FQFP Field Programmable Gate Arrays (FPGA) 1,255

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Part	Manufacturer	Programmable IC Type	Grading Of Temperature	Form Of Terminal	No. of Terminals	Package Code	Package Shape	Package Body Material	No. of Logic Cells	Surface Mount	Maximum Supply Voltage	No. of CLBs	Technology Used	No. of Inputs	Nominal Supply Voltage (V)	Power Supplies (V)	Package Style (Meter)	Package Equivalence Code	Sub-Category	Minimum Supply Voltage	Pitch Of Terminal	Maximum Operating Temperature	Organization	Minimum Operating Temperature	Finishing Of Terminal Used	Position Of Terminal	JESD-30 Code	Moisture Sensitivity Level (MSL)	Maximum Seated Height	Width	Qualification	Additional Features	JESD-609 Code	Maximum Clock Frequency	Maximum Time At Peak Reflow Temperature (s)	No. of Outputs	Peak Reflow Temperature (C)	Length
EP2C8Q208C7	Altera	FPGA	Other	Gull Wing	208	FQFP	Square	Plastic/Epoxy	8256	Yes	1.25 V	516	CMOS	138	1.2	1.2,1.5/3.3,3.3 V	Flatpack, Fine Pitch	QFP208,1.2SQ,20	Field Programmable Gate Arrays	1.15 V	.5 mm	85 °C (185 °F)	516 CLBS	0 °C (32 °F)	Tin Lead	Quad	S-PQFP-G208	3	4.1 mm	28 mm	No	Also requires 3.3 V supply	e0	450 MHz	20 s	130	220 °C (428 °F)	28 mm
EP3C25Q240C8	Altera	FPGA	Other	Gull Wing	240	FQFP	Rectangular	Plastic/Epoxy	24624	Yes	1.25 V	24624	CMOS	148	1.2		Flatpack, Fine Pitch	QFP240,1.3SQ,20	Field Programmable Gate Arrays	1.15 V	.5 mm	85 °C (185 °F)	24624 CLBS	0 °C (32 °F)	Tin Lead	Quad	R-PQFP-G240	3	4.1 mm	32 mm	No		e0	472.5 MHz	20 s	148	220 °C (428 °F)	32 mm
EP1C12Q240I8	Altera	FPGA	Industrial	Gull Wing	240	FQFP	Square	Plastic/Epoxy	12060	Yes	1.575 V	1206		173	1.5	1.5,1.5/3.3 V	Flatpack, Fine Pitch	QFP240,1.3SQ,20	Field Programmable Gate Arrays	1.425 V	.5 mm	100 °C (212 °F)	1206 CLBS	-40 °C (-40 °F)	Tin Lead	Quad	S-PQFP-G240	3	4.1 mm	32 mm	No		e0	275 MHz		173	220 °C (428 °F)	32 mm
EP1C6Q240C8	Altera	FPGA	Other	Gull Wing	240	FQFP	Square	Plastic/Epoxy	5980	Yes	1.575 V	598		185	1.5	1.5,1.5/3.3 V	Flatpack, Fine Pitch	QFP240,1.3SQ,20	Field Programmable Gate Arrays	1.425 V	.5 mm	85 °C (185 °F)	598 CLBS	0 °C (32 °F)	Tin Lead	Quad	S-PQFP-G240	3	4.1 mm	32 mm	No		e0	275 MHz	20 s	185	220 °C (428 °F)	32 mm
EP2C8Q208C8	Altera	FPGA	Other	Gull Wing	208	FQFP	Square	Plastic/Epoxy	8256	Yes	1.25 V	516	CMOS	138	1.2	1.2,1.5/3.3,3.3 V	Flatpack, Fine Pitch	QFP208,1.2SQ,20	Field Programmable Gate Arrays	1.15 V	.5 mm	85 °C (185 °F)	516 CLBS	0 °C (32 °F)	Tin Lead	Quad	S-PQFP-G208	3	4.1 mm	28 mm	No	Also requires 3.3 V supply	e0	402.5 MHz	20 s	130	220 °C (428 °F)	28 mm
EP2C8Q208I7	Altera	FPGA		Gull Wing	208	FQFP	Square	Plastic/Epoxy	8256	Yes	1.25 V	540	CMOS	138	1.2	1.2,1.5/3.3,3.3 V	Flatpack, Fine Pitch	QFP208,1.2SQ,20	Field Programmable Gate Arrays	1.15 V	.5 mm		540 CLBS		Tin Lead	Quad	S-PQFP-G208	3	4.1 mm	28 mm	No	Also requires 3.3 V supply	e0			130		28 mm
EP1C6Q240I7ES	Altera	FPGA		Gull Wing	240	FQFP	Square	Plastic/Epoxy		Yes	1.575 V	5980			1.5		Flatpack, Fine Pitch			1.425 V	.5 mm		5980 CLBS		Tin Lead	Quad	S-PQFP-G240	3	4.1 mm	32 mm	No		e0	320 MHz				32 mm

Field Programmable Gate Arrays (FPGA)

Field Programmable Gate Arrays (FPGAs) are digital integrated circuits that are programmable by the user to perform specific logic functions. They consist of a matrix of configurable logic blocks (CLBs) that can be programmed to perform any digital function, as well as programmable interconnects that allow these blocks to be connected in any way the designer wishes. This makes FPGAs highly versatile and customizable, and they are often used in applications where a high degree of flexibility and performance is required.

FPGAs are programmed using specialized software tools that allow the designer to specify the logic functions and interconnects that are required for a particular application. This process is known as synthesis and involves translating the high-level design into a format that can be implemented on the FPGA hardware. The resulting configuration data is then loaded onto the FPGA, allowing it to perform the desired logic functions.

FPGAs are used in a wide range of applications, including digital signal processing, computer networking, and high-performance computing. They offer a number of advantages over traditional fixed-function digital circuits, including the ability to be reprogrammed in the field, lower development costs, and faster time-to-market. However, they also have some disadvantages, including higher power consumption and lower performance compared to custom-designed digital circuits.