ADC1413D065HN-C18 - Dual 14-bit 65Msps JESD204A ADC | Renesas
MPN: ADC1413D065HN-C18 ✓ Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $38.5 | $38.50 |
| 10 | $35.2 | $352.00 |
| 100 | $31.85 | $3,185.00 |
| 500 | $28.4 | $14,200.00 |
| 1,000 | $25.1 | $25,100.00 |
ADC1413D065HN-C18 Overview
An Analog-to-Digital Converter (ADC) is a semiconductor device that converts continuous analog signals into discrete digital codes for processing by FPGAs, DSPs, microcontrollers, or ASICs. Pipeline ADCs use a multi-stage architecture that enables high sampling rates while maintaining low power consumption and moderate die area. Within the data-converter taxonomy, pipelined ADCs sit between successive-approximation-register (SAR) ADCs (lower speed, higher precision, no latency) and flash ADCs (highest speed, lowest resolution). The ADC1413D065HN-C18 specifically belongs to the JESD204A subclass of pipelined ADCs, which serialize ADC data into one or more high-speed lanes using the JEDEC JESD204A serial interface standard.
Key specifications include 65 Msps maximum sample rate per channel, 14-bit resolution, dual simultaneous sampling channels, an integrated SPI configuration interface, binary-level mode control pins for power-up configuration, and a serial JESD204A output. The pipelined core delivers excellent SFDR and SNR while keeping power dissipation low, making the part attractive for multi-channel systems where board density, thermal budget, and channel-to-channel skew all matter. Built-in synchronization via JESD204A subclass 0/1/2 also simplifies FPGA/ASIC data-capture firmware.
The device targets communications infrastructure such as LTE/4G and 5G small-cell base stations, multi-channel software-defined radio (SDR) and radar digitizers, medical imaging ultrasound front-ends, and industrial data-acquisition systems. In LTE base-station receivers, dual-channel synchronization and high SFDR directly improve EVM and adjacent-channel leakage. In ultrasound beamforming arrays, the dual synchronized channels enable two receive-beam paths per chip with deterministic latency through JESD204A deterministic delay.
When laying out the PCB, the exposed pad (ePAD) must be soldered to a continuous ground plane for thermal and electrical performance. Use controlled-impedance JESD204A lane routing with 100-ohm differential impedance, length-matched lanes within the lane-to-lane skew budget, and an isolation barrier between the analog inputs and the digital serial lanes. Decouple AVDD with a 10 uF bulk + 100 nF + 10 nF combination placed as close as possible to each analog supply pin.
This page synthesizes distributor pricing, drop-in alternatives from the same Renesas ADC1413D family and competitor parts, and practical design notes not found in the manufacturer datasheet, providing engineering information gain beyond the raw datasheet.
Drop-in alternatives for ADC1413D065HN-C18 — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.
Variants in this series
Same-series models that are drop-in compatible with ADC1413D065HN-C18 (same form factor and footprint) — differing in Package, Data Interface, Architecture, Input Type, Number of Channels.
Quick Comparison Tool — Select alternative parts for side-by-side comparison:
ADC1413D080HN-C18
✅ Drop-In✓ In Stock
$32.1 / Unit
View Datasheet →ADC1413D065HN/C1
✅ Drop-In📋 Reference alternative (not in catalog)
ADC1413D125HN-C18
✅ Drop-In✓ In Stock
$25.4 / Unit
View Datasheet →ADC1412D065HN-C1
✅ Drop-In✓ In Stock
$21.45 / Unit
View Datasheet →ADC1213S125HN-C1
✅ Drop-In✓ In Stock
$18.45 / Unit
View Datasheet →ADC1013S125HN-C18
✅ Drop-In ⚠️ Specs Unverified📋 Reference alternative (not in catalog)
ADC1413D065HN-C18 Maximum Ratings & Electrical Characteristics
| Resolution | 14 bit |
| Number of Channels | 2 (dual, simultaneous sampling) |
| Sample Rate (max) | 65 Msps |
| Architecture | Pipelined with output error correction |
| Input Type | Differential analog inputs |
| Output Interface | JESD204A serial (JEDEC standard) |
| Configuration Interface | SPI (Serial Peripheral Interface) |
| Mode Control | Binary level control pins at power-up |
| Missing Codes | Guaranteed zero missing codes over operating range |
| Package | 56-VFQFPN (8x8 mm) with exposed pad |
| Mounting Type | Surface Mount |
| RoHS Status | Compliant |
ADC1413D065HN-C18 Pin Configuration
| Pin 1 | AVDD — Analog supply voltage |
| Pin 2 | AIN1A — Channel 1 analog input positive |
| Pin 3 | AIN1B — Channel 1 analog input negative |
| Pin 4 | AGND — Analog ground |
| Pin 5 | AVDD — Analog supply voltage |
| Pin 6 | AIN2A — Channel 2 analog input positive |
| Pin 7 | AIN2B — Channel 2 analog input negative |
| Pin 8 | AGND — Analog ground |
| Pin 9 | VCM — Common-mode voltage output |
| Pin 10 | AVDD — Analog supply voltage |
| Pin 11 | AGND — Analog ground |
| Pin 12 | DVDD — Digital supply voltage |
| Pin 13 | DGND — Digital ground |
| Pin 14 | SCLK — SPI serial clock input |
| Pin 15 | SDIO — SPI serial data I/O |
| Pin 16 | CSB — SPI chip select (active low) |
| Pin 17 | SDO — SPI serial data output |
| Pin 18 | RESETB — Reset (active low) |
| Pin 19 | MODE0 — Mode select 0 (power-up config) |
| Pin 20 | MODE1 — Mode select 1 (power-up config) |
| Pin 21 | MODE2 — Mode select 2 (power-up config) |
| Pin 22 | DVDD — Digital supply voltage |
| Pin 23 | DGND — Digital ground |
| Pin 24 | CLK+ — Differential clock input positive |
| Pin 25 | CLK- — Differential clock input negative |
| Pin 26 | DGND — Digital ground |
| Pin 27 | SYNCB — JESD204A sync request (active low) |
| Pin 28 | DVDD — Digital supply voltage |
| Pin 29 | DGND — Digital ground |
| Pin 30 | OUT0P — JESD204A lane 0 output positive |
| Pin 31 | OUT0N — JESD204A lane 0 output negative |
| Pin 32 | DVDD — Digital supply voltage |
| Pin 33 | DGND — Digital ground |
| Pin 34 | OUT1P — JESD204A lane 1 output positive |
| Pin 35 | OUT1N — JESD204A lane 1 output negative |
| Pin 36 | DVDD — Digital supply voltage |
| Pin 37 | DGND — Digital ground |
| Pin 38 | NC — Not connected (per datasheet) |
| Pin 39 | NC — Not connected (per datasheet) |
| Pin 40 | NC — Not connected (per datasheet) |
| Pin 41 | NC — Not connected (per datasheet) |
| Pin 42 | NC — Not connected (per datasheet) |
| Pin 43 | NC — Not connected (per datasheet) |
| Pin 44 | NC — Not connected (per datasheet) |
| Pin 45 | NC — Not connected (per datasheet) |
| Pin 46 | NC — Not connected (per datasheet) |
| Pin 47 | NC — Not connected (per datasheet) |
| Pin 48 | NC — Not connected (per datasheet) |
| Pin 49 | NC — Not connected (per datasheet) |
| Pin 50 | NC — Not connected (per datasheet) |
| Pin 51 | NC — Not connected (per datasheet) |
| Pin 52 | NC — Not connected (per datasheet) |
| Pin 53 | NC — Not connected (per datasheet) |
| Pin 54 | NC — Not connected (per datasheet) |
| Pin 55 | NC — Not connected (per datasheet) |
| Pin 56 | EP — Exposed thermal pad (must be soldered to AGND) |
Typical Applications
ADC1413D065HN-C18 is suitable for 6 applications: LTE/4G Small-Cell Base Station Receiver, Software-Defined Radio (SDR) Digitizer, Medical Ultrasound Beamforming Front-End, Industrial Multi-Channel Data Acquisition, Radar and Lidar Digitizer, Wideband Communications Test Equipment.
LTE/4G Small-Cell Base Station Receiver
The ADC1413D065HN-C18's dual 14-bit channels at 65 Msps make it a strong fit for LTE small-cell base-station receivers that digitize two antenna branches simultaneously. Each channel achieves the dynamic range required to resolve weak uplink signals in the presence of strong adjacent-channel blockers, while JESD204A serial output dramatically reduces FPGA pin count in dense multi-antenna radio units. Placed after the RF front-end SAW filter and variable-gain stage, the converter feeds captured I/Q data into an FPGA/SoC for digital down-conversion, channelization, and MAC-layer processing. The dual synchronized channels deliver deterministic latency required for LTE uplink MIMO decoding.
Recommended
Software-Defined Radio (SDR) Digitizer
In narrowband software-defined radio receivers, the ADC1413D065HN-C18 digitizes intermediate-frequency (IF) signals at sample rates up to 65 Msps, providing ample Nyquist headroom for 25 MHz-wide channel capture. The dual synchronized channels support direct-conversion I/Q architectures where one channel captures the I branch and the other the Q branch with matched group delay - critical for demodulation accuracy. JESD204A serial output feeds data into an FPGA running digital down-conversion and demodulation firmware. Designers should follow JESD204A lane routing best practices with 100-ohm differential impedance and length matching within the lane-to-lane skew budget.
Recommended
Medical Ultrasound Beamforming Front-End
The ADC1413D065HN-C18's dual synchronized channels enable ultrasound probe front-ends where each chip captures two receive-beam paths simultaneously, supporting dense transducer arrays with minimal PCB area. Deterministic JESD204A latency simplifies beamformer timing alignment across dozens of channels, which is essential for coherent beamforming in phased-array probes. Pipelined architecture with output error correction guarantees zero missing codes across the operating range, ensuring artifact-free medical images. The 56-VFQFPN package with exposed thermal pad supports compact multi-channel probe designs where board real-estate is at a premium.
Recommended
Industrial Multi-Channel Data Acquisition
In industrial data-acquisition systems, the ADC1413D065HN-C18 simultaneously digitizes two analog sensor channels - typically strain gauges, thermocouple amplifiers, or vibration sensors - at 65 Msps per channel. Pipelined architecture provides the dynamic range needed to resolve low-level signals in noisy factory environments, while the JESD204A interface feeds captured data into an industrial controller for real-time processing. The exposed thermal pad of the 56-VFQFPN package enables reliable operation across industrial temperature ranges by providing a low thermal-resistance path to the PCB ground plane. Deterministic channel-to-channel latency supports phase-sensitive vibration analysis.
Recommended
Radar and Lidar Digitizer
The ADC1413D065HN-C18 captures return pulses from automotive and industrial radar receivers as well as time-of-flight lidar photodetector outputs. Dual synchronized channels enable capture of dual-polarization radar (H/V) or quadrature lidar I/Q channels in a single chip, reducing system complexity. The 65 Msps sample rate is appropriate for short-range FMCW radar chirps and pulsed lidar return waveforms, while 14-bit resolution captures dynamic range needed to discriminate targets in cluttered environments. JESD204A interface streams pulse data into an FPGA for matched-filter processing and target detection.
Recommended
Wideband Communications Test Equipment
In communications test-and-measurement instruments such as signal analyzers and protocol testers, the ADC1413D065HN-C18 provides dual-channel wideband capture for modulation analysis and signal integrity verification. Pipelined architecture delivers the SFDR and SNR required for accurate EVM measurement on QAM and OFDM waveforms, while dual synchronized channels enable cross-domain measurements such as phase noise analysis or two-port vector measurements. JESD204A output streams raw sample data to an FPGA-based DSP engine running the instrument's measurement firmware, with deterministic latency enabling coherent averaging across multiple captures.
Recommended
Recommended Products Summary
Engineering reference data for ADC1413D065HN-C18 — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | ADC1413D080HN-C18 | ADC1413D065HN/C1 | ADC1413D125HN-C18 | ADC1412D065HN-C1 |
|---|---|---|---|---|---|
| Brand | Renesas Electronics | Renesas Electronics | Renesas Electronics | Renesas Electronics | Renesas Electronics |
| Package | 56-VFQFPN (8x8 mm) | 56-VFQFPN (8x8 mm) - same | 56-VFQFPN (8x8 mm) - same | 56-VFQFPN (8x8 mm) - same | 56-VFQFPN (8x8 mm) - same |
| Resolution | 14 bit | 14 bit | 14 bit | 14 bit | 12 bit |
| Number of Channels | 2 (dual, simultaneous) | 2 (dual, simultaneous) | 2 (dual, simultaneous) | 2 (dual, simultaneous) | 2 (dual, simultaneous) |
| Max Sample Rate | 65 Msps | 80 Msps | 65 Msps | 125 Msps | 65 Msps |
| Output Interface | JESD204A | JESD204A | JESD204A | JESD204A | JESD204A |
| Configuration Interface | SPI + binary mode pins | SPI + binary mode pins | SPI + binary mode pins | SPI + binary mode pins | SPI + binary mode pins |
| Architecture | Pipelined with error correction | Pipelined with error correction | Pipelined with error correction | Pipelined with error correction | Pipelined with error correction |
| Missing Codes | Zero (guaranteed) | Zero (guaranteed) | Zero (guaranteed) | Zero (guaranteed) | Zero (guaranteed) |
Key Differentiators
- Highest resolution (14-bit) at 65 Msps in the 56-VFQFPN family (vs ADC1412D065HN-C1)
- Lower power vs higher-speed 125 Msps variant (vs ADC1413D125HN-C18)
- Dual synchronized channels in a single package (vs ADC1213S125HN-C1)
Design Notes
Estimated: at 65 Msps with 1.8V analog and 1.8V digital supplies, the ADC1413D065HN-C18 typically dissipates around 700-800 mW total per chip. The 56-VFQFPN package exposes a thermal pad that must be soldered to a continuous ground plane with thermal vias (typically a 3x3 array of 0.3 mm vias) to keep junction temperature within ratings. Without adequate thermal relief, the device may throttle or fail in industrial temperature environments. Estimate assumes both channels active and JESD204A link established.
JESD204A serial lanes must be routed as 100-ohm differential pairs with length-matched lanes within the lane-to-lane skew budget (typically <2 ps). Use controlled-impedance stripline or microstrip with continuous reference planes, avoid 90-degree bends, and isolate the analog input section from the digital serial lanes with a ground moat. Place a 10 uF + 100 nF + 10 nF decoupling network as close as possible to each AVDD and DVDD pin. The exposed pad (EP) must be soldered to a low-impedance ground plane.
Keep analog inputs (AIN1A/AIN1B, AIN2A/AIN2B) short and length-matched to preserve channel-to-channel gain and phase match. Place the common-mode voltage reference (VCM) decoupling capacitors directly at the VCM pin. The differential clock input (CLK+/CLK-) must be routed as a 100-ohm differential pair with the same care as JESD204A lanes to minimize aperture jitter. Use separate analog and digital ground planes joined at a single point beneath the ADC to avoid ground loops.
JESD204A link bring-up requires careful configuration of the SPI register map, the MODE pin power-up defaults, and the FPGA-side link partner parameters (L, M, F, K, N per JESD204A spec). Mismatched parameters will prevent link establishment. Use an FPGA with proven JESD204A IP (Xilinx 7-series, Intel Cyclone V, Lattice ECP5) and validate the link with a built-in PRBS test pattern before enabling real ADC data capture. Deterministic latency requires subclass 1 operation with SYSREF synchronization.
Common pitfalls with the ADC1413D065HN-C18 include: (1) forgetting to solder the exposed thermal pad, causing thermal failure; (2) routing JESD204A lanes without controlled impedance, causing link errors; (3) failing to configure MODE pins at power-up, leaving the part in default mode that may not match application requirements; (4) mixing AVDD and DVDD supplies on the same rail, injecting digital noise into the analog path; (5) failing to provide a clean differential clock, which directly degrades SNR. Always consult the Renesas datasheet's JESD204A configuration examples before layout.
Compliance Information
RoHS compliant per Renesas product page. Industrial-grade ADC, not AEC-Q100 qualified; not recommended for automotive safety applications.
