ATUC64L3U-AUT
- 品牌:Microchip Atmel
- 包装:--
- 无铅情况/ROHS: --
- 经营商:科通芯城自营
- 描述:32-bit Atmel® AVR® Microcontroller, 64KB Flash, 64-pin, USB Full-speed Device, CAT Module, FlashVault code protection
- 封装:TQFP MF 64
- 类别:AVR32系列单片机
| 参数 | 数值 |
|---|---|
| Temp. Range (deg C) | -40 to +85 |
| 32kHz RTC | Yes |
| Max. Operating Frequency | 50 MHz |
| USB Speed | Full Speed |
| EEPROM (Bytes) | 0 |
| # of Touch Channels | 25 |
| Calibrated RC Oscillator | Yes |
| UART | 4 |
| Crypto Engine | No |
| SPI | 1 |
| CPU | 32-bit AVR |
| Ext Interrupts | 51 |
| Operating Voltage (Vcc) | 1.62 to 3.6 |
| PWM Channels | 36 |
| Camera Interface | No |
| Graphic LCD | No |
| I/O Supply Class | 1.62 to 3.6 |
| ADC channels | 8 |
| TWI (I2C) | 2 |
| SRAM (Kbytes) | 16 |
| ADC Speed (ksps) | 460 |
| External Bus Interface | 0 |
| Input Capture Channels | 12 |
| Output Compare channels | 18 |
| Max I/O Pins | 51 |
| Self Program Memory | YES |
| picoPower | Yes |
| SSC | 1 |
| Video Decoder | No |
| Flash (Kbytes) | 64 Kbytes |
| LIN | 4 |
| USB Interface | Device |
| Temp. Sensor | Yes |
| Resistive Touch Screen | No |
| DAC Resolution (bits) | 16 |
| FPU | No |
| Analog Comparators | 8 |
| Timers | 6 |
| ADC Resolution (bits) | 12 |
| DRAM Memory | No |
| DAC Channels | 1 |
| MPU / MMU | Yes / No |
| NAND Interface | No |
| USB Transceiver | 1 |
| Hardware QTouch Acquisition | Yes |
| Pin Count | 64 |
The high-performance 32-bit AVR microcontroller is designed for cost-sensitive embedded applications that require low power consumption, high code density, and high performance. The device includes USB Full-speed device interface.
The microcontroller's Memory Protection Unit (MPU) and fast, flexible interrupt controller support the latest real-time operating systems. The Secure Access Unit (SAU) with MPU provides enhanced security and integrity. Higher computation capability is achieved using a rich set of DSP instructions.
The microcontroller embeds state-of-the-art picoPower technology for ultra-low power consumption. Combinations of power control techniques bring active current consumption down to 165µA/MHz and leakage down to 9nA while still retaining a bank of backup registers. The device offers a wide range of trade-offs between functionality and power consumption to reach the lowest possible power usage for the application's required feature set.