provides a detailed hardware description, methods to use the onboard NOR flash, kit schematics, and the bill of materials (BOM).
Application development using PSoC 62S1 Wi-Fi BT Pioneer Kit is supported in various development ecosystems such as ModusToolbox and Mbed OS. For the latest software support for this development kit including the different development ecosystems, refer to the kit webpage.
ModusToolbox software is a free development ecosystem that includes the ModusToolbox IDE. Using ModusToolbox IDE, you can enable and configure device resources, middleware libraries, and program and debug the device. You can download the software from the ModusToolbox home page. See the ModusToolbox User Guide for additional information.
Mbed OS: Visit Cypress’ Mbed OS page on instructions to develop applications on Cypress’ target board on the Mbed OS platform.
There is a wide range of code examples to evaluate the PSoC 62S1 Wi-Fi BT Pioneer Board. These examples help you familiarize yourself with the PSoC 6 MCU and create your own design. These examples are available in various development ecosystems such as ModusToolbox IDE and Mbed OS. Visit Cypress’ code example page to access examples for the following development ecosystems:
ModusToolbox based examples
Mbed OS based examples

1.3

Board Overview

The PSoC 62S1 Wi-Fi BT Pioneer Board has the following features: CYW9P62S1-43438CAR-01 carrier module that contains AW-CU427-01H System in Package
(SiP) module by AzureWave, which has PSoC 6 MCU (CY8C6247BZI-D54) CYW43438KUBG, 2.4 GHz WLAN and Bluetooth 4.2 compliant device supporting Dual- mode
Bluetooth Classic and Bluetooth Low Energy (BT and BLE) operation 512-Mbit external Quad SPI NOR Flash that provides a fast, expandable memory for data and
code 4-Mbit Quad SPI ferroelectric random-access memory (F-RAM) KitProg3 onboard SWD programmer/debugger with USB-UART and USB-I2C bridge functionality CapSense touch-sensing slider (5 elements), two buttons, based on self- capacitance (CSD) and
mutual-capacitance (CSX) sensing A micro-B connector for USB device interface for PSoC 6 MCU 3.3 V operation of PSoC 6 MCU is supported Two user LEDs, an RGB LED, two user buttons, and a reset button for the PSoC 6 MCU A potentiometer One Mode selection button and one Status LED for KitProg3

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1.4 1.5 1.6
1.7

Introduction

Additional Learning Resources
Cypress provides a wealth of data at www.cypress.com/psoc6 to help you to select the right PSoC device for your design and to help you to quickly and effectively integrate the device into your design.

Technical Support
For assistance, visit Cypress Support or contact customer support at +1(800) 541-4736 Ext. 3 (in the USA) or +1 408-943-2600 Ext. 3 (International).
You can also use the following support resources if you need quick assistance: Self-help (Technical Documents). Local Sales Office Locations.

Documentation Conventions

Table 1-1. Document Conventions for Guides

Convention Courier New

Usage
Displays file locations, user entered text, and source code: C:…cdicc

Italics File > Open Bold Times New Roman Text in gray boxes

Displays file names and reference documentation: Read about the sourcefile.hex file in the PSoC Creator User Guide.
Represents menu paths: File > Open > New Project
Displays commands, menu paths, and icon names in procedures: Click the File icon and then click Open.
Displays an equation: 2 + 2 = 4
Describes cautions or unique functionality of the product.

Acronyms

Table 1-2. Acronyms Used in this Document

Acronym

ADC

Analog-to-Digital Converter

BLE

Bluetooth Low Energy

BOM

Bill of Materials

BT

Bluetooth

CINT

Integration Capacitor

CMOD

Modulator Capacitor

CPU

Central Processing Unit

CSD

CapSense Sigma Delta

CSX

CapSense Crosspoint

DC

Direct Current

Del-Sig

Delta-Sigma

Definition

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Table 1-2. Acronyms Used in this Document (continued)

Acronym

Definition

DMA

Direct Memory Access

ECO

External Crystal Oscillator

ESD

Electrostatic Discharge

GPIO

General-Purpose Input/Output

HID

Human Interface Device

I2C

Inter-Integrated Circuit

I2S

Inter-IC Sound

IC

Integrated Circuit

IDE

Integrated Development Environment

IoT

Internet of Things

LED

Light-emitting Diode

LPO

Low Power Oscillator

MAC

Medium Access Control

OOB

Out-of Box

PC

Personal Computer

PDM

Pulse Density Modulation

PSoC

Programmable System-on-Chip

PWM

Pulse Width Modulation

QSPI

Quad Serial Peripheral Interface

SAR

Successive Approximation Register

SDIO

Secure Digital Input Output

SiP

System in Package

SPI

Serial Peripheral Interface

SRAM

Serial Random Access Memory

SWD

Serial Wire Debug

UART

Universal Asynchronous Receiver Transmitter

USB

Universal Serial Bus

WCO

Watch Crystal Oscillator

WLAN

Wireless Local Area Network

Introduction

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2. Kit Operation

2.1

This chapter introduces you to various features of the PSoC 62S1 Wi-Fi BT Pioneer Board, including the theory of operation and the onboard KitProg3 programming and debugging functionality, USB-UART and USB-I2C bridges.

Board Details

The PSoC 62S1 Wi-Fi BT Pioneer Board is built around a PSoC 6 MCU. Figure 2-1 shows the block diagram of the PSoC 6 MCU device used on the board. For details of device features, see the device datasheet.
Figure 2-1. PSoC 6 MCU Block Diagram

Energy Profiler EFUSE (1024 bits) Serial Memory I/F (QSPI with OTF Encryption/Decryption))
USB-FS Host + Device

PSoC 62

System Resources
Power Sleep Control POR BOD OVP LVD
REF
PWRSYS-LP/ULP
Buck

Clock

Clock Control

ILO

WDT

IMO ECO

FLL

1xPLL

Reset Reset Control
XRES
Test TestMode Entry
Digital DFT Analog DFT

Backup

Backup Control

RTC

BREG WCO

Power Modes Active/Sleep
LowePowerActive/Sleep DeepSleep Hibernate Backup

CPU Subsystem
SWJ/ETM/ITM/CTI
Cortex M4 150 MHz (1.1V) 50 MHz (0.9V)
FPU, NVIC, MPU, BB 8KB Cache

FLASH 1024+32 KB
FLASH Controller

IOSS GPIO

PCLK

Programmable Analog

SAR ADC (12-bit)

DAC (12-bit)

x1

x1

SARMUX

CTB/CTBm 2x OpAmp x1

IO Subsystem

SRAM 9x 32 KB
SRAM Controller

ROM 128 KB
ROM Controller

SWJ/MTB/CTI
Cortex M0+ 100 MHz (1.1V) 25 MHz (0.9V)
MUL, NVIC, MPU 8KB Cache

DataWire/ DMA
2x 16 Ch
Initiator/MMIO

System Interconnect (Multi Layer AHB, MPU/SMPU, IPC)

Peripheral Interconnect (MMIO, PPU)

Programmable Digital
UDB … UDB

Audio Subsystem

x12

LP Comparator CapSense
32x TCPWM
(TIMER,CTR,QD, PWM)
8x Serial Comm
(I2C,SPI,UART,LIN,SMC)
1x Serial Comm
(I2C,SPI, Deep Sleep)
LCD I2S Master/Slave
PDM/PCM

Port Interface & Digital System Interconnect (DSI) High Speed I/O Matrix, Smart I/O, Boundary Scan 104 GPIOs (6 of these are OVT Pins)

CRYPTO
DES/TDES, AES,SHA,CRC, TRNG,RSA/ECC
Accelerator
Initiator/MMIO

FS/LS PHY

DMA MMIO

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Kit Operation

Figure 2-2 shows the block diagram of the CYW9-BASE-01 Pioneer Board (modified for CYW9P62S1-43438EVB-01). Figure 2-3 shows the block diagram of the CYW9P62S1-43438CAR01 Carrier Board.

Figure 2-2. Block Diagram of Pioneer Board (modified for CYW9P62S1-43438EVB-01)

CYW9-BASE-01 Architecture Block Diagram

KitProg3 Mode Switch & LED

10-pin SWD/ JTAG Header

20-pin ETM Header

Reset Button

VDDA

Potentiometer

Cypress Device No Load

P5LP_VDD

USB (Micro-B)
VTARG Monitoring

KitProg3 (PSoC 5LP)

1.8~3.3V VTARG_REF
SWD

SWD JTAG 1.8~3.3V
VTARG_REF

I2C/UART_RX/UART_TX

SWD JTAG TRACE

P5LP_VDD

Level Translator

VTARG UART_RTS UART_CTS

P5LP_VDD

Level Translator

VDDIO_WL
BT_UART TX, RX, CTS, RTS WL_UART TX, RX, KP_GPIO_0

I2C EEPROM
2 x CapSense Buttons, 1 x 5-segment CapSense Slider
USB Device & Host

VBACKUP VDDD
VDDIO0

2 x User Buttons
User LEDs (RGB, Red,
Orange)
QSPI NOR Flash

Carrier Module

VDDIO0

QSPI F-RAM

VDDIO0

microSD Card Slot

3.3V, VTARG KP_VBUS

PSoC 6 MCU I/O Headers
(Arduino)

I/O Headers (Non Arduino)

Loaded Device

Figure 2-3. Block Diagram of CYW9P62S1-43438CAR-01 Carrier Module

Carrier Module Footprint

PSoC 6 MCU GPIOs (66 I/Os)
XRES USB BT UART (4 I/Os)
Control (2 I/Os) WL GPIO (1 I/O) BT I2S (4 I/Os) SDIO (6 I/Os)
Note: Inside AZW module, SDIO interface is connected only to PSoC 6 MCU, not connected to carrier module footprint
VDDA (1.8V ­ 3.3V) VDDD (1.8V ­ 3.3V) VDDIO2 (1.8V) VDD_NS (1.8V ­ 3.3V) VBACKUP (1.8V ­ 3.3V) VDDUSB (2.7V – 3.3V)

AZW PCB Module

VBAT (3.2V ­ 4.2V) VDDIO_WL (1.8V)

Crystal 17.2032 MHz

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Kit Operation

Figure 2-4 shows the pinout of the PSoC 62S1 Wi-Fi BT Pioneer Board. Figure 2-4. PSoC 62S1 Wi-Fi BT Pioneer Board Pinout

NC VTARG/IOREF XRES/RESET
V 3.3/3.3V V 5.0/5V GND/GND GND/GND VIN/Vin

P10_0/A0 P10_1/A1 P10_2/A2 P10_3/A3 P10_4/A4 P10_5/A5 P10_6 NC
BT_UART_RXD BT_UART_TXD BT_UART_CTS BT_UART_RTS
NC NC NC WL_GPIO_2

P9_0 P9_1 P9_2 P9_3 P9_4 P9_5 P9_6 NC
BT_I2S_CLK BT_I2S_WS BT_I2S_DO BT_I2S_DI NC NC NC NC

LEGEND Arduino Uno R3 PSoC 6 I/Os WL/BT I/Os

P7_3 P0_5 P1_1

P6_0/SCL P6_1/SDA VREF/AREF GND/GND P12_2/D13 P12_1/D12 P12_0/D11 P12_3/D10 P7_4/D9 P7_5/D8
P1_4 P0_4 NC NC NC NC NC NC NC NC
NC P12_5 P12_4 P8_0 NC P1_3 P0_3 P0_2
P5_7/D7 P5_6/D6 P5_5/D5 P5_4/D4 P5_3/D3 P5_2/D2 P5_1/D1 P5_0/D0
NC P11_1 P1_5

Table 2-1. PSoC 62S1 Wi-Fi BT Pioneer Board Pinout

Pin

Primary On-board Secondary On-board

Function

Function

PSoC 6 MCU Pins

XRES

Hardware Reset

­

­

P0[2]

GPIO on non-Arduino header IO0 (J22.1)

­

­

P0[3]

GPIO on non-Arduino header IO1 (J22.2)

­

­

P0[4]

User button with Hibernate wakeup
capability

GPIO on non-Arduino header (J21.9)

­

P0[5]

RGB green LED (LED5)

GPIO on non-Arduino header (J24.3)

­

Connection details

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Table 2-1. PSoC 62S1 Wi-Fi BT Pioneer Board Pinout (continued)

Pin

Primary On-board Secondary On-board

Function

Function

Connection details

P1[0]

CapSense RX for buttons and
CapSense TX for sliders

GPIO on non-Arduino Remove R33 to disconnect from CapSense.

header IO7 (J22.8)

Populate R145 to connect to GPIO on nonArduino header.

P1[1]

RGB red LED (LED5)

GPIO on non-Arduino header (J24.1)

­

P1[2]

USB Host Enable

­

­

P1[3]

GPIO on non-Arduino header J22.3

­

­

P1[4]

User button with Hibernate wakeup
capability

GPIO on non-Arduino header (J21.10)

­

P1[5]

Orange user LED (LED8)

GPIO on non-Arduino header (J24.2)

­

P5[0]

UART_RX

Arduino D0 (J4.1) Remove R21 to disconnect from KitProg3.

P5[1]

UART_TX

Arduino D1 (J4.2) Remove R61 to disconnect from KitProg3.

P5[2]

UART_RTS

Arduino D2 (J4.3) Remove R19 to disconnect from KitProg3.

P5[3]

UART_CTS

Arduino D3 (J4.4) Remove R18 to disconnect from KitProg3.

P5[4]

Arduino D4 (J4.5)

­

­

P5[5]

Arduino D5 (J4.6)

­

­

P5[6]

Arduino D6 (J4.7)

­

­

P5[7]

Arduino D7 (J4.8)

­

­

P6[0]

I2C SCL

Arduino (J3.10) Remove R58 to disconnect from KitProg3.

P6[1]

I2C SDA

Arduino (J3.9) Remove R59 to disconnect from KitProg3.

P6[2]

USB VBUS Detect

­

­

P6[3]

USB Interrupt

­

­

P6[4]

PSoC 6 MCU JTAG TDO/SWD SWO

­

­

P6[5]

PSoC 6 MCU JTAG TDI

­

­

P6[6]

PSoC 6 MCU JTAG TMS/SWD SWDIO

­

­

P6[7]

PSoC 6 MCU JTAG TCK/SWD SWCLK

­

­

P7[0]

ETM Clock

­

­

P7[1]

CapSense CINTA

­

­

P7[2]

CapSense CINTB

­

­

P7[3]

RGB blue LED (LED5)

GPIO on non-Arduino header (J24.5)

­

P7[4]

Arduino D9 (J3.2)

­

­

P7[5]

Arduino D8 (J3.1)

­

­

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Kit Operation

Table 2-1. PSoC 62S1 Wi-Fi BT Pioneer Board Pinout (continued)

Pin

Primary On-board Secondary On-board

Function

Function

Connection details

P7[7]

CapSense CMOD

­

­

P8[0]

GPIO on non-Arduino header (J22.5)

­

­

P8[1]

CapSense Button0 TX

Remove R24 to disconnect from CapSense. GPIO on non-Arduino
header IO8 (J21.1) Populate R144 to connect to GPIO on nonArduino header.

P8[2]

CapSense Button1 TX

Remove R25 to disconnect from CapSense. GPIO on non-Arduino
header IO9 (J21.2) Populate R143 to connect to GPIO on nonArduino header.

P8[3]

CapSense Slider0 RX

GPIO on non-Arduino Remove R28 to disconnect from CapSense.

header IO10 (J21.3)

Populate R142 to connect to GPIO on nonArduino header.

P8[4]

CapSense Slider1 RX

GPIO on non-Arduino Remove R29 to disconnect from CapSense.

header IO11 (J21.4)

Populate R152 to connect to GPIO on nonArduino header.

P8[5]

CapSense Slider2 RX

GPIO on non-Arduino Remove R30 to disconnect from CapSense.

header IO12 (J21.5)

Populate R153 to connect to GPIO on nonArduino header.

P8[6]

CapSense Slider3 RX

Remove R31 to disconnect from CapSense. GPIO on non-Arduino header IO13 (J21.6) Populate R151 to connect to GPIO on non-
Arduino header.

P8[7]

CapSense Slider4 RX

Remove R32 to disconnect from CapSense.

GPIO on non-Arduino header IO14 (J21.7)

Populate R149 to connect to GPIO on non-

Arduino header.

P9[0]

Extended Arduino A8 (J2.2)

ETM TRACEDATA[3]

Remove R125 to disconnect from J2 header.
Populate R126 to connect to ETM Trace header.

P9[1]

Extended Arduino A9 (J2.4)

ETM TRACEDATA[2]

Remove R124 to disconnect from J2 header.
Populate R127 to connect to ETM Trace header.

P9[2]

Extended Arduino A10 (J2.6)

ETM TRACEDATA[1]

Remove R123 to disconnect from J2 header.
Populate R128 to connect to ETM Trace header.

P9[3]

Extended Arduino A11 (J2.8)

Remove R117 to disconnect from J2 header.
ETM TRACEDATA[0] Populate R129 to connect to ETM Trace header.

P9[4]

Extended Arduino A12 (J2.10)

­

­

P9[5]

Extended Arduino A13 (J2.12)

­

­

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Kit Operation

Table 2-1. PSoC 62S1 Wi-Fi BT Pioneer Board Pinout (continued)

Pin

Primary On-board Secondary On-board

Function

Function

Connection details

P9[6]

Extended Arduino A14 (J2.14)

­

­

P10[0]

Arduino A0 (J2.1)

­

­

P10[1]

Arduino A1 (J2.3)

­

­

P10[2]

Arduino A2 (J2.5)

­

­

P10[3]

Arduino A3 (J2.7)

­

­

P10[4]

Arduino A4 (J2.9)

­

­

P10[5]

Arduino A5 (J2.11)

­

­

P10[6]

Potentiometer output

Extended Arduino A6 (J2.13)

Remove R51 to disconnect from potentiometer.

P11[0]

QSPI F-RAM CS

­

­

P11[1]

Red user LED (LED9)

GPIO on non-Arduino header (J24.4)

­

P11[2]

QSPI Flash CS

­

­

P11[3:6]

QSPI Flash IO[3:0]

­

­

P11[7]

QSPI Flash CLK

­

­

P12[0]

Arduino header D11 (J3.4)

­

­

P12[1]

Arduino header D12 (J3.5)

­

­

P12[2]

Arduino header D13 (J3.6)

­

­

P12[3]

Arduino header D10 (J3.3)

­

­

P12[4]

GPIO on non-Arduino header IO5 (J22.6)

­

­

P12[5]

GPIO on non-Arduino header IO6 (J22.7)

­

­

P12[6]

ECO Crystal XIN

­

­

P12[7]

ECO Crystal XOUT

­

­

CYW43438 Pins

UART interface with BT_UART_TXD Host MCU (PSoC 6
MCU)

­

­

UART interface with BT_UART_RXD Host MCU (PSoC 6
MCU)

­

­

UART interface with BT_UART_CTS Host MCU (PSoC 6
MCU)

­

­

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Kit Operation

Table 2-1. PSoC 62S1 Wi-Fi BT Pioneer Board Pinout (continued)

Pin

Primary On-board Secondary On-board

Function

Function

UART interface with BT_UART_RTS Host MCU (PSoC 6
MCU)

­

­

BT_I2S_CLK

I2S serial clock

­

­

BT_I2S_WS I2S serial word select

­

­

BT_I2S_DO I2S serial data out

­

­

BT_I2S_DI

I2S serial data in

­

­

WL_GPIO_2 Programable GPIO

­

­

Connection details

The CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit comes with the PSoC 62S1 Wi-Fi BT Pioneer Board. Figure 2-5 and Figure 2-6 show the markup of the Pioneer Board.
Figure 2-5. PSoC 62S1 Wi-Fi BT Pioneer Board – Top View

34 33 16

28

28

32 16 31

30

27 29

1

28

27 2
26
25 24

3

23

4 22

5

21

20

6

19

18

7

8

9

10

9

11 12 13 14

15 16

17

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Figure 2-6. PSoC 62S1 Wi-Fi BT Pioneer Board – Bottom View

Kit Operation

The PSoC 62S1 Wi-Fi BT Pioneer Board has the following components:
1. Power LED (LED1): This Yellow LED indicates the status of power supplied to board.
2. KitProg3 USB connector (J6): The USB cable provided along with the PSoC 62S1 Wi-Fi BT Pioneer Board connects between this USB connector and the PC to use the KitProg3 onboard programmer and debugger and to provide power to the board.
3. PSoC 6 MCU VDD power selection jumper (J14): This jumper is used to select the PSoC 6 MCU VDD supply voltage between 1.8 V and 3.3 V. J14 is not loaded for this kit and R83 is loaded, due to which only 3.3 V operation is supported.
4. KitProg3 programming mode selection button (SW3): This button can be used to switch between various modes of operation of KitProg3 (CMSIS-DAP BULK, CMSIS-DAP HID or DAPLink modes). For more details, see the KitProg3 User Guide.
5. PSoC 6 MCU VDD current measurement jumper (J15): An ammeter can be connected to this jumper to measure the current consumed by the PSoC 6 MCU VDD power domain. Please refer to Power Supply System on page 33 for details on power domains that are monitored by current measurement jumpers.
6. PSoC 6 MCU VDDIO2 and CYW43438 VDDIO power selection jumper (J16): This jumper is used to select the PSoC 6 MCU VDDIO2 and CYW43438 VDDIO supply voltage between 1.8 V and 3.3 V. This is not loaded by default. This board supports operation of VDDIO at 1.8 V.
7. PSoC 6 MCU VDDIO0 current measurement jumper (J19): An ammeter can be connected to this jumper to measure the current consumed by the PSoC 6 MCU VDDIO0 power domain. This is not loaded by default. Before populating the jumper for making current measurements, ensure that R97 is removed.
8. External power supply VIN connector (J5): This connector connects an external DC power supply input to the onboard regulators.

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Kit Operation
9. PSoC 6 MCU user buttons (SW2 and SW4): These buttons can be used to provide an input to the PSoC 6 MCU. Note that by default these buttons connect the PSoC 6 MCU pin to ground when pressed, so you need to configure the PSoC 6 MCU pin as a digital input with resistive pullup for detecting the button press. These buttons also provide a wake-up source from low-power modes of the device.
10. Potentiometer connection jumper (J25): This jumper connects the PSoC 6 MCU VDDA to the potentiometer.
11. Potentiometer (R1): This is a 10K potentiometer connected to PSoC 6 MCU pin P10[6]. It can be used to simulate a sensor output to the PSoC 6 MCU.
12. Arduino-compatible power header (J1): This header powers the Arduino shields. It also has a provision to power the kit though the VIN input.
13. PSoC 6 MCU reset button (SW1): This button is used to reset the PSoC 6 MCU. It connects the PSoC 6 MCU reset (XRES) pin to ground.
14. PSoC 6 MCU debug and trace header (J12): This header can be connected to an Embedded Trace Macrocell (ETM)-compatible programmer/debugger. This is not loaded by default.
15. PSoC 6 MCU program and debug header (J11): This 10-pin header allows you to program and debug the PSoC 6 MCU using an external programmer such as MiniProg4.
16. Arduino Uno R3-compatible I/O headers (J2, J3, and J4): These I/O headers bring out pins from the PSoC 6 MCU to interface with Arduino shields. Some of these pins are multiplexed with onboard peripherals and are not connected to the PSoC 6 MCU by default. For a detailed information on how to rework the kit to access these pins, see Table 2-1 on page 13.
17. CapSense slider (SLIDER) and buttons (BTN0 and BTN1): The CapSense touch- sensing slider and two buttons, all of which are capable of both self- capacitance (CSD) and mutualcapacitance (CSX) operation, allow you to evaluate Cypress’ fourth-generation CapSense technology. The slider and buttons have a 1-mm acrylic overlay for smooth touch sensing.
18. PSoC 6 MCU VDDIO2 current measurement jumper (J18): An ammeter can be connected to this jumper to measure the current consumed by the PSoC 6 MCU VDDIO2 power domain. This jumper is not loaded by default on the board. Before populating the jumper for current measurements, ensure that R94 is removed.
19. CYW43438 VDDIO current measurement jumper(J17): An ammeter can be connected to this jumper to measure the current consumed by the CYW43438 VDDIO power domain.
20. Cypress serial NOR flash memory (S25FL512S, U3): A S25HL512S NOR flash of 512-Mbit capacity is connected to the Quad SPI interface of the PSoC 6 MCU. The NOR device can be used for both data and code memory with execute-in-place (XIP) support and encryption.
21. AzureWave AW-CU427-01H SiP module: AW-CU427-01H is an SiP module that contains the PSoC 6 MCU (CY8C6247BZI-D54) and the CYW43438 (Wi-Fi + Bluetooth combo device). The CYW43438 includes a 2.4 GHz WLAN IEEE 802.11 b/g/n MAC/baseband/radio, and Bluetooth 4.2. In addition, it integrates a power amplifier (PA) that meets the output power requirements of most handheld systems, a low-noise amplifier (LNA) for best-in-class receiver sensitivity, and an internal transmit/receive (iTR) RF switch, further reducing the overall solution cost and printed circuit board area.
22. Cypress PSoC 6 (1M) with CYW43438 AzureWave PCB MOD Carrier Module (CYW9P62S1-43438CAR-01, MOD1): This kit is designed to highlight the features of the PSoC 6 MCU on the CYW9P62S1-43438CAR-01. For details, see CYW9P62S1-43438CAR-01 (MOD1) on page 27. This kit is designed to highlight the features of the PSoC 6 MCU. For details on PSoC 6 MCU pin mapping, refer to Table 2-1 on page 13.
23. Wi-Fi/BT antenna: This is an onboard antenna connected to the Wi-Fi and Bluetooth module.

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24. Cypress Quad SPI Ferroelectric-RAM (CY15B104QSN, U4): The CY15B104QSN is a 4-Mbit nonvolatile memory employing an advanced ferroelectric process. F-RAM is nonvolatile and performs reads and writes similar to a RAM. It provides reliable data retention for 151 years and is connected to the Quad SPI interface of the PSoC 6 MCU.
25. CYW43438 VBAT current measurement jumper (J8): An ammeter can be connected to this jumper to measure the current consumed by the CYW43438 VBAT power domain.
26. CYW43438 VBAT power selection jumper (J9): This jumper is used to select the CYW43438 VBAT supply voltage between 1.8 V, 3.3 V and 3.6 V. This board supports VBAT voltages of 3.3 V and 3.6 V. VBAT is 3.3 V when the jumper is not inserted and 3.6 V when the jumper is inserted.
27. PSoC 6 MCU user LEDs (LED8 and LED9): These two user LEDs can operate at the entire operating voltage range of the PSoC 6 MCU. The LEDs are active LOW, so the pins must be driven to logic LOW to turn ON the LEDs.
28. PSoC 6 I/O header (J21, J22, J24): These headers provide connectivity to PSoC 6 MCU GPIOs that are not connected to the Arduino compatible headers. Some of these I/Os are also connected to on-board peripherals see Table 2-1 on page 13 for pin mapping.
29. RGB LED (LED5): This onboard RGB LED can be controlled by the PSoC 6 MCU. The LEDs are active LOW, so the pins must be driven to ground to turn ON the LEDs.
30. Wi-Fi/BT GPIO header (J23): This header brings out a few IOs of the CYW43438 for general purpose applications.
31. PSoC 6 USB device connector (J7): The USB cable provided with the PSoC 62S1 Wi-Fi BT Pioneer Kit can also be connected between this USB connector and the PC to use the PSoC 6 MCU USB device applications.
32. Optional USB Host power supply header (J10): This header provides an option to supply external power to the PSoC 6 USB when used as a USB Host. This is not loaded by default.
33. KitProg3 status LED (LED2): This Yellow LED indicates the status of KitProg3. For details on the KitProg3 status, see the KitProg3 User Guide.
34. KitProg3 (PSoC 5LP) programmer and debugger (CY8C5868LTI-LP039, U2): The PSoC 5LP device (CY8C5868LTI-LP039) serving as KitProg3, is a multi-functional system, which includes a SWD programmer, debugger, USB-I2C bridge and USB-UART bridge. For more details, see the KitProg3 User Guide.
See Hardware Functional Description on page 27 for details on various hardware blocks.

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Kit Operation

2.2
2.2.1

KitProg3: On-Board Programmer/Debugger
The PSoC 62S1 Wi-Fi BT Pioneer Board can be programmed and debugged using the onboard KitProg3. KitProg3 is an onboard programmer/debugger with additional USB-UART and USB-I2C functionality. A Cypress PSoC 5LP device is used to implement the KitProg3. For more details on the KitProg3 functionality, see the KitProg3 User Guide.
Programming and Debugging using ModusToolbox
This section presents a quick overview of programming and debugging using ModusToolbox. For detailed instructions, see Help > ModusToolbox IDE Documentation > User Guide. 1. Connect the board to the PC using the USB cable, as shown in Figure 2-7. It enumerates as a
USB Composite Device. KitProg3 can operate either in CMSIS-DAP Bulk mode (default), CMSIS-DAP HID mode or DAPLink mode (DAPLink mode is required for programing using Mbed CLI). KitProg3 also supports CMSIS-DAP Bulk with two UARTs. Programming is faster with the Bulk mode. The status LED (Yellow) is always ON in Bulk mode, ramping at a 1 Hz rate in HID mode, and ramping at a 2 Hz rate in DAPLink mode. Press and release the Mode select button (SW3) to switch between these modes. If you do not see the desired LED status, see the KitProg3 User Guide for details on the KitProg3 status and troubleshooting instructions.
Figure 2-7. Connect USB Cable to USB Connector on the Board

2. In the ModusToolbox IDE, import the desired code example (application) into a new workspace. a. Click on New Application from Quick Panel.
Figure 2-8. Create New Application

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Kit Operation b. Select the CYW9P62S1-43438EVB-01 in the Choose Board Support Package (BSP)
window and click Next, as shown in Figure 2-9. Figure 2-9. New Application Creation: Choose Board Support Package (BSP)
c. Select the application in the Choose Starter Application window and click Next, as shown in Figure 2-10. You may optionally change the application name in this window before clicking Next.
Figure 2-10. New Application Creation: Choose Starter Application
d. Click Finish in the Summary window, as shown in Figure 2-11. Figure 2-11. New Application Creation: Summary

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Kit Operation 3. To build and program a PSoC 6 MCU application, in the Project Explorer, select
project. In the Quick Panel, scroll to the Launches section and click the

Program (KitProg3) configuration as shown in Figure 2-12. Figure 2-12. Programming in ModusToolbox 4\. ModusToolbox has an integrated debugger. To debug a PSoC 6 MCU application, in the Project Explorer, select project. In the Quick Panel, scroll to the Launches section and click the Debug (KitProg3) configuration as shown in Figure 2-13. For a detailed explanation on how to debug using ModusToolbox, see KBA224621. Figure 2-13. Debugging in ModusToolbox

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Kit Operation

2.2.1.1

Using the OOB Example ­ PSoC 6 MCU: Hello World
The PSoC 62S1 Wi-Fi BT Pioneer Board is by default programmed with the code example: PSoC 6 MCU: Hello World. The steps below describe how to use the example. For a detailed description of the project refer to the example’s readme file in the GitHub repository.
Note: At any point, if you overwrite the OOB example, you can restore it by programming the PSoC 6 MCU: Hello World application. Refer Programming and Debugging using ModusToolbox on page 21 for programming the board.
1. Connect the board to your PC using the provided USB cable through the KitProg3 USB connector.
2. Open a terminal program and select the KitProg3 COM port. Set the serial port parameters to 8N1 and 115200 baud.
3. Press the XRES switch (SW1) on the board and confirm that “Hello World!!!” and other text is displayed on the UART Terminal application as shown in Figure 2-14.
Figure 2-14. Hello World in Terminal

4. Confirm that the kit LED blinks at 1 Hz. 5. Press the Enter key. Confirm that the kit LED stops blinking. The terminal displays the message
“LED blinking paused”. 6. Press the Enter key again. Confirm that the kit LED resumes blinking at 1 Hz. The message
displayed on the terminal is updated to “LED blinking resumed”.
You can repeat steps 5 and 6 indefinitely.

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Kit Operation

2.2.2

USB-UART Bridge
The KitProg3 on the PSoC 62S1 Wi-Fi BT Pioneer Board can act as a USB-UART bridge.
The KitProg3 has two USB-UART bridges. The primary UART is connected to the PSoC 6 MCU and the secondary UART is connected to the CYW43438. The primary UART can always be accessed through USB, while the secondary UART can be accessed by changing the mode of the KitProg3 to BULK with two UARTs Mode. For more details on the KitProg3 USB-UART functionality, see the KitProg3 User Guide.
The primary UART and flow-control lines between the PSoC 6 MCU and the KitProg3 are hard-wired on the board, as Figure 2-15 shows.
Figure 2-15. UART Connection between KitProg3 and PSoC 6 MCU

.LW3URJ

36R&0&8

86%

<WhZddy <WhZdZy <WhZdd^ <WhZdZd^

5; 7; 576 &76

3>@ 3>@ 3>@ 3>@

The secondary UART and flow-control lines between the CYW43438 and the KitProg3 are hardwired on the board, as Figure 2-16 shows.
Figure 2-16. UART Connection between KitProg3 and CYW43438

<WZ

zt

<WhZddy
h^ <WhZdZy <WhZdd^ <WhZdZd^

dhZdZy dhZddy dhZdZd^ dhZdd^

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Kit Operation

2.2.3

USB-I2C Bridge
The KitProg3 can function as a USB-I2C bridge and can communicate with the Bridge Control Panel (BCP) software which acts as an I2C master. The I2C lines on the PSoC 6 MCU are hard-wired on the board to the I2C lines of the KitProg3, with onboard pull-up resistors as Figure 2-17 shows. The USB-I2C supports I2C speeds of 50 kHz, 100 kHz, 400 kHz, and 1 MHz. For more details on the KitProg3 USB-I2C functionality, see the KitProg3 User Guide.
Figure 2-17. I2C Connection between KitProg3 and PSoC 6 MCU
sdZ’

<WZ

W^ZDh

h^ <W/^
<W/^>

Z Z < <
W W

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3. Hardware

3.1 3.2
3.2.1

Schematics
Refer to the schematic files available in the kit webpage.
Hardware Functional Description
This section explains in detail the individual hardware blocks.
CYW9P62S1-43438CAR-01 (MOD1)
CYW9P62S1-43438CAR-01 is a Land Grid Array (LGA) PCB module which consists mainly of an AzureWave AW-CU427-01H module. AW-CU427-01H is a Ball Grid Array (BGA) type module with a PSoC 6 MCU, CYW43438, PCB antenna, RF frontend circuit, modulation and integration capacitors to support CapSense, crystals and other discrete components for both the PSoC 6 MCU and CYW43438. CYW9P62S1-43438CAR-01 module has 137 LGA pads, which are used for different voltage rails and I/O signals of PSoC 6 MCU and CYW43438.
For more information, see the PSoC 6 MCU webpage, AzureWave AW-CU427-01H webpage, PSoC 6 MCU datasheet and CYW43438 datasheet.
Figure 3-1. Schematics of CYW9P62S1-43438CAR-01

AzureWave Module Power

VDDA

U1C

VDDD VDDIOR VBACKUP VDDUSB VDD_NS

R8 VDDA
R3 VDDD

F1 VDD_VBAT_1 E1 VDD_VBAT_2

J1 VDDIOR

H1 VDDIO_WL

M1 VBACKUP
H2 VDDUSB
K1 VDD_NS
A1 A2 GND_1 A3 GND_2 A4 GND_3 A5 GND_4 A7 GND_5 A8 GND_6 A10 GND_7 B3 GND_8 B7 GND_9 B8 GND_10 B10 GND_11 C3 GND_12 C6 GND_13 C7 GND_14 C8 GND_15 C9 GND_16 C10 GND_17 D1 GND_18 D7 GND_19 D8 GND_20
GND_21

D9 GND_22 E2 GND_23 E5 GND_24 F2 GND_25 F6 GND_26 F9 GND_27 G1 GND_28 G2 GND_29 G7 GND_30 H3 GND_31 H8 GND_32 H10 GND_33 J8 GND_34 J9 GND_35 K2 GND_36 K4 GND_37 K5 GND_38 K8 GND_39 L1 GND_40 L5 GND_41 L7 GND_42 N3 GND_43 P3 GND_44 P6 GND_45 P8 GND_46 R9 GND_47

VBAT VDDIO_WL

AW-CU427-01H

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

27

Downloaded from Arrow.com.

P0_2 P0_3 P0_4 P0_5
P1_0 P1_1 P1_2 P1_3 P1_4 P1_5
P5_0 P5_1 P5_2 P5_3 P5_4 P5_5 P5_6 P5_7
P6_0 P6_1 P6_2 P6_3 P6_4 P6_5 P6_6 P6_7
P7_0 P7_3 P7_4 P7_5
XRES_L
USBDP USBDM

AzureWave Module PSoC 6 MCU Signals

U1A

K6 J7 P0_2 K7 P0_3 J6 P0_4
P0_5 M2 M3 P1_0 K3 P1_1 L3 P1_2 L2 P1_3 J3 P1_4
P1_5 C4 F4 P5_0 E4 P5_1 F5 P5_2 D4 P5_3 B5 P5_4 B4 P5_5 C5 P5_6
P5_7 F7 E7 P6_0 E8 P6_1 G8 P6_2 F8 P6_3 E9 P6_4 E10 P6_5 D10 P6_6
P6_7 F10 H9 P7_0 G9 P7_3 G10 P7_4
P7_5
J2 XRES_L
J5 J4 USBDP
USBDM

P8_0 P8_1 P8_2 P8_3 P8_4 P8_5 P8_6 P8_7
P9_0 P9_1 P9_2 P9_3 P9_4 P9_5 P9_6
P10_0 P10_1 P10_2 P10_3 P10_4 P10_5 P10_6
P11_0 P11_1 P11_2 P11_3 P11_4 P11_5 P11_6 P11_7
P12_0 P12_1 P12_2 P12_3 P12_4 P12_5 P12_6 P12_7

J10 K9 L8 K10 L9 M8 L10 M9
P9 N9 M10 N8 P10 N10 R10
R7 R6 P7 L6 N7 M7 M6
R4 L4 R5 N6 M4 P4 P5 M5
R2 R1 N1 P1 P2 N2 N5 ECO_P12_6 N4 ECO_P12_7

P8_0 P8_1 P8_2 P8_3 P8_4 P8_5 P8_6 P8_7
P9_0 P9_1 P9_2 P9_3 P9_4 P9_5 P9_6
P10_0 P10_1 P10_2 P10_3 P10_4 P10_5 P10_6
P11_0 P11_1 P11_2 P11_3 P11_4 P11_5 P11_6 P11_7
P12_0 P12_1 P12_2 P12_3 P12_4 P12_5

AW-CU427-01H

SDIO_DATA0 SDIO_DATA1 SDIO_DATA2 SDIO_DATA3
SDIO_CMD SDIO_CLK
WL_REG_ON
WL_GPIO_1 WL_GPIO_2

AzureWave Module Wi-Fi BT Signals

U1B
H5 G4 SDIO_DATA0 H7 SDIO_DATA1 H6 SDIO_DATA2 G5 SDIO_DATA3 H4 SDIO_CMD
SDIO_CLK C1
WL_REG_ON D6 E6 WL_GPIO1
WL_GPIO2

B2 BT_UART_TXD C2 BT_UART_RXD D2 BT_UART_RTS B1 BT_UART_CTS
D5 BT_REG_ON
G3 BT_PCM_CLK/I2S_CLK D3
BT_PCM_IN/I2S_DI E3 BT_PCM_OUT/I2S_DO F3 BT_PCM_SY NC/I2S_WS

AW-CU427-01H

BT_UART_TXD BT_UART_RXD BT_UART_RTS BT_UART_CTS
BT_REG_ON
BT_I2S_CLK BT_I2S_DI BT_I2S_DO BT_I2S_WS

ECO
ECO_P12_6

Y1

C1

17.2032MHz

10pF

3

50V

4

2

1

C2
10pF
50V ECO_P12_7

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. ** Downloaded from Arrow.com.

Hardware 28

Carrier Module Power

VDDA VDDD

MOD1A 55
VDDA_MCU
83 VDDD_MCU

VBAT 28 VBAT_WL 29 VBAT_WL
VDDIO_WL 115 VDDIO_WL

67 VDDIO0_MCU

82 VCCD_MCU

VDDIOR

47 VDDIO1_MCU

94 VDDIO2_MCU
VDD_NS

89 VDD_NS_MCU
VBACKUP

84 VBACKUP_MCU
VDDUSB

93 VDDUSB_MCU

1 GND_1 30 GND_2 54 GND_3 68 GND_4 81 GND_5 90 GND_6 137 GND_7

Carrier Module Footprint

P6_0 P6_1
P10_0 P10_1 P10_2 P10_3 P10_4 P10_5 P10_6
P7_0
P9_0 P9_1 P9_2 P9_3 P9_4 P9_5 P9_6
P5_0 P5_1 P5_2 P5_3 P5_4 P5_5 P5_6 P5_7
P7_5 P7_4 P12_3 P12_0 P12_1 P12_2
P0_4 P1_4
XRES_L P6_4 P6_5 P6_6 P6_7

Carrier Module PSoC 6 MCU Signals

MOD1B

136 133 I2C_SCL
I2C_SDA 53
ARD_AREF

124 CSX_TX
33 CSB_0 31 CSB_1

52

36

60 ARD_A0

CSS_0 34

59 ARD_A1

CSS_1 32

58 ARD_A2

CSS_2 38

62 ARD_A3

CSS_3 37

63 ARD_A4

CSS_4

61 ARD_A5

98

64 ARD_A6

CSD_SHIELD

ARD_A7

71

44

FRAM_SSEL 72

ETM_CLK

FLASH_SSEL 66

46

QSPI_CLK 70

48 ARD_A8

QSPI_DATA0 74

49 ARD_A9

QSPI_DATA1 65

45 ARD_A10

QSPI_DATA2 73

50 ARD_A11

QSPI_DATA3

56 ARD_A12

79

57 ARD_A13

SD_CMD 80

51 ARD_A14

SD_CLK 88

ARD_A15

SD_DATA0 86

2

SD_DATA1 85

3 ARD_D0

SD_DATA2 87

4 ARD_D1

SD_DATA3 97

6 ARD_D2

SD_CD_L

5 ARD_D3

92

9 ARD_D4

MCU_USBDP 91

7 ARD_D5

MCU_USBDM

8 ARD_D6

134

ARD_D7

USB_VBUS_DET 135

23

USB_INT 127

25 ARD_D8

USB_HOST_EN

78 ARD_D9

123

76 ARD_D10

RGB_R 132

75 ARD_D11

RGB_G 26

77 ARD_D12

RGB_B

ARD_D13

126

130

LED_1 69

125 BUTTON_1

LED_2

BUTTON_2

129

MCU_IO_0 131

39

MCU_IO_1 128

40 MCU_XRES_L

MCU_IO_2 24

43 MCU_TDO

MCU_IO_3 35

41 MCU_TDI

MCU_IO_4 95

42 MCU_TMS_SWDIO

MCU_IO_5 96

MCU_TCLK_SWCLK

MCU_IO_6

Carrier Module Footprint

P1_0
P8_1 P8_2
P8_3 P8_4 P8_5 P8_6 P8_7
P11_0 P11_2 P11_7 P11_6 P11_5 P11_4 P11_3
USBDP USBDM
P6_2 P6_3 P1_2
P1_1 P0_5 P7_3
P1_5 P11_1
P0_2 P0_3 P1_3
P8_0 P12_4 P12_5

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. ** Downloaded from Arrow.com.

Hardware 29

VDDIO_WL R3
R4

Carrier Module Wi-Fi BT Signals

SDIO_DATA0 SDIO_DATA1 SDIO_DATA2 SDIO_DATA3
SDIO_CMD SDIO_CLK
WL_REG_ON

10K

WL_GPIO_2

DNI

10K

WL_GPIO_2

WL_GPIO_1

MOD1C
100 101 WL_SDIO_DATA0 102 WL_SDIO_DATA1 104 WL_SDIO_DATA2 103 WL_SDIO_DATA3
99 WL_SDIO_CMD WL_SDIO_CLK
14 15 WL_HOST_WAKE 16 WL_DEV_WAKE
WL_REG_ON 11 12 WL_UART_TX 13 WL_UART_RX 10 WL_IO_1
WL_IO_2 20 19 WL_JTAG_TCK 21 WL_JTAG_TMS 18 WL_JTAG_TRST_L 17 WL_JTAG_TDI 22 WL_JTAG_TDO
WL_JTAG_SEL

108 BT_UART_TXD 106 BT_UART_RXD 107 BT_UART_CTS 109 BT_UART_RTS
122 BT_HOST_WAKE 120
BT_DEV_WAKE 121 BT_REG_ON 112 BT_I2S_CLK 111 BT_I2S_WS 114 BT_I2S_DO 113 BT_I2S_DI 116 BT_IO_2 117 BT_IO_3 119 BT_IO_4 118 BT_IO_5 27 RFU_1 105 RFU_2 110 LPO_IN

Carrier Module Footprint

BT_UART_TXD BT_UART_RXD BT_UART_CTS BT_UART_RTS
BT_REG_ON
BT_I2S_CLK BT_I2S_WS BT_I2S_DO BT_I2S_DI

Hardware

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

30

Downloaded from Arrow.com.

Hardware

3.2.2

PSoC 5LP-based KitProg3 (U2)
An onboard PSoC 5LP (CY8C5868LTI-LP039) device is used as a KitProg3 to program and debug the PSoC 6 MCU. The PSoC 5LP device connects to the USB port of a PC through a USB connector and to the SWD and other communication interfaces of the PSoC 6 MCU.
The PSoC 5LP device is a true system-level solution providing MCU, memory, analog, and digital peripheral functions in a single chip. For more information, visit the PSoC 5LP web page. Also, see the CY8C58LPxx Family datasheet.
Figure 3-2. Schematics of PSoC 5LP based KitProg3

PSoC 5LP based KitProg3

P5LP_VDD
P5LP2_0 P5LP2_1 P5LP2_2 P5LP2_3 P5LP2_4

UART _1_CT S P5LP_VCCD

PSoC 5LP Power

KP_VBUS P5LP_VDD

R2

0 OHM

TP19
RED No Load

UART _2_RT S

C11 1uF 10V
SAR Bypass Ca p a ci to r
U2

H EPAD 68 P2[5] 67 VDDIO2 66 P2[4] 65 P2[3] 64 P2[2] 63 P2[1] 62 P2[0] 61 P15[5] 60 P15[4] 59 VDDD 58 VSSD 57 VCCD 56 P0[7] 55 P0[6] 54 P0[5] 53 P0[4] 52 VDDIO

KP_PMIC_EN RESET
TP1 TP2 TP3 P5LP1_2
P5LP1_4 P5LP_VDD

1 2 P2[6] 3 P2[7] 4 P12[4] 5 P12[5] 6 VSSB 7 IND 8 VBOOST 9 VBAT 10 VSSD 11 XRES 12 P1[0] 13 P1[1] 14 P1[2] 15 P1[3] 16 P1[4] 17 P1[5] VDDIO1

CY8C5868LT I-LP039

P5LP_VDD

51 P0[3] 50 P0[2] 49 P0[1] 48 P0[0] 47 P12[3] 46 P12[2] 45 VSSD 44 VDDA 43 VSSA 42 VCCA 41 P15[3] 40 P15[2] 39 P12[1] 38 P12[0] 37 P3[7] 36 P3[6] 35 VDDIO3

UART _2_T X UART _2_CT S P5LP_SIO_VREF
KP_SWCLK KP_SWDIO
C13 1uF 10V
KP_I2C_SDA KP_I2C_SCL
KP_GPIO_1 P5LP_VDD

18 19 P1[6] 20 P1[7] 21 P12[6] 22 P12[7] 23 P15[6] D+ 24 P15[7] D25 VDDD 26 VSSD 27 VCCD 28 P15[0] 29 P15[1] 30 P3[0] 31 P3[1] 32 P3[2] 33 P3[3] 34 P3[4] P3[5]

P5LP_VDD

UART _1_RT S
UART _1_T X UART _1_RX KP_USB_DP KP_USB_DM

USB_V_SENSE

R11

22E

R12

22E

P5LP_VCCD
KP_GPIO_0
VT ARG_M EAS C12 1uF 10V
Del-Sig Bypass Capacitor
UART _2_RX

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

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Hardware

3.2.3

Serial Interconnection between PSoC 5LP and PSoC 6 MCU
In addition to the use as an onboard programmer, the PSoC 5LP device functions as an interface for the USB-UART and USB-I2C bridges, as shown in Figure 3-3. The USB-Serial pins of the PSoC 5LP device are hard-wired to the I2C/UART pins of the PSoC 6 MCU. These pins are also available on the Arduino-compatible I/O headers.
Figure 3-3. Schematics of Programming and Serial Interface Connections

Target MCU SWD KitProg3 Interface

KP_SWDIO KP_SWCLK
RESET

R37 R36 R35

0 OHM 0 OHM 0 OHM

T M S_SWDIO T CLK_SWCLK XRES_L_MCU

KitProg3 I2C Interface
P6_VDD

KP_I2C_SCL KP_I2C_SDA

R133

4.7K

No Load

R134

4.7K

No Load

R58

0 OHM

R59

0 OHM

P6_I2C_SCL P6_I2C_SDA

VTARG I2C Pull-ups

R13 4.7K

R14 4.7K
KP_I2C_SCL KP_I2C_SDA

KitProg3 UART Interface

UART_1_RX

R61

0 OHM

R116

0 OHM

No Load

ARD_D1 IO1

UART_1_TX

R21

0 OHM

R115

0 OHM

No Load

ARD_D0 IO0

B_UART_1_CTS B_UART_1_RTS

R19 R18

0 OHM 0 OHM

ARD_D2 ARD_D3

Primary UART H/W Flow Control Level Translator

P5LP_VDD

P5LP_VDD

P6_VDD_BUF

C25 0.1uF 16V

R135

100K

No Load

UART_1_RTS

C29 0.1uF 16V

UART_1_CTS

U9

1

6

3 VCCA VCCB 4

5A

B2

DIR GND

74LVC1T45DW-7

U10

1

6

3 VCCA VCCB 4

5A

B2

DIR GND

74LVC1T45DW-7

C26 0.1uF 16V
B_UART_1_RTS

C28 0.1uF 16V

B_UART_1_CTS

R5

100K

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

32

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Hardware

3.2.4 3.2.5

Serial Interconnection Between PSoC 5LP and CYW43438
The PSoC 5LP device also has a secondary UART that is connected to the BT_UART of the CYW43438 (AzureWave AW-CU427-01H).
Figure 3-4. Serial Interconnection Between PSoC 5LP and CYW43438

KitProg3 Level Translator for Secondary UART and GPIO

P5LP_VDD VDDIO_WL

C31 1uF 16V

C30 1uF 16V

20 VCCB
1 VCCA

UART _2_T X UART _2_RX UART _2_RT S UART _2_CT S
KP_GPIO_0 KP_GPIO_1
P5LP_VDD

U17
19 18 B0 17 B1 16 B2 15 B3 14 B4 13 B5 12 B6
B7 H
DAP

10 GND

2 A0 3 A1 4 A2 5 A3 6 A4 7 A5 8 A6 9 A7
11 OE

B_UART _2_T X B_UART _2_RX B_UART _2_RT S B_UART _2_CT S B_KP_GPIO_0
TP21
VDDIO_WL

R98

10K

No Load

FXMA108BQX R99 10K

KitProg3 Secondary UART Multiplexing

B_UART_2_TX B_UART_2_RX B_UART_2_RTS

R52

0 OHM

R48

0 OHM

No Load

R53

0 OHM

R49

0 OHM

No Load

R54

0 OHM

BT_UART_RXD WL_UART_RX
BT_UART_TXD WL_UART_TX
BT_UART_CTS

B_UART_2_CTS

R55

0 OHM

100K

R137

No Load

BT_UART_RTS

100K R136 No Load

UART _2_RT S

B_KP_GPIO_0

0 OHM

R50

No Load

USER_BT N_2

Power Supply System

The power supply system on this board is versatile, allowing the input supply to come from the following sources: 5V from the onboard USB Micro-B connectors (J6 or J7) 7V­12V from external power supply through the VIN barrel jack (J5) or from an Arduino shield
Figure 3-5. Schematics of Power Supply Input and OR’ing

SH6 SH5 S6 SH4 S5 SH3 S4 SH2 S3 SH1 S2
S1 H
SH6 SH5 S6 SH4 S5 SH3 S4 SH2 S3 SH1 S2
S1 H

VIN Header
VIN

J5 1

3

C34

2

1uF

16V

POWER JACK P-5

TVS1 SD12CT1G 30kV

Power Supply ‘OR’ing

VIN

VCC_IN

D3

PMEG3020BEP

KP_VBUS D1
P6_VBUS D2

PMEG3020BEP PMEG3020BEP

PSoC 6 MCU USB Host/Device Micro-B connector
P6_VDD_BUF

P6_VBUS

J7 10118194-0001LF 1
VBUS 2 DM 3 DP 4 ID 5
GND
R27 100K C23 10nF 50V USB_Hold

R175 100K

TP24 P6_USB_DM P6_USB_DP
P6_USB_ID

TP23

U6
14 25 36

P6_VBUS

RCLAMP0854P.TCT

C24 0.1uF 16V

1

2 JMP2

KitProg3 USB Micro-B connector

KP_VBUS

J6 1
VBUS 2 DM 3 DP 4 ID 5
GND 10118194-0001LF

R17 100K

C1 10nF 50V

USB_Hold

JMP1

1

2

KP_USB_DM KP_USB_DP

U5
14 25 36

KP_VBUS

RCLAMP0854P.TCT

C2 0.1uF 16V

TP5 RED No Load

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

33

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Hardware

3.2.5.1

Voltage regulators
The power supply system is designed for the voltage configurations listed in Table 3-1. Some configurations achievable on this kit are outside the operating range for the device. However, it is not possible to achieve all applicable configurations by changing jumper positions but rather requires rework of respective 0-ohm resistors.
VDDIO_WL and VDDIO2_MCU must be at the same voltage since they power the SDIO interface between the PSoC 6 MCU and CYW43438. Hence both are supplied by the VCC_VDDIO2_IN domain.
Three buck regulators U15, U13 and U7 are used to achieve 1.8 V, 3.3 V and 3.6 V outputs respectively. Figure 3-6 shows the schematics of the voltage regulator circuits.

Table 3-1. Operating voltage ranges of domains

Voltage Domain
VCC_VBAT VCC_VDDIO2_IN VTARG
VCC_VDDIO0

Carrier Module (MOD1)

Operating

Voltage

Power Pins powered by the

Voltage

Configuration

domain

Min (V) Max (V) applicable in kit

Voltage Selection
Header

VBAT_WL

3.2

4.2 3.6V, 3.3V

J9

VDDIO2_MCU, VDDIO_WL

1.7

1.9 1.8V

J16 (not loaded)

VDDD_MCU, VDDIO1_MCU, 1.7 VDDA_MCU, VDD_NS_MCU, VBACKUP_MCU

3.6 3.3V

J14 (not loaded)

VDDIO0_MCU

1.7

3.6 1.8V, 3.3V

None (uses 0 Ohms)

Figure 3-6. Voltage Regulators

VCC_IN
C42 10uF 25V

VBAT Voltage Regulator

C43 0.1uF 16V

U7 5
IN R71 100K

6 LX
1 BST

C45 10nF 50V

4 EN

3 FB

L1

4.7uH 3.6V 1A

D5 PMEG3020BEP

C74 47pF 50V

R69 40.2K 1%

2 GND

B_KP_PMIC_EN

J9 JumperVoltage (V)

1-2

1.8

Not Present

3.3

2-3

3.6

AOZ1280CI

R70

13K

1%

Note: 1.8V is not a valid operating voltage on this kit.

R171

0 OHM

No Load

J9 1
2 3

R172

0 OHM

No Load

VCC_VBAT

R73 27.4K 1%

C41 22uF 25V

C79 22uF 25V

C46 0.1uF 16V

R72 100K 1%

VCC_IN
C36 10uF 25V

3.3V Voltage Regulator

C37 0.1uF 16V

U13 5
IN

6 LX

1 BST

4 EN

3 FB

C39 10nF 50V

2 GND

B_KP_PMIC_EN

AOZ1280CI

L2

4.7uH

3.3V 600mA

D6 PMEG3020BEP

C75 47pF 50V

R65 40.2K 1%

R66

13K

R74

0 OHM

1%

No Load

VCC_3V3

R75 88.7K 1%

C35 22uF 25V

C80 10uF 25V

C40 0.1uF 16V

Note: If R74 is loaded output will be 2.5V.

VCC_IN
C48 10uF 25V

1.8V Voltage Regulator

C49 0.1uF 16V

U15 5
IN

6 LX

1 BST

4 EN

3 FB

C51 10nF 50V

2 GND

B_KP_PMIC_EN

AOZ1280CI

L3

4.7uH

1.8V 600mA

D7 PMEG3020BEP

C76 47pF 50V

R77 40.2K 1%

C47 22uF 25V

R78

32.4K

1%

VCC_1V8

C81 10uF 25V

C52 0.1uF 16V

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

34

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Hardware

3.2.5.2

Voltage Selection
VCC_VBAT has a dedicated regulator that changes voltage by varying the feedback voltage through the resistor network at J9.
VTARG and VCC_VDDIO2_IN have dedicated 3-pin voltage selection headers J14 and J16 respectively that select between VCC_3V3 or VCC_1V8 voltages. Figure 3-7 shows the schematics of the power selection circuits.
Note: In this kit, CYW43438 only works with VCC_VDDIO2_IN at VCC_1V8 configuration and hence by default, R84 is loaded and J16 is not loaded. Similarly, PSoC 6 MCU only works with VTARG at VCC_3V3 configuration and hence R83 is loaded and J14 is not loaded.
Figure 3-7. Voltage Selection Headers

VTARG Voltage Selection Header

VCC_1V8

VTARG

R82

0 OHM

R83

No Load

VCC_3V3 0 OHM

VCC_VDDIO2_IN

Voltage Selection Header

VCC_1V8

VCC_VDDIO2_IN VCC_3V3

R84

0 OHM R85

0 OHM

No Load

1.8V

3.3V

J14

No Load

1 2 3
1 2 3

1.8V
3.3V J16 No Load

3.6V 1A

VCC_VBAT

C74 47pF 50V

R69 40.2K 1%

R171

0 OHM

No Load

J9 1
2 3

R73 27.4K 1%
R72

R172

0 OHM

No Load

100K 1%

VCC_VDDIO0 voltage can be selected between VCC_3V3 and VCC_1V8 using zero-ohm resistors. It is connected to VCC_3V3 by default as Quad SPI Flash (powered by VCC_VDDIO0) works only at 3.3V. Figure 3-8 shows the schematics of the voltage selection circuits.
Figure 3-8. Voltage Selection

VDDIO0 Voltage Selection

VCC_3V3

VCC_VDDIO0

VCC_1V8

R44

0 OHM R45

0 OHM

No Load

CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide, Doc. # 002-28692 Rev. **

35

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Hardware

3.2.5.3

Current Measurement Headers
The current of the following domains have dedicated 2-pin headers to facilitate easy current measurement using an ammeter across the pins.
Note: If Header is not loaded by default, it is by-passed by a 0-ohm resistor parallel to it. Please make sure to remove the corresponding 0-ohm resistor (as per Figure 3-9) before measuring current across the header.

Table 3-2. Current Measurement Headers

Domain Name Header Reference Designator

VBAT

J8

P6_VDD

J15

VDDIO_WL

J17

VDDIO2

J18

VDDIO0

J19

Loaded by default Y Y Y N N

Figure 3-9. Current Measurement Headers

Current Measurement

J8 VCC_VBAT

HDR2 VBAT

VDDIO0 Current Measurement

J19 VCC_VDDIO0

HDR2 No Load
VDDIO0

P6_VDD Current Measurement

J15 VTARG

HDR2 P6_VDD

R95

0 OHM

No Load

R97

0 OHM

R88

0 OHM

No Load

2 1 2 1
2 1 2 1 2 1

VDDIO2 & VDDIO_WL Current Measurement

J17 VCC_VDDIO2

HDR2

J18

VDDIO_WL VCC_VDDIO2

HDR2 No Load
VDDIO2

R96

0 OHM

No Load

R94

0 OHM

Note: When measuring P6_VDD current, make sure that the J25 jumper is removed. This will disconnect the potentiometer from VDDA and removes the leakage caused by it.

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Hardware

3.2.6
3.2.6.1
3.2.6.2 3.2.6.3

I/O Headers

Arduino-compatible Headers (J1, J2, J3, J4)
The board has four Arduino-compatible headers: J1, J2, J3, and J4. You can connect 3.3 V Arduinocompatible shields to develop applications based on the shield’s hardware.
Note: 5-V shields are not supported and connecting a 5-V shield may permanently damage the board.
Note: All Arduino header pins are not connected to the same voltage reference. ARD_D[10:13] are powered by VDDIO0 whereas the rest are powered by domains connected to VTARG. Hence Arduino shields that use ARD_D[10:13] must not be used if VTARG is 1.8V.

PSoC 6 MCU I/O Headers (J21, J22, and J24)
These headers provide connectivity to the PSoC 6 MCU GPIOs that are not connected to the Arduino-compatible headers.

WL/BT I/O Headers (J23)
These headers provide connectivity to a few of the CYW43438 GPIOs that are available at the castellated pads. All these I/Os work at VDDIO_WL voltage (1.8 V by default).
Figure 3-10. I/O Headers

ARD_A0 ARD_A1 ARD_A2 ARD_A3 ARD_A4 ARD_A5 ARD_A6 ARD_A7
O_LED_L R_LED_L IO16

Arduino & Extended Headers

P6_I2C_SCL P6_I2C_SDA

J1

VTARG

8 7 6 5 4 3 2

J1_3V3

ARD_D13

XRES_L_MCU

J1_5V0

ARD_D12 ARD_D11

ARD_D10

ARD_D9

VIN

ARD_D8

1

CON8

J2

1

2

3

4

A8

5

6

A9

7

8

A10

9

10

A11

11

12

A12

13

14

A13

15

16

A14

A15

CON 8×2

ARD_D7 ARD_D6 ARD_D5 ARD_D4 ARD_D3 ARD_D2 ARD_D1 ARD_D0

VREF

J3 10
9 8 7 6 5 4 3 2 1

J21 10 9 8 7 6 5 4 3 2 1

CON10
J4 8 7 6 5 4 3 2 1

HEADER10 No Load
J22 8 7 6 5 4 3 2 1

CON8 HEADER8 No Load

J24

2

1

4

3

6

5

CON 3×2 No Load

RGB_R_LED_L RGB_G_LED_L RGB_B_LED_L

BT_I2S_CLK BT_I2S_WS BT_I2S_DO
BT_I2S_DI BT_GPIO_2 BT_GPIO_3 BT_GPIO_4 BT_GPIO_5

J23

1

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

CON 8×2 No Load

USER_BTN_2 USER_BTN_1 IO15 IO14 IO13 IO12 IO11 IO10 IO9 IO8
IO7 IO6 IO5 IO4 IO3 IO2 IO1 IO0
BT_UART_RXD BT_UART_TXD BT_UART_CTS BT_UART_RTS WL_UART_RX WL_UART_TX
WL_GPIO_1 WL_GPIO_2

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Hardware

3.2.7

CapSense Circuit
A CapSense slider and two buttons, all supporting both self-capacitance (CSD) and mutualcapacitance (CSX) sensing are connected to the PSoC 6 MCU as Figure 3-11 shows. Three external capacitors – CMOD for CSD, CINTA and CINTB for CSX – are present on the CYW9P62S143438CAR-01. For details on using CapSense including design guidelines, see the Getting Started with CapSense Design Guide.
Note that CapSense Shield functionality is not available on this kit.
Figure 3-11. Schematics of CapSense Circuit

CapSense Buttons

CSB1

2

1

Rx Tx

2 Rx

CSB2 1
Tx

CS_BTN_0

R173

0 OHM

No Load

CS_RX_TX

HATCH

CS_BTN_1

CapSense Shield

CAP_SH1

CS_CAP_SH

HATCH 1 SH

R56

0 OHM

CSS1 Slider

5

CapSense Slider

0

CS_SLD_0

1

CS_SLD_1

2

CS_SLD_2

3

CS_SLD_3

4

CS_SLD_4

CS_RX_TX

Simultaneous GPIO switching with unrestricted drive strengths and frequency can affect CapSense and ADC performance. For more details, see the Errata section of the corresponding device datasheet.

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Hardware

3.2.8

LEDs
LED2 (Yellow) indicates the status of KitProg3 (See the KitProg3 User Guide for details). LED1 (Yellow) indicates the status of the power supplied to the board.
The board has two user-controllable LEDs (LED8 and LED9) and an RGB LED (LED5) connected to PSoC 6 MCU pins for user applications.
Figure 3-12. LEDs

RGB_R_LED_L R15

User LEDs

LED5

750 OHM 1

4

RB

2

3

P6_VDD

G RGB LED

R101

0 OHM

LED8

ORANGE

VDDIO0

R16 R100
R22

270 OHM RGB_B_LED_L 330 OHM RGB_G_LED_L

1K

O_LED_L

LED9

RED

R23

1K

R_LED_L

KitProg3 Status LED

P5LP1_4 R10

750 OHM LED2

Y ELLOW

VCC_3V3 R91

Power LED

390 OHM LED1

Y ELLOW

D NX3020NAKW,115 P6_VDD_BUF

G

R64 100K

Q3 S

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Hardware

3.2.9

Push Buttons

The board has a reset button, two user-controllable buttons and a KitProg3 Mode selection button. The reset button (SW1) is connected to the XRES pin of the PSoC 6 MCU and is used to reset the device. Two user buttons (SW2 and SW4) are connected to pin P0[4] and P1[4] of the PSoC 6 MCU respectively and are capable of waking up PSoC 6 MCU from hibernate mode. The Mode selection button (SW3) is connected to the PSoC 5LP device for programming mode selection (Refer to the KitProg3 User Guide for details). All buttons are active LOW configuration and short to GND when pressed. The CYW9P62S1-43438CAR-01 has a pull-up on the PSoC 6 MCU XRES line.

Figure 3-13. Schematics of Push Buttons

USER_BTN_2

User Button / Hibernate Wakeup

VDDD

VBACKUP

R110

10K

R20

10K

SW4 EVQ-PNF04M

USER_BTN_1

SW2 EVQ-PNF04M

Reset Button

XRES_L_MCU

SW1 EVQ-PE105K

Mode Switch

P5LP1_2 1 SW3

4

2

3

SKRPACE011

3.2.10

Cypress Quad SPI NOR Flash
The PSoC 62S1 Wi-Fi BT Pioneer Board has a Cypress NOR flash memory (S25FL512SAGMFI010) of 512Mb capacity. The NOR flash is connected to the Quad SPI interface of the PSoC 6 MCU device. The NOR flash device can be used for both data and code with execute-in-place (XIP) support and encryption.
Figure 3-14. Schematics of QSPI Flash

VCC_FLASH Quad SPI Flash Memory Section

QSPI_IO3 FLASH_RST_L
FLASH_SS_L QSPI_IO1

U3 1 2 HOLD /IO3 3 VCC 4 RESET /RFU 5 DNU_1 6 DNU_2 7 DNU_3 8 CS
SO/IO1

16 SCK 15 SI /IO0 14 DNU_7 13 DNU_6 12 DNU_5 11 DNU_4 10 VSS 9 WP /IO2

VCC_IO_FLASH

S25FL512SAGMFI010 VCC_IO_FLASH

VCC_IO_FLASH QSPI_SCK
QSPI_IO0 FLASH_INT_L
QSPI_IO2

R92 10K No Load

R93 10K
FLASH_SS_L FLASH_INT_L

IO6

R107

0 OHM FLASH_RST_L

No Load

IO5

R138

0 OHM FLASH_INT_L

No Load

VCC_VDDIO0

VCC_FLASH

R90

0 OHM

TP9

VCC_IO_FLASH

R26

0 OHM

TP20

VCC_FLASH
C55 1uF 10V

VCC_IO_FLASH

C32

C56

0.1uF

1uF

16V

10V

C54 0.1uF 16V

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Hardware

3.2.11

Cypress Quad SPI F-RAM
The PSoC 62S1 Wi-Fi BT Pioneer Board contains a CY15B104QSN ExcelonTM F-RAM device, which can be accessed through a Quad SPI interface. The F-RAM is 4-Mbit (512K × 8) and is capable of Quad SPI speed up to 108 MHz but the PSoC 6 MCU QSPI is limited to 80 MHz.
Figure 3-15. Schematics of Quad SPI F-RAM

VCC_VDDIO0 R109

FRAM_VDD

0 OHM

TP10

Quad SPI F-RAM

FRAM_VDD

R113

10K

FRAM_SS_L QSPI_IO1 QSPI_IO2

U4

1

8

2 CS

VDD 7

3 SO/IO1 RESET/IO3 6

4 WP/IO2

SCK 5

VSS

SI/IO0

CY 15B104QSN

FRAM_VDD

QSPI_IO3 QSPI_SCK
QSPI_IO0

C69 0.1uF 16V

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Hardware

3.2.12

PSoC 6 USB
The board contains a micro-B USB connector for the PSoC 6 MCU. It is capable of both device and host functionality. Although the PSoC 6 MCU does not support USB-OTG, the hardware is compliant with it. By default, the PSoC 6 MCU device will work as a USB device; when an OTG cable (all such cables have ID pin connected to GND) is connected, it will work as a USB host.
As a USB host, the board must provide power to a USB device that is connected to it. This power is provided by VBUS_HOST which is controlled by the PSoC 6 MCU using a load switch. By default, VBUS_HOST is powered using KP_VBUS and optionally can be powered using external sources through J10.
Figure 3-16. PSoC 6 USB

USB Host VBUS Enable

VCC_1V8

VBUS_HOST

P6_VDD

USB_HOST_EN

C63 0.1uF 16V

5

R102 100K

GND VCC

U11
2 A
1 NC

4 Y

74LVC1G07GW,125

R103 100K
C58 1uF 16V

VBUS_HOST

5
4
C59 1uF 16V

U18 IN EN

2 GND

P6_VBUS

1 OUT
3 FLG
AP2151WG-7

C60 22uF 25V

R60 10K
USB_INT_L

3

KP_VBUS

VBUS_HOST

J10 VBUS_HOST

Note: P6_VBUS will be powered using KP_VBUS and hence will be limited in current based on other loads on the kit. Please remove R106 and connect an external power supply that supplies 5V @ 500mA for full USB host functionality

R106

0 OHM

1 2
HDR2 No Load

USB Device Port VBUS Detect

P6_VBUS
P6_USB_ID R104 100K

VTARG 5 2 1

U19 VCC IN OE

4 OUT
3 GND

74LVCE1G126W5-7 C61 0.1uF 16V

USB_VBUS_DET
R105 100K

PSoC 6 MCU USB Host/Device Micro-B connector
P6_VDD_BUF

P6_VBUS

SH6 SH5 S6 SH4 S5 SH3 S4 SH2 S3 SH1 S2
S1 H

J7 10118194-0001LF 1
VBUS 2 DM 3 DP 4 ID 5
GND
R27 100K C23 10nF 50V USB_Hold

R175 100K

TP24 P6_USB_DM P6_USB_DP
P6_USB_ID

TP23

U6
14 25 36

P6_VBUS

RCLAMP0854P.TCT

C24 0.1uF 16V

1

2 JMP2

3.2.13

Potentiometer
The board contains a 10K potentiometer connected to the A6 (P10[6]) pin of Arduino-header (J2). The fixed ends are connected to VDDA (VDD_POT through J25) and GND and hence may contribute to leakage current on the P6_VDD. Remove jumper J25 to disconnect power from the potentiometer when measuring P6_VDD current.
Figure 3-17. Schematics of Potentiometer

VDD_POT

Potentiometer

J25

HDR2

2 1

VDDA

VDD_POT

R170

0 OHM

No Load

R1 3386P-1-103TLF R51
C70 0.1uF 16V

0 OHM ARD_A6

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Hardware

3.3
3.3.1

PSoC 62S1 Wi-Fi BT Pioneer Kit Rework

ETM Trace Header

The 20-pin ETM trace header J12 is not loaded by default and the lines to the header are used as I/Os on header J2. To connect the PSoC 6 MCU to the trace header, populate the resistors R126­ R129 and remove resistors R117, R123­R125.
Figure 3-18. ETM Trace Header

TRACE Multiplexed Pins

PAD_A11

R117

0 OHM

R129

0 OHM

No Load

A11 TRACEDATA_0

PAD_A10

R123

0 OHM

R128

0 OHM

No Load

A10 TRACEDATA_1

PAD_A9

R124

0 OHM

R127

0 OHM

No Load

A9 TRACEDATA_2

PAD_A8

R125

0 OHM

R126

0 OHM

No Load

A8 TRACEDATA_3

3.4

Bill of Materials

Refer to the BOM files in the kit webpage.

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Hardware

3.5

Frequently Asked Questions

1. How does CYW9P62S1-43438EVB-01 handle a voltage connection when multiple power sources are plugged in?
There are three different options to power the baseboard; KitProg3 Micro-B USB connector (J6), PSoC 6 Micro-B USB connector (J7), and External DC supply via VIN connector (J5). The voltage from each of the sources in passed through ORing diodes that supply VCC_IN.
2. What are the input voltage tolerances? Is there any overvoltage protection on this kit?
Input voltage levels are as follows:

Table 3-3. Input voltage levels Supply
USB Micro-B connector (J6, J7) VIN connector (J5)

Typical I/P Voltage 4.5 V to 5.5 V 7 V to 12 V

Absolute max 5.5 V 18 V

There is no overvoltage protection on this kit.
3. Why is the voltage of the kit restricted to 3.3 V? Can’t it drive external 5-V interfaces?
The PSoC 6 MCU is not meant to be operated at voltages greater than 3.6 V. Powering a PSoC 6 to more than 4 V will damage the chip. It is recommended to power the PSoC 6 MCU at 3.3 V.
4. I am unable to program the target device.
a. Check J15 to ensure that jumper shunt is placed. b. Make sure that no external devices are connected to the external programming header J11.
c. Update your KitProg3 version to the latest one using the steps mentioned in the KitProg3 User Guide.
5. What additional overlays can be used with the CapSense?
Any kind of overlays (up to 5-mm thickness) like wood, acrylic, and glass can be used with CapSense. Note that additional tuning may be required when the overlay is changed.

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Hardware

6. Can I power the kit using external program/debug headers J11 and J12?
No, this is not possible by default on this board. The target MCU is powered by on-board regulators only and hence one of the 3 main sources (J5, J6 and J7) must be present.
There is a protection circuit that prevents reverse voltage from VTARG_REF to VTARG. Hence the board can’t be powered through J11 and J12. However this can be by-passed by loading R130.
Note: This modification is not recommended as the target MCU will have no protection and will be permanently damaged if 5V is supplied.
Figure 3-19. VTARG Reverse Voltage Protection

VTARG Reverse Voltage Protection

VTARG

VTARG_REF

R130

0 OHM

No Load

Q1

DMP2104LP-7

4

1

BCM857BV,115 2 Q2A

5

BCM857BV,115

Q2B

3

6

R87

R47

R86

10K

137K

10K

1%

Note: VTARG_REF is only output voltage sense line for external debuggers. PSoC 6 can’t be powered using external debugging headers J11 and J12
Note: If R130 is loaded and external power is used, make sure to remove resistor R83 to prevent reverse voltage to on-board regulator

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Revision History

Document Revision History

Document Title: CYW9P62S1-43438EVB-01 PSoC 62S1 Wi-Fi BT Pioneer Kit Guide

Document Number: 002-28692

Revision

ECN Number

Issue Date

Description of Change

**

6700080 11/05/2019 New kit guide.

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