The main PCB featuring the PSoC 4 analog coprocessor and the ARM Cortex-M0 CPU.
The main PCB featuring the PSoC 4 analog coprocessor and the ARM Cortex-M0 CPU.
The kit includes various sensors and peripherals to facilitate the development of analog-to-digital conversion applications.
The kit features a USB connector for programming, debugging, and data transfer.
Functionality
The CY8CKIT-048 Analog Coprocessor Pioneer Kit is designed to provide a comprehensive platform for developing analog-to-digital conversion applications. The kit's analog coprocessor is capable of:
The coprocessor can perform ADC conversions at speeds of up to 1 MSPS.
The kit's DAC can perform digital-to-analog conversions with 12-bit resolution.
The coprocessor features a range of analog signal processing capabilities, including filtering, amplification, and signal conditioning.
The kit's ARM Cortex-M0 CPU provides a programmable platform for developing and executing firmware, allowing developers to create custom applications that interact with the analog coprocessor.
Key Features
The CY8CKIT-048 features a high-performance analog coprocessor with 20-bit resolution and a sampling rate of up to 1 MSPS.
The kit includes a range of peripherals, including UART, SPI, I2C, and I2S, to facilitate communication with external devices.
The kit's ARM Cortex-M0 CPU provides a programmable platform for developing and executing firmware.
The kit features a USB connector for programming, debugging, and data transfer.
The CY8CKIT-048 is supported by Cypress's PSoC Creator software, which provides a comprehensive development environment for creating and debugging firmware.
Target Applications
The CY8CKIT-048 Analog Coprocessor Pioneer Kit is suitable for a range of applications, including:
The kit's high-speed analog-to-digital conversion capabilities make it an ideal platform for industrial automation applications.
The kit's analog signal processing capabilities and high-resolution ADC make it suitable for medical device applications.
The kit's flexibility and programmability make it an ideal platform for consumer electronics applications.
Conclusion
The CY8CKIT-048 Analog Coprocessor Pioneer Kit provides a comprehensive platform for developing analog-to-digital conversion applications. With its high-performance analog coprocessor, flexible peripherals, and programmable firmware, this kit is an ideal choice for developers and engineers working on a range of applications.
Cypress Semiconductor CY8CKIT-048 Analog Coprocessor Pioneer Kit GuideOverviewThe CY8CKIT-048 Analog Coprocessor Pioneer Kit is a development platform designed to showcase the capabilities of Cypress Semiconductor's PSoC Analog CoProcessors. This kit is ideal for evaluating and developing applications that require advanced analog front-end processing, such as measurement and control systems, industrial automation, and IoT devices.Kit ContentsCY8CKIT-048 PSoC Analog CoProcessor Board
Power supply (USB cable)
Quick Start GuideHardware FeaturesPSoC Analog CoProcessor (CY8C5888LTI-LP097)
12-bit, 1MSPS Analog-to-Digital Converter (ADC)
8-channel, 12-bit Digital-to-Analog Converter (DAC)
24-bit Digital Signal Processor (DSP)
32KB Flash memory
4KB SRAM
USB interface for programming and debugging
Breadboard-compatible headers for prototypingSoftware ToolsPSoC Creator Integrated Design Environment (IDE)
PSoC Programmer software
Cypress's WICED Studio (optional)Code Examples### Example 1: Basic ADC ConversionThis example demonstrates how to use the CY8CKIT-048 to read analog values from an external sensor using the ADC.```c
#include <project.h>#define ADC_RES 12 // 12-bit ADC resolution
#define ADC_CHANNEL 0 // Select ADC channel 0int main()
{
// Initialize the ADC
ADC_Start();
ADC_SetResolution(ADC_RES);// Read analog value from channel 0
uint16_t adcValue = ADC_Read(ADC_CHANNEL);// Convert ADC value to voltage (assuming 3.3V Vref)
float voltage = (adcValue 3.3) / (1 << ADC_RES);// Print the voltage value to the console
printf("ADC Value: %u, Voltage: %f V
", adcValue, voltage);while(1);
}```### Example 2: DAC Output GenerationThis example shows how to use the CY8CKIT-048 to generate an analog output signal using the DAC.```c
#include <project.h>#define DAC_RES 12 // 12-bit DAC resolution
#define DAC_CHANNEL 0 // Select DAC channel 0int main()
{
// Initialize the DAC
DAC_Start();
DAC_SetResolution(DAC_RES);// Set the DAC output voltage to 1.5V (mid-scale)
uint16_t dacValue = (1 << DAC_RES) / 2;
DAC_Write(DAC_CHANNEL, dacValue);while(1);
}```### Example 3: Digital Signal Processing (DSP)This example demonstrates the use of the CY8CKIT-048's DSP capabilities to perform a simple low-pass filter on an incoming analog signal.```c
#include <project.h>
#include <math.h>#define ADC_RES 12 // 12-bit ADC resolution
#define ADC_CHANNEL 0 // Select ADC channel 0
#define DSP_FILTER_ORDER 2 // 2nd-order low-pass filterint main()
{
// Initialize the ADC and DSP
ADC_Start();
ADC_SetResolution(ADC_RES);
DSP_Start();// Configure the DSP for a 2nd-order low-pass filter
DSP_Config();while(1)
{
// Read analog value from channel 0
uint16_t adcValue = ADC_Read(ADC_CHANNEL);// Process the signal using the DSP filter
uint16_t filteredValue = DSP_Filter(adcValue);// Print the filtered value to the console
printf("Filtered Value: %u
", filteredValue);
}
}```These examples demonstrate the basic functionality of the CY8CKIT-048 Analog Coprocessor Pioneer Kit. For more advanced examples and projects, refer to the PSoC Creator documentation and Cypress Semiconductor's application notes.