Part Number: 10M16DCF256I7G

Manufacturer: Intel

Description: IC FPGA 178 I/O 256FBGA

Shipped from: Shenzhen/HK Warehouse

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Technical Specifications of 10M16DCF256I7G

Datasheet  10M16DCF256I7G datasheet
Category Integrated Circuits (ICs)
Family Embedded – FPGAs (Field Programmable Gate Array)
Manufacturer Altera
Series MAX? 10
Part Status Active
Number of LABs/CLBs 1000
Number of Logic Elements/Cells 16000
Total RAM Bits 562176
Number of I/O 178
Number of Gates
Voltage – Supply 1.15 V ~ 1.25 V
Mounting Type Surface Mount
Operating Temperature -40°C ~ 100°C (TJ)
Package / Case 256-LBGA
Supplier Device Package 256-FBGA (17×17)


FPGAs (Field Programmable Gate Arrays) have changed the world of technology because they can be used in many different ways and can be changed to fit different needs. Among these, the Intel MAX 10M16DCF256I7G stands out as a unique device with a special set of features and abilities. In this detailed guide, we’ll look at the Intel MAX 10M16DCF256I7G FPGA’s best features, uses, and benefits.

Introduction to Intel MAX 10M16DCF256I7G FPGA

The Intel MAX 10M16DCF256I7G is a low-cost, non-volatile, single-chip programmable logic device (PLD) that makes it easy to connect system parts. It fits a lot of features and functions into a small package, which makes it a popular choice for many different uses.

Key Highlights of Intel MAX 10M16DCF256I7G FPGA

Dual Configuration Flash

The Intel MAX 10M16DCF256I7G FPGA has a unique feature called Dual Configuration Flash that makes it much more flexible and reliable. The FPGA can keep and manage two different configurations because it has its own flash memory. The main benefit of this is that you can switch between two different designs or firmware pictures at any time.

Benefits of Dual Configuration Flash

  • Dynamic Reconfiguration: The Dual Configuration Flash lets you change the FPGA’s functions without having to use a separate device to program it. This dynamic reconfiguration is especially useful in software-defined radios or adaptable systems, which need to work in different ways.
  • Faster Switching Between Designs: The FPGA can quickly switch between two different designs, which cuts down on downtime and makes the whole system more responsive. This feature is especially helpful in apps where quick reconfiguration is important, like mission-critical systems or reconfigurable computing platforms.
  • Safe and Reliable Updates: Having two separate configurations saved internally means that one image can be used as a backup in case the other configuration becomes corrupted or needs to be updated. This redundancy makes the FPGA-based systems more reliable and stable.

User Flash Memory

The User Flash Memory is another important part of the Intel MAX 10M16DCF256I7G FPGA. It gives the user a place to store data and settings that are unique to them. With this memory block, developers can keep important data, calibration data, or custom settings right on the FPGA.

Use Cases and Advantages of User Flash Memory

  • Configuration Persistence: User Flash Memory keeps important settings and sets of a device even after the power goes out. This function is especially important in applications where keeping certain settings across power cycles is important for the system to work smoothly.
  • Secure Key Storage: The User Flash Memory can store cryptographic keys and sensitive data in a safe way, offering a security solution that is based on hardware. This is especially helpful for applications and systems that need to encrypt data for secure contact.
  • Calibration Data Storage: User Flash Memory can store calibration data for apps that use sensors or analog interfaces. This makes sure that sensor readings are always accurate and consistent over time.

Instant on Support

The Intel MAX 10M16DCF256I7G FPGA has a feature called “Instant on Support” that lets the device turn on quickly and work almost as soon as it is turned on. This feature gets rid of the need for time-consuming boot sequences, which makes it very helpful for some apps.

Significance of Instant on Support

  • Reduced Boot Time: In time-sensitive applications, like automotive systems or medical devices, it is important to reduce boot time to make sure the system responds quickly and to avoid possible dangers.
  • Power Efficiency: Instant on support shortens the time it takes for the FPGA to start up, which saves power and makes it more energy efficient.

Integrated ADCs

Analog-to-Digital Converters (ADCs), which are built into the Intel MAX 10M16DCF256I7G FPGA, are a key part of interfacing with analog signals and sensors straight from the FPGA.

How important are integrated ADCs and making designs simpler?

  • Reduced Number of Components: Integrated ADCs get rid of the need for separate ADC components, which lowers the bill of materials (BOM) and makes the design easier.
  • Precise Data collection: Integrated ADCs provide accurate and reliable analog-to-digital conversion. This makes them good for applications that need high-precision data collection, such as medical instruments, sensor networks, and industrial automation.

Single-Chip Nios II Soft Core Processor Support

The Intel MAX 10M16DCF256I7G FPGA works with the Nios II soft core processor, which provides a flexible and adjustable way to handle processing right in the FPGA fabric.

Single-Chip Nios II Support’s Pros

  • Embedded Processing Power:By combining the Nios II soft core processor with the FPGA, complex processing methods can be put on the same chip as the logic that can be changed. This integration is good for apps that need both hardware acceleration and tasks that are done by the processor.
  • Flexibility and versatility:The Nios II processor can be set up in many different ways, so designers can change the speed and features to fit the needs of the application.
  • Reduced System Complexity:Using a single-chip solution with built-in processing reduces the overall system complexity. This makes the system use less power, take up less space, and be easier to build.

10M16DCF256I7G Applications

The Intel MAX 10M16DCF256I7G FPGA is used in many different fields and businesses. Some of the most important uses are:

● System Management

The FPGA is a great tool for system management jobs because it can be easily integrated and has many different uses. It can be used to do things like watch the system, control the power, and find problems.

● I/O Expansion

The Intel MAX 10M16DCF256I7G FPGA is useful when more input/output ports are needed. Because it can be programmed, designers can change the I/O growth to meet the needs of the application.

● Communication Control Planes

The FPGA is a good choice for communication control planes because it is flexible and can handle complex communication protocols. Whether it’s Ethernet, USB, or another serial link, the FPGA can handle the flow of data and processing in an effective way.

● Industrial and Automotive

The Intel MAX 10M16DCF256I7G FPGA is good for industrial and automotive applications because it is durable, uses little power, and can work in harsh conditions. Some of these are motor control, workplace automation, and electronic control units (ECUs) for cars.

● Consumer Applications

The FPGA can be used for a wide range of jobs in consumer electronics, such as audio and video processing, customizing the user interface, and IoT (Internet of Things) applications.


The Intel MAX 10M16DCF256I7G FPGA is a breakthrough in programmable logic devices, offering impressive features for diverse applications. Its dual configuration flash, user flash memory, instant-on support, integrated ADCs, and Nios II soft core processor compatibility make it a top choice for designers and engineers. Unlock creativity and innovation in your projects with this exceptional FPGA, available at ICRFQ, a leading electronic component distributor in China.

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