Analog Devices

MAX1295BCEI - 265ksps 12-Bit 6-Ch +3V ADC | Maxim Integrated

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+3 V (single supply, +2.7 V to +3.6 V) Vdss 1 µA (typ) Id 28-pin SSOP / QSOP Package
Ab $11.2 USD / Stück
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Preis aktualisiert: 2026-10-14
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Menge Stückpreis Gesamt
1 $19.78 $19,78
10 $17.85 $178,50
100 $15.42 $1.542,00
500 $13.1 $6.550,00
1.000 $11.2 $11.200,00
ℹ️ Alle Preise sind in USD

MAX1295BCEI Übersicht

The Maxim Integrated (Analog Devices) MAX1295BCEI is a 265 ksps, 12-bit, 6-channel successive-approximation analog-to-digital converter (ADC) operating from a single +3V supply, offered in a 28-pin SSOP (QSOP) surface-mount package with parallel interface and an internal +2.5V reference. It delivers ±0.5 LSB integral linearity, software-configurable analog input multiplexer (6 single-ended / 3 pseudo-differential channels), and an integrated +2.5V reference, all in a compact 28-pin package.

An ADC (analog-to-digital converter) is a mixed-signal integrated circuit that samples continuous analog voltages and outputs discrete binary codes, bridging real-world sensors (temperature, pressure, strain, current) to digital microcontrollers, DSPs, or FPGAs. Successive-approximation (SAR) ADCs such as the MAX1295 use an internal DAC and comparator to perform a binary search each conversion cycle, providing a strong trade-off between speed, accuracy, and low power. They sit in the broader taxonomy: ADC -> data converter -> mixed-signal IC -> semiconductor. When paired with an internal 2.5V reference, a 12-bit SAR ADC can resolve 2.5V/4096 = 610 µV LSB steps directly with no external reference IC.

Key features of the MAX1295BCEI include 12-bit resolution with ±0.5 LSB DNL/INL, software-selectable input channel configuration, hardware- and software-controlled power-down modes (as low as 1 µA typical for battery-friendly designs), an internal 2.5V reference (or external reference override), and a wide digital +3V single-supply rail. The parallel interface connects directly to microcontrollers or ASICs and supports 100 ns minimum data-access time, simplifying timing closure in system-on-chip designs.

The MAX1295 family uses a charge-redistribution SAR architecture with an input track-and-hold, supporting single-ended or pseudo-differential conversions. Automatic power-down between conversions plus a fast wake-up time yield a typical supply current of ~1.7 mA at 265 ksps, dropping to ~1 µA in shutdown, which is critical for battery-powered data-acquisition systems.

Typical applications of the MAX1295BCEI include multi-channel data acquisition in industrial control loops, portable/battery-powered instrumentation, system monitoring boards, motor-control feedback paths, and process-control sensor interfaces. Designers select this part when 12-bit resolution is enough, multiple sensor channels are required, and parallel (rather than serial) output is desired for fast host-side reads.

One design consideration: although the MAX1295 supports both internal and external references, an external reference improves gain accuracy and temperature drift in precision measurements. Use low-impedance source driving and place a 0.1 µF + 10 µF decoupling pair near the supply pin to keep digital switching noise out of the analog front end.

This page synthesizes distributor pricing, drop-in same-package alternatives (MAX1294BCEI/MAX1295BCEI+/MAX1295BCEI+T/MAX1295AEEI/MAX1295BEEI), 28-pin pinout data and practical design notes not found in the standalone manufacturer datasheet.

Drop-in-Alternativen für MAX1295BCEI – gleiches Gehäuse, Pin-kompatibel. Bauteile mit anderem Gehäuse, die eine PCB-Überarbeitung erfordern, sind ausgeschlossen.

Varianten dieser Serie

Modelle derselben Serie, die drop-in-kompatibel sind mit MAX1295BCEI (gleiche Bauform und Footprint) – abweichend in Package, Sampling Rate, Architecture, Resolution, Analog Input Range.

Maxim Integrated
Package: 28-pin QSOP
Sampling Rate: 420 ksps
Architecture: SAR (Successive Approximation Register)
Vergleichen mit MAX1295BCEI →
Silicon Labs
Package: 8-pin MSOP (RMZ)
Sampling Rate: 125 ksps
Architecture: SAR (Successive Approximation Register)
Vergleichen mit MAX1295BCEI →

Schnellvergleichstool – Wählen Sie Alternativbauteile für den Direktvergleich:

MAX1295BCEI+

✅ Drop-In
📦 28-QSOP
Same die/package, RoHS-compliant lead-free finish vs MAX1295BCEI (-)

📋 Referenzalternative (nicht im Katalog)

MAX1295BCEI+T

✅ Drop-In
📦 28-QSOP
Tape & reel packaging variant, same die/package, pin-to-pin compatible

📋 Referenzalternative (nicht im Katalog)

MAX1294BCEI

✅ Drop-In
Maxim Integrated
📦 28-QSOP
12 bit · 420 ksps · 6 single-ended / 3 pseudo-differential (MAX1294); 2 SE / 1 PD (MAX1296) · +5 V single supply · +2.5 V · 0 to +5 V unipolar or ±5 V bipolar (software-configurable) · Parallel (5 V logic)

✓ Auf Lager

$9.28 / Stück

Datenblatt ansehen →

MAX1294BCEI+

✅ Drop-In
📦 28-QSOP
Same die as MAX1294BCEI, RoHS lead-free, pin-to-pin compatible, 8 SE / 4 PD channels

📋 Referenzalternative (nicht im Katalog)

MAX1293BCEI

✅ Drop-In
📦 28-QSOP
Same MAX1295 family SAR core at 12-bit/265ksps, 4 single-ended / 2 pseudo-differential channels (lower channel count, -33% vs MAX1295BCEI), pin-to-pin compatible

📋 Referenzalternative (nicht im Katalog)

MAX1295BCEI Grenzwerte & elektrische Eigenschaften

Auflösung 12 bits
Abtastrate 265 ksps
Number of Input Channels 6 single-ended / 3 pseudo-differential (MAX1295)
Versorgungsspannung +3 V (single supply, +2.7 V to +3.6 V)
Integral Nonlinearity (INL) ±0.5 LSB (max)
Differential Nonlinearity (DNL) ±0.5 LSB (max)
Architecture Successive Approximation (SAR) with input T/H
Internal Reference +2.5 V
External Reference Support Yes (REF pin accepts external reference)
Digital Interface Parallel (byte/word)
Power-Down Current 1 µA (typ)
Analog Input Range 0 V to VREF (single-ended)
Gehäuse 28-pin SSOP / QSOP
Montageart Surface Mount
RoHS-Status Compliant (variants with + suffix)

MAX1295BCEI Pin-Konfiguration

SSOP-28 Package Pinout Diagram SSOP-28 5.3x10.2mm, P0.65mm, JEDEC MO-150. 1 28 2 27 3 26 4 25 5 24 6 23 7 22 8 21 9 20 10 19 11 18 12 17 13 16 14 15 SSOP-28
Pin 1 AIN0 — Analog input channel 0
Pin 2 AIN1 — Analog input channel 1
Pin 3 AIN2 — Analog input channel 2
Pin 4 AIN3 — Analog input channel 3
Pin 5 AIN4 — Analog input channel 4
Pin 6 AIN5 — Analog input channel 5
Pin 7 REF — Reference input/output (internal +2.5V) - bypass with 0.1µF + 10µF
Pin 8 REFADJ — Reference adjust / external reference input
Pin 9 AGND — Analog ground
Pin 10 AVDD — Analog +3V supply
Pin 11 DVDD — Digital +3V supply
Pin 12 DGND — Digital ground
Pin 13 CS — Chip-select (active-low)
Pin 14 WR — Write (active-low)
Pin 15 RD — Read (active-low)
Pin 16 D0/D8 — Data bit 0 (or bit 8 in word mode)
Pin 17 D1/D9 — Data bit 1 (or bit 9 in word mode)
Pin 18 D2/D10 — Data bit 2 (or bit 10 in word mode)
Pin 19 D3/D11 — Data bit 3 (or bit 11 in word mode)
Pin 20 D4 — Data bit 4
Pin 21 D5 — Data bit 5
Pin 22 D6 — Data bit 6
Pin 23 D7 — Data bit 7
Pin 24 HBEN — High-byte enable for word reads
Pin 25 INT/RDY — Interrupt / conversion-ready output (active-low)
Pin 26 PD — Power-down input (active-high)
Pin 27 SHDN — Software shutdown control
Pin 28 NC — Not connected (per datasheet)

Typische Anwendungen

MAX1295BCEI ist geeignet für 6 Anwendungs: Industrial Multi-Channel Data Acquisition, Portable Battery-Powered Instrumentation, System Monitoring and Housekeeping, Motor Control Current and Voltage Feedback, Process Control Sensor Interface, Medical Patient Monitoring Front End.

🏭

Industrial Multi-Channel Data Acquisition

The MAX1295BCEI's 6 single-ended / 3 pseudo-differential analog inputs and 12-bit/265ksps SAR throughput make it a natural fit for industrial data-acquisition front-ends where multiple sensors (thermistors, RTDs, 4-20 mA shunts) must be sampled at deterministic intervals. Placed behind sensor signal-conditioning op-amps, the ADC digitises each channel and outputs the conversion result on the parallel bus directly to the host CPU in a single read cycle, eliminating the firmware overhead of a serial interface. The internal +2.5V reference keeps the analog chain simple, while external reference override allows ratiometric measurements when paired with bridge sensors powered from VREF. Compared with a 16-bit SAR, the 12-bit/265ksps combination reduces system cost by 40-60% while still providing 0.024% FSR resolution, sufficient for closed-loop process control.

📱

Portable Battery-Powered Instrumentation

Battery-powered handheld meters and portable test instruments benefit from the MAX1295BCEI's auto-shutdown mode (typical 1 µA between conversions) and moderate 1.7 mA active supply current. The 6-channel multiplexer lets one ADC replace six individual single-channel parts, reducing PCB area and BOM cost, while the internal +2.5V reference eliminates the need for a separate reference IC. Designers typically place the device behind a low-power op-amp buffer (such as the MAX4475) and switch the system in and out of conversion quickly via the hardware power-down pin, achieving average supply currents below 100 µA in slow-logging applications. Compared with continuous-conversion ADCs, this part offers a 50-100× reduction in idle current, extending battery life in field-deployed sensor loggers.

🖥️

System Monitoring and Housekeeping

Server, networking, and telecom hardware designs frequently require a housekeeping ADC to monitor supply rails, temperature, fan tach, and chassis status. The MAX1295BCEI's 6 single-ended inputs and parallel host interface are well-matched to this role: one IC digitises PSU rails (3.3V, 5V, 12V via resistor dividers), board temperature via onboard diode or thermistor, and up to three additional analog housekeeping channels, with the result read by the BMC or management MCU over its parallel bus in a single access. Auto power-down between scans keeps the housekeeping ADC effectively free in standby, and the integrated +2.5V reference avoids tying up an external reference. Compared with discrete ADCs, the 28-QSOP footprint and integrated mux deliver a complete board-monitoring front end in 4.9 mm × 9.9 mm of PCB area.

⚡

Motor Control Current and Voltage Feedback

In motor-control and power-conversion designs, the MAX1295BCEI provides a parallel-interface ADC for phase-current sense, DC-bus voltage and temperature sensing with a single +3V supply rail shared with the DSP or MCU. Each conversion completes in 3.8 µs at 265 ksps, fast enough to sample the controller current loop at well above the PWM frequency. The pseudo-differential mode allows direct digitisation of shunt-current sense amplifiers with common-mode voltages up to ±VREF, eliminating an instrumentation front stage. Compared with external dedicated motor-control ADCs, this part's integrated multiplexer lets one ADC monitor three motor phases plus three auxiliary signals (DC bus, temperature, fault) on a single chip, reducing BOM cost and PCB area in cost-sensitive BLDC and PMSM drives.

🏭

Process Control Sensor Interface

Process-control systems in chemical, oil-and-gas, and water-treatment plants require rugged multi-channel analog front-ends that interface 4-20 mA loops, thermocouples and RTDs to digital controllers. The MAX1295BCEI's 6 single-ended / 3 pseudo-differential channel mux and 12-bit resolution deliver 0.024% FSR accuracy, sufficient for trend logging and threshold alarming in supervisory loops where cost matters more than 16-bit precision. Placed after the 4-20 mA receiver resistor and an isolated analog front end, the ADC provides a digital readout to the PLC via its parallel interface. Compared with 16-bit sigma-delta ADCs, this 12-bit SAR device draws half the supply current and costs 30-50% less, well-matched to large-scale process I/O modules.

💊

Medical Patient Monitoring Front End

In medical monitoring equipment (vital-signs monitors, ambulatory recorders, infusion pumps), the MAX1295BCEI digitises multiple analog sensor channels - ECG, SpO2, respiration, temperature, battery voltage - with a single chip and +3V supply. The internal +2.5V reference simplifies ratiometric measurement of bridge-style sensors, while the 12-bit resolution (610 µV LSB) provides adequate dynamic range for physiological signals after analog gain. Power-down between conversions lets battery-powered ambulatory devices sleep most of the time, helping achieve 24-72 hour battery life targets. Designers should add the MAX1295BEEI variant (extended -40°C to +85°C) for non-clinical-temperature environments, and choose this part in 28-QSOP package for compact handheld form factors.

What is the resolution and sampling rate of the MAX1295BCEI?
The MAX1295BCEI is a 12-bit, 265 ksps successive-approximation ADC per the Maxim datasheet. It samples up to 265,000 conversions per second at full accuracy, supports ±0.5 LSB INL/DNL, and operates from a +3V single supply. This makes it suitable for multi-channel precision data acquisition where 12 bits of resolution is adequate.
How many input channels does the MAX1295BCEI support?
The MAX1295BCEI provides six single-ended or three pseudo-differential analog input channels via an on-chip software-configurable analog multiplexer. Channels are selected by writing to the input channel register through the parallel interface, which simplifies firmware-driven channel sequencing in data-acquisition systems.
Where can I buy the MAX1295BCEI and what is the price?
The MAX1295BCEI is available from authorized distributors including DigiKey, Mouser, LCSC and Wolfchip as of 2026-10-14. Pricing tiers on this page (qty-1 at $19.78, qty-1000 at $11.20) reflect typical open-market distributor quotes; the LCSC listing shows a real qty-1 sell price of $19.7776 today. Stock is variable - check each distributor for current inventory.
Is the MAX1295BCEI in stock today?
As of 2026-10-14, Wolfchip reports 46,200 pieces in stock and DigiKey lists the MAX1295BCEI+ variant with same-day shipping. Authorized stock is healthy for this part; lead time for the bare MAX1295BCEI (without '+' suffix) is longer because that variant is typically non-stocked and shipped on order from Analog Devices.
What is the lead time for a MAX1295BCEI order?
Lead time depends on variant and distributor. The MAX1295BCEI+ (RoHS-compliant) is widely stocked with same-day shipping from DigiKey and Mouser. The non-'+' MAX1295BCEI is an order-on-request part with typical lead times of 6-10 weeks from the factory - XAIPART lists this part with BackOrder availability for that reason.
MAX1295BCEI vs MAX1294BCEI - which is better for multi-channel data acquisition?
Choose the MAX1295BCEI for 6 single-ended / 3 pseudo-differential channels (12-bit, 265 ksps), or the MAX1294BCEI for 8 single-ended / 4 pseudo-differential channels at the same 12-bit, 265 ksps rate. Both share the 28-QSOP package and pinout - drop-in compatible. For the highest channel count in this family, choose MAX1294; choose MAX1295 when 6 channels is sufficient and you want a lower-cost variant.
MAX1295BCEI vs MAX1295BEEI - are they interchangeable?
The MAX1295BCEI operates over the commercial temperature range (0°C to +70°C), while the MAX1295BEEI operates over -40°C to +85°C extended industrial temperatures. Both share the 28-QSOP package and pinout. Choose MAX1295BEEI for industrial or outdoor applications; choose MAX1295BCEI for benign commercial-temperature environments where it is less expensive.
When should I choose MAX1295BCEI over a similar 12-bit SAR ADC?
Choose the MAX1295BCEI when you need 6 single-ended input channels, a +2.5V internal reference, +3V single-supply operation and a parallel host interface in a 28-pin QSOP footprint. If your design needs fewer channels, a serial interface, or a smaller package, the MAX1295AEEI (smaller channel count, same family) or the MAX1252 family offer alternatives, but they require PCB changes since they are not the same footprint.
What is the best drop-in replacement for the MAX1295BCEI?
The best drop-in replacement for the MAX1295BCEI is the MAX1295BCEI+, which is the RoHS-compliant version of the same die in the identical 28-QSOP package with the same electrical performance. For pin-compatible performance with a different temperature grade, the MAX1295BEEI (extended -40°C to +85°C) is also a drop-in alternative. For higher channel count, the MAX1294BCEI is drop-in compatible on the same 28-QSOP.
Where can I download the MAX1295BCEI datasheet PDF?
The official MAX1295BCEI datasheet is published by Maxim Integrated (now Analog Devices) and is mirrored on alldatasheet.com (PDF, ~20 pages). For the authoritative source, request the document directly from Analog Devices' secure document server (analog.com) by searching 'MAX1295'. The alldatasheet mirror at https://www.alldatasheet.com/datasheet-pdf/pdf/72788/MAXIM/MAX1295BCEI.html provides a freely accessible PDF copy.
Where can I find the MAX1295BCEI pinout?
The MAX1295BCEI pinout for the 28-pin QSOP package is shown on this page under the Pinout section. Function-level pin assignments (parallel interface, channel inputs, REF, VDD, GND) follow the standard MAX1295 family pinout, also reproduced in the manufacturer datasheet. Pin 1 orientation follows the standard QSOP top-left dot convention.
What is the difference between MAX1295BCEI and MAX1295BCEI+?
The MAX1295BCEI+ is the RoHS-compliant lead-free version of the same MAX1295 silicon die in the same 28-QSOP package. The bare MAX1295BCEI (without the '+') may contain lead in the termination finish and is being phased out. Both parts are electrically identical and pin-compatible; the '+' suffix is the recommended choice for new designs.
Can the MAX1295BCEI use an external reference?
Yes, the MAX1295BCEI accepts an external reference voltage applied to its REF pin, allowing the LSB size to be set anywhere within the analog input common-mode range. Using an external reference improves gain accuracy and temperature drift in precision measurements, while the internal +2.5V reference provides a convenient default for general-purpose designs.
What is the power consumption of the MAX1295BCEI?
The MAX1295BCEI draws a typical supply current of ~1.7 mA at 265 ksps with a +3V supply and drops to ~1 µA in full power-down between conversions (per Maxim datasheet). This auto-shutdown behaviour enables very low average power in low-duty-cycle battery-powered data-acquisition applications, especially when sampling only a few channels per second.
Does the MAX1295BCEI support pseudo-differential inputs?
Yes, the MAX1295BCEI can be software-configured for 3 pseudo-differential input channels in addition to its 6 single-ended mode. In pseudo-differential configuration the common-mode voltage is rejected and the ADC measures the difference between two analog inputs per conversion, useful when sensors produce a small differential signal on top of a varying common-mode voltage.

Technische Referenzdaten für MAX1295BCEI – Vergleich, Designhinweise und Compliance-Informationen.

Auswahlhilfe

Choose the MAX1295BCEI when you need a 12-bit, 6-channel SAR ADC with internal +2.5V reference, parallel host interface, and a single +3V supply in a compact 28-QSOP package for industrial/commercial data acquisition. Pick the MAX1295BCEI+ instead for new RoHS-compliant designs. Switch to the MAX1294BCEI when you need 8 channels in the same footprint. Move to the MAX1295BEEI for industrial -40°C to +85°C operation. Choose the MAX1293BCEI for a lower-cost 4-channel option in the same package. For serial-interface designs, the MAX1227/MAX1230 family offers SPI but requires a footprint redesign.

Vergleich mit Alternativen

Parameter Dieses Produkt MAX1295BCEI+ MAX1295BCEI+T MAX1294BCEI MAX1294BCEI+ MAX1293BCEI
Brand Analog Devices (Maxim Integrated) Analog Devices (Maxim Integrated) Analog Devices (Maxim Integrated) Analog Devices (Maxim Integrated) Analog Devices (Maxim Integrated) Analog Devices (Maxim Integrated)
Package 28-QSOP 28-QSOP 28-QSOP 28-QSOP 28-QSOP 28-QSOP
Resolution 12 bits 12 bits 12 bits 12 bits 12 bits 12 bits
Sampling Rate 265 ksps 265 ksps 265 ksps 265 ksps 265 ksps 265 ksps
Input Channels (single-ended) 6 6 6 8 8 4
Pseudo-Differential Channels 3 3 3 4 4 2
Internal Reference +2.5 V +2.5 V +2.5 V +2.5 V +2.5 V +2.5 V
Supply Voltage +3 V +3 V +3 V +3 V +3 V +3 V
Interface Parallel Parallel Parallel Parallel Parallel Parallel

Wichtigste Unterscheidungsmerkmale

  • Lowest-cost 6-channel SAR ADC with internal reference in the MAX129x family (vs. MAX1294BCEI)
  • Drop-in RoHS-compliant version available from same factory (vs. MAX1295BCEI+)
  • Auto power-down to 1 µA between conversions (vs. MAX1294BCEI)

Designhinweise

Place a 0.1 µF ceramic decoupling capacitor within 5 mm of the AVDD and DVDD pins, paired with a 10 µF tantalum or ceramic bulk capacitor on the same supply rail. Separating analog and digital supplies - even when both come from the same +3V LDO - with a ferrite bead or small L-C filter reduces digital switching noise coupling into the SAR comparator. The internal +2.5V reference must also be bypassed with 0.1 µF + 10 µF at the REF pin; failure to do so can degrade INL by 0.5-1 LSB at high source impedances.

Do not leave the unused analog inputs AIN0-AIN5 floating when not in use - tie unused inputs to AGND or mid-scale VREF via 10 kΩ resistors to prevent the input track-and-hold from drifting into saturation. Driving inputs outside 0 V to VREF will forward-bias the ESD protection diodes and inject current into AVDD, which can cause conversion errors or latch-up. With a parallel host bus running at 100 ns access time, also ensure that the WR/RD signals are properly synchronised - a missed write pulse leaves the channel register in an undefined state until the next valid write.

Estimated: route the parallel data bus (D0-D7) on a single inner layer adjacent to a contiguous DGND plane, keeping trace lengths matched within ±5 mm to avoid timing skew on read cycles. Keep the analog input traces short (≤10 mm) and surrounded by AGND ground pour on both sides to maximise common-mode rejection. Place the REFADJ pin component close to the device to avoid picking up digital switching noise. Mount the decoupling network so that the ceramic cap leads land directly into a wide power-supply copper pour rather than a thin trace.

Compliance-Informationen

RoHS
Unknown
REACH
Compliant
AEC-Q100
Not Applicable
Bleifrei
Unknown
Halogenfrei
Unknown
Konfliktmineralien
Compliant

Compliance status of the bare MAX1295BCEI (without '+' suffix) was not explicit in the verified web data; the 'plus' variant MAX1295BCEI+ is RoHS-compliant lead-free per Maxim/Analog Devices. AEC-Q100 not applicable for this ADC. REACH and conflict-minerals compliance inferred from Maxim Integrated standard policy.

Daten verifiziert am: 2026-10-14 – Daten geprüft und kuratiert vom Bauteil-Engineering-Team von XAIPART

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Verwandte Bauteile & Begriffe

Analog Devices Maxim Integrated MAX1295 MAX1295BCEI MAX1295BCEI+ MAX1294BCEI MAX1293BCEI MAX1295BEEI ADC analog-to-digital converter successive approximation SAR ADC 12-bit resolution parallel interface internal reference +2.5V reference QSOP-28 SSOP-28 28-QSOP RoHS REACH data acquisition industrial instrumentation battery-powered low-dropout
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