EP4S40G5H40C1N
EP4S40G5H40C1N
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rohs

Altera Corporation

EP4S40G5H40C1N


EP4S40G5H40C1N
F53-EP4S40G5H40C1N
Active
FIELD PROGRAMMABLE GATE ARRAY, TSMC, LEAD FREE, HBGA-1517
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EP4S40G5H40C1N ECAD Model


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EP4S40G5H40C1N Attributes


Type Description Select
Part Life Cycle Code Active
Supply Voltage-Nom 950 mV
Number of Inputs 654
Number of Outputs 654
Number of Logic Cells 531200
Number of CLBs 212480
Programmable Logic Type FIELD PROGRAMMABLE GATE ARRAY
Temperature Grade OTHER
Package Shape SQUARE
Technology TSMC
Organization 212480 CLBS
Supply Voltage-Max 980 mV
Supply Voltage-Min 920 mV
JESD-30 Code S-PBGA-B
Operating Temperature-Max 85 °C
Number of Terminals 1517
Package Body Material PLASTIC/EPOXY
Package Code BGA
Package Shape SQUARE
Package Style GRID ARRAY
Surface Mount YES
Terminal Form BALL
Terminal Pitch 1 mm
Terminal Position BOTTOM
Width 42.5 mm
Length 42.5 mm
Seated Height-Max 3.8 mm
Ihs Manufacturer INTEL CORP
Package Description LEAD FREE, HBGA-1517
Reach Compliance Code compliant
HTS Code 8542.39.00.01

EP4S40G5H40C1N Overview



The chip model EP4S40G5H40C1N is a programmable logic device (PLD) that offers a wide range of features and benefits, making it an ideal choice for a variety of applications in the networking and intelligent systems space. This chip model is designed to provide a cost-effective solution for the development of complex systems, and its features enable it to be used in a variety of scenarios.


The EP4S40G5H40C1N chip model offers a number of advantages over other PLDs, including its ability to be programmed to perform a variety of tasks. It is capable of supporting multiple data types, including 8-bit, 16-bit, 32-bit, and 64-bit data formats, and can be programmed to support up to four operations per clock cycle. This chip model also supports up to four clock frequencies, allowing for greater flexibility in system design.


The EP4S40G5H40C1N chip model is also designed to be power efficient, providing up to 50% power savings compared to other PLDs. This chip model also offers a wide range of features, including an on-chip memory controller, a built-in debug module, and an integrated clock generator. These features make the EP4S40G5H40C1N chip model an ideal choice for a variety of applications, including embedded systems, automotive applications, and industrial automation.


In terms of future demand, the EP4S40G5H40C1N chip model is expected to be increasingly used in networks and intelligent systems. This chip model is capable of supporting a wide range of intelligent scenarios, such as autonomous vehicles, artificial intelligence, and the Internet of Things. Additionally, the EP4S40G5H40C1N is also well-suited for use in the era of fully intelligent systems, as it is capable of supporting a variety of tasks and operations.


When designing a system using the EP4S40G5H40C1N chip model, it is important to consider the specific design requirements of the chip model. This includes the number of inputs and outputs that the chip model can support, the number of clock frequencies it can support, and the power requirements of the chip model. Additionally, it is important to consider the application of the chip model, as different applications may require different design requirements.


When designing a system using the EP4S40G5H40C1N chip model, it is also important to consider the actual case studies and precautions associated with the chip model. For example, it is important to consider the safety and reliability of the chip model, as well as the potential for compatibility issues with other components. Additionally, it is important to consider the chip model's power requirements and the potential for overheating.


Overall, the EP4S40G5H40C1N chip model is an ideal choice for a variety of applications in the networking and intelligent systems space. This chip model offers a wide range of features and benefits, making it an ideal choice for a variety of scenarios. Additionally, the chip model is expected to be increasingly used in networks and intelligent systems in the future, making it a great choice for the era of fully intelligent systems. When designing a system using the EP4S40G5H40C1N chip model, it is important to consider the specific design requirements of the chip model, as well as the actual case studies and precautions associated with the chip model.



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