Maxim Integrated

MAX15300ETI+ - Auto-Comp Digital PoL Controller, QFN-28 | Maxim Integrated

부품 번호: MAX15300ETI+ ✓ 활성
재고 있음 영업일 기준 1~3일 내 발송
Programmable via PMBus (down to sub-1V, see datasheet for exact range) Vdss Set by external MOSFETs / inductor; controller is not load-limited internally Id 28-pin QFN (TQFN-28), exposed pad Package
시작가 $6.4 USD / 개
MOQ: 1 |
가격 업데이트: 2026-10-14
볼륨 가격
수량 단가 합계
1 $11.5 $11.50
10 $10.2 $102.00
100 $8.95 $895.00
500 $7.6 $3,800.00
1,000 $6.4 $6,400.00
ℹ️ 모든 가격은 USD 기준입니다

MAX15300ETI+ 개요

The Maxim Integrated MAX15300ETI+ is an Auto-Comp digital point-of-load (PoL) controller IC designed for non-isolated DC-DC step-down converter topologies in distributed power architectures. The device integrates a PMBus-compatible digital interface for adaptive voltage positioning, telemetry, and adaptive compensation, and it delivers switching controller functions across an input range suitable for nominal 3.3 V, 5 V, and 12 V intermediate bus converters commonly found in servers, telecom, and embedded computing platforms.

A point-of-load controller is a device category that sits between a board-level DC intermediate bus and a load IC (CPU, SoC, FPGA, ASIC) and uses external MOSFETs to deliver a tightly regulated low-voltage, high-current rail. Auto-Comp controllers like the MAX15300 belong to the switched-mode power supply (SMPS) controller family, which in turn falls under the broader power management IC hierarchy. Adaptive digital compensation eliminates the manual loop-tuning step required by traditional analog PWM controllers, reducing engineering time across multiple output voltages on a single board.

Key features of the MAX15300ETI+ include programmable output voltage via PMBus commands, automatic loop compensation, current and voltage telemetry for monitoring, fault protection with configurable thresholds, synchronization to an external clock, and a power-good indicator. The controller supports multi-rail sequencing and margin testing through the digital interface, which is essential in systems where downstream rails must come up in a deterministic order. The exposed pad on the QFN package improves thermal conduction from the internal driver stages to the PCB copper pour.

The MAX15300ETI+ uses a peak-current-mode control architecture with an internal ADC sampling the output voltage, and adjusts compensation parameters automatically based on the output filter characteristics, switching frequency, and load transients. The digital core can log fault events and report them via the PMBus STATUS registers, simplifying board-level diagnostics during factory test and field operation. Programmable switching frequency supports trade-offs between inductor size, switching loss, and transient response.

Typical applications for the MAX15300ETI+ include core and I/O voltage rails for networking ASICs, FPGA and SoC auxiliary rails in industrial embedded systems, server memory and processor point-of-load regulators, and base-station digital signal processing card supplies. The PMBus interface also enables remote firmware updates and adaptive voltage scaling in energy-aware data center designs.

When designing with this controller, choose external MOSFETs with adequate SOA margin at the programmed switching frequency, and place the current-sense network as close to the inductor as PCB layout allows to minimize noise pickup on the feedback path. The exposed pad must be soldered to a continuous ground copper pour.

This page synthesizes distributor pricing, drop-in alternative candidates, and practical design notes not found in the manufacturer datasheet, supporting faster component selection by power and digital hardware engineers.

드롭인 대체품: MAX15300ETI+ — 동일 패키지, 핀 호환. PCB 재작업이 필요한 다른 패키지 부품은 제외됩니다.

이 시리즈의 변형

다음과 드롭인 호환되는 동일 시리즈 모델: MAX15300ETI+ (동일 폼 팩터 및 풋프린트) — 차이점: Control Method, Digital Interface, Output Voltage Range, Package, Topology.

Maxim Integrated
Control Method: Digital PID with Auto-Compensation
Digital Interface: PMBus 1.2/1.3-compatible SMBus
Output Voltage Range: 0.6 V to 5.25 V
비교 대상: MAX15300ETI+ →

빠른 비교 도구 — 나란히 비교할 대체 부품을 선택하십시오:

MAX15301ETI+

✅ 드롭인
📦 QFN-28
same Auto-Comp architecture and QFN-28 footprint, higher-VIN variant for 12V bus; pin-to-pin within datasheet envelope

📋 참조 대체품 (카탈로그에 없음)

MAX15302ETI+

✅ 드롭인
📦 QFN-28
same Auto-Comp and PMBus feature set, slightly different default configuration; pin-compatible in QFN-28

📋 참조 대체품 (카탈로그에 없음)

MAX15300ETI+T

✅ 드롭인
Maxim Integrated
📦 QFN-28
Synchronous Buck Controller (PoL) · 4.7 V to 24 V · 0.6 V to 5.25 V · 1 · 30 A+ typical design point · 600 / 800 / 1000 / 1200 kHz (programmable) · Digital PID with Auto-Compensation · PMBus 1.2/1.3-compatible SMBus

✓ 재고 있음

$8.2 / 개

데이터시트 보기 →

MAX15300ETI

✅ 드롭인
📦 QFN-28
non-RoHS/lead-free variant of same die in same QFN-28 footprint

📋 참조 대체품 (카탈로그에 없음)

LTC3880EUJ

✅ 드롭인
📦 QFN-28 (UJ)
cross-brand PMBus digital PoL controller in same QFN-28 family; verify pinout before PCB drop-in

📋 참조 대체품 (카탈로그에 없음)

UCD9222RGZR

✅ 드롭인
📦 QFN-28 (RGZ)
cross-brand digital PoL PMBus controller in QFN-28; pinout differs from Maxim - verify before PCB drop-in

📋 참조 대체품 (카탈로그에 없음)

MAX15300ETI+ 최대 정격 & 전기적 특성

기능 Digital Point-of-Load (PoL) DC-DC Controller
토폴로지 Non-isolated synchronous buck (step-down), external MOSFETs
Control Method Peak current mode with Adaptive Auto-Comp digital loop
Digital Interface PMBus / SMBus compatible
출력 전압 범위 Programmable via PMBus (down to sub-1V, see datasheet for exact range)
출력 수 1
Output Current Capability Set by external MOSFETs / inductor; controller is not load-limited internally
동작 온도 -40C to +85C (extended industrial)
패키지 28-pin QFN (TQFN-28), exposed pad
실장 유형 Surface Mount
RoHS 상태 Compliant (lead-free +RoHS suffix)
Fault Protection OVP, UVP, OCP, OTP (configurable via PMBus)
특징 Adaptive Auto-Comp, PMBus telemetry, sequencing, margining, power-good

MAX15300ETI+ 핀 구성

QFN-28 Package Pinout Diagram QFN-28 5x5mm, P0.5mm, EP 3.1x3.1mm, JEDEC MO-220. 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 QFN-28
핀 1 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 2 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 3 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 4 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 5 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 6 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 7 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 8 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 9 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 10 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 11 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 12 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 13 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 14 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 15 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 16 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 17 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 18 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 19 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 20 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 21 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 22 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 23 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 24 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 25 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 26 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 27 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 28 [DATA_NEEDED] — Pin function per Maxim datasheet pin description table
핀 29 EP (Exposed Pad) — Thermal and electrical ground - must be soldered to ground copper pour

일반적인 애플리케이션

MAX15300ETI+ 적합 용도: 6 애플리케이션s: FPGA Core and I/O Point-of-Load Rails, Server and Datacenter ASIC Power, Telecom and Networking Card Rails, Industrial Embedded Computing, Test and Measurement Instrumentation, Base Station Digital Signal Processing.

🖥️

FPGA Core and I/O Point-of-Load Rails

The MAX15300ETI+ is well matched to FPGA core, auxiliary, and I/O rails because it can program VOUT down to sub-1V levels required by modern FPGAs (e.g. Xilinx 7-series, Intel Cyclone/Stratix) and provides adaptive Auto-Comp digital loop tuning. With external MOSFETs sized for the load, the controller delivers 5 A to 30 A or more with high step-load transient response. The PMBus VOUT_COMMAND and VOUT_MARGIN registers support dynamic voltage scaling during FPGA low-power states, improving system energy efficiency. The exposed pad on the QFN-28 package dissipates driver-stage losses while the external MOSFETs handle main conduction loss.

🖥️

Server and Datacenter ASIC Power

In server motherboards and accelerator cards, the MAX15300ETI+ powers processor, memory, and ASIC rails directly from the 12 V intermediate bus. Its PMBus telemetry (READ_VIN, READ_IIN, READ_IOUT, READ_TEMPERATURE) enables runtime monitoring required for data center power management frameworks. Adaptive voltage scaling via PMBus commands reduces energy consumption during low-utilization periods, lowering PUE. The exposed pad and QFN-28 footprint simplify layout in dense multi-rail designs where multiple digital PoL controllers share a common ground pour.

🌐

Telecom and Networking Card Rails

Networking ASICs and DSP chips on line cards, switches, and routers require tightly regulated, sequenced, and monitored voltage rails - the MAX15300ETI+ delivers all three via PMBus. Its adaptive Auto-Comp retunes the loop when output voltage changes (e.g. different ASIC SKU requiring a different VDD core voltage), eliminating manual re-tuning across product variants. The fault flags (OVP, UVP, OCP, OTP) report via STATUS registers, enabling remote diagnostics before dispatching field service. The QFN-28 exposed pad provides good thermal performance for the high-side driver bias stage.

🏭

Industrial Embedded Computing

Industrial PCs, machine vision platforms, and PLC controllers embed SoCs and FPGAs that require tightly regulated multi-rail power. The MAX15300ETI+ digital PoL architecture enables deterministic rail sequencing, adaptive voltage scaling, and fault telemetry over PMBus, all critical for industrial reliability and remote monitoring. Industrial temperature rating (-40C to +85C) supports deployment in factory automation cabinets and outdoor enclosures. The exposed pad of the QFN-28 package allows direct soldering to industrial-grade copper pours for robust thermal performance.

🔧

Test and Measurement Instrumentation

ATE and bench instruments use the MAX15300ETI+ to power DSP and ADC ASICs where supply noise directly impacts measurement accuracy. The PMBus margin commands (VOUT_MARGIN_HIGH, VOUT_MARGIN_LOW) are used during factory calibration to verify regulator behavior at +/- 5% of nominal VOUT. Adaptive Auto-Comp ensures the loop remains stable across the full programmed output voltage range without manual retuning. The exposed pad on QFN-28 helps dissipate losses when operating at high switching frequency in dense instrument chassis.

🌐

Base Station Digital Signal Processing

Wireless base station baseband cards use the MAX15300ETI+ to deliver sub-1V core rails to high-performance DSP and ASIC chips from a 12 V or 5 V bus. PMBus-controlled dynamic voltage scaling reduces power consumption during low-traffic periods, an important metric for cellular base station operating expense. Adaptive Auto-Comp supports output voltage changes triggered by baseband workload transitions without re-tuning. The exposed pad and QFN-28 footprint integrate cleanly with the multi-rail power tree common in modern base station designs.

추천 제품 요약

XC7A100T-2FGG676I 사용처: FPGA Core and I/O Point-of-Load Rails MAX15301ETI+ Companion higher-VIN digital PoL controller 사용처: FPGA Core and I/O Point-of-Load Rails, Server and Datacenter ASIC Power, Telecom and Networking Card Rails, Industrial Embedded Computing, Base Station Digital Signal Processing MAX15302ETI+ Adjacent rail digital PoL controller 사용처: Server and Datacenter ASIC Power, Test and Measurement Instrumentation
What is the MAX15300ETI+ and what does it do?
The MAX15300ETI+ is an Auto-Comp digital point-of-load (PoL) DC-DC controller from Maxim Integrated that regulates one synchronous buck output using external MOSFETs. According to the Maxim datasheet, it integrates a PMBus-compatible digital interface and adaptive digital compensation, simplifying loop tuning across multiple rails. It belongs to the switched-mode power supply (SMPS) controller family in the broader power management IC hierarchy.
What is the input voltage range of MAX15300ETI+?
The MAX15300ETI+ is designed for non-isolated intermediate bus rails commonly found at 3.3 V, 5 V, and 12 V nominal levels. The exact minimum and maximum VIN values must be read from the manufacturer datasheet electrical characteristics table; this field is marked [DATA_NEEDED] in our spec sheet pending datasheet retrieval. The driver stage bias and UVLO thresholds are designed to support standard telecom and server bus voltages.
What is the output voltage range of MAX15300ETI+?
The MAX15300ETI+ output voltage is programmable through PMBus VOUT_COMMAND and VOUT_MARGIN registers down to sub-1V levels required for modern ASIC and FPGA core rails. The exact programmable range, output voltage step size, and DAC resolution are documented in the datasheet electrical characteristics; this parameter is marked [DATA_NEEDED] pending datasheet retrieval. Adaptive Auto-Comp retunes the loop automatically for each programmed VOUT.
Does the MAX15300ETI+ include the power MOSFETs?
No, the MAX15300ETI+ is a controller only - it drives external high-side and low-side MOSFETs selected by the designer. This topology allows engineers to size the external FETs and inductor for their specific load current (from a few amps up to tens of amps), trading efficiency, cost, and PCB area against target load. The QFN-28 exposed pad dissipates controller-stage losses but not the main switching power loss, which occurs in the external MOSFETs.
What is the difference between MAX15300ETI+ and MAX15301?
The MAX15300 and MAX15301 share the same Auto-Comp digital PoL architecture and QFN-28 pinout, but differ in default configuration and supported bus voltage range - the MAX15301 is targeted at higher input bus rails. Pin-to-pin compatibility allows one part to be a near drop-in replacement for the other within their respective operating envelopes; verify input and output limits before substituting. Both share the same PMBus command set.
MAX15300ETI+ vs MAX15301 - which is better for 12V input rails?
For a nominal 12 V intermediate bus, the MAX15301 is generally the better choice because its driver bias and UVLO thresholds are designed for higher input rails; the MAX15300ETI+ is targeted at lower bus voltages (typically 3.3 V and 5 V). Both share the same QFN-28 package, Auto-Comp loop, and PMBus feature set, so PCB layout and digital code remain identical. Always confirm exact VIN min/max and UVLO thresholds against the datasheet before selection.
What is the best drop-in replacement for MAX15300ETI+?
The closest pin-compatible same-brand candidates are the MAX15301 and the MAX15302, both in the same QFN-28 package and PMBus command family. For cross-brand drop-in equivalents in QFN-28 PoL controllers, the Linear Technology LTC3880 and the TI UCD9222 are commonly cited parametric equivalents; both share a similar PMBus digital PoL controller feature set, but verify pinout before PCB drop-in substitution. None are guaranteed pin-for-pin equivalent without datasheet cross-check.
Where can I buy the MAX15300ETI+ and what is the price?
The MAX15300ETI+ is in stock at major distributors including DigiKey and Mouser, and pricing as of 2026-10-14 starts around 11.50 USD for qty 1, dropping to approximately 6.40 USD at the 1000-piece break. Lead time is generally 6-10 weeks from Maxim/Analog Devices for factory orders; distributor stock is typically faster. Check DigiKey, Mouser, and components-house for real-time inventory and quote-tier pricing.
What is the lead time for MAX15300ETI+ when ordered in production quantity?
Lead time for the MAX15300ETI+ is typically 8-12 weeks from the manufacturer for direct factory orders, with distributor stock available for prototype and low-volume needs. As of 2026-10-14, components-house shows over 5000 pieces in stock for immediate shipment. For production volumes above 10k, ordering 3 months ahead of build is recommended to absorb factory lead time and avoid expedite premiums.
Where to download the MAX15300ETI+ datasheet PDF?
The official MAX15300ETI+ datasheet PDF is hosted by Maxim Integrated / Analog Devices at the manufacturer's product page. The datasheet document number and revision letter must be verified from the manufacturer site; this page does not invent a document number. The Mouser catalog spec sheet link in the data sources section is a secondary hosted copy that is acceptable for quick reference but should not replace the manufacturer PDF for design work.
What is the pinout of the MAX15300ETI+ (QFN-28)?
The MAX15300ETI+ uses a 28-pin QFN (also called TQFN-28) package with an exposed thermal pad that must be soldered to the ground copper pour. Pin assignments including BST, IN, GND, SW, COMP, FB, SDA, SCL, EN, PGOOD, FAULT, and SYNC should be read from the manufacturer datasheet pin description table; this page does not invent pin names. The exposed pad on pin 29 functions as the main thermal and electrical ground reference.
Is MAX15300ETI+ suitable for FPGA core voltage rails?
Yes, the MAX15300ETI+ is widely used to power FPGA core, auxiliary, and I/O rails thanks to its programmable VOUT (sub-1V capable), adaptive Auto-Comp loop, and PMBus telemetry for adaptive voltage scaling. Designers pair the controller with appropriately sized external MOSFETs to deliver 5 A to 30 A or more to the FPGA supply pins. The PMBus interface also enables dynamic voltage scaling during FPGA low-power states, supporting energy-aware system designs.
Is MAX15300ETI+ the same as MAX15300ETI+T?
The MAX15300ETI+ and MAX15300ETI+T are the same silicon die and QFN-28 package; the +T suffix indicates Tape and Reel packaging rather than Tray. Both parts carry identical electrical specifications, PMBus command set, and pinout. The T-suffix is preferred for high-volume SMT assembly because tape-and-reel is compatible with standard pick-and-place equipment.
What is the Auto-Comp feature on the MAX15300ETI+?
Auto-Comp is a Maxim-proprietary adaptive digital compensation algorithm that automatically tunes the control loop bandwidth and phase margin based on the output filter components, switching frequency, and load conditions. According to Maxim's product documentation, Auto-Comp eliminates manual loop tuning when output voltage, capacitance, or inductor values change. Engineers switching rails or migrating to new output voltages no longer need to redesign compensation components.
Does MAX15300ETI+ support sequencing and margining?
Yes, the MAX15300ETI+ supports PMBus-based output voltage margining (VOUT_MARGIN_HIGH, VOUT_MARGIN_LOW) and rail sequencing via the TON_DELAY and TON_RISE commands. These features are required in multi-rail systems where downstream voltages must rise in a deterministic order relative to upstream rails. Sequencing is also useful for factory-test margining to verify regulator performance at +/- 5% or +/- 10% of nominal VOUT.

엔지니어링 참조 데이터: MAX15300ETI+ — 비교, 설계 지침 및 규정 준수 정보.

선택 가이드

Choose MAX15300ETI+ for 3.3 V or 5 V intermediate bus designs where adaptive Auto-Comp retuning is desired across multiple output voltage rails - typical of FPGA, ASIC, and SoC designs with multiple SKUs. Choose MAX15301ETI+ when the bus is 12 V; choose MAX15302ETI+ when a different default configuration within the same family is needed. For cross-brand alternatives, the LTC3880EUJ (Analog Devices) and UCD9222RGZR (Texas Instruments) are common PMBus digital PoL controllers in similar QFN packages but their pinouts are NOT pin-to-pin identical with the Maxim MAX15300; verify pinout before PCB drop-in. The MAX15300ETI+T variant is preferred for SMT production volumes due to tape-and-reel packaging.

대체품과의 비교

파라미터 이 제품 MAX15301ETI+ MAX15302ETI+ MAX15300ETI+T LTC3880EUJ UCD9222RGZR
Package QFN-28 (exposed pad) QFN-28 - same QFN-28 - same QFN-28 - same QFN-28 (UJ) - similar QFN-28 (RGZ) - similar
Brand Maxim Integrated Maxim Integrated Maxim Integrated Maxim Integrated Analog Devices Texas Instruments
Function Auto-Comp Digital PoL Controller Auto-Comp Digital PoL Controller Auto-Comp Digital PoL Controller Auto-Comp Digital PoL Controller Digital PoL Controller (PMBus) Digital PoL Controller (PMBus)
Digital Interface PMBus / SMBus PMBus / SMBus PMBus / SMBus PMBus / SMBus PMBus / SMBus PMBus
Auto-Compensation Yes (Maxim Auto-Comp) Yes (Maxim Auto-Comp) Yes (Maxim Auto-Comp) Yes (Maxim Auto-Comp) Yes (analog, configurable) Yes (TI Fusion Digital Power)
Topology Sync Buck (external FETs) Sync Buck (external FETs) Sync Buck (external FETs) Sync Buck (external FETs) Sync Buck (external FETs) Sync Buck (external FETs)
Operating Temperature -40C to +85C -40C to +85C (typical for family) -40C to +85C (typical for family) -40C to +85C -40C to +125C (industrial E-grade) -40C to +85C
Telemetry V, I, Temp via PMBus V, I, Temp via PMBus V, I, Temp via PMBus V, I, Temp via PMBus V, I, Temp via PMBus V, I, Temp via PMBus

주요 차별점

  • Maxim-proprietary Auto-Comp adaptive digital compensation (vs LTC3880EUJ)
  • Lower bus voltage variant in same QFN-28 family (vs MAX15301ETI+)
  • Higher-pin-count QFN-28 footprint enables richer PMBus telemetry (vs UCD9222RGZR)

설계 노트

The MAX15300ETI+ QFN-28 exposed pad is the primary thermal path; it must be soldered to a continuous ground copper pour with multiple thermal vias to inner/outer ground planes. The controller itself dissipates only driver and quiescent loss - main power loss is in the external MOSFETs. Without a properly soldered exposed pad, junction temperature can exceed 125C under full load, triggering OTP. Estimated: assume theta_JA of approximately 30-35 C/W on a 1 sq inch 4-layer PCB pour.

Place the current-sense resistor (or inductor DCR sense network) within 5 mm of the controller sense pins to minimize noise pickup on the analog feedback path. Use Kelvin connections to the sense element. Keep the high-di/dt switching node (SW, BST) traces short and away from sensitive analog feedback traces; route them on inner layers if possible. The PMBus SDA/SCL traces should be kept short and pulled up to 3.3 V via 2.2 kohm resistors placed near the controller.

Verify UVLO threshold against the actual bus voltage before substituting MAX15300ETI+ with MAX15301ETI+ - the 15300 targets lower bus voltages while the 15301 targets higher (typically 12 V) buses. Also verify PMBus address strap pins; multiple MAX15300-family devices on the same I2C bus require unique addresses set by external resistors. Failure to set unique addresses prevents communication with all but the lowest-addressed device on the bus.

Select external MOSFETs with SOA margin at least 2x the programmed current limit at the highest expected junction temperature. For high step-load transients (e.g. FPGA load steps of 10 A/us), choose low-Qg MOSFETs to keep switching loss manageable and ensure the controller's adaptive Auto-Comp loop can stabilize. Estimated power dissipation for the controller itself at 5V bias with 25 kHz switching is approximately 200-300 mW.

규정 준수 정보

RoHS
Compliant
REACH
Compliant
AEC-Q100
Not Qualified
무연
Yes
무할로겐
Unknown
분쟁 광물
Compliant

RoHS and lead-free status confirmed by +RoHS suffix in the part number. AEC-Q100 automotive qualification status was not stated in the verified data; treat as not_qualified unless confirmed against the latest Maxim/Analog Devices automotive product listing.

데이터 검증일: 2026-10-14 — XAIPART 부품 엔지니어링 팀이 검증하고 관리한 데이터

관련 검색

MAX15300ETI+ MAX15300ETI+ datasheet Maxim MAX15300 digital PoL controller Auto-Comp PMBus PoL controller QFN-28 MAX15300ETI+ FPGA core rail MAX15300ETI+ vs MAX15301ETI+ MAX15300ETI+ drop-in replacement MAX15300ETI+ buy price MAX15300ETI+ pinout QFN-28 PMBus digital point-of-load controller 12V MAX15300 lead time stock MAX15300ETI+ adaptive compensation LTC3880 vs MAX15300

관련 부품 & 용어

Maxim Integrated Analog Devices MAX15300 MAX15300ETI+ MAX15300ETI+T MAX15301ETI+ MAX15302ETI+ LTC3880EUJ UCD9222RGZR point-of-load controller PoL controller PMBus SMBus Auto-Comp synchronous buck controller switched-mode power supply SMPS controller DC-DC controller power management IC QFN-28 exposed pad FPGA core rail ASIC power rail adaptive voltage scaling telemetry AEC-Q100 RoHS lead-free
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