P1012NXN2HFB

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

The P1012NXN2HFB from Pixus Technologies is an embedded microprocessor often used in a wide range of applications such as home automation, industrial automation, and medical equipment. This microprocessor combines a high level of performance and portability, making it a popular choice for home and commercial applications.

In terms of performance, the P1012NXN2HFB runs at a clock speed of up to 120 MHz, with twelve channels on its interface unit. It boasts a 3.6 V operating range and a maximum current of 8 mA. This microprocessor also supports up to 12 Mbytes of Flash memory, as well as 4k × 8b bytes of DDR SDRAM.

The P1012NXN2HFB has several features that make it an ideal choice for applications in home automation, industrial automation, and medical equipment. Firstly, it supports a variety of communications technologies, including I2C, UART, SPI, and CAN. Furthermore, it features a wide variety of on-chip peripherals, such as input/output pins, timers, ADCs, DACs, RTCCs and PWM support. This microprocessor also supports a range of internal and external memory devices, including SRAM, FRAM, and Flash.

In terms of the working principle, the P1012NXN2HFB functions through an architecture in which the instruction set is stored in an area of memory known as the Program Data Space (PDS). This stores the instructions in such a way that it can be directly accessed by an instruction decoder. Each instruction is then converted to a series of micro-instructions which are then sent to the processor core, where they are executed. The processor core then sends the results back to the Program Data Space. This process is then repeated until the instruction set has been exhausted.

In summary, the P1012NXN2HFB is an embedded microprocessor capable of running at up to 120 MHz and supporting up to 12 Mbytes of Flash memory. Its features make it an ideal choice for a variety of applications in home automation, industrial automation, and medical equipment. In terms of its working principle, it functions through an architecture which stores the instruction set in the Program Data Space and then converts it to micro-instructions which are sent to the processor core for execution.

The specific data is subject to PDF, and the above content is for reference