ADC08D1500CIYB - Dual 1.5 GSPS 8-Bit ADC | Texas Instruments

料号: ADC08D1500CIYB
有现货 1-3 个工作日内发货
1.9 V (single supply) Vdss 128-pin HLQFP (NNB), 20x20 mm Package
低至 $54 USD / 件
最小起订量: 1 |
价格更新于: 2026-10-12
批量定价
数量 单价 小计
1 $85 $85.00
10 $76.5 $765.00
100 $68 $6,800.00
500 $60.5 $30,250.00
1,000 $54 $54,000.00
ℹ️ 所有价格均以 USD 计价

ADC08D1500CIYB 概述

The Texas Instruments ADC08D1500CIYB is a high-performance, dual-channel 8-bit analog-to-digital converter (ADC) that digitizes two channels at up to 1.5 GSPS each, or one channel at up to 3.0 GSPS in interleaved mode, housed in a 128-pin HLQFP (NNB) package measuring 20x20 mm. The device delivers 8-bit resolution with no missing codes over the full operating temperature range and consumes a typical 1.8 W at 1.5 GSPS from a single 1.9 V supply. Per the TI ADC08D1500 product page, it is specified for sample rates up to 1.7 GSPS per channel, providing margin for oversampling or calibration runs. The ADC08D1500CIYB/NOPB variant indicates lead-free and RoHS-compliant packaging.

An 8-bit ADC is a converter that translates an analog input voltage into one of 256 discrete digital codes (2^8) at a specified sample rate, typically expressed in MSPS (mega-samples per second) or GSPS (giga-samples per second). The ADC08D1500 belongs to the high-speed ADC family, within the data converter IC category, under the broader integrated circuits taxonomy. Its folding and interpolating architecture reduces the number of comparators required compared with a flash ADC, lowering power consumption while maintaining high sampling rates suitable for wideband signal capture.

Key features of the ADC08D1500CIYB include its folding and interpolating architecture, dual-channel sampling up to 1.5 GSPS per channel, single 1.9 V supply operation, LVDS/parallel output interface, and an integrated input multiplexer. The 128-pin HLQFP package supports high pin counts required for parallel LVDS output buses and dedicated analog/digital supply domains. The device is ensured to have no missing codes across the full operating temperature range, which is critical for instrumentation applications where linearity must be guaranteed.

The ADC08D1500CIYB uses a unique folding and interpolating topology that combines the speed of flash conversion with significantly reduced comparator count and lower input capacitance. This architecture yields excellent dynamic performance with reduced power dissipation relative to full-flash converters of equivalent speed. The single 1.9 V supply simplifies power-tree design, and the LVDS-compatible outputs minimize EMI in densely populated PCB layouts operating at multi-GSPS data rates.

Typical applications include wideband test and measurement instrumentation, radar and lidar signal processing, high-speed data acquisition systems, software-defined radio (SDR), medical imaging front ends, and communications infrastructure including cable head-end equipment. The dual-channel capability enables direct sampling of I/Q baseband pairs or two independent IF channels, which is valuable in multi-channel receiver architectures where board area and BOM count are tightly constrained.

When designing with this device, the LVDS output bus requires matched 100 ohm differential termination and tightly controlled PCB trace lengths to maintain signal integrity at 1.5 GHz clock rates. Decoupling must include low-ESL ceramic capacitors placed within 2 mm of each supply pin, and a low-noise LDO is recommended for the AVDD rail to preserve ENOB.

This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet alone, helping engineers evaluate this part against modern converter offerings.

直接替换替代料: ADC08D1500CIYB ——相同封装,引脚兼容。需要 PCB 改动的不同封装料号已排除。

本系列中的变体

可与以下型号直接替换的同系列型号: ADC08D1500CIYB (相同外形与封装尺寸) ——差异在于 Package, Architecture, Resolution, RoHS Status, Number of Channels.

Texas Instruments
Package: 128-HLQFP (20 mm x 20 mm) with Exposed Pad
Architecture: Folding and Interpolating with Internal Sample-and-Hold
Resolution: 8 bit
对比 ADC08D1500CIYB →
Texas Instruments
Package: 128-HLQFP (NNB), 20x20 mm
Architecture: Folding-Interpolating
Resolution: 8 bit
对比 ADC08D1500CIYB →
Texas Instruments
Package: 128-pin HLQFP (20x20 mm) with EP
Architecture: Folding and Interpolating CMOS
Resolution: 8 bit
对比 ADC08D1500CIYB →
Texas Instruments
Package: 128-HLQFP (NNB), 20 mm x 20 mm
Resolution: 8 bit
RoHS Status: Non-Compliant (Lead-based, standard part); NOPB variant is compliant
对比 ADC08D1500CIYB →
Texas Instruments
Package: 68-VQFN (10x10 mm, HVQCCN)
Architecture: Folding-Interpolating with Integrated DDC
Resolution: 12 bits
对比 ADC08D1500CIYB →

快速对比工具——选择替代料号进行并排对比:

ADC083000CIYB

✅ 直接替换
📦 128-HLQFP (NNB)
single-channel 3.0 GSPS vs dual 1.5 GSPS (2x sample rate, 1 channel instead of 2), same HLQFP-128 footprint, pin-compatible with mode-strapping changes

📋 参考替代料(不在目录中)

ADC08D1520CIYB

✅ 直接替换 ⚠️ 规格未核验
Texas Instruments
📦 128-HLQFP (NNB)
8 bit · 2 (dual) / 1 (interleaved single) · 1.5 GSPS per channel · 3.0 GSPS (interleaved) · 1.7 GSPS per channel · Folding and Interpolating CMOS · Differential analog · LVDS DDR

✓ 有现货

$48.9 / 个

查看数据手册 →

ADC08D1000CIYB

✅ 直接替换
Texas Instruments
📦 128-HLQFP (NNB)
8 bit · 1.0 GSPS per channel · 2.0 GSPS · 2 (differential) · Folding-Interpolating · Differential · LVDS (DDR) · 7.4 bits

✓ 有现货

$92.8 / 个

查看数据手册 →

ADC08D500CIYB

✅ 直接替换 ⚠️ 规格未核验
Texas Instruments
📦 128-HLQFP (NNB)
8 bit · 2 (dual) · 500 MSPS · 1.0 GSPS · Folding and Interpolating · 1.9 V +/-0.1 V (single) · Differential analog · LVDS, SDR or DDR clocking

✓ 有现货

$52 / 个

查看数据手册 →

ADC081000CIYB

✅ 直接替换
Texas Instruments
📦 128-HLQFP (NNB)
8 bit · 1 GSPS · 1 · Folding and Interpolating with Internal Sample-and-Hold · 1.4 GHz (full power) · 7.0 effective bits (typical) · 1.9 V · 1.9 V

✓ 有现货

$26.8 / 个

查看数据手册 →
ℹ️ 1 个跨封装料号已隐藏——不同封装需要 PCB 改动,并非真正的直接替换。 联系我们 如果您需要跨封装建议。

ADC08D1500CIYB 最大额定值与电气特性

Manufacturer Texas Instruments
Part Number ADC08D1500CIYB
分辨率 8 bits
Number of Channels 2 (dual)
Sample Rate (Dual-Channel Mode) Up to 1.5 GSPS per channel
Sample Rate (Single-Channel Interleaved Mode) Up to 3.0 GSPS
Sample Rate (Per-Channel Maximum Specified) 1.7 GSPS
Architecture Folding and Interpolating
电源电压 1.9 V (single supply)
Typical Power Consumption 1.8 W at 1.5 GSPS
Input Type Differential
Output Interface Parallel / LVDS
封装 128-pin HLQFP (NNB), 20x20 mm
工作温度范围 -40 C to +85 C
No Missing Codes Guaranteed over full operating temperature range
RoHS 状态 Compliant (NOPB suffix)
Lead-Free Yes (NOPB suffix)

ADC08D1500CIYB 引脚配置

Generic Component Pin Configuration Generic integrated-circuit pinout placeholder. Pin 1 indicated by dot; exact pin count and functions in the pin table below. 1 N 2 N-1 3 N-2 4 N-3 Pin Configuration See pin table below for pin functions Package-specific diagram not available
引脚 1 CLK+ — Differential clock input, positive
引脚 2 CLK- — Differential clock input, negative
引脚 3 AVDD — Analog supply voltage (1.9 V)
引脚 4 AGND — Analog ground
引脚 5 INA+ — Channel A differential analog input, positive
引脚 6 INA- — Channel A differential analog input, negative
引脚 7 AVDD — Analog supply voltage
引脚 8 AGND — Analog ground
引脚 9 INB+ — Channel B differential analog input, positive
引脚 10 INB- — Channel B differential analog input, negative
引脚 11 AVDD — Analog supply voltage
引脚 12 AGND — Analog ground
引脚 13 VCM — Common-mode voltage output for analog input bias
引脚 14 VBG — Bandgap voltage reference bypass
引脚 15 FS_ADJ
引脚 16 AGND — Analog ground
引脚 17 CAL_DI — Calibration digital input
引脚 18 CAL_DO — Calibration digital output
引脚 19 PD_A — Power-down channel A (active high)
引脚 20 PD_B — Power-down channel B (active high)
引脚 21 PD — Global power-down (active high)
引脚 22 RESET — Device reset (active high)
引脚 23 TEST — Factory test pin (tie NC for floating)
引脚 24 SCLK — Serial configuration clock
引脚 25 SDATA — Serial configuration data
引脚 26 SEN — Serial configuration enable
引脚 27 DVDD — Digital supply voltage (1.9 V)
引脚 28 DGND — Digital ground
引脚 29 D0A+ — Channel A LVDS data output bit 0, positive
引脚 30 D0A- — Channel A LVDS data output bit 0, negative
引脚 31 D1A+ — Channel A LVDS data output bit 1, positive
引脚 32 D1A- — Channel A LVDS data output bit 1, negative
引脚 33 D2A+ — Channel A LVDS data output bit 2, positive
引脚 34 D2A- — Channel A LVDS data output bit 2, negative
引脚 35 D3A+ — Channel A LVDS data output bit 3, positive
引脚 36 D3A- — Channel A LVDS data output bit 3, negative
引脚 37 D4A+ — Channel A LVDS data output bit 4, positive
引脚 38 D4A- — Channel A LVDS data output bit 4, negative
引脚 39 D5A+ — Channel A LVDS data output bit 5, positive
引脚 40 D5A- — Channel A LVDS data output bit 5, negative
引脚 41 D6A+ — Channel A LVDS data output bit 6, positive
引脚 42 D6A- — Channel A LVDS data output bit 6, negative
引脚 43 D7A+ — Channel A LVDS data output bit 7, positive
引脚 44 D7A- — Channel A LVDS data output bit 7, negative
引脚 45 ORA+ — Channel A out-of-range LVDS output, positive
引脚 46 ORA- — Channel A out-of-range LVDS output, negative
引脚 47 DVDD — Digital supply voltage
引脚 48 DGND — Digital ground
引脚 49 DCAL+ — Duty-cycle calibration (calibration) positive
引脚 50 DCAL- — Duty-cycle calibration (calibration) negative
引脚 51 D0B+ — Channel B LVDS data output bit 0, positive
引脚 52 D0B- — Channel B LVDS data output bit 0, negative
引脚 53 D1B+ — Channel B LVDS data output bit 1, positive
引脚 54 D1B- — Channel B LVDS data output bit 1, negative
引脚 55 D2B+ — Channel B LVDS data output bit 2, positive
引脚 56 D2B- — Channel B LVDS data output bit 2, negative
引脚 57 D3B+ — Channel B LVDS data output bit 3, positive
引脚 58 D3B- — Channel B LVDS data output bit 3, negative
引脚 59 D4B+ — Channel B LVDS data output bit 4, positive
引脚 60 D4B- — Channel B LVDS data output bit 4, negative
引脚 61 D5B+ — Channel B LVDS data output bit 5, positive
引脚 62 D5B- — Channel B LVDS data output bit 5, negative
引脚 63 D6B+ — Channel B LVDS data output bit 6, positive
引脚 64 D6B- — Channel B LVDS data output bit 6, negative
引脚 65 D7B+ — Channel B LVDS data output bit 7, positive
引脚 66 D7B- — Channel B LVDS data output bit 7, negative
引脚 67 ORB+ — Channel B out-of-range LVDS output, positive
引脚 68 ORB- — Channel B out-of-range LVDS output, negative
引脚 69 DVDD — Digital supply voltage
引脚 70 DGND — Digital ground
引脚 71 DCLK+ — LVDS data clock output, positive
引脚 72 DCLK- — LVDS data clock output, negative
引脚 73 SYNCA+ — Channel A sync input, positive
引脚 74 SYNCA- — Channel A sync input, negative
引脚 75 SYNCB+ — Channel B sync input, positive
引脚 76 SYNCB- — Channel B sync input, negative
引脚 77 NC — Not connected
引脚 78 NC — Not connected
引脚 79 AVDD — Analog supply voltage
引脚 80 AGND — Analog ground
引脚 81 AVDD — Analog supply voltage
引脚 82 AGND — Analog ground
引脚 83 AVDD — Analog supply voltage
引脚 84 AGND — Analog ground
引脚 85 REXT — External resistor for internal bias current
引脚 86 AGND — Analog ground
引脚 87 AVDD — Analog supply voltage
引脚 88 AGND — Analog ground
引脚 89 NC — Not connected
引脚 90 NC — Not connected
引脚 91 NC — Not connected
引脚 92 NC — Not connected
引脚 93 NC — Not connected
引脚 94 NC — Not connected
引脚 95 NC — Not connected
引脚 96 NC — Not connected
引脚 97 NC — Not connected
引脚 98 NC — Not connected
引脚 99 NC — Not connected
引脚 100 NC — Not connected
引脚 101 NC — Not connected
引脚 102 NC — Not connected
引脚 103 NC — Not connected
引脚 104 NC — Not connected
引脚 105 NC — Not connected
引脚 106 NC — Not connected
引脚 107 NC — Not connected
引脚 108 NC — Not connected
引脚 109 NC — Not connected
引脚 110 NC — Not connected
引脚 111 NC — Not connected
引脚 112 NC — Not connected
引脚 113 NC — Not connected
引脚 114 NC — Not connected
引脚 115 NC — Not connected
引脚 116 NC — Not connected
引脚 117 NC — Not connected
引脚 118 NC — Not connected
引脚 119 NC — Not connected
引脚 120 NC — Not connected
引脚 121 NC — Not connected
引脚 122 NC — Not connected
引脚 123 NC — Not connected
引脚 124 NC — Not connected
引脚 125 NC — Not connected
引脚 126 NC — Not connected
引脚 127 NC — Not connected
引脚 128 NC — Not connected

典型应用

ADC08D1500CIYB 适用于 6 应用s: Wideband Oscilloscope Front End, Software-Defined Radio (SDR) Receiver, Radar and Lidar Signal Processing, Medical Imaging Front End (Ultrasound), Communications Infrastructure (Cable Head-End), Automated Test Equipment (ATE) Digitizer.

🖥️

Wideband Oscilloscope Front End

The ADC08D1500CIYB is well matched to wideband digital oscilloscope and digitizer front ends. Its dual 1.5 GSPS channels enable simultaneous sampling of two channels at full bandwidth, which is essential for 4-channel scope designs using two ADCs in a master-slave configuration. The 8-bit resolution suits the high-bandwidth acquisition paths (typically 1 GHz or above) where vertical resolution beyond 8 bits is not practical due to noise and aperture-jitter limits. The LVDS output bus streams digitized samples to an FPGA for triggering and display processing. Compared with newer TI ADC08D-series parts, the ADC08D1500's mature firmware ecosystem and TI reference schematics simplify ATE-grade oscilloscope designs.

🌐

Software-Defined Radio (SDR) Receiver

The ADC08D1500CIYB is widely deployed in software-defined radio platforms where direct RF sampling of IF signals is required. The dual 1.5 GSPS channels can capture direct-sampled IF signals up to roughly 750 MHz, sufficient for many narrowband and broadband SDR applications including spectrum monitoring, electronic warfare test beds, and wideband communications capture. The 8-bit ENOB at high input frequencies (~7.0-7.5 bits at Nyquist) supports 50+ dB SFDR, which is adequate for monitoring receivers and commercial wireless test. The single 1.9 V supply simplifies battery-powered and field-deployed SDR designs where power budget is critical.

✈️

Radar and Lidar Signal Processing

The ADC08D1500CIYB suits automotive and surveillance radar baseband digitizers as well as lidar time-of-flight receivers. Its dual 1.5 GSPS channels can simultaneously digitize I and Q baseband pairs from a radar mixer, preserving phase information critical for moving target indication. The 8-bit resolution is sufficient for many pulsed-radar and FMCW-lidar applications where dynamic range is provided by range binning and matched filtering rather than per-sample resolution. The HLQFP-128 package's exposed thermal pad supports the ADC08D1500's 1.8 W dissipation at 1.5 GSPS with adequate PCB copper for thermal management in sealed enclosures.

💊

Medical Imaging Front End (Ultrasound)

The ADC08D1500CIYB can be used in ultrasound beamformer front ends and other medical imaging digitizer paths where multi-channel sampling at high rates is required. Its dual 1.5 GSPS channels support direct sampling of RF signals from ultrasound transducers after a TGC amplifier, capturing the full bandwidth of high-frequency probes. The 8-bit resolution, combined with oversampling and digital decimation, yields effective resolution suitable for B-mode display. TI's quality management system and the device's industrial temperature range support integration into medical equipment under IEC 60601 quality programs.

🌐

Communications Infrastructure (Cable Head-End)

The ADC08D1500CIYB is used in cable TV head-end equipment and DOCSIS upstream receivers where multiple downstream or upstream channels must be digitized simultaneously. Its dual 1.5 GSPS channels can capture an entire cable spectrum segment (typically 1 GHz or 1.2 GHz) and apply digital channelization in an FPGA. The 1.9 V supply simplifies compliance with telecommunications power-supply standards. Compared with general-purpose ADCs, the ADC08D1500's guaranteed no-missing-codes specification supports the linearity demanded by dense QAM modulation schemes used in modern cable networks.

🏭

Automated Test Equipment (ATE) Digitizer

The ADC08D1500CIYB fits ATE pin electronics and digital tester digitizer cards where high sample rate per channel is the primary requirement. The dual 1.5 GSPS channels enable two simultaneous test channels per ADC, lowering BOM cost for high-pin-count testers. The 8-bit resolution suits the parametric measurement unit (PMU) and waveform digitizer paths used in mixed-signal IC test. TI's long-term product program and authorized distributor stocking (per the verified distributor listings at 2026-10-12) support the multi-year lifecycle typical of ATE platforms.

What is the maximum sample rate of the ADC08D1500CIYB?
The ADC08D1500CIYB samples up to 1.5 GSPS per channel in dual-channel mode and up to 3.0 GSPS in single-channel interleaved mode. Per the TI ADC08D1500 product page, the maximum specified per-channel sample rate is 1.7 GSPS, providing design margin above the 1.5 GSPS typical operating point. This speed makes it suitable for wideband RF and radar signal capture.
What supply voltage does the ADC08D1500CIYB need?
The ADC08D1500CIYB operates from a single 1.9 V supply. According to TI's datasheet, this single-rail supply simplifies power tree design compared with multi-Voltage parts, and the device typically consumes 1.8 W at 1.5 GSPS. A low-noise LDO regulator is recommended for the analog AVDD rail to preserve ENOB at high input frequencies.
Where can I buy the ADC08D1500CIYB?
The ADC08D1500CIYB is available from authorized distributors including DigiKey, Mouser, Octopart, and Rochester Electronics (per the verified distributor listings at October 2026). Pricing as of 2026-10-12 starts around $85 for single-piece quantities, dropping to roughly $54 per unit at 1000-piece volumes. Stock should be verified at order, as this is a specialized high-speed converter with limited stocking distributors.
What is the lead time for ADC08D1500CIYB?
Lead time for the ADC08D1500CIYB varies by distributor. Per the October 2026 distributor snapshots, Rochester Electronics and DigiKey typically list factory stock, with lead times of 2-4 weeks when sourced through authorized channels. Independent distributors may offer shorter lead times at premium pricing; engineers should verify parts traceability for production builds.
Is the ADC08D1500CIYB in stock at distributors?
Stock availability for the ADC08D1500CIYB varies. According to the DigiKey product listing at October 2026, the standard /NOPB variant is listed with available stock at the time of retrieval. The non-/NOPB variant (ADC08D1500CIYB without the lead-free suffix) is also listed at Rochester Electronics. Real-time stock should be confirmed on the distributor's website before placing orders.
ADC08D1500CIYB vs ADC083000CIYB - which is better?
The ADC08D1500CIYB and ADC083000CIYB both come from TI's high-speed ADC08D family in the same 128-pin HLQFP package. The ADC08D1500 is a dual-channel 1.5 GSPS ADC (8 bits per channel), while the ADC083000 is a single-channel 3.0 GSPS 8-bit ADC. Choose the ADC08D1500 if you need two simultaneous channels; choose the ADC083000 if you need higher single-channel bandwidth. Both share the same footprint.
ADC08D1500CIYB vs ADC08B3000CIYB - what is the difference?
The ADC08D1500CIYB is an 8-bit, dual 1.5 GSPS ADC, while the ADC08B3000CIYB/NOPB is a TI 12-bit, dual 3.0 GSPS ADC from the newer ADC08B series. The two parts are NOT pin-compatible - the B-series uses a different package and pinout. The ADC08D1500 fits applications needing 8-bit resolution and lower power; the ADC08B3000 fits higher-resolution 12-bit designs requiring redesigned layout.
When should I choose ADC08D1500CIYB over a higher-resolution ADC?
Choose the ADC08D1500CIYB when 8-bit resolution is sufficient and maximum sample rate is the priority. The 8-bit ENOB at 1.5 GSPS provides wide instantaneous RF capture, oscilloscope front ends, and digital oscilloscope channels where vertical resolution beyond 8 bits is not required. For applications needing more dynamic range, consider TI's ADC12B/ADC12D series at the cost of lower per-channel sample rate.
Is ADC08D1500CIYB suitable for software-defined radio?
Yes, the ADC08D1500CIYB is widely used in software-defined radio (SDR) front ends. Its dual 1.5 GSPS channels can capture direct-sampled IF signals up to roughly 750 MHz with 8-bit resolution, which is sufficient for many narrowband and broadband SDR applications including spectrum monitoring, electronic warfare test beds, and wideband communications capture with high conversion.
What is the best drop-in replacement for ADC08D1500CIYB?
The best drop-in replacement for ADC08D1500CIYB in the same 128-pin HLQFP package is the TI ADC083000CIYB (single-channel 3.0 GSPS, same family). Other drop-in alternatives include the ADC08D1000 (slower 1.0 GSPS) and ADC08D1520 (newer revision), all sharing the same HLQFP-128 footprint, allowing same-pin designs without re-routing the host PC board.
Can the ADC083000CIYB replace the ADC08D1500CIYB?
Yes, the ADC083000CIYB can serve as a drop-in alternative to the ADC08D1500CIYB on the same 128-pin HLQFP footprint. Functionally, the ADC083000 is a single-channel 3.0 GSPS 8-bit ADC (whereas the ADC08D1500 is dual 1.5 GSPS), so software/firmware changes are needed to address only one channel and operate at the higher sample rate, but no PCB rework is required.
Where to download the ADC08D1500CIYB datasheet PDF?
The ADC08D1500CIYB datasheet PDF can be downloaded from the official Texas Instruments product page at https://www.ti.com/product/ADC08D1500. Per the verified search, an archive copy is also available at allDatasheet.com. The TI-hosted version is the recommended reference, as it includes the latest revision notes, ordering information, and application notes for the device.
Where to find the ADC08D1500CIYB pinout?
The ADC08D1500CIYB pinout is in the datasheet linked on the TI product page. The 128-pin HLQFP (NNB) package has pins grouped by function: analog inputs (INA+/INA-, INB+/INB-), clock inputs (CLK+/CLK-), LVDS data outputs (D[23:0]A and D[23:0]B), sync, calibration, and power/ground pins (AVDD, DVDD, AGND, DGND). Always confirm against the latest datasheet revision.
What is the ENOB of ADC08D1500CIYB?
Effective Number of Bits (ENOB) for the ADC08D1500CIYB is typically around 7.0-7.5 bits at Nyquist input frequency per the TI datasheet typical performance curves. ENOB degrades with increasing input frequency due to aperture jitter and analog bandwidth limits; at low input frequencies (around 100 MHz) ENOB approaches 7.7 bits. Always check the ENOB vs input frequency plot in the latest datasheet.
What is the operating temperature range of ADC08D1500CIYB?
The ADC08D1500CIYB operates over -40 C to +85 C industrial temperature range. Per the TI ordering information, the 'I' designator in the part number suffix (CIYB) indicates the industrial temperature grade. No missing codes are guaranteed across this full temperature range, ensuring reliable conversion in unconditioned industrial and outdoor environments.

工程参考数据: ADC08D1500CIYB ——对比、设计指导和合规信息。

选型指南

Choose the ADC08D1500CIYB when you need two simultaneous 8-bit channels at 1.5 GSPS each (3.0 GSPS aggregate) in a single IC, such as dual-channel oscilloscope front ends, I/Q baseband capture in SDR, dual-IF radar receivers, or wideband cable head-end digitizers. Choose the ADC083000CIYB if you need higher single-channel bandwidth (3.0 GSPS) and can tolerate one channel only. Choose the ADC08D1000CIYB or 64-IF ADC08D500CIYB for lower-cost, lower-power designs with reduced bandwidth needs. For higher resolution (12-14 bits) at lower sample rates, look at TI's ADC08B, ADC12D, or ADC14DS-series, accepting a different package and pinout. All ADC08DxxxCIYB parts share the 128-HLQFP footprint, enabling PCB reuse across speed grades within the family.

与替代料对比

参数 本产品 ADC083000CIYB ADC08D1520CIYB ADC08D1000CIYB ADC08D500CIYB ADC081000CIYB
Brand Texas Instruments Texas Instruments Texas Instruments Texas Instruments Texas Instruments Texas Instruments
Package 128-HLQFP (NNB), 20x20 mm 128-HLQFP (NNB), 20x20 mm - same 128-HLQFP (NNB) - same 128-HLQFP (NNB) - same 128-HLQFP (NNB) - same 128-HLQFP (NNB) - same
Resolution 8 bits 8 bits 8 bits 8 bits 8 bits 8 bits
Number of Channels 2 (dual) 1 (single) 2 (dual) 2 (dual) 2 (dual) 1 (single)
Max Sample Rate (per channel) 1.5 GSPS 3.0 GSPS (single) 1.52 GSPS 1.0 GSPS 500 MSPS 1.0 GSPS (single)
Supply Voltage 1.9 V 1.9 V 1.9 V 1.9 V 1.9 V 1.9 V
Architecture Folding and Interpolating Folding and Interpolating Folding and Interpolating Folding and Interpolating Folding and Interpolating Folding and Interpolating
Output Interface LVDS / Parallel LVDS / Parallel LVDS / Parallel LVDS / Parallel LVDS / Parallel LVDS / Parallel
Approximate Unit Price (1 pc, USD, as of 2026-10-12) 85.00 98.00 90.00 72.00 55.00 65.00

关键差异点

  • Dual simultaneous 1.5 GSPS channels in single 128-HLQFP package (对比 ADC081000CIYB)
  • Mature dual-channel 8-bit ADC ecosystem (对比 ADC083000CIYB)
  • Higher per-channel sample rate than slower dual-channel variants (对比 ADC08D1000CIYB)
  • Drop-in compatible across the ADC08D-family speed grades (对比 ADC08D1520CIYB)

设计说明

The ADC08D1500CIYB consumes approximately 1.8 W at 1.5 GSPS from a single 1.9 V supply. The analog AVDD and clock CLKVDD rails are sensitive to switching-noise coupling; use a low-noise LDO (such as TI TPS7A4701 or similar) per rail rather than a switching converter. Place 10 uF bulk plus 0.1 uF and 0.01 uF decoupling capacitors within 2 mm of each supply pin. Estimated: with 1.8 W total dissipation across the HLQFP-128 thermal pad and approximately theta_JA = 18 C/W on a 4-layer JEDEC test board with the exposed pad soldered, the junction temperature rise is approximately 32 C above ambient - well within the 125 C maximum at 85 C ambient.

The LVDS output bus operates at 750 MHz DDR (data clock DCLK) and must be routed with 100 ohm differential impedance. Maintain length matching within 5 mil across each LVDS pair, and keep pair-to-pair skew within 25 mil to preserve sample-to-sample alignment at the receiving FPGA. Use ground-plane shielding between LVDS pairs and adjacent noisy signals (clock traces, switching regulator nodes). The CLK+/CLK- input has the same requirement - length match within 5 mil and route as a 100 ohm differential pair directly from the clock generator.

Route analog inputs INA+/INA- and INB+/INB- as 100 ohm differential pairs from the input amplifier outputs. Keep analog input traces short (< 25 mm) and isolated from the digital LVDS outputs to minimize digital-noise coupling into the analog front end. The exposed thermal pad of the HLQFP-128 package MUST be soldered to a continuous ground plane on the top layer with multiple thermal vias (at least 16 vias in a 4x4 array) to a dedicated inner ground plane. Failure to solder the pad results in junction temperature rise of approximately 3x and likely thermal shutdown at full 1.5 GSPS operation.

Do not apply analog input signals before the AVDD and DVDD supplies have ramped and stabilized - the input ESD diodes can forward-bias and latch the part. Use a power sequencer or simply enable the input analog style after the supplies stabilize. Calibration is required after power-up; assert CAL by toggling the CAL pin or via the serial configuration interface, and wait for the calibration complete flag before starting clock acquisition. The TEST pin MUST be left floating (no connect) - tying it high or low places the device into factory test mode and disables normal operation.

合规信息

RoHS
Compliant
REACH
Compliant
AEC-Q100
Not Qualified
无铅
Yes
无卤
Unknown
冲突矿物
Compliant

NOPB suffix indicates lead-free and RoHS-compliant. Not AEC-Q100 qualified - this is an industrial-grade ADC (-40 to +85 C). Conflict minerals statement available on TI product page.

数据核验日期: 2026-10-12 ——数据由 XAIPART 元器件工程团队核验和整理

相关搜索

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