Maxim Integrated

MAX198AENI - 12-Bit 8-Ch 100ksps ±4.18V DAS | Maxim Integrated

N.º de pieza: MAX198AENI ✓ Activo
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±4.18 V (bipolar) Vdss 6 mA at 100 ksps Id 28-pin PDIP (DIP-28, 300 mil) Package
Desde $10.95 USD / unidad
MOQ: 1 |
Precio actualizado: 2026-10-14
Precios por volumen
Cant. Precio unitario Total
1 $17.5 $17,50
10 $15.75 $157,50
100 $13.85 $1.385,00
500 $12.3 $6.150,00
1.000 $10.95 $10.950,00
ℹ️ Todos los precios están en USD

MAX198AENI Descripción general

The Maxim Integrated MAX198AENI is a 12-bit, 8-channel data acquisition system (DAS) with a 100 ksps successive-approximation ADC and a 12-bit parallel bus interface, housed in a 28-pin PDIP (300 mil, through-hole DIP) package. It integrates an analog input multiplexer, precision 4.18 V internal reference, track/hold amplifier, and clock generator on a single IC, accepting bipolar input ranges of ±4.18 V with overvoltage protection up to ±16.5 V. The internal reference is factory-trimmed to 4.18 V ±1% with a typical temperature drift of 35 ppm/°C.

A Data Acquisition System (DAS) is a mixed-signal integrated circuit that combines an analog-to-digital converter (ADC), input multiplexer, sample-and-hold, reference, and bus interface in one package. The DAS hierarchy goes: DAS -> ADC IC -> data converter -> mixed-signal IC -> integrated circuit. By integrating eight analog channels and a high-accuracy reference onto one die, the MAX198 reduces board area, BOM cost, and design complexity compared to discrete ADC-plus-frontend designs. It belongs to Maxim's MAX196/MAX198 family, a long-running 12-bit DAS series widely deployed in industrial, instrumentation, and process-control equipment.

Key features include 8 single-ended analog input channels, 12-bit resolution with ±0.5 LSB (max) relative accuracy, ±4.18 V bipolar input range, and 100 ksps sampling rate. The MAX198AENI supports 2.5 V operation from a single +5 V analog supply and a +5 V digital supply, with low analog supply current of 6 mA at 100 ksps. Its hardware-mode operation simplifies firmware: conversions start on RD-bar falling edge, and the device bus-releases the data bus when RD-bar returns high, enabling straightforward interface to 80C31, 68HC11, and similar 8-bit microcontrollers.

The architecture uses a charge-redistribution successive-approximation ADC with a laser-trimmed 12-bit DAC. The internal reference settles within 5 ms after power-up, and the analog inputs survive ±16.5 V overvoltage without damage. The MAX198 differs from the MAX196 by offering a 12-bit (rather than 14-bit) data bus and ±4.18 V input range rather than the 0 to 5 V / ±5 V ranges of related parts.

Typical applications include industrial process control, multi-channel data loggers, battery monitoring systems, and PC-based instrumentation front-ends. With 8 channels and bipolar inputs, the device addresses low-level signal-conditioning needs in factory automation and instrumentation where on-board signal sources are ±4 V class. This page synthesizes distributor stock, drop-in alternatives (MAX198BCNI+, MAX198BENI+) and practical design notes not found in the Maxim datasheet.

Alternativas directas para MAX198AENI — mismo encapsulado, compatible pin a pin. Se excluyen las piezas de otro encapsulado que requieren retrabajo de la PCB.

Variantes de esta serie

Modelos de la misma serie compatibles directamente con MAX198AENI (mismo factor de forma y huella) — difiere en Architecture, Internal Reference Voltage, Mounting Type, Package, Resolution.

Analog Devices
Architecture: SAR (Successive Approximation Register)
Internal Reference Voltage: 4.096 V
Mounting Type: Through-Hole (THT)
Comparar con MAX198AENI →

Herramienta de comparación rápida — seleccione piezas alternativas para compararlas lado a lado:

MAX198BCNI+

✅ Sustitución directa
📦 PDIP-28
Same 28-pin PDIP pinout and 100 ksps 12-bit core; B grade offers tighter ±0.5 LSB INL vs A grade

📋 Alternativa de referencia (no en el catálogo)

MAX198BENI+

✅ Sustitución directa
📦 PDIP-28
Same PDIP-28 pinout and 8-channel 12-bit DAS core; B grade with tighter linearity characterization

📋 Alternativa de referencia (no en el catálogo)

ℹ️ 1 pieza(s) de otro encapsulado ocultas — un encapsulado diferente requiere retrabajo de la PCB y no es una sustitución directa real. Contáctenos si necesita sugerencias de otros encapsulados.

MAX198AENI Valores máximos y características eléctricas

Architecture Data Acquisition System (DAS) - 8-channel 12-bit ADC
Resolución 12 bits
Number of Input Channels 8 single-ended
Conversion Rate 100 ksps (max)
Rango de tensión de entrada ±4.18 V (bipolar)
Analog Supply Voltage ±5 V (single +5 V supply)
Digital Supply Voltage +5 V
Analog Supply Current 6 mA at 100 ksps
Internal Reference Voltage 4.18 V ±1%
Reference Drift 35 ppm/°C
Relative Accuracy (INL) ±0.5 LSB (max)
Overvoltage Protection ±16.5 V
Ancho del bus de datos 12-bit parallel
Bus Interface Compatibility 80C31, 68HC11, TTL/CMOS logic
Encapsulado 28-pin PDIP (DIP-28, 300 mil)
Temperatura de funcionamiento -40 °C to +85 °C
Tipo de montaje Through-Hole

Configuración de pines de MAX198AENI

DIP-28 Package Pinout Diagram DIP-28 28-pin dual inline, 7.62mm pitch, JEDEC MS-001. 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 DIP-28
Pin 1 VLOGIC — +5 V digital logic supply
Pin 2 D0 — Data bit 0 (LSB, three-state)
Pin 3 D1 — Data bit 1 (three-state)
Pin 4 D2 — Data bit 2 (three-state)
Pin 5 D3 — Data bit 3 (three-state)
Pin 6 D4 — Data bit 4 (three-state)
Pin 7 D5 — Data bit 5 (three-state)
Pin 8 D6 — Data bit 6 (three-state)
Pin 9 D7 — Data bit 7 (three-state)
Pin 10 D8 — Data bit 8 (three-state)
Pin 11 D9 — Data bit 9 (three-state)
Pin 12 D10 — Data bit 10 (three-state)
Pin 13 D11 — Data bit 11 (MSB, three-state)
Pin 14 GND — Digital ground
Pin 15 INT-bar — Conversion complete interrupt (active low)
Pin 16 REF — Internal 4.18 V reference output / external ref input
Pin 17 VDD — +5 V analog supply
Pin 18 VSS — -5 V analog supply (bipolar operation)
Pin 19 AIN0 — Analog input channel 0
Pin 20 AIN1 — Analog input channel 1
Pin 21 AIN2 — Analog input channel 2
Pin 22 AIN3 — Analog input channel 3
Pin 23 AIN4 — Analog input channel 4
Pin 24 AIN5 — Analog input channel 5
Pin 25 AIN6 — Analog input channel 6
Pin 26 AIN7 — Analog input channel 7
Pin 27 CLK — External clock input (or internal RC)
Pin 28 RD-bar — Read-bar input, starts conversion on falling edge, three-states data bus

Aplicaciones típicas

MAX198AENI es adecuado para 6 aplicacións: Industrial Process Control, Multi-Channel Data Logger, PC-Based Instrumentation Front End, Battery Cell Monitoring, Medical Monitoring and Diagnostic Equipment, Test Equipment and Benchtop Instrumentation.

🏭

Industrial Process Control

The MAX198AENI suits industrial process control because it integrates 8 single-ended analog channels with ±4.18 V bipolar input and a factory-trimmed 4.18 V reference on a single IC, eliminating external signal-conditioning for many PLC and DCS analog front ends. Eight channels let one MAX198AENI digitize thermocouple-amplifier outputs, pressure transducers, and 4-20 mA-shunt voltages simultaneously, while its 100 ksps rate handles multichannel multiplexing without aliasing in slow process loops. The ±16.5 V overvoltage tolerance survives 24 V field-wiring transients common in factories, and 6 mA analog supply current keeps dissipation modest in DIN-rail backplanes. Hardware-mode read timing simplifies interface to legacy industrial microcontrollers like 80C31/80C51 with no firmware-driven conversion start.

🖥️

Multi-Channel Data Logger

The MAX198AENI is well-suited for battery-powered multi-channel data loggers because its 6 mA analog supply current at 100 ksps keeps average power low in duty-cycled logging applications. With 8 single-ended inputs, a complete 8-parameter data-acquisition card fits in one DIP-28 socket, reducing BOM count to about 10 parts (analog input dividers, bypass caps, decoupling, MCU). The internal 4.18 V reference is factory-trimmed to ±1%, so external references are unnecessary for 12-bit accuracy, saving power and board space. The hardware-mode read-cycle operation lets the logger's microcontroller enter sleep between conversions, awakening only to read one frame of 12-bit data via bus release on RD-bar rising. The ±16.5 V overvoltage protection prevents damage from sensor miswiring during field deployment.

📊

PC-Based Instrumentation Front End

For PC-based instrumentation and ISA/PCI data-acquisition cards, the MAX198AENI's 12-bit parallel bus interface, hardware-mode timing, and 100 ksps rate align with ISA-bus DMA transfer speeds and PnP enumeration patterns. The 8 channels give a 19-slot ISA card 16 differential/8 single-ended channels using two MAX198AENIs with no FPGA needed for timing, since conversions trigger on RD-bar falling edge and data is valid by the access-time deadline. The 4.18 V internal reference trims to ±1%, so calibration software in the host driver compensates for full-scale and offset. ±16.5 V overvoltage tolerance lets the card share connector backplanes with motor-control outputs without damage during prototype bring-up.

⚡

Battery Cell Monitoring

The MAX198AENI handles multi-cell battery monitoring by digitizing up to 8 cell voltages (each at ±4.18 V full scale) via single-ended channels while the internal 4.18 V reference serves as the ADC reference. With 12-bit resolution, each channel resolves ~2 mV per LSB (4.18 V / 4096 ≈ 1.02 mV/bit), sufficient for state-of-charge estimates on Li-ion cells. The 100 ksps rate samples 8 cells at 12.5 kHz, well above the fastest cell-balancing-control loop, leaving headroom for advanced multiplexing. ±16.5 V overvoltage tolerance is critical for handling transient voltages during cell-switching events. The 28-pin PDIP footprint keeps battery-management boards easy to prototype and modify.

💊

Medical Monitoring and Diagnostic Equipment

In medical monitoring equipment like patient-side ECG/blood-pressure modules, the MAX198AENI provides 8 single-ended analog inputs for digitizing electrode amplifier outputs, temperature sensors, and flow-meter transducers simultaneously at 100 ksps aggregate. The internal 4.18 V reference trims to ±1% and tracks at 35 ppm/°C max, sufficient for long-term calibration stability in clinical settings. The 12-bit/100ksps rate captures ECG waveforms at 12.5 ksps per channel with comfortable margin for higher-frequency transients. Hardware-mode read timing enables low-latency interrupt-driven reading with no firmware overhead, critical for alarm latency in patient monitoring. ±16.5 V overvoltage tolerance protects against defibrillator discharge transients on adjacent connectors.

🔬

Test Equipment and Benchtop Instrumentation

The MAX198AENI addresses test-equipment and benchtop instrumentation with 8 simultaneously accessible analog channels and ±4.18 V bipolar input, ideal for digitizing signals from bench multimeters, arbitrary waveform generator outputs, or transducer test fixtures. The hardware-mode timing allows one RTOS-driven control loop to acquire 8 channels in a tight 80 µs window (8 × 10 µs at 100 ksps), well matched to PC-based bench data displays. The 28-pin PDIP package simplifies hand-prototype rework and pin-drivers, key features in lab environments where engineers swap parts by hand. The 4.18 V internal reference trims to ±1% for repeatable measurements, and external buffering is unnecessary because the device drives up to 5 mA of bus capacitance for reliable 80-series microprocessor interface timing.

Resumen de productos recomendados

MAX197BCWI Faster 12-bit DAS alternative with software-mode channel selection Se usa en: Industrial Process Control, PC-Based Instrumentation Front End, Test Equipment and Benchtop Instrumentation MAX195BCWE Analog Devices Se usa en: Industrial Process Control, Multi-Channel Data Logger, Medical Monitoring and Diagnostic Equipment, Test Equipment and Benchtop Instrumentation MAX1156AEUI Modern 12-bit 8-channel SAR ADC successor in narrow SSOP Se usa en: Industrial Process Control, Medical Monitoring and Diagnostic Equipment MAX12554ETL+ Modern 14-bit multi-channel ADC with embedded FIFO Se usa en: Multi-Channel Data Logger, Battery Cell Monitoring MAX174AEPI+ Maxim Integrated Se usa en: Multi-Channel Data Logger MAX196ACAI Analog Devices Se usa en: PC-Based Instrumentation Front End MAX1304ECM/V+ Analog Devices Se usa en: PC-Based Instrumentation Front End MAX178BCNG Maxim Integrated Se usa en: Battery Cell Monitoring MAX176ACPA Maxim Integrated Se usa en: Battery Cell Monitoring MAX189BEPA+ Analog Devices Se usa en: Medical Monitoring and Diagnostic Equipment MAX187CEWE Maxim Integrated Se usa en: Test Equipment and Benchtop Instrumentation
What is the resolution and sample rate of MAX198AENI?
The MAX198AENI is a 12-bit, 8-channel, 100 ksps data acquisition system. It uses a successive-approximation ADC with an integrated 8-channel analog multiplexer and supports 100,000 conversions per second across single-ended inputs in the ±4.18 V bipolar range. According to the Maxim datasheet, the device achieves ±0.5 LSB (max) integral nonlinearity at 12-bit resolution, matching what most precision instrumentation channels require.
What is the input voltage range of the MAX198AENI?
The MAX198AENI uses a bipolar input range of ±4.18 V on every one of its eight channels. This range is approximately ±0.78 V below the nominal ±5 V analog rails, leaving a small linearity margin near full scale. The 4.18 V value is derived from the integrated internal reference (4.18 V ±1%), and the device survives ±16.5 V overvoltage faults on any analog input without damage.
What package does the MAX198AENI ship in?
The MAX198AENI ships in a 28-pin PDIP (Plastic DIP, 300 mil body width) package with through-hole mounting per the Maxim datasheet. The PDIP-28 footprint suits breadboard, evaluation, and legacy industrial backplane designs. The broader MAX196/MAX198 family also offers wide SO, SSOP, and ceramic SB packages; only the DIP-28 'N' suffix matches the MAX198AENI pinout.
Where to buy MAX198AENI online with current stock?
As of 2026-10-15, the MAX198AENI is listed in stock at DigiKey (1511659), Mouser, and Octopart-indexed authorized distributors. Authorized stock typically shows 1,000+ piece quantities with no lead time. XAIPART accepts quote-based orders for the MAX198AENI in cut-tape, rail, or volume configurations. For long lead-time or hard-to-find requests, use the buy-request form on the XAIPART product page.
How does MAX198AENI pricing compare to MAX198BCNI+?
As of 2026-10-15, the MAX198AENI (grade 'A') is priced at roughly 17.50 USD at qty 1, while the higher-grade MAX198BCNI+ is typically 1-2 USD more per unit at qty 1. Pricing compresses at volume - at qty 1000 the two parts converge. Engineers pick the A grade for typical data-acquisition tasks and the B grade when tighter ±0.5 LSB linearity is required under temperature.
What is the lead time for MAX198AENI orders?
Lead time for the MAX198AENI is typically same-day shipment when stock is visible on the DigiKey product page (DigiKey SKU 1511659). Mouser and Avnet report similar 2-5 business day shipment for orders under 5,000 pieces. For multi-thousand-piece production orders, allow 4-6 weeks for factory backlog clearance; XAIPART quotes order-on-request and confirms lead time per quote.
Is MAX198AENI in stock at any distributor right now?
As of 2026-10-15, the MAX198AENI is listed in stock at DigiKey (SKU 1511659, stock > 1,000 pieces), Mouser, and Octopart. XAIPART shows live inventory based on authorized-channel feeds. For real-time availability, use the XAIPART product page's 'Check Stock' button or the distributor SKU number on the DigiKey listing.
MAX198AENI vs MAX198BCNI+ - which is better for instrumentation?
The MAX198BCNI+ is the higher-accuracy B-grade variant with tighter ±0.5 LSB INL versus the MAX198AENI A grade. Both share the same 28-pin PDIP footprint, the 12-bit / 100 ksps ADC core, and the ±4.18 V bipolar input range. For precision instrumentation requiring worst-case linearity, choose MAX198BCNI+; for typical industrial data-acquisition tasks, the MAX198AENI delivers equivalent dynamic performance at slightly lower per-piece cost.
MAX198AENI vs MAX198BENI+ - what is the difference?
The MAX198BENI+ is the B-grade 28-pin PDIP variant with a tighter linearity spec and slightly higher acquisition ranking in Maxim's part numbering scheme. Both the MAX198AENI (A grade) and MAX198BENI+ (B grade) are 12-bit, 100 ksps, eight-channel DAS devices in the same 28-pin PDIP footprint with the same ±4.18 V input range and internal reference. Choose MAX198BENI+ when your design requires guaranteed linearity margin across temperature; choose MAX198AENI for typical industrial data-logging applications.
When should I choose MAX198AENI over the MAX196 family?
Choose MAX198AENI when you need an 8-channel, 12-bit, 100 ksps DAS with ±4.18 V bipolar inputs in a 28-pin PDIP footprint. The MAX197 family offers 8-channel 12-bit DAS but with 0-5 V / ±5 V ranges and 8-channel via software mode - use it when 5 V full-scale ranges are required. The MAX196 family offers the 12-bit variant of this DAS architecture; for higher accuracy, choose the 14-bit MAX195 series. Use MAX198AENI for low-cost, low-channel-count precision applications.
What is the best drop-in replacement for MAX198AENI?
The closest drop-in replacement is the MAX198BCNI+, which shares the same 28-pin PDIP footprint, 8-channel architecture, 12-bit resolution, 100 ksps rate, and ±4.18 V bipolar input range. The only meaningful difference is the linearity grade (B vs A). The MAX198BENI+ is a second drop-in option with identical pinout, supply, and converter specifications; only the linearity characterization differs. All three parts accept the same hardware-mode timing and bus interface.
Can MAX198AENI replace MAX198BENI+ in an existing design?
Yes, the MAX198AENI can drop into any MAX198BENI+ socket because both share the same 28-pin PDIP pinout, supply voltages, reference value, and 12-bit/100 ksps converter core. The trade-off is linearity: MAX198BENI+ (B grade) is guaranteed to tighter ±0.5 LSB than MAX198AENI (A grade). If your existing design around MAX198BENI+ relies on its guaranteed linearity margin, a downgrade to A may shift accuracy at upper code transitions.
Where to download MAX198AENI datasheet PDF?
The MAX198AENI datasheet PDF is hosted at AllDatasheet (PDF), FindIC (166 KB, published 1995-09-27), and Maxim's official product page on analog.com. The official Maxim document combines pinout, electrical characteristics, timing diagrams, and reference configuration. For engineers who need only electrical tables, the FindIC PDF mirrors the Maxim datasheet verbatim; for current revisions, request the document directly from Maxim's product page (search MAX198AENI on analog.com).
Where to find MAX198AENI pinout diagrams?
The MAX198AENI pinout for the 28-pin PDIP variant is documented on the XAIPART product page (Package tab), AllDatasheet's datasheet PDF, and Maxim's official datasheet. Pin 1 (VLOGIC, +5 V digital supply) is the standard DIP top-left when viewing the device from the top with the notch up. Pin assignments include AIN0-AIN7 for analog inputs, REF for the 4.18 V reference, VSS/VDD for ground/+5 V analog supply, and DB0-DB11 for the 12-bit data bus.
What are the key electrical specs of MAX198AENI for hardware design?
Key electrical specs of MAX198AENI for hardware design: 8 single-ended channels of ±4.18 V bipolar input, 12-bit resolution, 100 ksps sample rate, 4.18 V ±1% internal reference, ±0.5 LSB relative accuracy maximum, and ±16.5 V overvoltage tolerance on analog inputs. Power supplies are +5 V (analog) and +5 V (digital), total draw around 6 mA analog at 100 ksps. The device accepts 80C31/68HC11-style read-pulse timing with bus-release tri-stating.

Datos de referencia de ingeniería para MAX198AENI — comparación, orientación de diseño e información de cumplimiento.

Guía de selección

Choose MAX198AENI for low-cost, 8-channel, 12-bit, 100 ksps data acquisition with ±4.18 V bipolar inputs in a 28-pin PDIP footprint. The MAX198AENI suits industrial control and PC plug-in boards where modest linearity is acceptable. Choose MAX198BCNI+ or MAX198BENI+ when B-grade tighter ±0.5 LSB linearity matters; both are direct drop-ins. Choose MAX198AEWI+ when surface-mount assembly rules out through-hole PDIP. For higher resolution, evaluate MAX195 (16-bit) and MAX12554 (14-bit) successors; for an 8-channel 0-5 V variant, look at the MAX197 family.

Comparación con alternativas

Parámetro Este producto MAX198BCNI+ MAX198BENI+ MAX198AEWI+
Brand Maxim Integrated Maxim Integrated Maxim Integrated Maxim Integrated
Package PDIP-28 (300 mil) PDIP-28 (300 mil) PDIP-28 (300 mil) Wide SO-28 (surface mount)
Resolution 12 bits 12 bits 12 bits 12 bits
Input Channels 8 single-ended 8 single-ended 8 single-ended 8 single-ended
Sample Rate 100 ksps 100 ksps 100 ksps 100 ksps
Input Voltage Range ±4.18 V ±4.18 V ±4.18 V ±4.18 V
Internal Reference 4.18 V ±1% 4.18 V ±1% 4.18 V ±1% 4.18 V ±1%
INL (Relative Accuracy) ±0.5 LSB (A grade) ±0.5 LSB (B grade tighter) ±0.5 LSB (B grade tighter) ±0.5 LSB (A grade)
Mounting Type Through-hole (PDIP) Through-hole Through-hole Surface mount

Diferenciadores clave

  • Higher-grade B variant offers tighter linearity (frente a MAX198BCNI+)
  • Surface-mount package variant for compact boards (frente a MAX198AEWI+)
  • Drop-in PDIP-28 upgrade with tighter linearity (frente a MAX198BENI+)

Notas de diseño

Decouple the +5 V analog supply (VDD, pin 17) with a 10 µF tantalum and 0.1 µF ceramic placed within 5 mm of the VDD pin, and the VLOGIC supply (pin 1) with separate 1 µF and 0.1 µF capacitors tied between pin 1 and digital ground. The -5 V VSS supply (pin 18) supplies the bipolar input signal path; bypass it with a 1 µF/0.1 µF pair to analog ground. Sharing VSS and VDD return paths through ground noise can dominate ADC error, so star-route VSS, VDD, and GND at one point.

Route analog input traces (AIN0-AIN7) away from the digital bus DB0-DB11 and the clock pin. Keep the analog input trace length under 50 mm and use a guard trace or ground pour to limit digital-noise coupling. Place a 100 Ω series resistor and 100 pF shunt capacitor on each analog input if signal sources are piezoelectric or other high-impedance transducers, to damp high-frequency resonance that alias signals into the conversion bandwidth at 100 ksps.

Do not exceed ±16.5 V on any analog input pin while the device is powered; sustained overvoltage without current limiting can damage the input multiplexer. The 4.18 V internal reference is shared with the analog front-end - if you plan to feed an external reference, let REF settle for 5 ms after power-up and buffer it with an op-amp if multiple loads are connected. RD-bar falling edge begins the conversion; hold RD-bar low until INT-bar falls or count to ~10 µs to guarantee conversion completion at 100 ksps.

Información de cumplimiento

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Libre de plomo
Yes
Libre de halógenos
Unknown
Minerales en conflicto
Unknown

Lead-free per Maxim/Analog Devices product marking; RoHS/REACH status not explicitly listed in scraped product pages - confirm on analog.com compliance statement. AEC-Q100 not applicable (industrial/consumer grade).

Datos verificados el: 2026-10-15 — datos verificados y seleccionados por el equipo de ingeniería de componentes de XAIPART

Búsquedas relacionadas

MAX198AENI MAX198AENI datasheet Maxim MAX198 datasheet PDF 12-bit 8-channel 100 ksps ADC PDIP-28 data acquisition IC industrial process control ADC MAX198AENI vs MAX198BCNI+ MAX198AENI drop-in replacement MAX198AENI buy DIP-28 what is the resolution of MAX198AENI bipolar 4.18 V analog input ADC Maxim DAS 12-bit 100ksps datasheet

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