DATASHEET ADF-D1000/D1600/D1800/D2000 Dual 1.0 - 2.0 Gsps, 12-bit ADC FMC The ADF-Dxx00 family of ADC receivers from DEG provide the highest available conversion resolution for sample rates above 1 Gsps. Optimized to support Texas Instruments ADC12D1000, ADC12D1600, ADC12D1800, and ADC12D2000 devices, the ADF-Dxx00 family enables you to select the sample rate optimized for your application and obtain the best dynamic performance available today. BENEFITS Achieve the best performance over 1 Gsps Rapidly build single board 1 - 4 channel solutions Deliver rugged and conduction-cooled systems As a VITA 57-compliant FPGA Mezzanine Card (FMC), the ADF-Dxx00 family converts two channels of up to 2.3 GHz analog input bandwidth at 1.0 - 2.0 Gsps and 12-bit resolution, providing direct coupling of unparalleled analog-to-digital conversion capability with the PCIe/VME/VXS/VPX carrier board of your choice. You can also use this FMC in single channel mode and sample up to 4 Gsps. The ADF-Dxx00 family and associated HDL firmware work with both Altera® and Xilinx® FPGA processors. Flexible, cost-effective solution FEATURES Dual-channel 1.6 - 2.0 Gsps, 12-bit ADC Single-channel 2.0 - 4.0 Gsps, 12-bit ADC Works with carrier board of your choice VITA 57 compliant FMC works with Altera and Xilinx FPGAs AC or DC coupling available PERFORMANCE 150 Msps to 4 Gsps sampling rate DEG engineers leveraged the proven design and intellectual property from the highly successful ADF-2500 board to bring the ADF-Dxx00 family to market in record time. By coupling this core architecture with the compact and flexible FMC form factor, DEG has enabled customers to rapidly and costeffectively build compact and rugged systems with 1 - 4 channels of high-speed digitization in a single high-performance FPGA carrier board. The front panel of the ADF-Dxx00 family has four 50 Ω connections that serve as ports for analog sources, clock input or external reference clock, and trigger input. This flexible approach reduces the overall power consumption footprint and cost while increasing ruggedness and reliability. Up to 2.3 GHz input bandwidth ENOB = 8.4 effective bits, Fin = 500 MHz 4 channels of high-speed digitization in a single VME/VXS/VPX/PCIe slot Analog Input Each analog input is single-ended with a full-scale input of 1 Vpp. The analog input signal bandwidth extends up to 2.3 GHz. Software -controllable attenuation may be available for select customers. Maximum input is 2 Vpp. www.delphieng.com Clocks The ADF-Dxx00 includes an onboard synthesizer to provide the clock as well as the option for a user-provided clock. The clock input allows frequencies between 150 and 2000 MHz. ADF-Dxx00 Family Performance Specifications Analog Specifications Number of channels 2 Reference signal must be a sine or square wave with amplitude from 200 mVpp to 3.5 Vpp. Frequencies between 10 and 100 MHz are allowed in 10 MHz increments. The following sources can be selected for the synthesizer: Sampling rate 150 Msps - 2000 Msps Input bandwidth 4 MHz - 2.3 GHz (AC), 800 MHz (DC) Input impedance 50 Ω, AC-coupled • Onboard reference – 1 ppm accurate in the entire temperature range of the product Full-scale input Single-ended, 1 Vpp (AC), 0.56 Vpp (DC) Maximum input 2 Vpp (low), 3.5V (high attenuation) • Front-panel clock input SNR (typical) 55 dB @ Fin = 1448 MHz • Carrier reference through FMC connection; this enables board synchronization without external cabling. SFDR (typical) 55 dB @ Fin = 1448 MHz ENOB (typical) 8.4 effective bits @ Fin = 500 MHz Triggers Trigger input must be 200 mV to 3.3 V peak-to-peak signal. Rise time of less than 10 nanoseconds is recommended. A trigger event is initiated by a positive transition on the trigger input. At the end of a capture event, the trigger circuitry is reset to wait for another trigger event. An auto-trigger function enables signal capture without an external trigger. Trigger input is AC-coupled. DC coupling is available for select customers. Trigger threshold is software-controllable in a wide range for both DC- and AC-coupled versions of the product. Clock and Trigger Specifications Connectors Clock input Clock input frequency 150 - 2000 MHz Internal clock 20 MHz ± 1 ppm Std PLL frequency 150 - 2000 MHz Trigger input Single-ended 50 Ω ADCLink Part Number FMC modules are distinct and separate from the FPGA devices that support them. Initiation and control of the ADFDxx00 is accomplished with ADCLink. Board support packages are required for each unique host card. The capabilities of ADCLink include clock phase adjustment, onboard/external reference clock control, trigger input delays and thresholds, sampling delay adjustments, and variable ADC gain. 50 Ω, AC-coupled Coupling Rugged Level Conformal Coat ADF-Dxx00 AC Commercial — ADF-Dxx00-C AC Commercial √ ADF-Dxx00-R AC Rugged — ADF-Dxx00-RC AC Rugged √ ADF-Dxx00-CC AC Conduction — ADF-Dxx00-CCC AC Conduction √ www.delphieng.com ADF-D1000/D1600/D1800/D2000 Environmentals Environmental Specifications Commercial Rugged Conduction-Cooled Operating temperature 0°C to +50°C (inlet air) -40°C to +71°C (inlet air) -40°C to +71°C (at card edge) Storage temperature -55°C to +85°C -55°C to +125°C -55°C to +125°C Humidity (non-condensing) 0 to 95% 0 to 100% 0 to 100% Vibration (random) 0.01g2/Hz, 15-2,000 Hz 0.04g2/Hz, 15-2,000 Hz 0.04g2/Hz, 15-2,000 Hz Shock 20 g peak 30 g peak 40 g peak Based on MIL-STD-810F ADF-D1000/D1600/D1800/D2000 Block Diagram About DEG The Delphi Engineering Group (DEG) provides a full range of high-performance COTS-based and customized digital receiver technology, products, and services for mission-critical applications in the aerospace, defense, and communications industries. A Signal of Greater Interest is a trademark of Delphi Engineering Group. Altera is a registered trademark of Altera Corporation. Xilinx is a registered trademark of Xilinx Inc. Other products mentioned may be trademarks or registered trademarks of their respective holders. 485 East 17th Street, Ste 400, Costa Mesa, CA 92627 Tel: 949.791.4000 Email: sales@delphieng.com www.delphieng.com ADF-Dxx00-DS-0602 Copyright © 2014 Delphi Engineering Group