Differences
This shows you the differences between two versions of the page.
Both sides previous revision Previous revision Next revision | Previous revision Next revisionBoth sides next revision | ||
atmel:n76e003 [2019/09/28 21:23] – minerva9 | atmel:n76e003 [2019/09/28 22:34] – minerva9 | ||
---|---|---|---|
Line 18: | Line 18: | ||
\\ | \\ | ||
{{: | {{: | ||
+ | \\ | ||
+ | \\ | ||
+ | Note: Whilst the above picture is a good overview, it doesn' | ||
\\ | \\ | ||
\\ | \\ | ||
Line 23: | Line 26: | ||
The board that I have (as pictured above) measures about 42mm x 30mm. It's pretty small, yet space has been made for four M3 mounting holes. | The board that I have (as pictured above) measures about 42mm x 30mm. It's pretty small, yet space has been made for four M3 mounting holes. | ||
- | The chip is centrally positioned. This board has a Mini-B USB connector fitted. Seems that this is just used to feed 5V to the board - the data lines on the connector don't seem to be hooked up to anything. A surface mounted LED lights up when power is applied via the Micro-B. The other LED on the board is attached (via a resistor) to port pin P15 - the Jumper ' | + | The chip is centrally positioned. This board has a mini-B USB connector fitted. Seems that this is just used to feed 5V to the board - the data lines on the connector don't seem to be hooked up to anything. A surface mounted LED lights up when power is applied via the mini-B. The other LED on the board is attached (via a resistor) to port pin P15 - the Jumper ' |
\\ \\ | \\ \\ | ||
The chip can work at supply voltages between 2.4V and 5.5V. The board uses a AMS1117 3.3V regulator to drop the 5V USB fed line. Not sure why they bothered, but there we have it. I've seen a variant of this board that is fitted with a 5V/3.3V selector switch. | The chip can work at supply voltages between 2.4V and 5.5V. The board uses a AMS1117 3.3V regulator to drop the 5V USB fed line. Not sure why they bothered, but there we have it. I've seen a variant of this board that is fitted with a 5V/3.3V selector switch. | ||
Line 29: | Line 32: | ||
\\ | \\ | ||
- | === A few words about the device | + | === A few words about the key features of this device === |
- | + | ||
- | From the datasheet ... | + | |
- | + | ||
- | + | ||
- | ---- | + | |
- | + | ||
- | The Nuvoton 1T 8051-based microcontroller N76E003 series is function compatible with the | + | |
- | N76E616 and N76E885 series, the 8-bit high performance 1T 8051-based microcontroller. The | + | |
- | instruction set is fully compatible with the standard 80C51 and performance enhanced. The | + | |
- | N76E003 series can bridge the gap and replace the cost equivalent to traditional 4T, 6T and 12T | + | |
- | 8-bit microcontroller by 1T 8-bit high performance and rich functions. With high performance CPU | + | |
- | core and rich well-designed peripherals, | + | |
- | appliances, or motor control system accomplishment. | + | |
- | \\ | + | |
- | The N76E003 series can run up to 16MHz, and operate at a wide voltage range of 2.4V ~ 5.5V | + | |
- | and temperature range of -40℃ ~ +105℃. For the N76E003 series, the embedded program flash | + | |
- | size is up to 18 Kbytes, SRAM is 256 bytes, and 768 Bytes of auxiliary RAM (XRAM). The | + | |
- | N76E003 series also offers size configurable 4K/ | + | |
- | which provides flexibility to user developed Boot Code. | + | |
- | The N76E003 series has many high-performance peripheral functions, such as 16MHz highspeed internal RC oscillator (trimmed to ±1% when VDD 5.0V, ±2% in all conditions), | + | |
- | up to 18 pins, four 16-bit timers, two full-duplex UARTs ports with frame error detection and | + | |
- | automatic address recognition, | + | |
- | PWM output channels, 8 channels 12-bit ADC, Watchdog Timer, Self Wake-up Timer, and a | + | |
- | Brown-out Detector. The peripherals are equipped with 18 sources with 4-level-priority interrupts | + | |
- | capability. | + | |
- | \\ | + | |
- | All these peripherals have been incorporated into the N76E003 series to reduce | + | |
- | component count, board space and system cost. | + | |
- | \\ | + | |
- | Additionally, | + | |
- | removing the chip from the actual end product. The N76E003 series also supports In-ApplicationProgramming (IAP) function, user switches the code executing without the chip reset after the | + | |
- | embedded flash updated. | + | |
+ | Core | ||
+ | - 1T 8051 processor | ||
+ | - Max frequency up to 16MHz | ||
+ | - Wide operating voltage: 2.4V to 5.5V | ||
+ | - Temperature range: -40℃ to 105℃ | ||
+ | Memory | ||
+ | - 18 KB of Flash memory | ||
+ | - 1 KB of SRAM | ||
+ | - Supports configurable Data Flash | ||
+ | - Supports program update by: | ||
+ | ISP (In-System Programming) | ||
+ | ICP (In-Circuit Programming) | ||
+ | IAP (In-Application Programming) | ||
+ | PWM | ||
+ | - Up to 6-ch PWM | ||
+ | - Programmable dead-zone generator | ||
+ | ADC | ||
+ | - 12-bit 8-ch ADC | ||
+ | - Runs up to 500 kSPS | ||
+ | Connectivity | ||
+ | - Two UARTs up to 115200 bps | ||
+ | - One SPI up to 8 MHz | ||
+ | - One I²C up to 400 kHz | ||
+ | Clock Control | ||
+ | - < 2% deviation 16 MHz Internal RC oscillator | ||
+ | - 10 kHz Internal RC oscillator | ||
+ | Part No. | ||
+ | N76E003AT20 | ||
+ | Flash (Kbytes) | ||
+ | 18 | ||
+ | SRAM (Kbytes) | ||
+ | 1K | ||
+ | Data Flash (Kbytes) | ||
+ | Configurable | ||
+ | ISP ROM (Kbytes) | ||
+ | √ | ||
+ | I/O | ||
+ | up to 18 | ||
+ | Timer (16-bit) | ||
+ | 4 | ||
+ | Connectivity-UART | ||
+ | 2 | ||
+ | Connectivity-SPI | ||
+ | 1 | ||
+ | Connectivity-I²C | ||
+ | 1 | ||
+ | PWM (16-bit) | ||
+ | 6 | ||
+ | ADC (12-bit) | ||
+ | 8 | ||
+ | ICP IAP ISP | ||
+ | √ | ||
+ | INT | ||
+ | 2 | ||
+ | Special Function | ||
+ | 1T 8051, 16 MHz internal RC, KBI, on-chip debugger | ||
+ | Operating Temp. Range (°C ) | ||
+ | -40 ~ +85 | ||
+ | Comp. | ||
+ | - | ||
+ | Chip Package | ||
+ | TSSOP20 (4.4x6.5) | ||
---- | ---- | ||
=== Some ideas === | === Some ideas === | ||
- | This chip has both user program and bootloader areas. It should be possible to use the Nuvotron | + | This chip has both user program and bootloader areas. It should be possible to use the Nuvoton |
\\ | \\ | ||
ToDo: Need to find out if the board comes pre-supplied with a bootloader. | ToDo: Need to find out if the board comes pre-supplied with a bootloader. |