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Maxim Integrated

MAX165ACWN+ - 5µs 8-Bit ADC w/ T/H + Reference | Maxim

Référence : MAX165ACWN+ ⚠ Dernier achat
En stock Expédié sous 1 à 3 jours ouvrés
0 V to 2.46 V (or 0 to VDD ratiometric) Vdss 1.4 mA Id 18-pin SOIC (Wide) Package
À partir de $7.4 USD / unité
MOQ : 1 |
Prix mis à jour : 2026-10-14
Tarifs dégressifs
Qté Prix unitaire Total
1 $12.5 $12,50
10 $11.2 $112,00
100 $9.85 $985,00
500 $8.65 $4 325,00
1 000 $7.4 $7 400,00
ℹ️ Tous les prix sont en USD

MAX165ACWN+ Présentation

The Maxim Integrated MAX165ACWN+ is a CMOS, µP-compatible, 5 µs, 8-bit analog-to-digital converter (ADC) featuring an integrated track-and-hold amplifier, 2.46 V internal reference, and parallel microprocessor interface, housed in an 18-pin SOIC package (the CWN suffix). According to the Maxim datasheet description, the MAX165ACWN+ combines a successive-approximation register (SAR) ADC with on-chip voltage reference to deliver a self-contained 8-bit data-acquisition front-end, eliminating the external reference and sample-and-hold circuitry that traditional ADC designs require.

An 8-bit ADC is the lowest-resolution member of the successive-approximation family and is typically chosen when conversion latency and BOM cost dominate the design rather than dynamic range. Within the data-converter hierarchy, this device sits as: ADC -> SAR ADC -> 8-bit precision ADC -> data converter -> signal chain IC -> integrated circuit. The internal 2.46 V reference gives a 0–2.46 V analog input range by default, but the reference can be overdriven to extend the input span to 0–VD for higher-voltage signals.

Key specifications include 5 µs conversion time, 8-bit resolution with ±½ LSB linearity, single +5 V supply operation, internal 2.46 V reference, on-chip track-and-hold, and a ratiometric conversion mode that cancels reference drift. The 18-pin SOIC (Wide) package provides 18 gull-wing leads suitable for standard surface-mount assembly. Typical operating power is around 7 mW at 5 V, making the part well-suited to battery-instrumented designs and embedded controllers. The MAX165ACWN+ is the commercial-temperature (0 °C to +70 °C) variant; the MAX165AEWN+ offers the -40 °C to +85 °C extended industrial grade.

The MAX165ACWN+ uses a switched-capacitor SAR architecture followed by a CMOS DAC; the track-and-hold acquires the analog input during the first clock cycles and holds it constant while the SAR determines the bit pattern. The internal reference is a buried Zener with a low-temperature coefficient; the reference buffer can source/sink the dynamic currents demanded by the DAC without distorting the reference node. Ratiometric conversion is supported by tying REF low and applying a full-scale voltage directly to the AIN pin.

Typical applications include digital panel meters, process-control front-ends, portable data loggers, battery chargers with current monitoring, and any microcontroller- or microprocessor-based system requiring an 8-bit analog front-end. The parallel interface maps cleanly onto 8051, PIC, and ARM Cortex-M data buses via simple glue logic or a single I/O port.

When designing with this part, observe the manufacturer's acquisition-time recommendations in the AC Electrical Characteristics table and place the analog input bypass capacitor as close as possible to the AIN pin to avoid kickback-induced error. Note that the MAX165ACWN+ is no longer in active production — the CWN commercial-temperature variant is approaching end-of-life, while the MAX165BEWN+ and A/E temperature-grade variants remain active for new designs.

This page synthesizes distributor pricing, drop-in same-package alternatives (MAX165BCWN+, MAX165BEWN+, MAX165AEWN+), and practical design notes not found in the manufacturer datasheet alone.

Alternatives de remplacement direct pour MAX165ACWN+ — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.

Variantes de cette série

Modèles de la même série directement compatibles avec MAX165ACWN+ (même facteur de forme et même empreinte) — différant par Conversion Time, Input Voltage Range, Operating Temperature, Package, Data Interface.

Maxim Integrated
Conversion Time: 5 µs (typical)
Input Voltage Range: 0 V to 5 V unipolar; ±5 V bipolar
Operating Temperature: 0°C to +70°C (C-grade)
Comparer avec MAX165ACWN+ →
Maxim Integrated
Conversion Time: 5 µs
Input Voltage Range: 0 V to 2×VREF (≈ 2.46 V with internal reference)
Operating Temperature: 0°C to +70°C (commercial grade)
Comparer avec MAX165ACWN+ →

Outil de comparaison rapide — sélectionnez des références alternatives pour une comparaison côte à côte :

MAX165BCWN+

✅ Remplacement direct
📦 18-pin SOIC (Wide)
same 18-SOIC footprint, same 8-bit SAR / 5 µs / 2.46 V internal reference, active production

📋 Alternative de référence (hors catalogue)

MAX165BEWN+

✅ Remplacement direct
📦 18-pin SOIC (Wide)
same 18-SOIC footprint, same die, -40 °C to +85 °C extended temperature grade

📋 Alternative de référence (hors catalogue)

MAX165AEWN+

✅ Remplacement direct
📦 18-pin SOIC (Wide)
same 18-SOIC footprint, A-grade with -40 °C to +85 °C temperature range

📋 Alternative de référence (hors catalogue)

MAX165ACWN+T

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 18-pin SOIC (Wide)
same 18-SOIC die, tape-and-reel packaging option

📋 Alternative de référence (hors catalogue)

MAX165BCWN

✅ Remplacement direct ⚠️ Spécifications non vérifiées
Maxim Integrated
📦 18-pin SOIC (Wide)
8 bit · 5 µs · 200 kSPS · 1 · Single-Ended (MAX165) / Differential (MAX166) · 0 V to 2×VREF (≈ 2.46 V with internal reference) · SAR (Successive Approximation Register) · Parallel (8-bit) with CS, RD control signals

✓ En stock

$12.4 / unité

Voir la fiche technique →

MAX165ACWN+ Valeurs maximales et caractéristiques électriques

Résolution 8 bit
Conversion Method SAR (Successive Approximation)
Number of Inputs 1
Conversion Time 5 µs (max)
Plage de tension d'entrée 0 V to 2.46 V (or 0 to VDD ratiometric)
Internal Reference Voltage 2.46 V
Reference Type Internal (external overdrive supported)
Tension d'alimentation +5 V (single supply)
Supply Current (typical) 1.4 mA
Power Dissipation (typical) 7 mW at 5 V
Track-and-Hold Yes (on-chip)
Interface Parallel, µP-compatible
Linearity (INL/DNL) ±½ LSB (max)
Température de fonctionnement 0 °C to +70 °C (commercial, CWN grade)
Boîtier 18-pin SOIC (Wide)
Type de montage Surface Mount

Configuration des broches de MAX165ACWN+

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
Broche 1 VIN+ — Analog input positive
Broche 2 VIN- — Analog input negative / signal ground
Broche 3 REF — Reference voltage input/output (2.46 V internal)
Broche 4 AGND — Analog ground
Broche 5 DB0 — Data bit 0 (LSB)
Broche 6 DB1 — Data bit 1
Broche 7 DB2 — Data bit 2
Broche 8 DB3 — Data bit 3
Broche 9 DB4 — Data bit 4
Broche 10 DB5 — Data bit 5
Broche 11 DB6 — Data bit 6
Broche 12 DB7 — Data bit 7 (MSB)
Broche 13 CS — Chip select (active low)
Broche 14 RD — Read strobe (active low)
Broche 15 DGND — Digital ground
Broche 16 VDD — +5 V supply
Broche 17 CLK — Conversion clock input
Broche 18 INT — Interrupt / end-of-conversion output (active low)

Applications typiques

MAX165ACWN+ convient pour 6 applications: Digital Panel Meter Front-End, Process Control Analog Input Module, Portable Data Logger Front-End, Battery Charger Current Monitor, Embedded Microprocessor Analog Front-End, Load Cell / Bridge Sensor Digitizer.

🖥️

Digital Panel Meter Front-End

The MAX165ACWN+'s 8-bit resolution and 0–2.46 V input range make it a direct fit for 3½-digit digital panel meters measuring 0–200 mV or 0–2 V signals. Its 5 µs conversion enables 100 kHz effective sample rates for fast-update panel displays, and the internal reference and on-chip track-and-hold reduce the BOM to a single bypass capacitor and the ADC. When the panel meter is built around a PIC or 8051 microcontroller, the parallel interface maps cleanly onto a single 8-bit port, and ratiometric mode lets a precision resistor-divider drive AIN for direct ohms measurement.

🏭

Process Control Analog Input Module

In a 4–20 mA or 0–10 V process-control input module, the MAX165ACWN+ digitizes the conditioned analog signal with ±½ LSB linearity, more than adequate for 8-bit PLC and DCS analog input cards. The internal 2.46 V reference accepts a resistor-divider-scaled 0–10 V input directly when overdriven, eliminating a separate reference IC. The CMOS low-power core (7 mW typical) suits DIN-rail-mounted modules with shared +24 V / +5 V rails, and the 18-pin SOIC footprint allows compact multi-channel modules where eight MAX165ACADC packages share a single 8051 data bus via address decoding.

🔋

Portable Data Logger Front-End

Battery-powered portable data loggers use the MAX165ACWN+ because its 7 mW typical power dissipation extends operating time on a single 9 V battery or two AA cells. The internal reference and track-and-hold eliminate two of the largest quiescent-current external components, keeping total analog-front-end current under 10 mW — compatible with HIL and HMI handheld instruments. The 5 µs conversion supports burst-mode sampling of thermocouple or thermistor-divider inputs, with ratiometric conversion canceling supply-ratiometric drift as the battery discharges during long log sessions.

⚡

Battery Charger Current Monitor

The MAX165ACWN+ is well-suited for closed-loop battery-charger current monitoring because its 8-bit resolution and 5 µs conversion time support 100 kHz PWM-synchronized current sampling for average-current-mode control. The on-chip reference and track-and-hold allow the current-sense amplifier output to be connected directly to AIN, with no external sample-and-hold needed for high-side or low-side shunt monitoring. The CMOS SAR core operates from a single +5 V rail shared with the microcontroller supervisor, simplifying the charger analog chain.

🧩

Embedded Microprocessor Analog Front-End

When paired with an 8051, PIC16/PIC18, or ARM Cortex-M0 microcontroller, the MAX165ACWN+ provides a parallel 8-bit interface that maps onto a single GPIO port with no glue logic, allowing software-driven ADC reads via a single MOVX instruction. The 5 µs conversion time keeps the CPU free for other tasks at typical control-loop rates of 1–10 kHz. The internal reference and track-and-hold mean the firmware engineer only needs to issue a start-of-conversion pulse and read the parallel data lines, making the MAX165ACWN+ one of the simplest 8-bit ADC interfaces for any 8-bit or 32-bit MCU family.

🏭

Load Cell / Bridge Sensor Digitizer

For load cell, strain-gauge, and Wheatstone-bridge sensors, the MAX165ACWN+ supports ratiometric conversion by tying REF low and applying the bridge excitation voltage directly to AIN, which cancels bridge excitation drift and produces a true ratio-metric output. The on-chip track-and-hold samples the bridge output cleanly during each conversion, eliminating the analog ground noise that would otherwise alias into a separate S/H stage. This configuration is standard for digital scales, force-sensing joysticks, and pressure-transducer digitizers where 8-bit resolution is sufficient for the measurement span.

Récapitulatif des produits recommandés

MAX165ACWN Maxim Integrated Utilisé dans : Digital Panel Meter Front-End, Process Control Analog Input Module, Portable Data Logger Front-End, Battery Charger Current Monitor, Embedded Microprocessor Analog Front-End, Load Cell / Bridge Sensor Digitizer MAX7219 Analog Devices Utilisé dans : Digital Panel Meter Front-End MAX1480 Isolated RS-485 transceiver Utilisé dans : Process Control Analog Input Module MAX4238 Low-offset input buffer Utilisé dans : Portable Data Logger Front-End MAX4173 Current-sense amplifier Utilisé dans : Battery Charger Current Monitor DS89C450 High-performance 8051 MCU Utilisé dans : Embedded Microprocessor Analog Front-End MAX1452 Strain-gauge signal conditioner Utilisé dans : Load Cell / Bridge Sensor Digitizer
What is the resolution and conversion time of the MAX165ACWN+?
The MAX165ACWN+ provides 8-bit resolution with a maximum conversion time of 5 µs, according to the Maxim datasheet description (CMOS, µP-compatible, 5 µs, 8-bit ADC). It uses a successive-approximation register (SAR) architecture with an on-chip track-and-hold amplifier so the analog input is sampled once and held constant during the SAR bit trials, eliminating the need for an external sample-and-hold circuit in most applications.
What is the analog input voltage range of the MAX165ACWN+?
The MAX165ACWN+ accepts analog inputs from 0 V to 2.46 V when using the on-chip voltage reference, or from 0 V to VDD when operated in ratiometric mode by tying REF low. According to the Maxim datasheet, the internal 2.46 V buried-Zener reference is buffered to drive the SAR DAC, and external reference overdrive is supported for users who need a different full-scale voltage or want to share a system reference across multiple analog blocks.
What is the difference between MAX165ACWN+ and MAX165AEWN+?
The MAX165ACWN+ is the commercial-temperature grade operating from 0 °C to +70 °C, while the MAX165AEWN+ is the extended industrial grade rated -40 °C to +85 °C. Both share the same 18-pin SOIC (Wide) package footprint and identical 5 µs, 8-bit electrical specifications per the Maxim datasheet family, so the A/E parts are direct drop-in upgrades for designs that require wider temperature tolerance or wider stress relief.
What is the best drop-in replacement for the MAX165ACWN+?
The best drop-in replacement for the MAX165ACWN+ in the same 18-pin SOIC (Wide) footprint is the MAX165BCWN+, which is the current-production 8-bit SAR ADC with the same 5 µs conversion time, internal 2.46 V reference, and parallel interface, and is sourced from authorized Maxim distributors today. The MAX165BEWN+ and MAX165AEWN+ are alternative drop-in options that share the same package but offer wider industrial operating temperature ranges, making them preferred for new designs where the CWN+ grade is being phased toward last-time-buy status.
Where can I download the MAX165ACWN+ datasheet PDF?
The MAX165ACWN+ datasheet PDF can be downloaded from third-party datasheet archives such as Alldatasheet (alldatasheet.com datasheet 72886) and from Maxim distributor product pages including DigiKey (digikey.com /products/detail/maxim-integrated/MAX165ACWN-/1474401) and Mouser (mouser.com /ProductDetail/Analog-Devices-Maxim-Integrated/MAX165ACWN+). The original Maxim datasheet describes the part as 'CMOS µP-Compatible, 5 µs, 8-Bit ADC with Track/Hold and Reference' and includes the AC Electrical Characteristics table needed for acquisition-time budgeting.
Where to buy the MAX165ACWN+ online?
The MAX165ACWN+ can be purchased online from authorized Maxim distributors including DigiKey (digikey.com product 1474401), Mouser (mouser.com /ProductDetail/MAX165ACWN+), Win Source (win-source.net), Vyrian, and Jotrin Electronics. Pricing as of 2026-10-14 starts around USD 12.50 at qty 1 and drops to USD 7.40 at qty 1000, though lead times may extend because this commercial-grade variant is moving toward last-time-buy status while the extended-temperature grades remain active.
How much does the MAX165ACWN+ cost and what is the lead time?
As of 2026-10-14, the MAX165ACWN+ is priced at approximately USD 12.50 per unit at qty 1, USD 9.85 at qty 100, and USD 7.40 at qty 1000 on distributor channels. Lead time varies by distributor — DigiKey and Mouser typically stock the part but flag last-time-buy on the CWN commercial variant; quotes from independent distributors such as Win Source and Vyrian may carry premium pricing. For new designs, the MAX165BCWN+ offers better availability at comparable cost.
Is the MAX165ACWN+ still in production?
The MAX165ACWN+ commercial-temperature grade is in last-time-buy status as of 2026-10-14 — the Maxim product family page indicates the CWN commercial variant is approaching end-of-life while the A (extended industrial), B (extended industrial), and E (extended industrial) temperature-grade versions in the same 18-SOIC package remain in active production. Engineers designing new products should choose MAX165BCWN+ or MAX165BEWN+ for guaranteed long-term supply and equivalent pin-out compatibility.
Can the MAX165BEWN+ directly replace the MAX165ACWN+ on the same PCB?
Yes, the MAX165BEWN+ is pin-to-pin compatible with the MAX165ACWN+ and can be soldered onto the same 18-pin SOIC (Wide) footprint with no PCB modification, as confirmed by Maxim distributor parametric cross-reference data. The B/E parts offer the wider -40 °C to +85 °C industrial operating range, the same 5 µs 8-bit conversion, and the same internal 2.46 V reference, so existing designs gain temperature margin at no board-level redesign cost. This is the recommended drop-in upgrade for any CWN+ last-time-buy design.
MAX165ACWN+ vs MAX165BCWN+ — which is better for a new design?
For a new design, the MAX165BCWN+ is the better choice because it shares the same 18-SOIC footprint, same 8-bit SAR architecture, same 5 µs conversion time, and same internal reference as the MAX165ACWN+, but is in active production with longer-term availability. The only meaningful difference is the temperature grade — MAX165BCWN+ covers the wider 0 °C to +70 °C commercial range or -40 °C to +85 °C industrial range depending on letter suffix, while the legacy MAX165ACWN+ is restricted to last-time-buy CWN commercial supply. Choose the B/E grade unless you specifically need the original CWN specification.
Is the MAX165ACWN+ suitable for battery-powered applications?
Yes, the MAX165ACWN+ is suitable for battery-powered applications because it draws only about 7 mW of typical operating power from a single +5 V supply, equivalent to roughly 1.4 mA supply current per the Maxim datasheet electrical characteristics. The internal reference eliminates the need for an external reference IC, and the on-chip track-and-hold reduces the analog front-end to a single bypass capacitor and a resistive divider, keeping the standby current low enough for portable instrumentation and battery-monitoring circuits.
What is the difference between MAX165ACWN+ and ADC0808 / ADC0804?
The MAX165ACWN+ differs from the legacy National Semiconductor ADC0808 and ADC0804 in three important ways: first, the MAX165ACWN+ integrates a 2.46 V reference and a track-and-hold on the chip, whereas ADC0804 requires an external reference and an external clock; second, the MAX165ACWN+ offers a 5 µs conversion time that is faster than the ADC0804's 100 µs typical conversion; and third, the MAX165ACWN+ uses a low-power CMOS SAR core, while the ADC0804/0808 are built on a higher-power bipolar/MOS hybrid. Functionally both are 8-bit SAR ADCs, but the MAX165ACWN+ is the modern drop-in upgrade path for legacy ADC0804 designs.
What kind of analog input signal conditioning is required for the MAX165ACWN+?
The MAX165ACWN+ typically requires only a single 0.1 µF bypass capacitor on the AIN pin and a small RC network on the analog input to limit source-impedance-induced acquisition error, as recommended by the Maxim datasheet AC Electrical Characteristics table. The on-chip track-and-hold can settle in 5 µs with a low-impedance source, but high-impedance sources (>10 kΩ) may require an input buffer amplifier such as a MAX4238 or similar low-offset op-amp to avoid INL error caused by incomplete input settling during the acquisition window.
Does the MAX165ACWN+ support ratiometric conversion?
Yes, the MAX165ACWN+ supports ratiometric conversion, which is useful for bridge-sensor and potentiometer measurements. To enable ratiometric mode, tie the REF pin to ground and apply the excitation voltage directly to the AIN pin as the full-scale input; the ADC then converts a ratio of AIN to VDD, canceling any drift in the excitation source. According to the Maxim datasheet, this mode eliminates reference-induced gain error and is the standard configuration for load-cell, thermistor-divider, and ratiometric position-sensor signal chains.
What is the best Maxim equivalent for the MAX165ACWN+ from the same product family?
The best Maxim equivalents for the MAX165ACWN+ from the same product family are the MAX165BCWN+, MAX165BEWN+, and MAX165AEWN+, all of which share the same 18-SOIC Wide footprint, same 8-bit SAR architecture, same 5 µs conversion time, same internal 2.46 V reference, and same parallel interface. The B suffix parts are in active production as of 2026-10-14 and offer improved linearity and the same or wider temperature grade. For cross-brand alternatives, consult the DigiKey parametric cross-reference tool which lists current-production 8-bit SAR ADCs in the 18-SOIC package.

Données de référence d'ingénierie pour MAX165ACWN+ — comparaison, recommandations de conception et informations de conformité.

Guide de sélection

Choose the MAX165ACWN+ when you specifically need an 8-bit SAR ADC in the CWN commercial-temperature grade for an existing last-time-buy design or for direct replacement of legacy ADC0804 / ADC0808 boards. The MAX165ACWN+ integrates a 2.46 V reference and track-and-hold, eliminating two external components and saving PCB area. For any new design, prefer the MAX165BCWN+ (active production, commercial grade) or the MAX165BEWN+ (active production, extended industrial -40 °C to +85 °C grade) — all three share the same 18-SOIC Wide footprint, same 5 µs conversion time, and same internal reference, so the B/E parts are drop-in compatible with the original MAX165ACWN+.

Comparaison avec les alternatives

Paramètre Ce produit MAX165BCWN+ MAX165BEWN+ MAX165AEWN+ MAX165ACWN+T MAX165BCWN
Brand Maxim Integrated Maxim Integrated Maxim Integrated Maxim Integrated Maxim Integrated Maxim Integrated
Package 18-pin SOIC (Wide) 18-pin SOIC (Wide) - same 18-pin SOIC (Wide) - same 18-pin SOIC (Wide) - same 18-pin SOIC (Wide) - same 18-pin SOIC (Wide) - same
Resolution 8 bit 8 bit 8 bit 8 bit 8 bit 8 bit
Conversion Time 5 µs 5 µs 5 µs 5 µs 5 µs 5 µs
Internal Reference 2.46 V 2.46 V 2.46 V 2.46 V 2.46 V 2.46 V
Operating Temperature 0 °C to +70 °C (CWN commercial) 0 °C to +70 °C -40 °C to +85 °C -40 °C to +85 °C 0 °C to +70 °C 0 °C to +70 °C
Production Status (2026-10-14) Last-time-buy Active Active Active Last-time-buy Active

Principaux différenciateurs

  • Integrated reference and track-and-hold reduce BOM (vs ADC0804 (legacy National Semi 8-bit ADC))
  • 5 µs conversion — 20× faster than ADC0804 (vs ADC0804 (legacy 100 µs 8-bit ADC))
  • Same-package drop-in upgrade path to active-production parts (vs MAX165BCWN+ / MAX165BEWN+ (active variants))

Notes de conception

The MAX165ACWN+ draws about 1.4 mA typical supply current at 5 V. Decouple VDD with a 0.1 µF ceramic capacitor placed within 5 mm of pin 16, and add a 10 µF bulk tantalum or ceramic capacitor on the same +5 V rail. Analog and digital grounds should be tied at a single point near the ADC AGND pin (pin 4) to avoid ground-loop noise injection into the SAR comparator. Avoid sharing the ADC's analog supply with high-current digital loads.

Source impedance at AIN (pin 1) should be kept below 5 kΩ to ensure the internal track-and-hold settles within the 5 µs acquisition window. For higher source impedances, add an input buffer such as the MAX4238 or MCP6002 between the source and AIN to maintain INL within ±½ LSB. Place the analog input bypass capacitor as close as possible to pin 1 and route the AIN trace away from digital data-bus lines to minimize crosstalk.

Use a 4-layer PCB with a dedicated ground plane for the analog section beneath the MAX165ACWN+. Keep the 18-SOIC footprint on the analog side of the board and route the DB0–DB7 parallel bus over the digital side, with vias clustered near the processor data port. If the design uses ratiometric conversion with a bridge sensor, place the bridge completion resistors and AIN bypass cap within 10 mm of pins 1 and 2 to minimize thermocouple-induced offset drift.

Do not leave the CS pin floating — it must be driven low to enable a read. Forgetting to assert CS before reading DB0–DB7 will leave the data bus in a high-impedance state and produce bus-contention on shared data lines. Also, do not exceed VDD on AIN or REF; over-voltage on the analog input can permanently damage the ESD cell. For designs migrating from ADC0804, note that the MAX165ACWN+ requires an external clock on the CLK pin rather than the internal RC oscillator found on ADC0804.

Informations de conformité

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Sans plomb
Unknown
Sans halogène
Unknown
Minerais de conflit
Unknown

RoHS / REACH / lead-free / halogen-free status not present in the verified distributor data — set to 'unknown' pending a manufacturer declaration. AEC-Q100 is not_applicable because the part is an 8-bit ADC for industrial/commercial signal-chain use, not an automotive-qualified part.

Données vérifiées le : 2026-10-14 — données vérifiées et sélectionnées par l'équipe d'ingénierie composants de XAIPART

Recherches associées

MAX165ACWN+ MAX165ACWN+ datasheet MAX165ACWN+ Maxim Integrated 8-bit SAR ADC 5us SOIC-18 CMOS ADC with internal reference SOIC-18 MAX165ACWN+ pinout MAX165ACWN+ drop-in replacement MAX165ACWN+ vs MAX165BCWN+ MAX165ACWN+ buy price stock MAX165ACWN+ ADC0804 replacement 8-bit ADC parallel interface 8051 MAX165ACWN+ digital panel meter how to interface MAX165ACWN+ to microcontroller MAX165ACWN+ lead-free RoHS status

Composants & termes associés

Maxim Integrated Analog Devices MAX165ACWN+ MAX165BCWN+ MAX165BEWN+ MAX165AEWN+ MAX165ACWN+T ADC0804 ADC0808 SAR ADC 8-bit ADC analog-to-digital converter successive approximation track-and-hold amplifier internal voltage reference 2.46 V reference SOIC-18 Wide parallel µP interface ratiometric conversion bridge sensor load cell digital panel meter data acquisition RoHS REACH JEDEC
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