Cypress PSoC 6 WiFi-BT Pioneer Kit User Manual

June 16, 2024
Cypress

PSoC 6 WiFi-BT Pioneer Kit

Product Information

Specifications

  • Product Name: CY8CKIT-062-WiFi-BT
  • Manufacturer: Cypress Semiconductor
  • Model Number: CY8CKIT-062-WiFi-BT
  • Document Number: 002-22677 Rev. *H
  • Trademark: Cypress, Spansion, WICED, PSoC, CapSense, EZ-USB,
    F-RAM, Traveo

Introduction

The CY8CKIT-062-WiFi-BT is a Pioneer Kit designed for PSoC 6
WiFi-BT development. This kit includes various hardware components
and software tools to help you develop and test your WiFi-BT
applications.

Kit Contents

The kit includes the following items:

  • CY8CKIT-062-WiFi-BT board
  • Documentation and user manual
  • Software tools and drivers
  • Additional accessories and components

Hardware Introduction

The CY8CKIT-062-WiFi-BT board is the main hardware component of
this kit. It provides the necessary features and interfaces to
develop WiFi-BT applications. The board includes:

  • Microcontroller unit (MCU)
  • WiFi and Bluetooth modules
  • Various sensors and peripherals
  • Connectivity options (USB, Ethernet, etc.)

PSoC Creator

Before You Begin

Prior to using PSoC Creator, ensure that you have installed the
necessary software and drivers. Refer to the user manual for
detailed instructions on software installation.

Install Kit Software

To install the kit software, follow these steps:

  1. Download the latest version of PSoC Creator from the official
    Cypress website.

  2. Run the installer and follow the on-screen instructions to
    complete the installation.

  3. Connect the CY8CKIT-062-WiFi-BT board to your computer using a
    USB cable.

  4. Launch PSoC Creator and select the appropriate board from the
    supported devices list.

Programming and Debugging using PSoC Creator

PSoC Creator provides a comprehensive development environment
for programming and debugging your WiFi-BT applications. Follow the
steps below to program and debug your code:

  1. Create a new project or open an existing project in PSoC
    Creator.

  2. Write your code using the provided code examples or create your
    own custom code.

  3. Build your project to generate the necessary binary files.

  4. Connect the CY8CKIT-062-WiFi-BT board to your computer and
    select it as the programming/debugging target.

  5. Program the board with your generated binary files.

  6. Use the debugging tools in PSoC Creator to test and debug your
    code.

Kit Code Examples

PSoC Creator includes various code examples that can be used as
a starting point for your WiFi-BT applications. These examples
cover a wide range of functionalities and can be easily modified to
suit your specific requirements.

To use the kit code examples in PSoC Creator, follow these
steps:

  1. Open PSoC Creator and create a new project.

  2. Select the desired kit code example from the provided
    templates.

  3. Modify the code as needed to meet your application
    requirements.

  4. Build and program your project onto the CY8CKIT-062-WiFi-BT
    board.

WICED

WICED Studio IDE

WICED Studio IDE is an integrated development environment
specifically designed for developing WiFi-BT applications. It
provides a set of tools and libraries to simplify the development
process.

Debugging a Project using Breakpoints

WICED Studio IDE allows you to set breakpoints in your code for
debugging purposes. Follow these steps to debug your project:

  1. Open your project in WICED Studio IDE.

  2. Set breakpoints at specific locations in your code where you
    want to pause execution.

  3. Start debugging and run your code until it reaches a
    breakpoint.

  4. Inspect variables and step through your code to identify and
    fix any issues.

Kit Code Example

WICED Studio IDE includes a kit code example that demonstrates
the basic functionality of the CY8CKIT-062-WiFi-BT board. To build
and program the kit code example, follow these steps:

  1. Open the WICED Studio IDE and create a new project.
  2. Select the CY8CKIT-062-WiFi-BT board as the target device.
  3. Choose the kit code example from the provided templates.
  4. Build and program your project onto the CY8CKIT-062-WiFi-BT
    board.

Kit Hardware

CY8CKIT-062-WiFi-BT Details

The CY8CKIT-062-WiFi-BT board provides the following hardware
features:

  • Microcontroller: PSoC 6
  • Wireless Connectivity: WiFi and Bluetooth modules
  • Sensors: Various sensors for data acquisition
  • Peripherals: GPIOs, UART, I2C, SPI, USB, etc.

CY8CKIT-028-TFT Details

The CY8CKIT-028-TFT Display Shield is an optional accessory for
the CY8CKIT-062-WiFi-BT board. It provides a graphical display
interface for visual feedback and user interaction.

KitProg2

KitProg2 is a programming and debugging tool specifically
designed for use with the CY8CKIT-062-WiFi-BT board. It provides
various programming modes and interfaces for easy development and
testing.

EZ-PD CCG3 Type-C Power Delivery

EZ-PD CCG3 Type-C Power Delivery is a power delivery solution
that allows the CY8CKIT-062-WiFi-BT board to support Type-C power
delivery capabilities.

FAQ

Q: Where can I download the latest version of PSoC

Creator?

A: You can download the latest version of PSoC Creator from the
official Cypress website.

Q: Can I use my own custom code with the CY8CKIT-062-WiFi-BT

board?

A: Yes, you can write your own custom code using PSoC Creator or
WICED Studio IDE and program it onto the board.

Q: Is the CY8CKIT-028-TFT Display Shield included in the

kit?

A: The CY8CKIT-028-TFT Display Shield is an optional accessory
and may not be included in the kit. Please refer to the kit
contents for more information.

Please note that Cypress is an Infineon Technologies Company. The document following this cover page is marked as “Cypress” document as this is the company that originally developed the product. Please note that Infineon will continue to offer the product to new and existing customers as part of the Infineon product portfolio. Continuity of document content The fact that Infineon offers the following product as part of the Infineon product portfolio does not lead to any changes to this document. Future revisions will occur when appropriate, and any changes will be set out on the document history page. Continuity of ordering part numbers Infineon continues to support existing part numbers. Please continue to use the ordering part numbers listed in the datasheet for ordering.
www.infineon.com
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CY8CKIT-062-WiFi-BT
PSoC 6 WiFi-BT Pioneer Kit Guide
Document Number. 002-22677 Rev. *H

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Cypress Semiconductor 198 Champion Court
San Jose, CA 95134-1709 www.cypress.com

Copyrights
Copyrights
© Cypress Semiconductor Corporation, 2018­2021. This document is the property of Cypress Semiconductor Corporation and its subsidiaries, including Spansion LLC (“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 does not assume any liability arising out of any security breach, such as unauthorized access to or use of a Cypress product. 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. Cypress products are not designed, intended, or authorized for use as critical components in systems designed or intended for the operation of weapons, weapons systems, nuclear installations, life-support devices or systems, other medical devices or systems (including resuscitation equipment and surgical implants), pollution control or hazardous substances management, or other uses where the failure of the device or system could cause personal injury, death, or property damage (“Unintended Uses”). A critical component is any component of a device or system whose failure to perform can be reasonably expected to cause the failure of the device or system, 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 or related to all Unintended Uses of Cypress products. You shall indemnify and hold Cypress harmless from and against all claims, costs, damages, and other liabilities, including claims for personal injury or death, arising from or related to any Unintended Uses of Cypress products.
Cypress, the Cypress logo, Spansion, the Spansion logo, and combinations thereof, WICED, PSoC, CapSense, EZ-USB, F-RAM, 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

5

1. Introduction

7

1.1 Kit Contents …………………………………………………………………………………………………..8 1.2 Hardware Introduction …………………………………………………………………………………….9
1.2.1 CY8CKIT-062-WiFi-BT Board Details ……………………………………………………..9 1.2.2 CY8CKIT-028-TFT Board Details………………………………………………………….11 1.3 Software Introduction …………………………………………………………………………………….12 1.3.1 PSoC Creator Overview………………………………………………………………………12 1.3.2 WICED Studio Development System Overview………………………………………14 1.4 Getting Started……………………………………………………………………………………………..16 1.5 Additional Learning Resources……………………………………………………………………….16 1.6 Technical Support…………………………………………………………………………………………16 1.7 Documentation Conventions…………………………………………………………………………..17 1.8 Acronyms…………………………………………………………………………………………………….17

2. PSoC Creator

19

2.1 Before You Begin………………………………………………………………………………………….19 2.2 Install Kit Software ………………………………………………………………………………………..19 2.3 Programming and Debugging using PSoC Creator ……………………………………………22 2.4 Kit Code Examples ……………………………………………………………………………………….22
2.4.1 Using the Kit Code Examples Built in PSoC Creator ……………………………….22

3. WICED
3.1 3.2 3.3 3.4
3.5

25
Introduction ………………………………………………………………………………………………….25 Before You Begin………………………………………………………………………………………….25 Install WICED ………………………………………………………………………………………………25 Programming and Debugging in WICED ………………………………………………………….26 3.4.1 Building and Programming a Project for CY8CKIT-062-WiFi-BT in WICED Stu-
dio IDE26 3.4.2 Debugging a Project using Breakpoints …………………………………………………30 Kit Code Example ………………………………………………………………………………………..34 3.5.1 Building and Programming a Project in the WICED Studio IDE…………………34

4. Kit Hardware

39

4.1 CY8CKIT-062-WiFi-BT Details ……………………………………………………………………….39 4.2 CY8CKIT-028-TFT Details……………………………………………………………………………..51
4.2.1 CY8CKIT-028-TFT Display Shield ………………………………………………………..51 4.3 KitProg2 ………………………………………………………………………………………………………54
4.3.1 Introduction ……………………………………………………………………………………….54 4.3.2 Programming using PSoC Programmer…………………………………………………54 4.3.3 Kit Enumeration and Programming Modes of KitProg2 ……………………………54

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Contents

4.3.4 USB-UART Bridge………………………………………………………………………………55 4.3.5 USB-I2C Bridge………………………………………………………………………………….56 4.3.6 USB-SPI Bridge …………………………………………………………………………………56 4.4 EZ-PD CCG3 Type-C Power Delivery ……………………………………………………………..57

A. Appendix

59

A.1 Schematics ………………………………………………………………………………………………….59 A.2 Hardware Functional Description…………………………………………………………………….59
A.2.1 PSoC 6 MCU (U1)………………………………………………………………………………59 A.2.2 PSoC 5LP (U2) ………………………………………………………………………………….59 A.2.3 Serial Interconnection between PSoC 5LP and PSoC 6 MCU ………………….60 A.2.4 EZ-PD CCG3 Power Delivery System …………………………………………………..61 A.2.5 Power Supply System …………………………………………………………………………62 A.2.6 Expansion Connectors ………………………………………………………………………..65 A.2.7 CapSense Circuit ……………………………………………………………………………….66 A.2.8 LEDs ………………………………………………………………………………………………..66 A.2.9 Push Buttons……………………………………………………………………………………..67 A.2.10 Cypress NOR Flash ……………………………………………………………………………67 A.2.11 Cypress Quad SPI F-RAM …………………………………………………………………..68 A.2.12 WiFi and Bluetooth Module ………………………………………………………………….69 A.2.13 USB Host and USB Device Connections ……………………………………………….70 A.3 PSoC 6 WiFi-BT Pioneer Board Reworks ………………………………………………………..71 A.3.1 Bypass Protection Circuit on Program and Debug Header (J11)……………….71 A.3.2 PSoC 6 MCU User Button (SW2) …………………………………………………………72 A.3.3 SWD Connector Receptacle (J29) ………………………………………………………..72 A.3.4 CapSense Shield ……………………………………………………………………………….73 A.3.5 CSH………………………………………………………………………………………………….73 A.3.6 LiPo Battery Charger…………………………………………………………………………..74 A.3.7 Multiplexed GPIOs ……………………………………………………………………………..74 A.4 Bill of Materials …………………………………………………………………………………………….74 A.5 WICED Configuration ……………………………………………………………………………………75 A.6 Frequently Asked Questions…………………………………………………………………………..81

Revision History

86

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Safety and Regulatory Compliance Information
Regulatory Compliance Information
Contains Transmitter Module FCC ID: VPYLB1DX and IC: 772C-LB1DX
This kit is intended to use for ENGINEERING DEVELOPMENT, DEMONSTRATION, OR EVALUATION PURPOSES ONLY and is not considered by Cypress Semiconductor to be a finished end product fit for general consumer use. It generates, uses, and can radiate radio frequency energy and has not been tested for compliance with the limits of computing devices pursuant to part 15 of FCC or ICES-003 rules, which are designed to provide reasonable protection against radio frequency interference. Operation of the equipment may cause interference with radio communications, in which case the user at his own expense will be required to take whatever measures may be required to correct this interference.
The kit contains Murata’s Type 1DX (LBEE5KL1DX) certified module. Due to change in the antenna pattern/type and gain used in CY8CKIT-062-WiFi-BT PSoC® 6 WiFi-BT Pioneer Kit, class II permissive changes are required to recertify this kit. The radiated emission tests must be performed again to obtain a new FCC ID for this host kit. Most conducted RF test results may still be reused. Customer also needs to take their product through other FCC/ISED testing such as unintentional radiators (FCC sub part 15B) and any other required regional product certifications including but not limited to EU directives. Refer FCC Regulatory Certification Guide by Murata on information on precertified and reference certified module concepts and information on what additional test are required for FCC certification. Customer should consult a Telecommunication Certification Body (TCB) lab for guidance on other requirements for the device certification.
For more details on Murata Type 1DX module refer https://wireless.murata.com /type-1dx.html.
The PSoC 6 WiFi-BT Pioneer Kit contains electrostatic discharge (ESD) sensitive devices. Electrostatic charges readily accumulate on the human body and any equipment, and can 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 6 WiFi-BT Pioneer Kits in the protective shipping package.
End-of-Life/Product Recycling
The end-of life for this kit is five years from the date of manufacture mentioned as a bar code on the back of the kit box. Contact your nearest recycler for information on discarding 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
The PSoC 6 WiFi-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 CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit. The PSoC 6 WiFi-BT Pioneer Kit enables you to evaluate and develop your applications using the PSoC 6 MCU. The PSoC 6 MCU is Cypress’ latest, ultra- low-power PSoC specifically designed for wearables and IoT products. It is a programmable embedded system-on-chip, integrating a 150-MHz Arm® Cortex®-M4 as the primary application processor, a 100-MHz CM0+ that supports low-power operations, up to 1 MB Flash and 288 KB 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 WiFi-BT Pioneer board offers compatibility with ArduinoTM shields. The board features a PSoC 6 MCU, a 512-Mb NOR flash, an onboard programmer/debugger (KitProg2), a 2.4-GHz WLAN and Bluetooth functionality module (CYW4343W), a USB Type-C power delivery system (EZPDTM CCG3), a five-segment CapSense slider, two CapSense buttons, one CapSense proximity sensing header, an RGB LED, two user LEDs, USB host and device features, and one push button. The board supports operating voltages from 1.8 V to 3.3 V for the PSoC 6 MCU. The CY8CKIT-062-WiFi-BT package includes a CY8CKIT-028-TFT Display Shield that contains a 2.4-inch TFT display, a motion sensor, ambient light sensor, a 32-bit audio codec, and a PDM microphone. This is the first kit that enables development of PSoC 6 MCU + WiFi applications. To develop a PSoC 6 MCU + WiFi application, WICEDTM Studio 6.1 or later must be used. WICED Studio is Cypress’ integrated development environment (IDE) for developing WiFi applications. If you are not adding WiFi to your design then you can develop and debug PSoC 6 MCU project using PSoC CreatorTM. PSoC Creator supports exporting your designs to other third-party firmware development tools.

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Introduction

1.1

Kit Contents

The CY8CKIT-062-WiFi-BT package has the following contents, as shown in Figure 1-1. PSoC 6 WiFi-BT Pioneer Board CY8CKIT-028-TFT Display Shield USB Type-A to Type-C cable Four jumper wires (4 inches each) Two proximity sensor 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
1.2.1

Hardware Introduction
CY8CKIT-062-WiFi-BT Board Details
Figure 1-2 shows the Pioneer board, which has the following features: PSoC 6 MCU Expansion headers that are compatible with Arduino Uno 3.3-V shields1 and Digilent® PmodTM
modules Type 1DX ultra-small 2.4-GHz WLAN and Bluetooth functionality module 512-Mbit external quad-SPI NOR flash that provides a fast, expandable memory for data and
code KitProg2 onboard programmer/debugger with mass storage programming, USB to UART/I2C/
SPI bridge functionality, and custom applications support EZ-PD CCG3 USB Type-C power delivery (PD) system with rechargeable lithium-ion polymer
(Li-Po) battery support2 CapSense touch-sensing slider (five elements) and two buttons, all of which are capable of both
self-capacitance (CSD) and mutual-capacitance (CSX) operation, and a CSD proximity sensor that allows you to evaluate Cypress’ fourth-generation CapSense technology 1.8-V to 3.3-V operation of PSoC 6 MCU is supported. An additional 330-mF super-capacitor is provided for backup domain supply (VBACKUP) Two user LEDs, an RGB LED, a user button, and a reset button for PSoC 6 MCU. Two buttons and three LEDs for KitProg2.

1. 5-V shields are not supported. 2. Battery and power-delivery capable USB Type-C to Type-C cable are not included in the kit package and should be purchased separately.

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Figure 1-2. Pioneer Board

Introduction

1. USB PD output voltage availability indicator (LED7) 2. Battery charging indicator (LED6) 3. KitProg2 USB Type-C connector (J10) 4. Cypress EZ-PDTM CCG3 Type-C Port Controller with PD
(CYPD3125-40LQXI, U3) 5. KitProg2 programming mode selection button (SW3) 6. KitProg2 I/O header (J6)1 7. KitProg2 programming/custom application header (J7)1 8. External power supply connector (J9) 9. PSoC 6 user button (SW2) 10. KitProg2 application selection button (SW4) 11. Digilent® PmodTM compatible I/O header (J14)1 12. Power LED (LED4) 13. KitProg2 status LEDs (LED1, LED2, and LED3) 14. PSoC 6 reset button (SW1) 15. PSoC 6 I/O header (J18, J19 and J20) 16. ArduinoTM Uno R3 compatible power header (J1) 17. PSoC 6 debug and trace header (J12) 18. Arduino Uno R3 compatible PSoC 6 I/O header
(J2, J3 and J4) 19. PSoC 6 program and debug header (J11) 20. CapSense proximity header (J13)

21. CapSense slider and buttons 22. PSoC 6 VDD selection switch (SW5) 23. Cypress 512-Mbit serial NOR Flash memory
(S25FL512S, U4) 24. PSoC 6 user LEDs (LED8 and LED9) 25. RGB LED (LED5) 26. WiFi/BT module (LBEE5KL 1DX, U6) 27. Cypress serial Ferroelectric RAM (U5)1 28. WiFi-BT Antenna 29. VBACKUP and PMIC control selection switch (SW7)2 30. PSoC 6 USB device Type-C connector (J28) 31. Cypress PSoC 6 (CY8C6247BZI-D54, U1) 32. PSoC 6 USB Host Type-A connector (J27) 33. Arduino Uno R3 compatible ICSP header (J5)1 34. PSoC 6 power monitoring jumper (J8)2 35. KitProg2 (PSoC 5LP) programmer and debugger
(CY8C5868LTI-LP039, U2) 36. Battery connector (J15)1, 2 37. USB PD output voltage (9V/12V) connector (J16)1

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Introduction

1.2.2

CY8CKIT-028-TFT Board Details
Figure 1-3 shows the TFT display shield that has the following features: A 2.4-inch Thin-Film Transistor (TFT) LCD module with 240×320 pixel resolution. A three-axis acceleration and three-axis gyroscopic motion sensor. A PDM microphone for voice input. A 32-bit stereo codec with microphone, headphone, and speaker amplifier capability. An audio jack with a provision of connecting both AHJ and OMTP headphones. The headset
standard can be set by an onboard switch. An ambient light sensor IC made of an NPN phototransistor. An LDO that converts 3.3 V to 1.8 V for the digital supply of the audio codec.
Figure 1-3. TFT Display Shield

1. 2.4-inch TFT display 2. Motion Sensor (U1) 3. Ambient Light Sensor (Q1) 4. PDM microphone (U2) 5. Ardunio compatible I/O headers (J2, J3, J4) 6. Ardunio compatible power header (J1)

7. TFT display power control load switch (U4)
8. TFT display connector (J5)
9. Audio CODEC (U3)
10. Audio Jack (J6)
11. Audio Jack Selection (OMTP/AHJ) Switch (SW1)

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Introduction

1.3
1.3.1

Software Introduction
PSoC Creator Overview
PSoC Creator is a state-of-the-art, easy-to-use IDE. It uses revolutionary hardware and software codesign, powered by a library of fully verified and characterized PSoC ComponentsTM and peripheral driver libraries (PDL), as shown in Figure 1-4. With PSoC Creator, you can: 1. Drag and drop Components to build your hardware system design in the main design workspace. 2. Co- design your application firmware with the PSoC hardware. 3. Configure Components using configuration tools or PDL. 4. Explore the library of 100+ Components. 5. Access Component datasheets. 6. Export your design to third- party firmware development tools.
Figure 1-4. PSoC Creator Features

PSoC Creator also enables you to tap into an entire tool ecosystem with integrated compiler chains and production programmers for PSoC devices. Use PSoC Creator for all PSoC 6 MCU designs that do not require WiFi connectivity. If WiFi connectivity is required, use WICED Studio 6.1 or higher.

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Introduction

1.3.1.1

PSoC Creator Code Examples
PSoC Creator includes a large number of code examples. These examples are accessible from the PSoC Creator Start Page, as shown in Figure 1-5 or from the menu File > Code Example.
Code examples can speed up your design process by starting you off with a complete design. The code examples also show how to use PSoC Creator Components for various applications. Code examples and documentation are included.
In the Find Code Example dialog, you have several options: Filter for examples based on device family or keyword. Select from the list of examples offered based on the Filter Options. View the project documentation for the selection (on the Documentation tab). View the code for the selection on the Sample Code tab. You can also copy and paste code from
this window to your project, which can help speed up code development. Create a new workspace for the code example or add to your existing workspace. This can speed
up your design process by starting you off with a complete, basic design. You can then adapt that design to your application.
Figure 1-5. Code Examples in PSoC Creator

1.3.1.2 1.3.1.3

Kit Code Examples
You can access the installed kit code examples from the PSoC Creator Start Page. To access these examples, expand the Kits under the section Examples and Kits; then, expand the specific kit to see the code examples. To work with the code examples using this kit, see PSoC Creator chapter on page 19.
PSoC Creator Help
Launch PSoC Creator and navigate to the following items: Quick Start Guide: Choose Help > Documentation > Quick Start Guide. This guide gives you
the basics for developing PSoC Creator projects. Simple Component Code Examples: Choose File > Code Example. These examples demon-
strate how to configure and use PSoC Creator Components. To access examples related to a specific Component, right-click the Component in the schematic or in the Component Catalog. Select the Find Code Example option in the context menu that appears. System Reference Guide: Choose Help > System Reference Guide. This guide lists and describes the system functions provided by PSoC Creator. Component Datasheets: Right-click a Component and select Open Datasheet.

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Introduction

1.3.2

WICED Studio Development System Overview
WICED Studio 6.1 (or later) supports WiFi and Bluetooth application development using the CY8CKIT-062-WiFi-BT kit. Tabs and their location in the WICED IDE are as shown in Figure 1-6.
Figure 1-6 illustrates the following: 1. Edit your application firmware. 2. Help Window that contains instructions on building and downloading applications. 3. Explore existing applications/firmware and library of the Software Development Kit (SDK). 4. View Build messages in the Console window. 5. Create and edit Make Targets for the platform to build your application/project.
Figure 1-6. WICED IDE

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Introduction

1.3.2.1

WICED Studio Code Examples
WICED Studio includes libraries and code examples supporting both Bluetooth and WiFi platforms. Selecting the 43xxx_Wi-fi Filter will show only WiFi platform related files in the project explorer as shown in Figure 1-7.
Application examples can speed up the design process by serving as templates for development. Code examples are located under the apps category (in the Project Explorer window), as shown in Figure 1-8. Code examples under apps are further grouped into demo, snip, test, waf (WICED application framework), and wwd (WICED WiFi Driver Application) directories.
The demo directory contains applications that combine various WICED features into a single application. The snip directory contains application snippets that demonstrate how to use various WICED libraries and API functions. The test directory contains applications that are used for simple test and utility. The waf directory contains applications that are part of WICED application framework, for instance, the bootloader. The wwd directory contains applications that are developed using the low level wwd API calls and do not rely on higher level WICED APIs. Located within each subdirectory in the apps folder is a README.txt that lists and summarizes the applications located within the folder. Note that not all applications are supported in all platforms. The snip directory contains a README.txt with a matrix on what applications are supported in what platforms. For more details on the WICED software stack and APIs, review the application notes and documents available in the doc folder /WICED-Studio-6.1/43xxx_Wi- Fi/doc. WICED-QSG.pdf, available in the same path, is a good document to start with.
Figure 1-7. Filter for WiFi Code Example in WICED Studio

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Figure 1-8. Code Examples under apps Category

Introduction

1.4

Getting Started

This guide will help you to get acquainted with the PSoC 6 WiFi-BT Pioneer Kit:
The PSoC Creator chapter on page 19 describes the installation of the kit software. The kit software includes the PSoC Creator IDE and PDL to develop and debug the applications, the PSoC Programmer to program the .hex files on to the device.
The WICED chapter on page 25 describes the installation of WICED and getting started guidelines of the WICED-based example project of the kit.
The Kit Hardware chapter on page 39 describes the CY8CKIT-062-WiFi-BT base board and CY8CKIT-028-TFT shield hardware features and functionalities.
The Appendix on page 59 provides a detailed hardware description, methods to use the onboard components, kit schematics, the bill of materials (BOM), and an FAQ.

1.5

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.

1.6

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.

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1.7 1.8

Introduction

Documentation Conventions

Table 1-1. Document Conventions for Guides

Convention Courier New Italics
[Bracketed, Bold] File > Open Bold Times New Roman Text in gray boxes

Usage
Displays user entered text and source code:
Displays file locations, file names, and reference documentation: Read about the sourcefile.hex file in the PSoC Creator User Guide.
Displays keyboard commands in procedures: [Enter] or [Ctrl] [C] 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

Definition

ADC

analog-to-digital converter

BOM

bill of materials

BT

Bluetooth

CINT

integration capacitor

CMOD

modulator capacitor

CPU

central processing unit

CSD

CapSense sigma delta

CTANK

shield tank capacitor

DC

direct current

Del-Sig

delta-sigma

ECO

external crystal oscillator

ESD

electrostatic discharge

F-RAM

Ferroelectric Random Access Memory

FPC

flexible printed circuit

GPIO

general-purpose input/output

HID

human interface device

I2C

Inter-Integrated Circuit

IC

integrated circuit

ICSP

in-circuit serial programming

IDAC

current digital-to-analog converter

IDE

integrated development environment

LED

light-emitting diode

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

Acronym

Definition

PC

personal computer

PCM

pulse code modulation

PD

power delivery

PDM

pulse density modulation

PTC

positive temperature coefficient

PSoC

Programmable System-on-Chip

PWM

pulse width modulation

RGB

red green blue

SAR

successive approximation register

SMIF

serial memory interfac

SPI

serial peripheral interface

SRAM

serial random access memory

SWD

serial wire debug

TFT

thin-film transistor

UART

universal asynchronous receiver transmitter

USB

Universal Serial Bus

WCO

watch crystal oscillator

Introduction

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2. PSoC Creator

This chapter describes the steps to install PSoC Creator and the packages required to use the PSoC 6 WiFi-BT Pioneer Kit, for non WiFi applications. This includes the IDE on which the projects will be built and used for programming. For developing WiFi applications, WICED Studio 6.1 or later must be used (see the WICED chapter on page 25).

2.1

Before You Begin

To install Cypress software, you will require administrator privileges. However, they are not required to run the software that is already installed. Before you install the kit software, close any other Cypress software that is currently running.

2.2

Install Kit Software

Follow these steps to install the PSoC 6 WiFi-BT Pioneer Kit software:
1. Download and run the CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit software from www.cypress.com/CY8CKIT-062-WiFi-BT. The kit software is available in two different formats for download.
a. CY8CKIT-062-WiFi-BT Kit Complete Setup: This installation package contains the files related to the kit including PSoC Creator, PSoC Programmer, and PDL. However, it does not include the Windows Installer or Microsoft .NET framework packages. If these packages are not on your computer, the installer will direct you to download and install them from the Internet.
b. CY8CKIT-062-WiFi-BT Kit Only: This executable file installs only the kit contents, which include kit code examples, hardware files, and user documents. This package can be used if all the software prerequisites (listed in step 3) are installed on your PC.

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PSoC Creator
2. Select the folder in which you want to install the PSoC 6 WiFi-BT Pioneer Kit-related files. Choose the directory and click Next.
Figure 2-1. Kit Installer Screen

3. When you click Next, the installer automatically installs the required software, if it is not present on your computer. Following are the required software:
a. PSoC Creator 4.2: This software is available for download separately at www.cypress.com/psoccreator. PSoC Creator 4.2 installer automatically installs the following additional software: PSoC Programmer 3.27.0 Peripheral Driver Library 2.1.0 Peripheral Driver Library 3.0.1

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PSoC Creator
4. Choose the Typical, Custom, or Complete installation type (select Typical if you do not know which one to select) in the Product Installation Overview window, as shown in Figure 2-2. Click Next after selecting the installation type.
Figure 2-2. Product Installation Overview

5. Read the License agreement and select I accept the terms in the license agreement to continue with installation. Click Next.
6. When the installation begins, a list of packages appears on the installation page. A green check mark appears next to each package after successful installation.
7. Enter your contact information or select the check box Continue Without Contact Information. Click Finish to complete the CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit software installation.
8. After the installation is complete, the kit contents are available at the following location: CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit
Default location:
Windows 7 (64-bit): C:Program Files (x86)CypressCY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit
Windows 7 (32-bit): C:Program FilesCypressCY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit
Note: For Windows 7/8/8.1/10 users, the installed files and the folder are read-only. To use the installed code examples, create an editable copy of the example in a path that you choose, so that the original installed example is not modified. These steps will create an editable copy of the example in a path that you choose, so the original installed example is not modified.

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PSoC Creator

2.3

Programming and Debugging using PSoC Creator

1. Connect the PSoC 6 WiFi-BT Pioneer Kit to the PC using the USB cable, as shown in Figure 2-3. The kit enumerates as a composite device if you are connecting it to your PC for the first time. See section 4.3.3 Kit Enumeration and Programming Modes of KitProg2 to know whether the kit is successfully enumerated or not.

Figure 2-3. Connect USB Cable to USB Connector on the Kit

2.4
2.4.1

2. Open the desired project in PSoC Creator. To do this, go to File > Open > Project/Workspace. This provides the option to browse and open your saved project.
3. Select the option Build > Build Project or pressing [Shift] [F6] to build the project. 4. If there are no errors during build, select Debug > Program or press [Ctrl] [F5]. This programs
the device on the PSoC 6 WiFi-BT Pioneer Kit.
PSoC Creator has an integrated debugger. You can start the debugger by selecting Debug > Debug or by pressing [F5]. For more details, see the “Debugging Using PSoC Creator” section in the KitProg2 User Guide.
Kit Code Examples
The PSoC 6 WiFi-BT Pioneer Kit includes two code examples. One of these two code examples is developed in PSoC Creator. To access this code example, first download and install the PSoC 6 WiFi-BT Pioneer Kit setup file from www.cypress.com/CY8CKIT-062-WiFi-BT. After the kit package is installed on your PC, the PSoC Creator-based code examples will be available from Start > Kits on the PSoC Creator Start Page. This code example can be accessed in the following directory: CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer KitFirmwarePSoC 6 MCUCE222221.
Using the Kit Code Examples Built in PSoC Creator
Follow these steps to open and use the code examples: 1. Launch PSoC Creator from Start > All Programs > Cypress > PSoC Creator >
PSoC Creator .

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PSoC Creator
2. On the Start Page, click CY8CKIT-062-WiFi-BT under Start > Kits. A list of code examples appears, as shown in Figure 2-4.
3. Click the desired code example, select a location to save the project, and click OK. Figure 2-4. Open Code Example from PSoC Creator
4. Build the code example by choosing Build > Build . After the build process is successful, a .hex file is generated.
5. Connect PSoC 6 WiFi-BT Pioneer Kit to the PC using the USB cable, as shown in Figure 2-3 on page 22, to program the kit with the code example.
6. Choose Debug > Program in PSoC Creator. 7. If the device is already acquired, programming will complete automatically ­ the result will appear
in the PSoC Creator status bar at the bottom left side of the screen. If the device is yet to be acquired, the Select Debug Target window will appear. Select KitProg2/ and click Port Acquire, as shown in Figure 2-5. Figure 2-5. Port Acquire

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PSoC Creator
8. After the device is acquired, it is shown in a tree structure below the KitProg2/. Click Connect and then OK to exit the window and start programming, as shown in Figure 2-6. Note: PSoC 6 MCUs have both CM0+ and CM4 CPUs. To program, select one of them and click Connect. To debug, select the CPU that needs to be debugged.
Figure 2-6. Connect Device from PSoC Creator and Program

9. After programming is successful, the code example is ready to use.

Table 2-1 shows the code example, developed in PSoC Creator, which can be used with this kit. Table 2-1. Code Example in PSoC Creator

Project CE222221_TFT_VoiceRecorder

Description
This code example shows how PSoC 6 MCU can be used to record audio data, store it, and play it back. It uses a digital microphone with the PDM/PCM hardware block. All the audio data captured by the microphone is stored in an external flash memory. After the recording is completed, you can play the audio data over I2S, which interfaces with an audio codec. You can record/play/pause/resume with CapSense buttons. You control the audio volume with a CapSense slider. The TFT LCD displays the current state of the voice recorder, the volume, and the time of the record/play.

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3. WICED

3.1

Introduction

This chapter describes the steps to install the WICED software tools and packages required to use the PSoC 6 WiFi-BT Pioneer Kit for developing WiFi applications. This chapter describes basic quick start guidelines of the WICED-based example project that can be used for further development purposes.

3.2

Before You Begin

To install Cypress software, you will require administrator privileges. However, they are not required to run the software that is already installed. Before you install the kit software, close any other Cypress software that is currently running.

3.3

Install WICED

The CY8CKIT-062-WiFi-BT kit needs the WICED 6.1 (or later) software to be installed in your system. WICED 6.1 needs separate download and installation.
1. Download and install WICED Studio 6.1 (or later) from www.cypress.com/products/wiced-software.
2. Select two folders, one for the IDE and the other for the SDK. The SDK folder contains the Framework for developing WiFi applications.

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WICED
3. The installer will ask to select between WiFi and Bluetooth platforms. Select 43xxx_Wi-Fi as the default.
Figure 3-1. Installer Window Screenshot

3.4
3.4.1

Programming and Debugging in WICED
Building and Programming a Project for CY8CKIT-062-WiFi-BT in WICED Studio IDE
To build and program a project for CY8CKIT-062-WiFi-BT, perform the following steps:
1. To open the WICED IDE on the Windows PC, go to Start > All Programs > Cypress > WICEDStudio.
2. Select 43xxx_Wi-Fi in the WICED Target selector drop-down box as shown in Figure 1-7. Building a project requires a corresponding make target, located in the Make Target window. All applications go under the apps directory. The make target path will contain the directory hierarchy starting from apps with directory names separated by a period. The project name is followed by a hyphen and then the platform name. Finally, the actions to be performed after the build are specified, such as download and run. For example, to build, download, and run the application scan which exists in appssnipscan, create the following make target:
snip.scan-CY8CKIT_062 download_apps download run
This project will periodically scan for Wi-Fi access points and will list them using the serial-to-USB connection on the kit.
Perform these steps to create the make target, build, program, and test application scan:

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WICED
3. Right-click 43xxx_Wi-Fi in the Make Target window as shown in Figure 3-2 and click New. Figure 3-2. Creating New Make Target

4. Enter snip.scan-CY8CKIT_062 download_apps download run in the Target name field and click OK.
Note: The list of all commands that can be provided in the Make target is listed in / 43xxx_Wi-Fi/Makefile.
snip.scan-CY8CKIT_062 download_apps download run indicates the following:
a. snip = Directory inside apps folder
b. scan = Sub-directory and name of the application to be built. For example, to build the console application under test directory in apps, then use test.console instead of snip.scan.
c. CY8CKIT_062 = Board/platform name
d. download_apps = Download application resources into QSPI Flash
e. download = Indicates download to target
f. run = Resets the target and starts execution
5. Double-click (alternately, right-click and select Build Target) the Clean Make Target to remove any output from the previous build. It is recommended to do Make clean when any new files are added or removed to the corresponding Target.
Note: Before executing the next step, ensure that you connect the CY8CKIT-062 -WiFi-BT kit to the same PC through the Type-C USB cable connected to the J10 port. See 4.3.3 Kit Enumeration and Programming Modes of KitProg2 to ensure that the kit is successfully enumerated and Port Selection is set to CMSIS-DAP mode.

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6. Double-click (alternatively right-click and select Build Target) the snip .scan-CY8CKIT_062 download_apps download run make target to build and download it to the CY8CKIT-062WiFi-BT. The project is built and programmed into the CY8CKIT-062-WiFi-BT, as shown in Figure 3-3.
Figure 3-3. Successful Build and Program

7. To view output messages with a terminal emulation program (such as Tera Term), follow these steps:
a. Start the terminal emulation program.
b. Go to Setup > Terminal, set the Terminal ID to VT100 and New-Line Receive to AUTO. Other settings should be left at the default settings.

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WICED c. Go to Setup > Serial port, initiate a connection with the Serial port number from the Device
Manager on the PC. Note: The exact Port number will vary with the corresponding PC port.
d. Press the Reset button on the CY8CKIT-062-WiFi-BT to view the application start-up messages.
8. The output of the Terminal Emulation program should be similar to what is shown in Figure 3-4. Figure 3-4. Console Output

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WICED

3.4.2

Debugging a Project using Breakpoints
After programming a project, it is possible to debug it in CY8CKIT-062-WiFi-BT using the built-in debugger.
Note that the scan example used in Building and Programming a Project for CY8CKIT-062-WiFi-BT in WICED Studio IDE on page 26 is also used here. The steps outlined in Building and Programming a Project for CY8CKIT-062-WiFi-BT in WICED Studio IDE on page 26 should be first followed with a slight change (adding -debug to the Make Target command and removing run). Instead of
snip.scan-CY8CKIT_062 download_apps download run
The following make command should be used:
snip.scan-CY8CKIT_062-debug download_apps download
If -debug is not added, then it will be built for release. The important difference between the debug and release configurations is optimization. Debug is built with no optimization and release is built with optimization. It is possible to debug without using -debug as well, but with many variables and lines optimized away, many breakpoints may not get hit.
Note that breakpoints must be placed after starting a debug session in WICED Studio 6.1 or later. If there are any breakpoints that were created prior to the start of debug session, their properties must be changed to be enabled for all threads.
Perform these steps to debug the project: 1. Execute the make target described above to download the project to the device. 2. Click the arrow next to the Debug icon as shown in Figure 3-5 and select 43xxx-Wi-Fi_De-
bug_Windows. The Confirm Perspective Switch dialog appears; click Yes. The Debug session starts and halts in the start_GCC.s file. Notes: a. The Confirm Perspective Switch dialog is not displayed if you previously selected the
Remember my decision check box in the Confirm Perspective Switch dialog. b. If any MakeFile/Build error occurs, then clean (using the Clean make target), re- build, and
download to the CY8CKIT-062-WiFi-BT again. c. In the Debug Perspective, the Project explorer window goes away by default. To view the
source files, switch back to the “C/C++” perspective.

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d. To switch between perspectives use the “C/C++” or “Debug” icon at the top right corner of screen.
Figure 3-5. Debugging Project

3. Open the scan.c file from the Project Explorer window. Click the line with WPRINT_APP_INFO( ( “Waiting for scan results…n” ) ); and press the [Ctrl +Shift+B] keys on your keyboard. A blue hollow circle along with a check mark appears next to the line number, as shown in Figure 3-6.
4. From the main menu, click Run > Resume. Execution will stop at the breakpoint that you added. To continue after hitting the breakpoint, click Resume again.
5. To disable the breakpoint, press the [Ctrl+Shift+B] keys again on the same line, or deselect the corresponding check box in the Breakpoints window.
Note: If the Breakpoint window does not appear, then choose Window > Show View

Breakpoints.

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WICED
6. To terminate the Debugging session, click Run > Terminate, or click on the red Square icon. Once you terminate the session, click C/C++ in the upper right corner to return to the C/C++ perspective.
Figure 3-6. Placing Breakpoint in Code

.7. If Breakpoints are created prior to starting the current Debug session, they will not be associated with the current thread and will be indicated with a Blue circle without a check mark. To enable
. the Breakpoints in the current thread, associate the properties from the Breakpoints window with the current thread.
Note: If you do not see any breakpoints in the Breakpoints window, click the Show Breakpoints Supported by Selected Target icon as shown in Figure 3-7. The breakpoints are displayed.

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WICED
8. Right-click the desired breakpoint check box and click Breakpoint Properties…. Click the last_built.elf check box, as shown in Figure 3-8. The check mark appears before the actual breakpoint indicating its association with the current execution.
Figure 3-7. Show Breakpoints Icon

Figure 3-8. Enabling Breakpoint for Current Execution

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WICED

3.5
3.5.1

Kit Code Example
Building and Programming a Project in the WICED Studio IDE
Before starting with the kit code example, make sure you install the kit software and WICED 6.1 to your PC. The steps to install the kit installer is explained in Install Kit Software on page 19. The installation of WICED 6.1 is explained Install WICED on page 25. To build and program the WICED based project of the CY8CKIT-062-WiFi-BT kit, perform the following steps: 1. To open the WICED IDE on Windows PC, go to Start > All Programs > Cypress > WICED-
Studio. 2. Locate the WICED WiFi-SDK directory in your PC. The default location is C:Users<user
name>DocumentsWICED-Studio-6.143xxx_WiFi, as shown in Figure 3-9. However, it may be in a different location depending on the path you choose when installing WICED Studio.
Figure 3-9. WICED SDK Directory

3. Also, locate the CY8CKIT-062-WiFi-BT Kit Code Example at the location

CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer KitFirmwarePSoC 6 MCUCE222494_PSoC6_WICED_WiFi_Demo. This has two directories called apps and resources. Open the appsdemo folder and copy the CE222494_PSoC6_WICED_WiFi folder into the WICED-Studio-6.143xxx_Wi-Fiappsdemo folder.

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WICED
4. Open the resourcesapps folder and copy the CE222494_PSoC6_WICED_WiFi folder into WICED-Studio-6.143xxx_Wi-Firesourcesapps. If WICED Studio 6.1 (or later) is opened with 43xxx_Wi-Fi as the WICED Filter, then the new folders appear as shown in Figure 3-10. If the projects are not visible in WICED Studio 6.1 (or later), then right-click the 43xxx_Wi-Fi folder in Project Explorer and click Refresh, as shown in Figure 3-10.
Figure 3-10. Setup Package in WICED Studio 6.1 (or later)

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Figure 3-11. Refresh Top Folder

WICED

5. In the Make Target window, right-click and select New, and give it the following Target Name: demo.CE222494_PSoC6_WICED_WiFi-CY8CKIT_062 download_apps download run (see Figure 3-12).
Figure 3-12. Creating New Make Target

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The Make Target window will show the following added target: demo .CE222494_PSoC6_WICED_WiFi-CY8CKIT_062 download_apps download run (see Figure 3-13). Note: Before executing the next step, ensure that you connect the CY8CKIT-062-WiFi-BT kit to the same PC through the Type-C USB cable connected to the J10 port. See 4.3.3 Kit Enumeration and Programming Modes of KitProg2 to ensure that the kit is successfully enumerated and Port Selection is set to CMSIS-DAP mode. 6. Double-click the newly created make target to build the code, program the kit, and run the example. Note that this may take a few minutes. The Console window will display a message “Build Finished” as shown in Figure 3-13.
Figure 3-13. Building and Programming the Target

To know more about this code example, refer to CE222494_WiFi_BT_WICED_WiFi_Demo.

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WICED
This kit is shipped with this code example preprogrammed to it. While power is on, and when you peel the sticker on the TFT display, you can see the instructions on the display as shown in Figure 3-14. Figure 3-14. TFT Screen Instruction Display

Table 3-1 shows the code example, developed in WICED, which can be used with this kit. See the WICED 6.1 code example documents for additional details.

Table 3-1. Code Example in WICED

Project

Description

This code example demonstrates how to use PSoC 6 MCU and WICED to enable WiFi communication. It demonstrates how the CE222494_WiFi_BT_WICED_WiFi_Demo PSoC 6 MCU with the 4343W module can be used as a configuration access point (AP) to allow a user to enter the credentials of their personal network.

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4. Kit Hardware

4.1

CY8CKIT-062-WiFi-BT Details

The PSoC 6 WiFi-BT Pioneer Kit is built around the PSoC 6 MCU; Figure 4-1 shows the block diagram of the device. For details of the PSoC 6 MCU features, see the device datasheet.
Figure 4-1. PSoC 6 MCU Block Diagram

PSoC 62

System Resources

Power

Sleep Control

POR

BOD

OVP

LVD

REF

PWRSYS-LP /ULP

Buck

Clock

Clock Control

ILO

WDT

IMO

ECO

FLL

CSV

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

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

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 Energy Profiler
EFUSE (1024 bits) Serial Memory I/F (QSPI with OTF Encryption/Decryption))

FS/LS PHY

DMA MMIO

USB-FS Host + Device

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Figure 4-2 shows the block diagram of the Pioneer board. Figure 4-2. Pioneer Board Block Diagram

Kit Hardware

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Kit Hardware The CY8CKIT-062-WiFi-BT Pioneer Kit comes with the PSoC 6 WiFi-BT Pioneer board, which has the CY8CKIT-028-TFT display shield connected, as Figure 4-3 shows. Figure 4-3. PSoC 6 WiFi-BT Pioneer Board and TFT Display Shield
Figure 4-4 shows the markup of the Pioneer board. Figure 4-4. PSoC 6 WiFi-BT Pioneer Board ­ Top View

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The PSoC 6 WiFi-BT Pioneer board has the following peripherals:
1. USB PD out indicator (LED7): This LED turns ON when the USB Type-C power delivery output is available for use.
2. Battery charging indicator (LED6): This LED turns ON when the onboard battery charger is charging a lithium-ion polymer battery connected to J15. Note that the battery connector and battery are not included in the kit and should be purchased separately if you want to test the battery charging functionality.
3. KitProg2 USB connector (J10): The USB cable provided along with the PSoC 6 WiFi-BT Pioneer Kit connects between this USB connector and the PC to use the KitProg2 onboard programmer and debugger and to provide power to the Pioneer board. J10 is also used for the USB Type-C power delivery system. See EZ-PD CCG3 Type-C Power Delivery on page 57 for more details.
4. Cypress EZ-PD CCG3 Type-C Port Controller with PD (CYPD3125-40LQXIT, U3): The Pioneer board includes an EZ-PD CCG3 USB Type-C port controller with power delivery system. This device is pre-programmed and can deliver power from a Type-C port to an onboard header J16, while simultaneously charging a lithium- ion polymer battery connected to J15. In addition, the power delivery system can deliver power to a Type-C power sink or consumer, such as a mobile phone, with the power derived from the VIN supply. See EZ-PD CCG3 Type-C Power Delivery on page 57 for more details.
5. KitProg2 programming button (SW3): This button can be used to switch between the KitProg2 operation modes (proprietary SWD programming/CMSIS-DAP mode). This button can also be used to provide input to the PSoC 5LP in custom application mode. For more details, see the KitProg2 User Guide.
6. KitProg2 I/O header (J6): This header brings out several GPIOs of the onboard KitProg2 PSoC 5LP device. This includes the USB-I2C, USB-UART, and USB-SPI bridge lines. The additional PSoC 5LP pins are direct connections to the internal programmable analog logic of the PSoC 5LP. You can also use these pins for custom applications. For more details on KitProg2, see the KitProg2 User Guide.
7. KitProg2 programming/custom application header (J7): This header brings out more GPIOs of the PSoC 5LP, which can be used for custom applications. It also contains a five-pin SWD programming header for the PSoC 5LP.
8. External power supply VIN connector (J9): This connector connects an external DC power supply input to the onboard regulators and the USB Type-C power delivery system. The voltage input from the external supply should be between 5 V and 12 V. Moreover, when used as an input to the USB Type-C power delivery system, the external power supply should have enough current capacity to support the load connected via the Type-C port. See EZ-PD CCG3 Type-C Power Delivery on page 57 for more details.
9. PSoC 6 MCU user button (SW2): This button can be used to provide an input to PSoC 6 MCU. Note that by default the button connects 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 pull-up for detecting the button press. This button also provides a wake-up source from low-power modes of the device.
10. KitProg2 application selection button (SW4): This button can be used to switch between KitProg2 programming mode and custom application mode. For more details, see the KitProg2 User Guide.
11. Digilent Pmod-compatible I/O header (J14): This header can be used to connect Digilent Pmod 1 x 6 pin modules.
12. Power LED (LED4): This is the amber LED that indicates the status of power supplied to PSoC 6 MCU.

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13. Kitprog2 status LEDs (LED1, LED2, and LED3): Red, amber, and green LEDs (LED1, LED2, and LED3 respectively) indicate the status of KitProg2. For more details on the KitProg2 status, see the KitProg2 User Guide.
14. PSoC 6 MCU reset button (SW1): This button is used to reset PSoC 6 MCU. It connects the PSoC 6 MCU reset (XRES) pin to ground.
15. PSoC 6 MCU I/O headers (J18, J19, and J20): These headers provide connectivity to PSoC 6 MCU GPIOs that are not connected to the Arduino- compatible headers. Most of these pins are multiplexed with onbroad peripherals and are not connected to PSoC 6 MCU by default. For detailed information on how to rework the kit to access these pins, see Table 4-2 on page 46.
16. Arduino-compatible power header (J1): This header powers the Arduino shields. It also has a provision to power the kit though the VIN input.
17. PSoC 6 MCU debug and trace header (J12): This header can be connected to an Embedded Trace Macrocell (ETM)-compatible programmer/debugger.
18. Arduino Uno R3-compatible I/O headers (J2, J3, and J4): These I/O headers bring out pins from PSoC 6 MCU to interface with the Arduino shields. Some of these pins are multiplexed with onboard peripherals and are not connected to PSoC 6 MCU by default. For a detailed information on how to rework the kit to access these pins, see Table 4-2 on page 46.
19. 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 MiniProg3. In addition, an external PSoC 4, PSoC 5LP, or PSoC 6 device can be connected to this header and programmed using KitProg2.
20. CapSense proximity header (J13): A wire can be connected to this header to evaluate the proximity sensing feature of CapSense.
21. 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.
22. System power VDD selection switch (SW5): This switch is used to select the PSoC 6 MCU VDD supply voltage between constant 1.8 V, constant 3.3 V, and variable 1.8 to 3.3 V. In the variable 1.8 to 3.3 V mode, the PSoC Programmer software can control the voltage via KitProg2.
23. Cypress 512-Mbit serial NOR flash memory (S25FL512S, U4): The S25FL512S NOR flash of 512Mb capacity is connected to the serial memory interface (SMIF) 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.
24. PSoC 6 MCU user LEDs (LED8 and LED9): These two user LEDs can operate at the entire operating voltage range of PSoC 6 MCU. The LEDs are active LOW, so the pins must be driven to ground to turn ON the LEDs.
25. 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.
26. WiFi and Bluetooth module (LBEE5KL1DX-883, U6): This kit features the onboard WiFi and Bluetooth combination module to demonstrate the IoT features. The LBEE5KL1DX is a Type 1DX module available with 2.4-GHz WLAN and Bluetooth functionality. Based on Cypress CYW4343W, this module provides high-efficiency RF front-end circuits.
27. Cypress 4-Mbit serial Ferroelectric RAM (CY15B104QSN, U5): Footprint to connect a CY15B104QSN or any other pin-compatible F-RAM.
28. WiFi-BT antenna (ANT1): This is the onboard antenna connected to the WiFi and Bluetooth module.

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Kit Hardware

29. VBACKUP and PMIC control selection switch (SW7, on the bottom side of the board): This switches the VBACKUP supply connection to PSoC 6 MCU between VDDD/KitProg2 and the Super Cap/PSoC 6. When VDDD/KitProg2 is selected, the regulator ON/OFF is controlled by KitProg2. When the super-capacitor is selected, the regulator ON/OFF is controlled by PSoC 6 MCU.
30. PSoC 6 USB Type-C connector (J28): The USB cable provided with the PSoC 6 WiFi-BT Pioneer Kit can also be connected between this USB connector and the PC to use the PSoC 6 MCU USB device applications.
31. Cypress PSoC 6 MCU (CY8C6247BZI-D54, U1): This kit is designed to highlight the features of the PSoC 6 MCU. For details on PSoC 6 MCU pin mapping, see Table 4-2 on page 46.
32. PSoC 6 USB Type-A connector (J27): USB devices can be connected to this USB Type-A connector and communicate with PSoC 6 MCU USB host applications.
33. Arduino-compatible ICSP header (J5): This header provides an SPI interface for Arduino ICSP-compatible shields.
34. PSoC 6 MCU current measurement jumper (J8, on the bottom side of the board): An ammeter can be connected to this jumper to measure the current consumed by the PSoC 6 MCU.
35. KitProg2 (PSoC 5LP) programmer and debugger (CY8C5868LTI-LP039, U2): The PSoC 5LP device (CY8C5868LTI-LP039) serving as KitProg2, is a multi-functional system, which includes a programmer, debugger, USB-I2C bridge, USB-UART bridge, and a USB-SPI bridge. KitProg2 also supports custom applications. For more details, see the KitProg2 User Guide.
36. Battery connector (J15, on the bottom side of the board): This connector can be used to connect a lithium-ion polymer battery. Note that a battery is not included in the kit package and should be purchased separately if you want to demonstrate battery charging.
37. USB PD output (J16): This header provides a voltage output when the USB Type-C power delivery system receives power from an external host connected to J10. See EZ-PD CCG3 Type-C Power Delivery on page 57 for more details.

See Hardware Functional Description on page 59 for details on various hardware blocks.

For some devices in the PSoC 6 MCU family, simultaneous GPIO switching with unrestricted drive strengths and frequency can induce noise in on-chip subsystems affecting CapSense and ADC results. For more details, see the Errata section of the corresponding device datasheet.

Table 4-1 shows the functionalities of the on-board selection switches. Table 4-1. Selection Switches on the Pioneer Board

Switch

Location on the Board

Purpose

Default Position

SW5

Front

Selects the VDD supply of the PSoC 6 MCU between 1.8 V, 3.3 V, and the variable 1.8 V to 3.3 V, which is controlled by KitProg2.

3.3 V

SW7

Back

Selects the VBACKUP supply connection of the PSoC 6 MCU between VDDD and the super-capacitor. When VDDD is selected, the regulator can be turned ON/OFF by KitProg2. When the super-capacitor is selected, the PSoC 6 MCU can turn the regulator ON/OFF.

VDDD/KitProg2

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Figure 4-5 shows the pinout of the Pioneer board. Figure 4-5. Pioneer Board Pinout

Kit Hardware

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Kit Hardware

Table 4-2. Pioneer Board Pinout

PSoC 6 Pin

Primary Onboard Function

Secondary Onboard Function

Connection Details

XRES

Reset

­

P0.0

WCO IN

­

P0.1

WCO OUT

­

P0.2 Arduino header J4.8, D7

­

P0.3

RGB red LED

­

P0.4

User button with Hibernate wakeup capability

­

P0.5

PMIC control

­

P1.0

CapSense Tx

GPIO on nonArduino header
(J19.5)

Populate R174 to connect to the header or remove R62 to disconnect from CapSense.

P1.1

RGB green LED

­

P1.2

GPIO on non-Arduino header (J19.4)

­

P1.3

GPIO on non-Arduino header (J19.3)

­

P1.4

GPIO on non-Arduino header (J19.2)

­

P1.5

Orange user LED

GPIO on nonArduino header
(J19.1)

Connected to primary and secondary functions by default. Remove R27 to disconnect from LED.

P2.0

SDIO DATA0

J25.7 (WL_JTAG_TMS)

Remove R122 (or R110) and mount R115 to disconnect from PSoC 6 and connect the WiFi/BT module to the JTAG connector.

P2.1

SDIO DATA1

J25.3 (WL_JTAG_TDI)

Remove R32 (or R111) and mount R116 to disconnect from PSoC 6 and connect the WiFi/BT module to the JTAG connector.

P2.2

SDIO DATA2

J25.5 (WL_JTAG_TDO)

Remove R128 (or R112) and mount R117 to disconnect from PSoC 6 and connect the WiFi/BT module to the JTAG connector.

P2.3

SDIO DATA3

J25.1 (WL_JTAG_TRSTN)

Remove R109 (or R132) and mount R114 to disconnect from PSoC 6 and connect the WiFi/BT module to the JTAG connector.

P2.4

SDIO CMD

­

P2.5

SDIO CLK

J25.9 (WL_JTAG_TCK)

Remove R108 (or R28) and mount R113 to disconnect from PSoC 6 and connect the WiFi/BT module to the JTAG connector.

P3.0

BT UART TXD

­

BT UART TXD pin of the WiFi/BT module

P3.1

BT UART RXD

­

BT UART RXD pin of the WiFi/BT module

P3.2

BT UART CTS

­

BT UART CTS pin of the WiFi/BT module

P3.3

BT UART RTS

­

BT UART RTS pin of the WiFi/BT module

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Kit Hardware

Table 4-2. Pioneer Board Pinout (continued)

PSoC 6 Pin

Primary Onboard Function

Secondary Onboard Function

Connection Details

P3.4

BT REG ON

­

BT REG ON pin of the WiFi/BT module

P3.5

BT HOST WAKE

­

BT HOST WAKE pin of the WiFi/BT module

P4.0

BT DEV WAKE

­

BT DEV WAKE pin of the WiFi/BT module

P4.1
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 P7.1 P7.2 P7.3

Header J21.1
Arduino J4.1, D0 UART RX
KitProg2 UART TX Arduino J4.2, D1
UART TX KitProg2 UART RX
Arduino J4.3, D2 UART RTS
KitProg2 UART CTS Arduino J4.4, D3 UART CTS
KitProg2 UART RTS Arduino J4.5, D4 Arduino J4.6, D5 Arduino J4.7, D6 Header J21.3
Arduino J3.10, SCL KitProg2 I2C SCL Arduino J3.9, SDA KitProg2 I2C SDA GPIO on non-Arduino
header (J2.15)
GPIO on non-Arduino header (J2.17)
TDO/SWO TDI
TMS/SWDIO TCLK/SWCLK
TRACECLK
CINTA CINTB GPIO on non-Arduino header (J18.5)

­

­

Remove R159 to disconnect from KitProg2 UART TX.

­

Remove R156 to disconnect from KitProg2 UART RX.

Remove R93 to disconnect from KitProg2 UART

­

CTS. This will also disconnect RTS and SPI lines

from KitProg2.

Remove R88 to disconnect from KitProg2 UART

­

CTS. This will also disconnect RTS and SPI lines

from KitProg2.

­

­

­

­

­

Remove R141 to disconnect from KitProg2 I2C SCL.

­

Remove R150 to disconnect from KitProg2 I2C SDA.

­

CapSense Shield
­ ­ ­ ­ GPIO on nonArduino header (J18.6) ­ CSH
CSH

Remove R44 to disconnect from GND and populate R145 to connect to the CapSense shield (hash pattern on the board).
Remove R194 to disconnect from KitProg2 SWDIO. Remove R183 to disconnect from KitProg2 SWCLK.
Populate R181 to connect to J18 header.
Remove C31 (0.47 nF) and populate 10 nF for CSH. Remove R146 to disconnect from header and populate C29 (10 nF) for CSH.

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Kit Hardware

Table 4-2. Pioneer Board Pinout (continued)

PSoC 6 Pin
P7.4

Primary Onboard Function
TRACEDATA[3]

Secondary Onboard Function

Connection Details

GPIO on nonArduino header
(J18.4)

Populate R178 to connect to J18.

P7.5

TRACEDATA[2]

GPIO on nonArduino header
(J18.3)

Populate R179 to connect to J18.

P7.6

TRACEDATA[1]

GPIO on nonArduino header
(J18.2)

Populate R180 to connect to J18.

P7.7

CMOD

GPIO on nonArduino header
(J18.1)

Populate R142 to connect to J18.

P8.0

Proximity

GPIO on nonArduino header
(J20.1)

Populate R64 with zero ohm to connect to header.

P8.1 CapSense Button0 Rx

GPIO on nonArduino header
(J20.2)

Remove R61 to disconnect CapSense pad and populate R172 to connect to header.

P8.2 CapSense Button1 Rx

GPIO on nonArduino header
(J20.3)

Remove R60 to disconnect CapSense pad and populate R166 to connect to header.

P8.3 CapSense Silder0 Rx

GPIO on nonArduino header
(J20.4)

Remove R53 to disconnect CapSense pad and populate R153 to connect to header.

P8.4 CapSense Silder1 Rx

GPIO on nonArduino header
(J20.5)

Remove R52 to disconnect CapSense pad and populate R152 to connect to header.

P8.5 CapSense Silder2 Rx

GPIO on nonArduino header
(J20.6)

Remove R47 to disconnect CapSense pad and populate R149 to connect to header.

P8.6 CapSense Silder3 Rx

GPIO on nonArduino header
(J20.7)

Remove R58 to disconnect CapSense pad and populate R158 to connect to header.

P8.7 CapSense Silder4 Rx

GPIO on nonArduino header
(J20.8)

Remove R59 to disconnect CapSense pad and populate R160 to connect to header.

P9.0

GPIO on non-Arduino header (J2.2)

­

P9.1

GPIO on non-Arduino header (J2.4)

­

P9.2

GPIO on non-Arduino header (J2.6)

­

P9.3

TRACEDATA[0]

GPIO on nonArduino header
(J2.8)

Populate R162 to connect to header.

P9.4

GPIO on non-Arduino header (J2.10)

­

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Table 4-2. Pioneer Board Pinout (continued)

PSoC 6 Pin
P9.5

Primary Onboard Function
GPIO on non-Arduino header (J2.12)

Secondary Onboard Function
­

Connection Details

P9.6

GPIO on non-Arduino header (J2.16)

­

P9.7

GPIO on non-Arduino header (J2.18)

­

P10.0

GPIO on Arduino header J2.1, A0

­

P10.1

GPIO on Arduino header J2.3, A1

­

P10.2

GPIO on Arduino header J2.5, A2

­

P10.3

GPIO on Arduino header J2.7, A3

­

GPIO on Arduino header

P10.4

J2.9, A4

­

PDM_CLK

GPIO on Arduino header

P10.5

J2.11, A5

­

PDM_DAT

P10.6

GPIO on non-Arduino header (J2.13)

­

P10.7

Header J21.5

­

P11.0

FRAM CS

GPIO on nonArduino header
(J18.8)

Connected to primary and secondary functions by default. Remove R175 to disconnect from J18 and load R39 (10K) as FRAM pull-up.

P11.1

RGB Blue LED

­

P11.2

QSPI FLASH CS

GPIO on nonArduino header
(J18.7)

Populate R177 to connect to J18, remove R176 to disconnect from Flash.

P11.3

QSPI FLASH/ FRAM DATA3

­

P11.4

QSPI FLASH/ FRAM DATA2

­

P11.5

QSPI FLASH/ FRAM DATA1

­

P11.6

QSPI FLASH/ FRAM DATA0

­

P11.7

QSPI FLASH/ FRAM CLK

­

P12.0

Arduino J3.4, D11 SPI MOSI

ICSP header (J5.4) and Pmod header
(J14.2)

Remove R77 to disconnect from KitProg2_SPI lines.

P12.1

Arduino J3.5, D12 SPI MISO

ICSP header (J5.1) and Pmod header
(J14.3)

Remove R85 to disconnect from KitProg2_SPI lines.

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Table 4-2. Pioneer Board Pinout (continued)

PSoC 6 Pin
P12.2

Primary Onboard Function
Arduino J3.6, D13 SPI CLK

Secondary Onboard Function

Connection Details

ICSP header (J5.3) and Pmod header
(J14.4)

Remove R81 to disconnect from KitProg2_SPI lines.

P12.4 KitProg2 SPI SELECT

GPIO on nonArduino header
(J19.10)

Connected to primary function by default. Populate R74 to connect to J19 or remove R83 to disconnect KitProg2_SPI_SELECT.

P12.5 PMOD SPI SELECT, J14.1

GPIO on nonArduino header
(J19.9)

Connected to primary and secondary functions by default. Remove R73 to disconnect from J19 or remove R82 to disconnect PMOD_SPI_SELECT.

P12.6

ECO IN

GPIO on nonArduino header
(J19.8)

P12.7

ECO OUT

GPIO on nonArduino header
(J19.6)

P13.0

GPIO on Arduino Header J3.1, D8

­

P13.1

GPIO on Arduino Header J3.2, D9

­

P13.2

USB HOST EN

GPIO on nonArduino header
(J21.2)

P13.3

USB_INT_L

GPIO on nonArduino header
(J21.4)

P13.4 USB_DEV_VBUS_DET

GPIO on nonArduino header
(J21.6)

P13.5

GPIO on non-Arduino header J21.8

­

P13.6

GPIO on non-Arduino header J2.19

Remove R44 to disconnect from GND and populate CapSense shield R45 to connect to the CapSense shield (hash pat-
tern on the board).

P13.7

Red user LED

GPIO on nonArduino header
(J2.20)

Remove R31 to disconnect from LED

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4.2
4.2.1

CY8CKIT-028-TFT Details
CY8CKIT-028-TFT Display Shield
Figure 4-6. TFT Display Shield

Kit Hardware

The TFT display shield has the following peripherals:
1. 2.4-inch TFT display: This is a Newhaven 2.4-inch TFT LCD module with 240×320 pixel resolution and uses a Sitronix ST7789 display controller. This display module is configured for an 8-bit parallel pinout connection (8080-Series) to interface with the PSoC 6 device on the baseboard.
2. Inertial Measurement Unit (U1): This Inertial Measurement Unit (IMU) is a three-axis acceleration and three-axis gyroscopic motion sensor that can be used to count steps to emulate a pedometer or similar application.
3. Ambient light sensor (Q1): This is a high photosensitive NPN phototransistor IC that can be used to detect intensity of ambient light.
4. PDM microphone (U2): This microphone converts voice inputs to pulse- density modulated (PDM) digital signals.
5. Arduino-compatible I/O header (J2, J3, and J4): These headers interface with the PSoC 6 MCU GPIOs on the baseboard.
6. Arduino-compatible power header (J1): This header receives power from header J1 on the board.
7. Voltage regulator – 1.8 V (U4): An LDO that converts 3.3 V to 1.8 V for the digital supply of the audio codec.
8. TFT display connector (J5): This connector is used to connect the TFT display to the circuits on the TFT display shield.
9. Audio Codec (U3): This is a low power consumption, 32-bit stereo codec with speaker amplifiers. The left channel and right channel amplifier output pins of the device are connected to the on-board audio jack.
10. Audio Jack (J6): The on-board audio jack provides a provision of connecting both AHJ and OMTP headphones. The headset standard can be set by an onboard switch SW1.
11. Audio Jack Selection Switch (SW1): This on-board selection switch can set the headphone type either to AHJ and OMTP standard connected to the audio jack.

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Table 4-3. TFT Shield Pinout

Pin #
J1.1 J1.2

Arduino Pin

Arduino Function

VIN

VIN

GND

GND

TFT Shield Function
NC GND

J1.3

GND

GND

GND

J1.4

5 V

5 V

J1.5

3.3 V

3.3 V

NC VCC 3.3V

J1.6

RESET

RESET

NC

J1.7

I/O REF

I/O REF

VIO REF

J1.8

­

­

NC

J2.1

A0

ADC0

ALS OUT

J2.2

­

J2.3

A1

­ ADC1

TFT DISP DB8 Codec PDN SW

J2.4

­

­

TFT DISP DB9

J2.5

A2

J2.6

­

ADC2 ­

IMU INT1 TFT DISP DB10

J2.7

A3

ADC3

IMU INT2

J2.8

­

J2.9

A4

­
ADC4 / SDA (I2C)

NC PDM CLK

J2.10

­

­

TFT DISP DB11

J2.11

A5

ADC5

PDM DATA

J2.12

­

­

TFT DISP DB12

J3.1

D8

J3.2

D9

DIGITAL I/O PWM

TFT DISP DB14 TFT DISP DB15

J3.3

D10

SS/PWM

TFT DISP RD_L

J3.4

D11

J3.5

D12

MOSI/PWM MISO

TFT DISP WR_L TFT DISP D/C

J3.6

D13

SCK

TFT DISP RST_L

J3.7

GND

GND

GND

J3.8

AREF

analog ref i/p NC

J3.9

SDA

SDA

I2C SDA (IMU and audio codec)

J3.10

SCL

SCL

J4.1

D0

RX

I2C SCL (IMU and audio codec) I2S MCLK

J4.2

D1

TX

I2S TX SCK

J4.3

D2

J4.4

D3

DIGITAL I/O PWM, I/O

I2S TX WS I2S TX SDO

J4.5

D4

DIGITAL I/O

I2S RX SCK

J4.6

D5

J4.7

D6

PWM, I/O PWM, I/O

I2S RX WS I2S RX SDI

J4.8

D7

DIGITAL I/O

TFT DISP DB13

a. Mount R162 (on the Pioneer board) to connect J2.10 of the TFT board to P9[4].

Pioneer Board Connection
VIN GND GND 5 V 3.3 V SWD RESET P6 VDD NC P10[0] P9[0] P10[1] P9[1] P10[2] P9[2] P10[3] P9[3] P10[4] P9[4]a P10[5] P9[5] P13[0] P13[1] P12[3] P12[0] P12[1] P12[2] GND VREF P6[1] P6[0] P5[0] P5[1] P5[2] P5[3] P5[4] P5[5] P5[6] P0[2]

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Kit Hardware
Figure 4-7 shows the connectivity of the TFT display shield with the CY8CKIT-062-WiFi-BT baseboard through the headers. Figure 4-7. TFT Shield Pinout

Notes:
The TFT display operation at 1.8 V is currently not supported in this version of the kit. Ensure the following conditions are met when the CY8CKIT-028-TFT Display Shield is mounted on the PSoC 6 WiFi-BT Pioneer Board.
1. Ensure that SW5 is either set to 3.3 V or set to the 1.8 V­3.3 V VARIABLE with PSoC Programmer or PSoC Creator selecting a voltage of 2.5 V or higher.
2. If you want to erase the internal flash of the PSoC 6 MCU, ensure that PSoC Programmer or PSoC Creator setting is not 1.8 V when the SW5 is set to the 1.8 V­3.3 V VARIABLE position.

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Kit Hardware

4.3
4.3.1
4.3.2
4.3.3

KitProg2
Introduction
The PSoC 6 WiFi-BT Pioneer Kit can be programmed and debugged using the onboard KitProg2. The KitProg2 is a multi-functional system, which includes a programmer, debugger, USB-I2C bridge, USB-UART bridge, and USB-SPI bridge. KitProg2 also supports mass storage programming and CMSIS-DAP, and custom applications. A PSoC 5LP device is used to implement KitProg2 functionality. The KitProg2 is integrated in most PSoC development kits. For more details on the KitProg2 functionality, see the KitProg2 User Guide.
Before programming the device, ensure that PSoC Creator and PSoC Programmer software are installed on the computer. See Install Kit Software on page 19 for more information.
Programming using PSoC Programmer
PSoC Programmer can be used to program existing .hex files into the PSoC 6 WiFi-BT Pioneer Kit. For more details, see the “Programming Using PSoC Programmer” section in the KitProg2 User Guide.
The KitProg2 firmware normally does not require any update. If necessary you can use the PSoC Programmer software to update the KitProg2 firmware. For more details, see the “Updating the KitProg2 Firmware” section in the KitProg2 User Guide.
Kit Enumeration and Programming Modes of KitProg2
The PSoC 5LP device in the PSoC 6 WiFi-BT Pioneer Kit supports two types of programming interfaces (proprietary SWD programming and CMSIS-DAP mode programming). You can press the mode select button (SW3) to switch between KitProg2 SWD and CMSIS-DAP modes. When the SWD-based programming mode is active, both the amber LEDs (LED2 and LED4) will turn ON (see Figure 4-8). In the CMSIS-DAP mode, only LED4 will be ON, and LED1, LED2, and LED3 are OFF (see Figure 4-9). For more details on the KitProg2 programming interfaces, see the KitProg2 User Guide.
Figure 4-8. KitProg2 SWD Programming Interface

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Kit Hardware
To know whether the kit is successfully enumerated, open PSoC Programmer software and connect the kit to your PC. Check the status of the onboard LEDs and the Port Selection window in PSoC Programmer to know the KitProg2 programming interface, see Figure 4-8 and Figure 4-9. Figure 4-9. CMSIS-DAP Programming Interface

4.3.4

Note that if you are programming the kit using WICED 6.1 (or later), the CMSIS-DAP programming mode should be enabled. After confirming the successful enumeration of the kit, you can close PSoC Programmer if you want to program the kit either through PSoC Creator or through WICED 6.1.
The KitProg2-based programming interface allows you to program PSoC 6 MCU with the desired .hex files.

USB-UART Bridge

The KitProg2 on the PSoC 6 WiFi-BT Pioneer Kit can act as a USB-UART bridge. The UART and flow-control lines between the PSoC 6 MCU and the KitProg2 are hard-wired on the board, as Figure 4-10 shows. For more details on the KitProg2 USB-UART functionality, see the KitProg2 User Guide.

Figure 4-10. UART Connection between KitProg2 and PSoC 6

UART

KitProg2 TX
P12[6]

UART_TX

PSoC 6 RX P5[0]

USB

RX P12[7] CTS P15[5]

UART_RX UART_CTS

TX P5[1] RTS P5[2]

P1[6] RTS

UART_RTS

CTS P5[3]

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Kit Hardware

4.3.5

USB-I2C Bridge
The KitProg2 can function as a USB-I2C bridge and communicate with the Bridge Control Panel (BCP) software. The I2C lines on the PSoC 6 MCU are hard-wired on the board to the I2C lines of the KitProg2, with onboard pull-up resistors as Figure 4-11 shows. The USB-I2C supports I2C speeds of 50 kHz, 100 kHz, 400 kHz, and 1 MHz. For more details on the KitProg2 USB-I2C functionality, see the KitProg2 User Guide.
Figure 4-11. I2C Connection between KitProg2 and PSoC 6

KitProg2

I2C P6_VDD

PSoC 6

USB

R43 4.7K
P12[1] P12[0]

R40 4.7K
I2C_SDA
I2C_SCL

P6[1] P6[0]

4.3.6

USB-SPI Bridge
The KitProg2 can function as a USB-SPI bridge. The SPI lines between the PSoC 6 MCU and the KitProg2 are hard-wired on the board, as Figure 4-12 shows. For more details on the KitProg2 USBSPI functionality, see the KitProg2 User Guide.
Figure 4-12. SPI Connection between KitProg2 and PSoC 6

SPI

KitProg2 P15[1]

SPI_MOSI

PSoC 6 P12[0]

USB

P12[5] P15[2]

SPI_MISO SPI_SCLK

P12[1] P12[2]

P15[3]

SPI_SSEL

P12[4]

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4.4

Kit Hardware

EZ-PD CCG3 Type-C Power Delivery
The Pioneer board includes a Cypress EZ-PD CCG3 power delivery system. The EZ- PD CCG3 is pre-programmed and can deliver power from a Type-C port to the onboard header J16 (known as the consumer path), while simultaneously charging a 3.7-V, lithium-ion polymer battery connected to J15. In addition, the power delivery system can deliver power to a Type-C peripheral, such as a mobile phone, with the power derived from the VIN (J9) supply (known as the provider path). Note that to use the EZ-PD CCG3 Type-C power delivery system, a power delivery capable USB Type-C to Type-C cable should be connected to J10. This cable is not included in the kit, and should be purchased separately.
Figure 4-13. Type-C Block Diagram

D+/D-

KitProg2 (PSoC 5LP)

VSYS

Consumer CCG3 chcaorngtinrogl current control

CC

EZ-PD CCG3

(Cypress)

Provider

control

VBUS Monitor

VIN Monitor

Consumer Path FET

LED (o/p indication)

External power o/p

12V Terminal @1A Block

Provider Path FET

Load switch with Slew rate VIN
control

USB (Type C)

5V @0.5A 9V/ 12V @3A

VBUS

VIN (Terminal / Arduino Header)

5~12V @2A

VIN

Buck/ Boost

5.3V @2A

VCC_5V

Li-Po battery 3.7V @800mAH

4.2V @100mA/1.5A
CCG3 charging current control

Li-Po battery charger

5V @1A 5V @1.5A

3.7V~4.2V BATPP

VSYS

Legend

Electrical Switch Cypress Device

Power Lines
Control Lines

Signal Lines

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Kit Hardware

The power delivery system works as follows:
1. If the power delivery system detects a non Type-C power adapter (legacy USB), CCG3 will charge the battery at 100 mA. CCG3 will also disable the consumer and provider paths.
2. On detection of a Type-C power adapter, CCG3 will request 5 V at 3 A, 9 V at 3 A, or 12 V at 3 A depending on the host capability. After the power level is successfully negotiated, the consumer path is enabled by turning ON the load switch U13. This load switch is hardware-limited to supply up to 1 A through header J16 to an external device. CCG3 will use the remaining current to charge the battery connected to J15 at a higher charging rate up to 1.5 A and PD output voltage availability indicator (LED7) will be turned ON.
3. CCG3 will also advertise that it can provide 5 V, 9 V, or 12 V if a DC power supply capable of providing either of these voltages is connected at VIN (J9). The current is limited in this case to 1 A. Note that the external supply must be capable of providing this current. If a connected, Type-C device requests power, the provider path is enabled by turning on load switch U31. Table 4-4 details the power delivery scenarios for onboard CCG3.

Table 4-4. Type-C table Power Delivery Scenarios

USB Host/Consumer Capability

VIN

Consumer Provider External USB PD Battery Charging

Capability Capability Out (J16 Header)

Current

Non Type-C Power

<5 V

N/A

0

0

adapter (Legacy USB)

5 V

N/A

0

0

100 mA 0

Type-C, PD power

<12 V

12 V@3A

0

adapter (12-V capable)a

12 V

N/A

0

12 V@1Ab 0

1.5A max 0

Type-C, capable of providing max 9 Va

<9 V

9 V@3A

0

9 V

N/A

0

9 V@1A 0

1.5A max 0

Type-C only, capable of

<5

5 V@3A

0

providing max 5 Va

5

N/A

0

5 V@1A 0

1.5A max 0

12 V

0

5 V@1A

0

0

Type-C, requesting 12 Va

12 V

0

12 V@1A

0

0

9 V

0

5 V@1A

0

0

Type-C, requesting 9 Va

9 V

0

9 V@1A

0

0

5 V

0

5 V@1A

0

0

Type-C, requesting 5 Va

5 V

0

5 V@1A

0

0

Type-C, requesting another voltage

5 V < VIN <12 V

0

5 V@1A

0

0

a. The table is valid only if the Type-C cable is connected first and then VIN is applied. If VIN is applied first, consumer capability will be N/A. b. Due to the voltage drop-in series components, the voltage at J16 is ~9 V when 12 V PD power adapter is used.

For more information on USB Type-C power delivery with CCG3 device, see the EZ-PD CCG3 webpage.

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A. Appendix

A.1 A.2
A.2.1
A.2.2

Schematics
Refer to the schematic files available in the kit installation directory under the following paths: CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit1.0
HardwareCY8CKIT-028-TFTCY8CKIT-028-TFT Schematic.pdf

CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit1.0 HardwareCY8CKIT-062-WiFi-BTCY8CKIT-062-WiFi-BT Schematic.pdf Hardware Functional Description This section explains the individual hardware blocks of the PSoC 6 WiFi-BT Pioneer board. PSoC 6 MCU (U1) PSoC 6 MCU is Cypress’ latest, ultra-low-power PSoC specifically designed for wearables and IoT products. It is a programmable embedded system-on-chip, integrating a 150-MHz CM4 as the primary application processor, a 100-MHz CM0+ that supports low-power operations, up to 1 MB Flash and 28 8KB SRAM, CapSense touch-sensing, and custom analog and digital peripheral functions. The programmable analog and digital peripheral functions allow higher flexibility, in-field tuning of the design, and faster time-to-market. For more information, see the PSoC 6 MCU webpage and the datasheet. 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. PSoC 5LP (U2) An onboard PSoC 5LP (CY8C5868LTI-LP039) is used as KitProg2 to program and debug the PSoC 6 MCU. The PSoC 5LP connects to the USB port of a PC through a USB connector and to the SWD and other communication interfaces of PSoC 6 MCU. The PSoC 5LP is a system-level solution providing MCU, memory, analog, and digital peripheral functions in a single chip. The CY8C58LPxx family offers a modern method of signal acquisition, signal processing, and control with high accuracy, high bandwidth, and high flexibility. Analog capability spans the range from thermocouples (near DC voltages) to ultrasonic signals. For more information, visit the PSoC 5LP webpage. Also, see the CY8C58LPxx family datasheet.

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A.2.3

Serial Interconnection between PSoC 5LP and PSoC 6 MCU
In addition to being used as an onboard programmer, the PSoC 5LP functions as an interface for the USB-UART, USB-I2C, and USB-SPI bridges, as shown in Figure A-1. The USB-Serial pins of the PSoC 5LP are hard-wired to the I2C/UART/SPI pins of the PSoC 6 MCU. These pins are also available on the Arduino-compatible I/O headers; therefore, the PSoC 5LP can be used to control Arduino shields with an I2C/UART/SPI interface.
Figure A-1. Schematics of Programming and Serial Interface Connections

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A.2.4

EZ-PD CCG3 Power Delivery System
Cypress EZ-PD CCG3 provides a complete solution ideal for power adapters, power banks, Type-C dongles, monitors, docks, and notebooks. See EZ-PD CCG3 Type-C Power Delivery on page 57 for more details of the power delivery system implementation on the Pioneer board.
Figure A-2. Schematics of EZ-PD CCG3 Power Delivery System

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Figure A-3. EZ-PD CCG3 Power Delivery Setup using Two CY8CKIT-062-WiFi-BT Kits

A.2.5

Power Supply System
The power supply system on this board is versatile, allowing the input supply to come from the following sources:
5 V, 9 V, or 12 V from the onboard USB Type-C connector
5 V to 12 V power from an Arduino shield or from external power supply through VIN header J9 or J1
3.7 V from a rechargeable Li-Po battery connected to J15
5 V from an external programmer/debugger connected to J11 and J12
The power supply system is designed to support 1.8 V to 3.3 V operation of the PSoC 6 MCU. In addition, an intermediate voltage of 5 V is required for operation of the power delivery circuitry and KitProg2. Therefore, three regulators are used to achieve 1.8 V to 3.3 V and 5 V outputs ­ a buck boost regulator (U30) that generates a fixed 5 V from an input of 5 V to 12 V, and a main regulator (U10) that generates either a variable 1.8 V to 3.3 V, or a fixed 1.8 V, or a fixed 3.3 V from the output of U30. Figure A-4 shows the schematics of the voltage regulator and power selection circuits. In addition to this, the battery charger U19 also functions as a boost regulator. U19 boosts the battery voltage to provide a 5 V to the main regulator U10. This feature is enabled only when the VIN and the USB supply are unavailable.
The voltage selection is made through switch SW5. In addition, an onboard 330-mF super-capacitor (C103) can be used to power the backup domain (VBACKUP) of PSoC 6 MCU. Switch SW7 selects the VBACKUP supply connection of PSoC 6 MCU between VDDD and the super-capacitor. When VDDD is selected, the variable regulator ON/OFF terminal is controlled by KitProg2. When the supercapacitor is selected, the regulator ON/OFF terminal is controlled by PSoC 6 MCU. To ensure proper operation of the PSoC 6 MCU, the super-capacitor, when selected, must be charged internally by PSoC 6 MCU before turning OFF the regulator. For more details of the PSoC 6 MCU backup system and power supply, see the PSoC 62 Architecture Technical Reference Manual.

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Table A-1 details the different powering scenarios for Pioneer board.

Table A-1. Power Supply Scenarios

Power Inputs

Board Condition

USB

VIN

ETM Header (VTARG_IN)

Battery Connected

JTAG/SWD Header
(VTARG_REF)

Main Regulator Powered by

PSoC

Battery

Powered by Charging

Non Type-C

power adapter (legacy USB),

<5

5 V

N/A

Yes

N/A

Type-C

Main Regulator

100 mA

5

N/A

N/A

N/A

VIN

Main Regulator

No

Type-C, PD < PD power power adapter adapter

N/A

Yes

N/A

Type-C

Main Regulator

1.5A

PD power

adapter,

N/A

N/A

N/A

<12 V

VIN

Main Regulator

No

0 V

5 V­12 V

N/A

N/A

N/A

VIN

Main Regulator

No

0 V

0 V

5 V

N/A

N/A

ETM

Main

(VTARG_IN) Regulator

No

0 V

0 V

0 V

3.2 V­4.2 V

N/A

Battery

Main Regulator

No

JTAG/SWD

0 V

0 V

0 V

0 V

1.8 V­3.3 V

N/A

(VTARG_RE No

F)

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Figure A-4. Schematics of Power Supply System

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A.2.6
A.2.6.1 A.2.6.2 A.2.6.3
A.2.6.4

Expansion Connectors
Arduino-compatible Headers (J1, J2, J3, J4, and J5)
The board has five Arduino-compatible headers: J1, J2, J3, J4, and J5 (J5 is not populated by default). You can connect 3.3-V Arduino-compatible shields to develop applications based on the shield’s hardware. Note that 5-V shields are not supported and connecting a 5-V shield may permanently damage the board. See Table 4-2 on page 46 for details on PSoC 6 MCU pin mapping to these headers.
PSoC 6 MCU I/O Headers (J18, J19, and J20)
These headers provide connectivity to PSoC 6 MCU GPIOs that are not connected to the Arduinocompatible headers. Most of these pins are multiplexed with onboard peripherals and are not connected to PSoC 6 MCU by default. For detailed information on how to rework the kit to access these pins, see PSoC 6 WiFi-BT Pioneer Board Reworks on page 71.
PSoC 5LP GPIO Header (J6)
J6 is a 8×2 header provided on the board to bring out several pins of the PSoC 5LP to support advanced features such as a low-speed oscilloscope and a low- speed digital logic analyzer. This header also contains the USB-UART, USB-I2C, and USB-SPI bridge pins that can be used when these pins are not accessible on the Arduino headers because a shield is connected. The additional PSoC 5LP pins are connected directly to the internal programmable analog logic of PSoC 5LP. This header also has GPIOs for custom application usage. J6 is not populated by default. Note that the SPI, RTS, and CTS lines on these headers are directly from PSoC 5LP (before level translator).
KitProg2 Custom Application Header (J7)
A 5×2 header is provided on the board to bring out more PSoC 5LP GPIOs for custom application usage. This header also brings out the PSoC 5LP programming pins and can be programmed using MiniProg3 and a five-pin programming connector. J7 is not populated by default.

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A.2.7

CapSense Circuit
A CapSense slider and two buttons, all of which support both self-capacitance (CSD) and mutualcapacitance (CSX) sensing, and a CSD proximity sensor (header) are connected to PSoC 6 MCU as Figure A-5 shows. Four external capacitors ­ CMOD and CSH for CSD, CINTA and CINTB for CSX are present on the Pioneer board. Note that CSH is not loaded by default. For details on using CapSense including design guidelines, see the Getting Started with CapSense Design Guide.
Figure A-5. Schematics of CapSense Circuit

A.2.8

LEDs
LED1, LED2, and LED3 (red, amber, and green respectively) indicate the KitProg2 status (see the KitProg2 User Guide for details). LED4 (amber) indicates the status of power supplied to PSoC 6 MCU. LED7 (green) indicates the status of power delivery output on J16. LED6 (red) indicates the battery charger status.
The Pioneer board also has two user-controllable LEDs (LED8 and LED9) and an RGB LED (LED5) connected to PSoC 6 MCU pins for user applications.

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A.2.9

Push Buttons
The PSoC 6 WiFi-BT Pioneer Kit has a reset button and three user buttons: The reset button (SW1) is connected to the XRES pin of the PSoC 6 MCU, and is used to reset
the device. The user button (SW2) is connected to pin P0[4] of the PSoC 6 MCU. (SW2) can be changed to
active HIGH mode by changing the zero resistors as shown in the figure below. The remaining two buttons ­ SW3 and SW4 are connected to the PSoC 5LP device for program-
ming mode and custom application selection respectively (see the KitProg2 User Guide for details).
All the buttons connect to ground on activation (active LOW) by default.
Figure A-6. Schematics of Push Buttons

A.2.10

Cypress NOR Flash
The Pioneer board has a Cypress NOR flash memory (S25FL512SAGMFI011) of 512 Mb capacity. The NOR flash is connected to the serial memory interface (SMIF) of PSoC 6 MCU. The NOR flash device can be used for both data and code memory with execute-in-place (XIP) support and encryption.
Figure A-7. Schematics of Cypress NOR Flash

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A.2.11

Cypress Quad SPI F-RAM
The Pioneer Board contains the CY15B104QSN ExcelonTM F-RAM device, which can be accessed through Quad SPI interface. The F-RAM is 4-Mbit (512K × 8) and is capable of Quad SPI speed up to 108 MHz but PSoC 6 MCU is limited to 80 MHz.
Note that if P6_VDD is set to 1.8 V, the speed is limited to 75 MHz. This limitation is only specific to this kit.
Figure A-8. Schematics of Cypress Quad SPI F-RAM

FRAM_VDD

R39

10K

No Load

FRAM_CS_P11_0 P11_5 P11_4

FRAM

FRAM_VDD U5

1

8

2 CS

VDD 7

3 SO/IO1 RESET/IO3 6

4 WP/IO2

SCK 5

VSS

SI/IO0

C17 0.1uF
P11_3 P11_7 P11_6

P6_VDD R13

FRAM_VDD 0ohm

2 21 1

J26
HDR 2×1 No Load

CY 15B104QSN
P11_3 R17 P11_4 R38

FRAM_VDD
10K No Load 10K No Load

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A.2.12

WiFi and Bluetooth Module
The Pioneer board features an onboard WiFi and Bluetooth combination module to demonstrate the wireless communication features. This LBEE5KL1DX is a Type 1DX module available with 2.4-GHz WLAN and Bluetooth functionality. Based on Cypress CYW4343W, this module provides high-efficiency RF front-end circuits.

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A.2.13

USB Host and USB Device Connections
The PSoC 6 MCU can be configured as either a USB host or USB device. When PSoC 6 is programmed as a host controller, you can connect an external device such as mouse, keyboard, and flash memory to the USB Type-A receptacle port (J27). When the PSoC 6 MCU is programmed as a USB device, you can connect the kit either to a PC or to another host controller through a Type-C cable at the USB Type-C Connector (J28).

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A.3
A.3.1

PSoC 6 WiFi-BT Pioneer Board Reworks
Bypass Protection Circuit on Program and Debug Header (J11)
The 10-pin header allows you to program and debug PSoC 6 MCU using an external programmer such as MiniProg3. This header has a protection circuit that cuts- off any voltage greater that 3.4 V on VTARG_REF pin. This is to ensure that PSoC 6 MCU and other 3.3-V devices do not get damaged due to overvoltage.

If the external programmer provides a slightly higher voltage, say 3.42 V, and you still need to use the programmer, you can bypass this protection circuit by populating the bypass zero-ohm resistor R196.
Note that this change will compromise the protection circuit when an external supply is used and will permanently damage any 3.3-V device if the external voltage exceeds absolute maximum limit of the device. See the respective device datasheet for absolute maximum voltage limits.

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A.3.2

Notes:
1. If you are programming the PSoC 6 MCU using a MiniProg3 connected to J11, make sure the voltage is set at either 2.5 V or at 3.3 V.
2. If you want to program the PSoC 6 MCU using MiniProg3 at the 1.8 V condition, make sure you are populating the 0-ohm resistor R196 on the board. This is to bypass the overvoltage protection circuit, as the protection circuit does not allow programming of the device at 1.8 V.
3. Powering PSoC 6 through MiniProg3 sometimes turns on the LED4. This is due to the reverse conduction from PSoC 6 VDD domain to the VCC_3V3 domain when there is no USB device connected at J10.
4. Do not mount the CY8CKIT-028-Display shield on the PSoC 6 Pioneer board at the time of programming and debugging through the J11 header. This causes extra load on the external programmer, and hence the programmer may not be able to power-up the PSoC 6 supply domain.
PSoC 6 MCU User Button (SW2)
By default, this button connects the PSoC 6 MCU pin to ground when pressed, and you need to configure the PSoC 6 MCU pin as a digital input with resistive pull-up for detecting the button press. If you want to sense active HIGH on the PSoC 6 MCU pin, resistor R67 should be removed and R68 should be populated. This will connect the button connecting the PSoC 6 MCU pin to VBACKUP when pressed. Additionally, footprints are provided for pull-up and pull-down resistors that can be populated if external pull-up is required.

A.3.3

SWD Connector Receptacle (J29)
This connector can be used for conductive measurements and can also be used to connect external antenna. This is not loaded by default. Remove L1, populate L13, and the SWD connector (J29) to connect the external antenna. See the BOM for recommended part numbers.

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A.3.4 A.3.5

CapSense Shield
The hatched pattern around the CapSense buttons and slider are connected to ground. If liquid tolerance is required, this pattern needs to be connected to the shield pin. This pattern can be connected to either of the two ports P6.3 or P13.6 populated by R138 or R137, respectively. In both cases, resistor R44 connecting the hatched pattern to ground needs to be removed. These pins need to be configured as a shield pin in PSoC Creator.
Connecting the hatched pattern to shield instead of ground will also reduce parasitic capacitance of the sensors.
CSH
The shield tank capacitor (CSH) is not populated by default. This capacitor is optional, and can be used for an improved shield electrode driver when CSD sensing is used. You can remove R146 to disconnect port 7.3 from header and populate C29 (10 nF) for CSH. See the bill of material (BOM) for the recommended part number.

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A.3.6

LiPo Battery Charger
Battery connector (J15) for lithium-ion polymer battery charger is not loaded by default; this need to be populated to evaluate battery charging and battery powering option. See the BOM for the recommended part numbers. Recommended lithium-ion polymer rate is 3.7 V at 850 mAH or higher. SparkFun Electronics PRT-13854 or equivalent. batteries can be used

A.3.7
A.4

Multiplexed GPIOs
Some PSoC 6 MCU pins are multiplexed with onboard peripherals and are not connected to connectors or other secondary components by default. See Table 4-2 on page 46 for details on modification required to access these pins.
Bill of Materials
Refer to the BOM files in the following paths in the kit software installed:

CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit1.0 HardwareCY8CKIT-062-WiFi-BTCY8CKIT-062-WiFi-BT PCBA BOM.xlsx CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit1.0 HardwareCY8CKIT-028-TFTCY8CKIT-028-TFT PCBA BOM.xlsx

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A.5

WICED Configuration
This section describes the parts of the PSoC 6 MCU that are configured by WICED Studio 6.1. This section includes the following tables: Items that should not be changed Items that should be changed with extreme caution Items that can be changed under certain circumstances Items that WICED configures only if required
Configurations that should not be changed

Name

Configuration

System Clocks

Used For

Clk_Slow

No Divider

Clocking M0+ Core, and DMA/DW. Clk_Slow needs to be the same as Clk_Peri for SDIO to function properly

Peripherial Clocks

Divider Type

Divider # Used For

8 Bit

0

SDIO. Do not share with other peripherals

GPIO

Port

Pin

Used For

2

0

SDIO

2

1

SDIO

2

2

SDIO

2

3

SDIO

2

4

SDIO

2

5

SDIO

2

6

SDIO

11

2

SMIF

11

3

SMIF

11

4

SMIF

11

5

SMIF

11

6

SMIF

11

7

SMIF

Interrupts

Name

Number Priority

UDB

122

2

DW1_1

67

3

DW1_3

69

3

SMIF

142

1

Do not disable interrupts for long periods of time; this will have adverse side-effects on the SDIO and SMIF operation.

UDBs

UDB configuration should not be changed; it is pre-configured for SDIO and TFT display.

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DMA DW0_0 DW0_2 DW1_1

Priority 1 1 0

DMAs Used For SDIO SDIO SDIO. Must be highest priority DMA in system

DW1_3

0

SDIO. Must be highest priority DMA in system

Do not create another DMA channel that will block DW1_1 or DW1_3 for a long period. All other channels must be of lower priority and preemptable. Never disable the DMA.

Bus Access Priority
DW1 = 0 (Highest) DW0 = 1 CM4 = 2 CM0+ = 2
Do not change, required for SDIO operation
SysTick

SysTick is configured to run off CM4 Clock (100 MHz), and is configured to run at 1 msec.

Trigger Muxes
The following Trigger Muxes are used for SDIO and should not be modified: (TRIG10_IN_CPUSS_DW0_TR_OUT2, TRIG10_OUT_UDB_TR_DW_ACK4) (TRIG14_IN_UDB_TR_UDB5, TRIG14_OUT_TR_GROUP0_INPUT49) (TRIG0_IN_TR_GROUP14_OUTPUT6, TRIG0_OUT_CPUSS_DW0_TR_IN1) (TRIG14_IN_UDB_TR_UDB0, TRIG14_OUT_TR_GROUP0_INPUT48) (TRIG1_IN_TR_GROUP14_OUTPUT5, TRIG1_OUT_CPUSS_DW1_TR_IN3) (TRIG14_IN_UDB_TR_UDB6, TRIG14_OUT_TR_GROUP0_INPUT47) (TRIG1_IN_TR_GROUP14_OUTPUT4, TRIG1_OUT_CPUSS_DW1_TR_IN1) (TRIG14_IN_UDB_TR_UDB3, TRIG14_OUT_TR_GROUP0_INPUT46) (TRIG0_IN_TR_GROUP14_OUTPUT3, TRIG0_OUT_CPUSS_DW0_TR_IN0)

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Configurations that can be changed, but will have adverse side-effects

Name Clk_Peri
Clk_Fast Clk_Hf[0] Clk_Hf[2] FLL

Configuration
Divder = 1
Divider = 1
Input: Clk_path_0 (FLL) Divider: 1 Frequency: 100 MHz Input: Clk_path_0 (FLL) Divider: 2 Frequency: 50 MHz Input: IMO Output: 100 MHz

System Clocks

Used For

Notes

Source clock for all peripheral

The SDIO clock is always one-quarter of Clk_Peri. Any change in the frequency of Clk_Peri will reduce SDIO clock speed, thus WiFi throughput. Communication with the CY4343W radio will fail if the SDIO clock is slower than 6 MHz.
Also the WICED API for UART, SPI, I2C, PWM, CapSense, ADC, and so on, assume that this clock is 100 MHz. So any changes will cause unexpected behavior when using WICED drivers.

Clock for CM4

Reducing the CM4 clock frequency reduces WiFi throughput because the CM4 is unable to process packets as fast

Clocking CM4, CM0, and Peripheral

Clk_Hf[0] is the root of Clk_Peri, Clk_Fast and Clk_Slow. Any changes will reduce WiFi throughput and cause WICED drivers to have unexpected behavior

Clock for SMIF (QSPI)

Any changes to this clock will cause the QSPI to run slower

Clk_Hf[0] root and Clk_Hf[2]

See Clk_Hf[0] and Clk_HF[2]

Note: If you desire to change these configurations, contact Cypress technical support.

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Default configurations in WICED configured; these can be changed if needed.

Name Clk_Hf[1]

Configuration

System Clocks Used For

Notes

Input: Clk_path_1 (PLL) Divider: 1
Frequency: 90 MHz

Clocking audio subsystem

The WICED audio API assume this clock is configured for 90 MHz. If not using WICED audio API feel free to change. If using WICED audio API do not change.

PLL
Divider Type 8 Bit
16 bit
Port 5
5 0 1 11 0 8 8 8 8 8 8 8

Input: IMO Output: 90 MHz
Divider #
2
5
Pin 0
1 3 1 1 4 1 2 3 4 5 6 7

Clk_HF[1] root See note on Clk_Hf[1]

Peripheral Clocks Used For
CapSense

Notes
If not using WICED CapSense API, feel free to change. If using WICED CapSense API, do not change.

WICED STDIO UART GPIO
Used For WICED STDIO
UART WICED STDIO
UART RED LED Green LED Blue LED
SW2 CapSense
CapSense
CapSense
CapSense
CapSense
CapSense
CapSense

If not using WICED STDIO UART, feel free to change, otherwise do not change
Notes
If not using WICED STDIO UART, feel free to change, otherwise do not change
If not using WICED STDIO UART, feel free to change, otherwise do not change
Configured for Strong Drive Configured for Strong Drive Configured for Strong Drive Configured for Pull-Up If not using WICED CapSense, feel free to use If not using WICED CapSense, feel free to use If not using WICED CapSense, feel free to use If not using WICED CapSense, feel free to use If not using WICED CapSense, feel free to use If not using WICED CapSense, feel free to use If not using WICED CapSense, feel free to use

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Name PDM Interrupt I2S Interrupt SAR Interrupt

Number 140 139 138

Interrupts Priority 6
6
6

Notes
If not using WICED audio API, feel free to change. If using WICED audio API do not change.
If not using WICED audio API, feel free to change. If using WICED audio API do not change.
If not using WICED ADC API, feel free to change. If using WICED ADC API do not change.

All SCB Interrupt

41-48

6

Feel free to change as needed

CSD Interrupt

49

5

Feel free to change as needed

Analog Routing

When CapSense is used, analog routing is consumed to connect the pins. The following routing code was used to create this CapSense configuration:
CY_SET_REG32(CYREG_HSIOM_AMUX_SPLIT_CTL2, 0x00000030u); CY_SET_REG32(CYREG_HSIOM_AMUX_SPLIT_CTL4, 0x00000033u); CY_SET_REG32(CYREG_PASS_AREF_AREF_CTRL, 0x80000000u);

Table A-2. WICED Names and their Configuration and Mapping in PSoC 6

WICED Name WICED_LED1 WICED_LED2 WICED_LED3 WICED_BUTTON1 STDIO_UART
WICED_ADC_1
WICED_PWM_1
WICED_PWM_2
WICED_PWM_3

PSoC Resource and Configuration

Notes

P0.3, Strong Drive

Connects to red LED

P1.1, Strong Drive

Connects to green LED

P11.1, Strong Drive

Connects to blue LED

P0.4, Pull_Up

Connects to SW2

SCB5: P5.0, P5.1 8N1 115200

P10.0 Single Ended (negative input connected to VSSA/2) Unsigned Result Consumes 8 Bit divider # 1

Connected to P0.3

Consumes TCPWM Block 0 Counter 1

Red LED

Consumes 16 bit divider #14

Connected to P1.1

Consumes TCPWM Block 0 Counter 3

Green LED

Consumes 16 bit divider #14

Connected to P11.1

Consumes TCPWM Block 1 Counter 1

Blue LED

Consumes 16 bit divider #14

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Table A-2. WICED Names and their Configuration and Mapping in PSoC 6

WICED Name WICED_SPI_7
WICED_I2C_4
WICED_UART_3
WICED_UART_6
WICED_I2S_1 WICED_I2S_2

PSoC Resource and Configuration

Notes

Consumes SCB[6] Consumes 16 bit divider #6 MOSI – P12.0 MISO – P12.1 SCLK – P12.2 SS – P12.3

Consumes SCB[3] Consumes 16 bit divider #3 SCL – P6.0 SDA – P6.1

Consumes SCB[2] Consumes 16 bit divider#2 RX – P3.0 TX – P3.1 CTS – P3.2 RTS – P3.3

Consumes SCB[5] Consumes 16 bit divider#5 RX – P5.0 TX – P5.1

Used for STDIO UART

Consumes I2S Block (I2S_1 = Write, I2S_2 = Read)

TX SCK – P5.1

TX WS – P5.2 TX_SDO – P5.3 RX_SCLK – P5.4

On consumed when WICED Audio API are used

RX_WS – P5.5

RX_SDI – P5.6

Other Notes:
WICED has a limited integration of CapSense. This integration only supports the two buttons and five-element slider on the kit. There is no ability to tune in WICED or change the configuration.
Any WICED names not mentioned in Table A-2 are not fully configured in the platform.c file and thus will not function properly.
Either WICED API or PDL API can be used to configure and use the PSoC 6 MCU peripheral. For ease of use it is recommended to use one or the other. For peripherals such as the STDIO UART and AUDIO, it is recommended to use the WICED API.

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A.6

Frequently Asked Questions
1. I don’t have a Type- C connector on my PC. Can I still connect and use this kit? 2. How does CY8CKIT-062-WiFi-BT handle voltage connection when multiple power sources are
plugged in? 3. How can I access Smart I/O and other GPIOs connected to onboard peripherals? 4. Why does the Red LED of RGB LED (LED5) light up when switch SW7 is set to SuperCap posi-
tion? 5. What are the three selection switches on baseboard used for? 6. What is the Jumper onboard for? 7. What are the input voltage tolerances? Are there any overvoltage protection on this kit? 8. Why is the voltage of the kit restricted to 3.3 V? Can it drive external 5-V interfaces? 9. I powered my Arduino board by mistake, while powering the PSoC 6 MCU. Is my PSoC 6 device
alive? 10.What type of battery can I use for this kit? 11. I connected the battery with the opposite polarity by mistake. Did I fry the system? 12.Can I charge any kind of Type-C device using this kit? 13.How can I evaluate the USB Type-C provider and consumer features to get started? 14.I am unable to program the target device. 15.Does the kit get powered when I power it from another Cypress kit through the J1 header? 16.What additional overlays can be used with CapSense? 17.What is Pmod? 18.With what type of shield from Cypress can I use this baseboard? 19.Which third-party debuggers does this kit support? 20.Why am I not able to program PSoC 6 MCU using MiniProg3 at 1.8 V? 21.How can SW2 be used for PMIC wake up?

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1. I don’t have a Type- C connector on my PC. Can I still connect and use this kit? Yes. To evaluate PSoC 6 MCU features, any PC with USB 2.0 connectivity is sufficient. A Type-C power adapter is required only to evaluate the CCG3 section of the kit.
2. How does CY8CKIT-062-WiFi-BT handle voltage connection when multiple power sources are plugged in? There are five options to power the baseboard: Type-C USB connector (J10), external DC supply via VIN connector (J9/ J1), debug and trace header (J12, VTARG_IN), program and debug header (J11), and LiPo battery header (J15). Type-C and VIN take priority over other supply options. These inputs are ORed using a diode and the higher voltage between the two take precedence. Output of ORing diode is given to a buck-boost regulator (U30) that generates a constant 5.2 V. This output is ORed with ETM supply (J12), which is typically 5 V. For most practical applications, output from the 5.2-V regulator takes priority and the same is given as an input to the voltage regulator (U10). LiPo battery voltage is used when all the above sources are absent. Output of buck regulator (U30) is ORed with supply voltage from the program and debug header (J11), and higher voltage takes precedence. See Table A-1 for more details on voltage input and output scenarios.
3. How can I access Smart I/O and other GPIOs connected to onboard peripherals? The Smart I/O (Port 8 and Port 9.3) and GPIO connected to the onboard peripherals are multiplexed with PSoC 6 MCU I/O headers (J2 and J20). By default, some of these I/Os are connected to onboard peripherals using series resistors. These resistors can be changed to route these I/Os to headers. See Table 4-2 on page 46 for the list of resistors that needs to be changed.
4. Why does the red LED (LED5) light up when switch SW7 is set to SuperCap position? This behavior is observed if SuperCap is charged below 1.5 V. The I/Os referring to this domain will leak current, in this case P0[3]. The VBACKUP feature needs to be enabled in the device before switching SW7 to the SuperCap position. See the device TRM or datasheet for options to enable SuperCap charging.
5. What are the selection switches on baseboard used for? Table 4-1 on page 44 gives details on all two selection switches.
6. What is the jumper on board for? The jumper J8 can be used to measure current of the PSoC 6 MCU without the need to desolder any component from the board. An ammeter can be connected across this jumper to measure the current consumed by the PSoC 6 MCU. Remove the jumper on J8, connect an ammeter (positive terminal of ammeter to Pin 2), and power the kit though USB connector J10.

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7. What are input voltage tolerances? Are there any overvoltage protection on this kit?

Input voltage level are as follows:

Table A-3. Input voltage levels

Supply
USB Type-C connector (J10) VIN connector (J9/J1) Debug and trace header (J12) Program and debug header (J11) Li-Po battery connected (J15)

Typical Input Voltage
4.5 V to 12 V 5 V to 12 V
5 V 1.8 V to 3.3 V 3.2 V to 4.2 V

Absolute Maximum (overvoltage protection)
15 V 15 V 5.5 V 3.6 V 5 V

8. Why is the voltage of the kit restricted to 3.3 V? Can it drive external 5-V interfaces? PSoC 6 is not meant to be powered for more than 3.6 V. Powering PSoC 6 to more than 3.3 V will damage the chip. You cannot drive the I/O system with more than 3.3-V supply voltages.
9. I powered my Arduino board by mistake, while powering the PSoC 6 MCU. Is my PSoC 6 device alive? Yes. The 3.3 V and 5 V on Arduino power header are not input pins and have protection circuit to prevent the voltage from entering the board. VIN is an input pin and this is routed to the regulator, which is capable of taking an absolute maximum of 15 V. The P6.VDD pin is not protected and care should be taken not to supply voltage to this pin.
10. What type of battery can I use for this kit? The recommended lithium-ion polymer rating is 3.7 V at 850 mAH or higher. SparkFun Electronics PRT-13854 or equivalent batteries can be used. The LiPo battery charger can charge at 100 mA or 1.5 mA based on whether the USB connection is a legacy device or PD- capable.
11. I connected the battery with the opposite polarity by mistake. Did I fry the system? The kit has relevant protection circuits to protect the system from permanent damage. Prolonged connection may lead to damage.
12. Can I charge any kind of Type-C device using this kit? The kit is programmed to advertise the VIN voltage with 1 A current rating. 5-V and 12-V devices are the recommended options. VIN needs to be 5 V and 12 V respectively for this to work.
13. How can I evaluate the USB Type-C provider and consumer features to get started? You can use any kind of Type-C laptop, mobile phone, or PD adapters based on the feature that you are trying to evaluate. When using as a consumer, note that devices such as laptops may be able to provide only 5 V out and may not support 9 V/12 V without a docking station. To use as a provider, any 5 V/9 V/12 V device that has a current requirement of less that 1 A may be used. Additionally, Cypress has its own USB Type-C evaluation kit, which can be used to evaluate the provider and consumer features and many more. Visit www.cypress.com/products/usb-type-cand-power-delivery for details on these kits.

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14. I am unable to program the target device. a. Ensure that SW7 is in VDDD/KITPROG2 position. b. Make sure that no external devices are connected to J11. c. Update your KitProg2 version in the programmer to 1.04 or later using the steps mentioned in the KitProg2 User Guide. d. Ensure that the device used in PSoC Creator is CY8C6247BZI-D54.
15. Is it possible to power the kit from another Cypress kit through the J1 header? Yes, VIN pin on the J1 header is the supply input/output pin and can support up to 12 V.
16. What additional overlays can be used with CapSense? Any overlay (up to 5 mm thickness) such as wood, acrylic, and glass can be used with CapSense. Note that additional tuning may be required when the overlay is changed.
17. What is Pmod? The Peripheral Module or Pmod interface is an open standard defined by Digilent Inc in the Digilent Pmod Interface Specification for peripherals used with FPGAs or microcontrollers. Several module types are available ­ from simple push buttons to more complex modules with network interfaces, analog to digital converters, or LCD displays. Pmods are available from multiple vendors such as Diligent, Maxim Integrated, Analog Devices, and a variety of hobby sites. This kit supports only 1×6 pin Pmods.
18. What type of shield from Cypress is compatible with this baseboard? Any Arduino Uno shield that supports 3.3-V operation is compatible with this Pioneer board. The following Cypress shields are pin-compatible with this board: a. CY3280-MBR3 b. CY8CKIT-022 c. CY8CKIT-024 d. CY8CKIT-026 e. CY8CKIT-040 f. CY8CKIT-046 g. CY8CKIT-048
19. Which third-party debuggers does this kit support? Multiple third-party IDEs are supported; IAR and uVision are some examples. For more details on all supported devices and procedures to export to these IDEs, see the PSoC Creator `Help’ menu.

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20.Why am I not able to program PSoC 6 MCU using MiniProg3 at 1.8 V?
The “Program/Debug Overvoltage Protection” circuit shown in A.3.1 Bypass Protection Circuit on Program and Debug Header (J11) on page 71 does not allow programming of the device at 1.8 V through MiniProg3. If you want to program the PSoC 6 MCU using MiniProg3 at the 1.8-V condition, make sure you are populating the 0-ohm resistor at R196 on the board. This resistor will bypass the protection circuit and will allow programming of the device at 1.8 V. Make sure you are not populating this resistor at any other voltage of operation.
21.How can SW2 be used for PMIC wake up?
SW2 is connected to the PMIC_Wakeup_In pin (P0.4) of PSoC 6 MCU. A logic high input at the PMIC_Wakeup_In pin can wake up the system and enable the PMIC. See the Backup chapter in PSoC 6 MCU Architecture Technical Reference Manual for more details of this feature.
SW2 should be externally pulled down to ground to use PMIC control. Moreover, when the switch is pressed, the active HIGH logic should push P0.4 to the VBACKUP supply. However, the kit is configured by default to use active LOW logic as described in A.2.9 Push Buttons on page 67. In addition, in Rev04 version of the kit, the active HIGH logic for SW2 pushes P0.4 to VBACKUP. Therefore, the following re-works on the kit are required to use the PMIC control feature:
Remove R65 and populate the 0 R66.
Remove R67 and populate a 10K resistor at R68.

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Revision History

Document Revision History

Document Title: CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit Guide

Document Number: 002-22677

Revision **

ECN Number
6077389

Issue Date 02/21/2018 New kit guide.

Description of Change

*A

6114582 03/30/2018 Updated Kit Hardware chapter on page 39:

Updated “CY8CKIT-028-TFT Details” on page 51:

Updated “CY8CKIT-028-TFT Display Shield” on page 51:

Updated description.

Updated Table 4-3.

*B

6165395 05/03/2018 Updated Appendix chapter on page 59:

Updated “Hardware Functional Description” on page 59:

Updated “Push Buttons” on page 67:

Updated description.

Updated “Cypress NOR Flash” on page 67:

Added image.

Updated “Frequently Asked Questions” on page 81:

Updated description.

*C

6402445 12/05/2018 Updated PSoC Creator chapter on page 19:

Updated “Kit Code Examples” on page 22:

Updated “Using the Kit Code Examples Built in PSoC Creator” on page 22:

Updated Table 2-1.

Updated Kit Hardware chapter on page 39:

Updated “CY8CKIT-028-TFT Details” on page 51:

Updated “CY8CKIT-028-TFT Display Shield” on page 51:

Updated description.

Completing Sunset Review.

*D

6507995 03/12/2019 Updated Kit Hardware chapter on page 39:

Updated “CY8CKIT-028-TFT Details” on page 51:

Updated “CY8CKIT-028-TFT Display Shield” on page 51:

Updated description.

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Revision History

Document Revision History (continued)

Document Title: CY8CKIT-062-WiFi-BT PSoC 6 WiFi-BT Pioneer Kit Guide

Document Number: 002-22677

Revision

ECN Number

Issue Date

Description of Change

*E

6537738 04/09/2019 Updated Kit Hardware chapter on page 39:

Updated “CY8CKIT-062-WiFi-BT Details” on page 39:

Updated description.

Updated Appendix chapter on page 59:

Updated “Hardware Functional Description” on page 59:

Updated “PSoC 6 MCU (U1)” on page 59:

Updated description.

*F

6750993 12/13/2019 Updated Kit Hardware chapter on page 39:

Updated “CY8CKIT-062-WiFi-BT Details” on page 39:

Updated description.

Updated hyperlinks.

Updated Appendix chapter on page 59:

Updated “Hardware Functional Description” on page 59:

Added “Cypress Quad SPI F-RAM” on page 68.

Updated to new template.

*G

7062673 02/03/2021 Updated Safety and Regulatory Compliance Information chapter on page 5:

Updated “Regulatory Compliance Information” on page 5:

Updated description.

Updated to new template.

*H

7112897 03/29/2021 Updated Safety and Regulatory Compliance Information chapter on page 5:

Updated “Regulatory Compliance Information” on page 5:

Updated description.

PSoC® 6 WiFi-BT Pioneer Kit Guide, Document Number. 002-22677 Rev. *H

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References

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