Optiva OTS-2 40 GHz Amplified Microwave Band Fiber Optic Links

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5 MHz to 4 GHz Amplified Microwave Transport System The Optiva OTS-2 4 GHz Microwave Band transmitter and receiver are ideal to construct transparent fiber optic links in the 5 MHz to 4 GHz frequency range for antenna remoting, electronic warfare systems, broadband delay lines, signal processing systems and other high-dynamic-range applications. Applications Microwave Antenna Signal Distribution Electronic Warfare (EW) Systems Broadband Delay Line and Signal Processing Systems Frequency Distribution Systems Radar System Calibration Phased Array Antenna Systems, Interferometric Antenna Arrays Features / Benefits 5 MHz-4 GHz - Eliminates the performance and cost penalty of block up/down conversion Low RIN Source Laser - Provides high dynamic range of >15 db-hz 2/3 sub-octave Microprocessor-Based Transmitter Control for Laser Bias, Modulator Bias & Link Gain - Provides consistent high performance operation and allows for modulator low-bias operation and higher SFDR SNMP V.1 and RS-232 Monitor & Control Interface - Flexible user interface options Compatible with EMCORE s Modular Optiva Platform - Allows multiple format and frequency transport in a single chassis DWDM Operation - Increases transport capacity without increasing fiber count - Cooled DFB laser with 1 output Optiva satellite and microwave transmitters and receivers are SNMP compliant. They can be housed in the same chassis and monitored by the same Network Management System (NMS) as Optiva HD video, audio, serial data, and USB extension / distribution cards to support transport of multiple signal formats and frequency bands in a single flexible platform. System Design The Optiva platform includes a wide range fiber optic transport products for satellite and microwave communications from 1 MHz to 4 GHz. These units can be used to construct transparent inter- and intra-facility links from 1 meter to >1 km for RF and microwave signal transport, antenna remoting, video transport, electronic warfare systems and other high-dynamic-range applications. Optiva is a completely modular, hot-swappable platform. Both 19 rack-mount and compact tabletop, or wall-mountable enclosures are available. The 3 RU 19 rack-mount, fan-cooled enclosures (Model OT-CC-16 and OT-CC-16F) can support up to 16 insert cards and utilize two dual-redundant, hot-swappable, 1 or 2 watt power supplies. The 1 RU 19 rack-mount, fan-cooled enclosure (Model: OT- CC-6-1U) can accommodate 6 insert cards and utilizes two hot-swappable 6 watt power supplies. Compact one-slot (OT-DTCR-1), or two-slot (OT-DTCR-2) enclosures are also available that use an external wall-mount power supply. Block Diagram RF in Transmitter Variable Gain RF Preamp -2 db RF Test Point* *5 Ohm SMA female connectors Externally Modulated Transmitter Laser/Modulator Microprocessor Control +1 o min Receiver Optical Input +11.8 o max Photodiode Optical Preamp/Rx Microprocessor Control Fixed Gain RF Postamp -2 db RF Test Point* RFout 214 EMCORE Corporation REV 214.4 +1 626-293-34

Performance Highlights Parameter Min Typical Max Units Frequency Range.5 4 GHz 4 GHz Wideband S21 Frequency Response RF Input Power Tx RF amp gain 1 db 15 db 2 db 25 db 3 db 1 5-1 Wavelength 155 nm Power 9 11 Operating Temperature Range -1 5 o C Absolute Maximum Ratings Stresses in excess of the absolute maximum ratings can cause permanent damage to the device. These are absolute stress ratings only. Functional operation of the device is not implied at these or any other conditions in excess of those given in the operational sections of the datasheet. Exposure to absolute maximum ratings for extended periods can adversely affect device reliability. Enclosure Parameter Symbol Min Max Units Operating Temperature T OP -2 6 C Storage Temperature T STG -4 85 C RF Input Power Tx RF amp gain 1 db 15 db 2 db 25 db 3 db S in 15 1 5

Transmitter & Receiver Optical Characteristics Parameter Symbol Condition Min Typical Max Units Wavelength l 153 155 1562 nm Power PL 9 1 11 Connector Return Loss 4 db Optical Connector Type SC/APC Receiver Optical Input Power Pin +1 Receiver Responsivity.5 A/W Note: In order to prevent reflection-induced distortion degradation, the laser should be connected to an optical cable having a return loss of at least 55 db for discrete reflections and 3 db for distributed reflections. Transmitter & Receiver RF Characteristics Parameter Symbol Condition Min Typical Max Units Operational Bandwidth*.5 4 GHz RF Input Impedance 5 ohm RF Return Loss -6 db Amplitude Flatness Tx S Out - S In 5 MHz - 1 GHz 1 GHz - 4 GHz Any 5 MHz 5 MHz - 4 GH Amplitude Flatness Rx P R - S Out Any 5 MHz 5 MHz - 4GHz 2nd Harmonic Suppression RF Input -7 dbc 3. 8. 2.5 11. 3.5 9. db, p-p db, p-p 1dB Compression Point (@ 4 GHz) Tx RF amp gain 1 db 15 db 2 db 25 db 3 db -1-15 -2 RF Connector 2.92 mm (K) Female *RF response below 5 MHz and above the maximum stated RF frequency is provided with degraded performance and not guaranteed. **Test point performance beyond stated frequency range is provided; only the test point reference value tolerance may increase beyond the above stated +/- 1 db DC Power Consumption - Max Module Type Input Voltage (VDC) Max Current (@+7 C) Transmitter +12 75 ma Receiver +12 75 ma

Environmental Specifications Parameter Symbol Min Max Units Operating Temperature T OP -1 5 C Operating Humidity, Maximum Non-Condensing 95% Operating Altitude, Above Sea Level 6 ft 1828.8 m Storage Temperature T STG -4 7 C Storage Humidity, Maximum Non-Condensing 95% Storage Altitude, Above Sea Level 5, ft 15,24 m Link Performance - 4 GHz Wideband Parameter Symbol Condition Min Typical Max Units RF Bandwidth.5 4 GHz Link Gain (@ 4 GHz, +1 o Rx optical input)*^ G Tx RF amp gain, Rx RF amp gain 1 1 2 2 3 3-37 -27-17 -7 3 db Link Gain (@ 4 GHz, + o Rx optical input)*^ G Tx RF amp gain, Rx RF amp gain 1 1 2 2 3 3 7-47 -37-27 -17 db Noise Figure (@ 4 GHz)^ NF Tx RF amp gain, Rx RF amp gain 1 1 2 2 3 3 Input IP3 (@ 4 GHz)^^ IIP3 Tx RF amp gain, Rx RF amp gain 1 1 2 2 3 3 1 5-1 45 4 35 3 25 db Spurious Free Dynamic Range (@ 4 GHz) ^ SFDR @ 4 GHz 93 95 db-hz2/3 Gain Variation 5-1 GHz 1 GHz - 4 GHz Any 5 MHz 5 MHz - 4 GHz 3. 17. 4.5 2. db, p-p *Link Gain output will change 2 db for every 1 db of optical attenuation. ^Performance based on OTS-2T/K5 RF amplified, without EDFA, OTS-2R/K5 RF Amplified

Ordering Information: Transmitter Transmitter OTS-2T /K5-TTTT-UU-VV-WW-X-YY-Z When ordering replace TTTT with one of the Wideband Frequency When ordering replace UU with one of the ITU Channel When ordering replace VV with one of the Optical Power When ordering replace WW with one of the Optical Connector When ordering replace X with one of the When ordering replace YY with one of the Fixed Gain RF Amplifier When ordering replace Z with one of the Enclosure RF Connector Wideband Frequency (GHz) TTTT ITU Channel (THz / nm) UU Optical Power (o) VV Optical Connector WW X Fixed Gain RF Amplifier Option YY Enclosure Z K5 = 5 Ω 2.92 mm K female 2.4 = 2. - 4 GHz = non-itu: 152-158 nm 18 = 191.8 THz/1563.5 nm 19 = 191.9 THz/1562.23 nm 2 = 192 THz/1561.42 nm 21 = 192.1 THz/156.61 nm 22 = 192.2 THz/1559.79 nm 23 = 192.3 THz/1558.98 nm 24 = 192.4 THz/1558.17 nm 25 = 192.5 THz/1557.36 nm 26 = 192.6 THz/1556.56 nm 27 = 192.7 THz/1555.75 nm 28 = 192.8 THz/1554.94 nm 29 = 192.9 THz/1554.13 nm 3 = 193 THz/1553.33 nm 31 = 193.1 THz/1552.52 nm 32 = 193.2 THz/1551.72 nm 33 = 193.3 THz/155.92 nm 34 = 193.4 THz/155.12 nm 35 = 193.5 THz/1549.32 nm 36 = 193.6 THz/1548.51 nm 37 = 193.7 THz/1547.72 nm 38 = 193.8 THz/1546.92 nm 39 = 193.9 THz/1546.12 nm 4 = 194 THz/1545.32 nm 41 = 194.1 THz/1544.53 nm 42 = 194.2 THz/1543.73 nm 43 = 194.3 THz/1542.94 nm 44 = 194.4 THz/1542.14 nm 45 = 194.5 THz/1541.35 nm 46 = 194.6 THz/154.56 nm 47 = 194.7 THz/1539.77 nm 48 = 194.8 THz/1538.98 nm 49 = 194.9 THz/1538.19 nm 5 = 195 THz/1537.4 nm 51 = 195.1 THz/1536.61 nm 52 = 195.2 THz/1535.82 nm 53 = 195.3 THz/1535.4 nm 54 = 195.4 THz/1534.25 nm 55 = 195.5 THz/1533.46 nm 56 = 195.6 THz/1532.68 nm 57 = 195.7 THz/1531.9 nm 58 = 195.8 THz/1531.12 nm 59 = 195.9 THz/153.33 nm 6 = 196 THz/1529.55 nm 61 = 196.1 THz/1528.77 nm 62 = 196.2 THz/1527.99 nm 1 = +1 (no EDFA) 14, 17, 2 = +14, +17, +2 integrated EDFA SA = SC / APC FA = FC / APC EA = E2 / APC 1 = Single Optical Output 2 = Dual Optical Output 15= 15 db 3 = 3 db 1 = 1 db 2 = 2 db 25 = 25 db 1 = Optiva Indoor Rack-Mount Installation 2 = Optiva Outdoor MiniHub Installation

Ordering Information: Receiver Receiver OTS-2R / K5-SSSS-TT-UU-VV-W-X-YY-Z When ordering replace SSSS with one of the Wideband Frequency When ordering replace TT with one of the Optical Power When ordering replace UU with one of the Optical Connector When ordering replace VV with one of the ITU Filter When ordering replace W with one of the Optical AGC When ordering replace X with one of the Coupling When ordering replace YY with one of the Fixed Gain RF Amplifier When ordering replace Z with one of the Enclosure RF Connector Wideband Frequency (GHz) SSSS Optical Power (o) TT Optical Connector UU ITU Filter for Improved Optical Isolation in DWDM Systems (THz / nm) VV Optical AGC W Coupling X Fixed Gain RF Amplifier Option YY Enclosure Z K5 = 5 Ω 2.92 mm K female 2.4 = 2. - 4 GHz 1 = +1 Max Optical Input SA = SC / APC FA = FC / APC EA = E2 / APC = No filter 18 = 191.8 THz/1563.5 nm 19 = 191.9 THz/1562.23 nm 2 = 192 THz/1561.42 nm 21 = 192.1 THz/156.61 nm 22 = 192.2 THz/1559.79 nm 23 = 192.3 THz/1558.98 nm 24 = 192.4 THz/1558.17 nm 25 = 192.5 THz/1557.36 nm 26 = 192.6 THz/1556.56 nm 27 = 192.7 THz/1555.75 nm 28 = 192.8 THz/1554.94 nm 29 = 192.9 THz/1554.13 nm 3 = 193 THz/1553.33 nm 31 = 193.1 THz/1552.52 nm 32 = 193.2 THz/1551.72 nm 33 = 193.3 THz/155.92 nm 34 = 193.4 THz/155.12 nm 35 = 193.5 THz/1549.32 nm 36 = 193.6 THz/1548.51 nm 37 = 193.7 THz/1547.72 nm 38 = 193.8 THz/1546.92 nm 39 = 193.9 THz/1546.12 nm 4 = 194 THz/1545.32 nm 41 = 194.1 THz/1544.53 nm 42 = 194.2 THz/1543.73 nm 43 = 194.3 THz/1542.94 nm 44 = 194.4 THz/1542.14 nm 45 = 194.5 THz/1541.35 nm 46 = 194.6 THz/154.56 nm 47 = 194.7 THz/1539.77 nm 48 = 194.8 THz/1538.98 nm 49 = 194.9 THz/1538.19 nm 5 = 195 THz/1537.4 nm 51 = 195.1 THz/1536.61 nm 52 = 195.2 THz/1535.82 nm 53 = 195.3 THz/1535.4 nm 54 = 195.4 THz/1534.25 nm 55 = 195.5 THz/1533.46 nm 56 = 195.6 THz/1532.68 nm 57 = 195.7 THz/1531.9 nm 58 = 195.8 THz/1531.12 nm 59 = 195.9 THz/153.33 nm 6 = 196 THz/1529.55 nm 61 = 196.1 THz/1528.77 nm 62 = 196.2 THz/1527.99 nm 1 = No Optical AGC 2 = With Optical AGC 1 = Standard Coupling (AC) 2 = Decoupled PD (DC) 15= 15 db 3 = 3 db 1 = 1 db 2 = 2 db 25 = 25 db 1 = Optiva Indoor Rack-Mount Installation 2 = Optiva Outdoor MiniHub Installation

Mechanical Configuration Each Transmitter and Receiver module occupies two slots in the EMCORE Optiva Chassis. RX Power, Link Status & Optical I/P Level Status Indicators Laser & TX Power Status Indicators RF Output RF Input Laser Power Key Optical Input Comm Port Comm Port Laser Safety This product meets the appropriate standard in Title 21 of the Code of Federal Regulations (CFR). FDA/CDRH Class 1M laser product. All versions of this laser are Class 1M laser product, tested according to IEC 6825-1:27 / EN 6825-1:27. An additional warning for Class 1M laser products. For diverging beams, this warning shall state that viewing the laser output with certain optical instruments (for example: eye loupes, magnifiers, and microscopes) within a distance of 1 mm may pose an eye hazard. For collimated beams, this warning shall state that viewing the laser output with certain instruments designed for use at a distance (for example: telescopes and binoculars) may pose an eye hazard. Wavelength = 1.3/1.5 μm. Maximum power = 3 mw. *Caution - Use of controls or adjustments or performance of procedures other than those specified herein may result in hazardous radiation exposure. *IEC is a registered trademark of the International Electrotechnical Commision.