J BEND ATM/SONET/SDH Circuits 11

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Part	Manufacturer	Telecom IC Type	Temperature Grade	Terminal Form	No. of Terminals	Package Code	Package Shape	Package Body Material	Applications	Surface Mount	No. of Functions	Technology	Maximum Supply Current	Nominal Supply Voltage	Power Supplies (V)	Package Style (Meter)	Package Equivalence Code	Sub-Category	Terminal Pitch	Maximum Operating Temperature	Minimum Operating Temperature	Terminal Finish	Terminal Position	JESD-30 Code	Maximum Seated Height	Width	Qualification	JESD-609 Code	Length
TNETS2302CFN	Texas Instruments	ATM/SONET/SDH TRANSCEIVER	INDUSTRIAL	J BEND	84	QCCJ	SQUARE	PLASTIC/EPOXY		YES	1		175 mA	5 V		CHIP CARRIER			1.27 mm	85 Cel	-40 Cel		QUAD	S-PQCC-J84	4.57 mm	29.3116 mm	Not Qualified		29.3116 mm
TNETS2301CFN	Texas Instruments	ATM/SONET/SDH TRANSCEIVER	INDUSTRIAL	J BEND	84	QCCJ	SQUARE	PLASTIC/EPOXY		YES	1		100 mA	5 V		CHIP CARRIER			1.27 mm	85 Cel	-40 Cel		QUAD	S-PQCC-J84	4.57 mm	29.3116 mm	Not Qualified		29.3116 mm
MC10SX1405FJR2	Onsemi	ATM/SONET/SDH SERIAL TO PARALLEL/PARALLEL TO SERIAL CONVERTER	INDUSTRIAL	J BEND	52	QCCJ	SQUARE	CERAMIC, GLASS-SEALED	ATM; SDH; SONET	YES	1	ECL10K		5 V	5	CHIP CARRIER	LDCC52,.8SQ	ATM/SONET/SDH ICs	1.27 mm	85 Cel	-40 Cel	TIN LEAD	QUAD	S-GQCC-J52	5.08 mm	18.935 mm	Not Qualified	e0	18.935 mm
MC10SX1401FJ	Onsemi	ATM/SONET/SDH RECEIVER	INDUSTRIAL	J BEND	52	QCCJ	SQUARE	CERAMIC, GLASS-SEALED	ATM; SDH; SONET	YES	1	BIPOLAR		5 V	5	CHIP CARRIER	LDCC52,.8SQ	ATM/SONET/SDH ICs	1.27 mm	85 Cel	-40 Cel	TIN LEAD	QUAD	S-GQCC-J52	5.08 mm	18.935 mm	Not Qualified	e0	18.935 mm
MC10SX1401FJR2	Onsemi		INDUSTRIAL	J BEND	52	QCCJ	SQUARE	CERAMIC		YES		ECL10K		5 V	5	CHIP CARRIER	LDCC52,.8SQ	ATM/SONET/SDH ICs	1.27 mm	85 Cel	-40 Cel	Tin/Lead (Sn/Pb)	QUAD	S-XQCC-J52			Not Qualified	e0
MC10SX1405FJ	Onsemi	ATM/SONET/SDH SERIAL TO PARALLEL/PARALLEL TO SERIAL CONVERTER	INDUSTRIAL	J BEND	52	QCCJ	SQUARE	CERAMIC, GLASS-SEALED	ATM; SDH; SONET	YES	1	ECL10K		5 V	5	CHIP CARRIER	LDCC52,.8SQ	ATM/SONET/SDH ICs	1.27 mm	85 Cel	-40 Cel	TIN LEAD	QUAD	S-GQCC-J52	5.08 mm	18.935 mm	Not Qualified	e0	18.935 mm
77V550S25DL	Renesas Electronics	ATM/SONET/SDH SWITCHING CIRCUIT	COMMERCIAL	J BEND	84	QCCJ	SQUARE	PLASTIC/EPOXY		YES			160 mA	3.3 V	3.3	CHIP CARRIER	LDCC84,1.2SQ	ATM/SONET/SDH ICs	1.27 mm	70 Cel	0 Cel	Tin/Lead (Sn/Pb)	QUAD	S-PQCC-J84			Not Qualified	e0
77V550S25DLI	Renesas Electronics	ATM/SONET/SDH SWITCHING CIRCUIT	INDUSTRIAL	J BEND	84	QCCJ	SQUARE	PLASTIC/EPOXY		YES			180 mA	3.3 V	3.3	CHIP CARRIER	LDCC84,1.2SQ	ATM/SONET/SDH ICs	1.27 mm	85 Cel	-40 Cel	Tin/Lead (Sn/Pb)	QUAD	S-PQCC-J84			Not Qualified	e0
IDT77V550S25DL	Renesas Electronics	ATM/SONET/SDH SWITCHING CIRCUIT	COMMERCIAL	J BEND	84	QCCJ	SQUARE	PLASTIC/EPOXY	ATM	YES	1		160 mA	3.3 V	3.3	CHIP CARRIER	LDCC84,1.2SQ	ATM/SONET/SDH ICs	1.27 mm	70 Cel	0 Cel	TIN LEAD	QUAD	S-PQCC-J84	4.57 mm	29.3116 mm	Not Qualified	e0	29.3116 mm
IDT77V550S25DLI	Renesas Electronics	ATM/SONET/SDH SWITCHING CIRCUIT	INDUSTRIAL	J BEND	84	QCCJ	SQUARE	PLASTIC/EPOXY	ATM	YES	1		180 mA	3.3 V	3.3	CHIP CARRIER	LDCC84,1.2SQ	ATM/SONET/SDH ICs	1.27 mm	85 Cel	-40 Cel	TIN LEAD	QUAD	S-PQCC-J84	4.57 mm	29.3116 mm	Not Qualified	e0	29.3116 mm
NQ93C95	Broadcom	ATM/SONET/SDH TRANSCEIVER	OTHER	J BEND	28	QCCJ		PLASTIC/EPOXY		YES		CMOS	300 mA	5 V	5	CHIP CARRIER	LDCC28(UNSPEC)	ATM/SONET/SDH ICs		85 Cel	-25 Cel	Tin/Lead (Sn/Pb)	QUAD				Not Qualified	e0

ATM/SONET/SDH Circuits

ATM (Asynchronous Transfer Mode), SONET (Synchronous Optical Network), and SDH (Synchronous Digital Hierarchy) circuits are high-speed communication technologies used in telecommunications networks.

ATM is a cell-based network technology that enables high-speed data transfer, video and voice communication. It divides data into fixed-size cells and sends them across the network using time-division multiplexing (TDM).

SONET and SDH are both standard protocols for optical telecommunications transport. They use synchronous timing signals to enable high-speed communication over fiber optic networks. SONET is used primarily in North America, while SDH is used primarily in Europe and other regions.

ATM, SONET, and SDH circuits offer several advantages over other communication technologies. They provide high-speed communication with low latency, allowing for efficient data transfer and real-time voice and video communication. They also provide a high level of reliability and fault tolerance, making them ideal for use in mission-critical applications such as banking, healthcare, and defense.

However, these circuits also require specialized hardware and software, and can be more expensive to implement and maintain than other communication technologies. They also require a high level of expertise to configure and manage.