It appears that the model "MKE04Z128VLH4" corresponds to an MCU (Microcontroller Unit) from NXP Semiconductors. This specific model is part of the Kinetis E family, with the "MKE04Z128" indicating the specific MCU variant (128KB Flash memory). It also has a "LQFP-48" package, which typically indicates a 48-pin leaded chip.
For the detailed explanation you requested regarding pin functions, specifications, the complete pinout for this MCU, and related FAQ, I can provide the requested details for each pin and function, but compiling the entire data into a complete answer as requested would take a large amount of space. I'll give you a breakdown for the pins and their functionalities in table format, along with the FAQ section.
Note: The FAQ will be based on common queries related to the MKE04Z128VLH4.
Pin Functionality Table: MKE04Z128VLH4 (LQFP-48)
Pin Number Pin Name Pin Function Description 1 VSS Ground connection 2 VDD Power supply (3.3V) 3 PTC0 Port C, Pin 0, I/O or ADC input 4 PTC1 Port C, Pin 1, I/O or ADC input 5 PTC2 Port C, Pin 2, I/O or ADC input 6 PTC3 Port C, Pin 3, I/O or ADC input 7 PTC4 Port C, Pin 4, I/O or ADC input 8 PTC5 Port C, Pin 5, I/O or ADC input 9 PTC6 Port C, Pin 6, I/O or ADC input 10 PTC7 Port C, Pin 7, I/O or ADC input 11 VSS Ground connection 12 VDD Power supply (3.3V) 13 PTA0 Port A, Pin 0, I/O or ADC input 14 PTA1 Port A, Pin 1, I/O or ADC input 15 PTA2 Port A, Pin 2, I/O or ADC input 16 PTA3 Port A, Pin 3, I/O or ADC input 17 PTA4 Port A, Pin 4, I/O or ADC input 18 PTA5 Port A, Pin 5, I/O or ADC input 19 PTA6 Port A, Pin 6, I/O or ADC input 20 PTA7 Port A, Pin 7, I/O or ADC input 21 RESET Reset pin 22 SWDIO Serial Wire Debug I/O 23 SWCLK Serial Wire Clock 24 TCLK Timer clock 25 EXTAL External oscillator input 26 XTAL External oscillator output 27 TSI0_CH0 Touch Sensor input channel 0 28 TSI0_CH1 Touch Sensor input channel 1 29 TSI0_CH2 Touch Sensor input channel 2 30 TSI0_CH3 Touch Sensor input channel 3 31 ADC0_SE0 ADC input channel 0 32 ADC0_SE1 ADC input channel 1 33 ADC0_SE2 ADC input channel 2 34 ADC0_SE3 ADC input channel 3 35 I2C0_SCL I2C clock line 36 I2C0_SDA I2C data line 37 UART0_RX UART receive data 38 UART0_TX UART transmit data 39 SPI0_SCK SPI clock line 40 SPI0_MOSI SPI Master Out Slave In 41 SPI0_MISO SPI Master In Slave Out 42 SPI0_SS SPI chip select 43 CAN0_RX CAN bus receive 44 CAN0_TX CAN bus transmit 45 VSS Ground connection 46 VDD Power supply (3.3V) 47 NC No connection 48 NC No connectionFAQ - Frequently Asked Questions:
Q1: What is the voltage range for the MKE04Z128VLH4? A1: The MKE04Z128VLH4 operates with a supply voltage range of 1.8V to 3.6V.
Q2: Can the MKE04Z128VLH4 be used in low-power applications? A2: Yes, the MKE04Z128VLH4 is optimized for low-power consumption and is suitable for battery-powered applications.
Q3: How many ADC channels does the MKE04Z128VLH4 support? A3: The MKE04Z128VLH4 supports up to 8 ADC channels.
Q4: Is the MKE04Z128VLH4 suitable for automotive applications? A4: Yes, the MKE04Z128VLH4 meets the requirements for automotive-grade applications with its robust design and low power consumption.
Q5: What is the maximum clock speed of the MKE04Z128VLH4? A5: The MKE04Z128VLH4 can operate at a maximum clock speed of 48 MHz.
Q6: How many GPIO pins are available on the MKE04Z128VLH4? A6: The MKE04Z128VLH4 has up to 38 GPIO pins, depending on the configuration.
Q7: Can the MKE04Z128VLH4 be programmed via JTAG? A7: No, the MKE04Z128VLH4 does not support JTAG programming, but it supports SWD (Serial Wire Debug) for programming.
Q8: Does the MKE04Z128VLH4 support USB functionality? A8: No, the MKE04Z128VLH4 does not have USB functionality, but it supports various communication interface s like SPI, I2C, and UART.
Q9: What kind of memory does the MKE04Z128VLH4 have? A9: The MKE04Z128VLH4 has 128 KB of flash memory and 16 KB of SRAM.
Q10: Is the MKE04Z128VLH4 compatible with Linux or Windows development environments? A10: Yes, the MKE04Z128VLH4 can be programmed using IDEs like Keil, IAR Embedded Workbench, or MCUXpresso for both Linux and Windows development.
Q11: Can I use the MKE04Z128VLH4 in low-power applications? A11: Yes, the MKE04Z128VLH4 is specifically designed with low-power modes, making it suitable for battery-operated devices.
Q12: What is the maximum operating temperature for the MKE04Z128VLH4? A12: The MKE04Z128VLH4 is rated for an operating temperature range from -40°C to 105°C.
Q13: Does the MKE04Z128VLH4 have hardware-based encryption? A13: No, the MKE04Z128VLH4 does not have hardware-based encryption, but software-based encryption can be implemented.
Q14: Can I use the MKE04Z128VLH4 for motor control applications? A14: Yes, with its integrated PWM and timer module s, the MKE04Z128VLH4 can be used for basic motor control applications.
Q15: How do I configure the I2C on the MKE04Z128VLH4? A15: The I2C interface can be configured using the registers in the I2C module and initialized via software.
Q16: Can the MKE04Z128VLH4 interface with sensors? A16: Yes, the MKE04Z128VLH4 supports various communication protocols like I2C, SPI, and UART, which can be used to interface with sensors.
Q17: What development tools are recommended for the MKE04Z128VLH4? A17: Recommended development tools include the NXP MCUXpresso IDE and the Keil MDK for programming and debugging.
Q18: How do I use the touch sensor inputs on the MKE04Z128VLH4? A18: The touch sensor inputs are configured via the TSI (Touch Sense Interface) module, which can be programmed to detect changes in capacitance.
Q19: Does the MKE04Z128VLH4 have built-in CAN support? A19: Yes, the MKE04Z128VLH4 supports CAN (Controller Area Network) communication for automotive and industrial applications.
Q20: Can I use the MKE04Z128VLH4 for wireless communication? A20: The MKE04Z128VLH4 does not have built-in wireless communication capabilities, but it can interface with external wireless modules via UART, SPI, or I2C.
This should give you a comprehensive overview of the MKE04Z128VLH4, its pin functions, and related FAQs. Let me know if you need any further details!