Matte Tin (Sn) Fiber Optics - Transceivers 8

Reset All

Part	Manufacturer	Fiber Optic Type	Mounting Feature	Maximum Supply Voltage	Terminal Finish	Maximum Operating Temperature	Minimum Operating Temperature	Rx Data Rate	Tx Data Rate	Emitter or Detector Type	Fiber Type	Nominal Optical Power Output	Connection Type	Nominal Supply Voltage	Body Length/Diameter	Body Width	Sub-Category	Body Height	Nominal Operating Wavelength	Minimum Supply Voltage	Minimum Operating Wavelength	Communication Standard	Maximum Operating Wavelength	Minimum Return Loss	Additional Features	JESD-609 Code	Built-in Features	Sensitivity Level
HFCT-5911ATLZ	Broadcom	TRANSCEIVER	BOARD/PANEL MOUNT	3.5 V	Matte Tin (Sn)			1250 Mbps	1250 Mbps	LASER DIODE, PIN PHOTODIODE	9/125, 50/125, 62.5/125, MMF, SMF	.501 mW	LC CONNECTOR	3.3 V	48.2 mm	15 inch		10.8 mm	1310 nm	3.1 V	1270 nm	GBE	1570 nm	12 dB	2X5 ARRAY	e3	AMPLIFIER	-20 dBm
HFCT-5914ATLZ	Broadcom	TRANSCEIVER	BOARD/PANEL MOUNT	3.5 V	Matte Tin (Sn)			1250 Mbps	1250 Mbps	LASER DIODE, PIN PHOTODIODE	9/125, SMF	.237 mW	LC CONNECTOR	3.3 V	48.2 mm	15 inch		10.8 mm	1310 nm	3.1 V	1270 nm	GBE	1570 nm	12 dB	OPTICAL OUTPUT POWER FOR THESE FIBER TYPE 50/125, 62.5/125, MMF: 0.188MW, 2 X 10 ARRAY	e3	AMPLIFIER	-20 dBm
HFBR-5208MZ	Broadcom	TRANSCEIVER	SURFACE MOUNT	5.25 V	Matte Tin (Sn)	70 Cel	0 Cel	622 Mbps	622 Mbps	LED, PIN PHOTODIODE	50/125, 62.5/125, MMF	.019 mW	SC CONNECTOR	5 V	39.6 mm	25.4 inch	Fiber Optic Transceivers	9.8 mm	1330 nm	4.75 V	1270 nm	ATM, OC-12, SDH, SONET, STM-4, STS-12	1380 nm			e3	AMPLIFIER
HFBR-5208Z	Broadcom	TRANSCEIVER	THROUGH HOLE MOUNT	5.25 V	Matte Tin (Sn)	70 Cel	0 Cel	622 Mbps	622 Mbps	LED, PIN PHOTODIODE	9/125, 62.5/125, MMF	.019 mW	SC CONNECTOR	5 V	39.6 mm	29.6 inch	Fiber Optic Transceivers	11.89 mm	1330 nm	4.75 V	1270 nm	ATM, ITU-T-G.957, OC-12, SDH, SONET, STM-4	1380 nm			e3	AMPLIFIER
HFCT-5208MZ	Broadcom	TRANSCEIVER	BOARD/PANEL MOUNT	5.25 V	Matte Tin (Sn)	70 Cel	0 Cel	622 Mbps	622 Mbps	LASER DIODE, PIN PHOTODIODE	9/125, 62.5/125, SMF	.007 mW	SC CONNECTOR	5 V	39.6 mm	29.6 inch	Fiber Optic Transceivers	11.89 mm	1313 nm	4.75 V	1274 nm	ATM, ITU-T-G.957, OC-12, SDH, SONET, STM-4	1356 nm			e3	AMPLIFIER
HFBR-7924EWZ	Broadcom	TRANSCEIVER	BOARD/PANEL MOUNT	3.465 V	Matte Tin (Sn)	80 Cel	0 Cel	2700 Mbps	2700 Mbps	LASER DIODE, PIN PHOTODIODE	50/125, MMF	.354 mW		3.3 V	34.12 mm	17.5 inch	Fiber Optic Transceivers	13.12 mm	850 nm	3.135 V	830 nm	OC-192, SONET	860 nm	12 dB	10 X 10 ARRAY	e3	AMPLIFIER	-11.7 dBm
HFBR-5961AGZ	Broadcom	TRANSCEIVER	SURFACE MOUNT	3.63 V	Matte Tin (Sn)	85 Cel	-40 Cel			LED, PIN PHOTODIODE	50/125, 62.5/125, MMF	.014 mW	LC CONNECTOR	3.3 V	48.19 mm	13.59 inch	Fiber Optic Transceivers	9.8 mm	1308 nm	2.97 V	1270 nm	ATM, OC-3, SDH, SONET, STM-1	1380 nm		2 X 5 ARRAY, OPTICAL OUTPUT POWER FOR 62.5/125 FIBER TYPE: 0.026MW	e3	AMPLIFIER
HFBR-59L1AGEZ	Broadcom	TRANSCEIVER	PANEL MOUNT, THROUGH HOLE MOUNT	3.63 V	Matte Tin (Sn)			1062.5 Mbps	1062.5 Mbps	VCSEL	50/125, 62.5/125, MMF	.334 mW	LC CONNECTOR	3.3 V	48.19 mm	13.59 inch		9.8 mm	850 nm	2.97 V	830 nm	GBE	860 nm	12 dB	IT ALSO HAVE ETHERNET DATA RATE OF 1250 MBPS; WD-MAX	e3	AMPLIFIER	-17 dBm

Fiber Optics - Transceivers

Fiber optic transceivers are electronic devices that are used in fiber optic communication systems to transmit and receive optical signals. They are designed to both transmit and receive data over a fiber optic network, allowing for two-way communication between devices.

Fiber optic transceivers typically consist of a transmitter, a receiver, and control circuitry. The transmitter converts electrical signals into optical signals, which are then transmitted over the fiber optic cable. The receiver converts the incoming optical signal into an electrical signal, which is then processed by the control circuitry.

Fiber optic transceivers use different technologies to transmit and receive optical signals, including:

1. Direct modulation: Direct modulation uses an LED or laser diode to directly modulate the optical signal in response to an electrical signal.

2. External modulation: External modulation uses an electro-optic modulator to modulate the optical signal in response to an electrical signal.

3. Coherent detection: Coherent detection uses a local oscillator to synchronize the optical signal with a reference signal, enabling precise phase and amplitude measurements of the optical signal.

Fiber optic transceivers come in different configurations and designs, depending on the application and the required performance. They can be integrated into a fiber optic network or mounted in a separate enclosure, depending on the application and the space available.