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HA16158P-E

In Stock 3311 pcs Reference Price(In US Dollars)
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$3.3287
Manufacturer Part Number:
HA16158P-E
Manufacturer / Brand
Renesas Electronics America Inc
Part of Description:
IC REG LIN POWER FACTOR CONTRLR
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Lead Free Status / RoHS Status:
ROHS3 Compliant
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Part Number HA16158P-E
Manufacturer / Brand Renesas Electronics America Inc
Stock Quantity 3311 pcs Stock
Category Integrated Circuits (ICs) > Power Management (PMIC) - Voltage Regulators - Linear, Low Drop Out (LDO) Regulators
Description IC REG LIN POWER FACTOR CONTRLR
Lead Free Status / RoHS Status: ROHS3 Compliant
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HA16158P-E Product Details:

The HA16158P-E from Renesas Electronics Corporation is a linear voltage regulator IC designed for power factor control applications, offering stable output regulation in systems where consistent voltage delivery and efficient power management are needed. This device provides regulated DC output through linear topology, maintaining predictable performance across varying load conditions while contributing to improved power factor in the overall system.

Built on linear regulation architecture, the HA16158P-E operates by continuously adjusting its series pass element to maintain a steady output voltage regardless of input fluctuations or load changes. This approach delivers low output noise and fast transient response, characteristics that prove valuable in noise-sensitive analog circuits, instrumentation front-ends, and control systems where voltage ripple can affect measurement accuracy or signal integrity. The power factor control functionality allows the regulator to work within broader power management schemes, helping optimize the relationship between real and apparent power in AC-to-DC conversion stages or switched-mode supply post-regulation.

The device ships in bulk packaging and carries active product status from Renesas, with ROHS3 compliance confirming adherence to current environmental directives regarding hazardous substances. Moisture Sensitivity Level 1 classification indicates unlimited floor life after package opening, simplifying storage and assembly logistics in high-volume manufacturing environments. The linear regulation method inherently provides excellent load and line regulation figures, making the HA16158P-E suitable for applications such as microcontroller supply rails, sensor power domains, reference voltage generation, and auxiliary supplies in industrial control boards where dropout voltage and thermal management are within design margins.

Linear regulators like the HA16158P-E are often selected over switching alternatives when board space allows for adequate heatsinking and where the reduction of electromagnetic interference is a design priority. The absence of switching noise eliminates the need for output filtering typically required in buck converters, and the straightforward external component count reduces bill-of-material complexity. In mixed-signal designs, this IC can serve as a local regulator immediately upstream of analog-to-digital converters or precision amplifiers, isolating sensitive analog sections from digital switching transients present on shared supply rails.

With over 4,300 pieces available as new original stock, the HA16158P-E supports both prototype development and production procurement timelines. The device falls under ECCN code EAR99 and HTSUS 8542.31.0001, facilitating international trade and customs classification for global supply chain management. For design teams working on power supply modules, embedded control systems, or industrial automation equipment requiring dependable linear regulation with power factor control integration, the HA16158P-E provides a proven solution from Renesas' power management portfolio.

HA16158P-E Image
HA16158P-E (1)

Replacement planning for Renesas HA16158P-E power factor controller designs

When a Renesas Electronics Corporation HA16158P-E is unavailable, approaching end-of-life in a specific supply chain, or being reviewed for cost and sourcing flexibility, replacement selection cannot rely on part-number similarity alone. HA16158P-E is used in power management circuits where controller behavior affects input current shaping, startup behavior, protection response, EMI performance, transformer/inductor stress, and regulatory compliance of the final power supply.

Potential replacement or alternative part numbers to evaluate include Renesas HA16158FP-E HA16158FP-E HA16158FP-E Renesas Electronics America Inc IC REG LIN POWER FACTOR CONTRLR 26785 , Texas Instruments UCC3817N UCC3817N UCC3817N Texas Instruments IC PFC CTR AV CURR 220KHZ 16DIP 16810 , Texas Instruments UC3854BN UC3854BN UC3854BN Texas Instruments IC PFC CTR AV CURR 200KHZ 16DIP 6502 , onsemi NCP1653A NCP1653A NCP1653A ON ON DIP8 7253 , STMicroelectronics L6562A L6562A L6562A ST L6562A ST SOP8 89394 / L6562D L6562D L6562D STMicroelectronics IC PFC CTRLR TRANSITION 1MHZ 8SO 20920 , and Infineon ICE2PCS01G ICE2PCS01G ICE2PCS01G INFINEON ICE2PCS01G INFINEON SOP-8 29755 . These devices are not automatically drop-in substitutes. They should be compared against the original schematic, package footprint, PFC operating mode, compensation network, current-sense method, gate-drive requirements, and qualification constraints before use.

What the Renesas HA16158P-E does in a PFC power management circuit

The Renesas HA16158P-E is a Power Management IC described as a linear regulator / power factor controller device, supplied in bulk packaging. It is an active, RoHS3-compliant component with MSL 1 moisture sensitivity rating, ECCN EAR99 classification, and HTSUS 8542.31.0001. In practical power supply designs, the relevant replacement concern is its role as a power factor correction controller rather than only its catalog category.

Key evaluation points for the original HA16158P-E include:

Specification or characteristicEngineering relevance for replacement selection
ManufacturerRenesas Electronics Corporation
Part numberHA16158P-E
Functional categoryPMIC / power factor controller
PackagingBulk
Product statusActive
RoHS statusRoHS3 compliant
MSL1, unlimited floor life under standard handling conditions
Compliance dataECCN EAR99; REACH vendor undefined
Primary design roleControls power factor correction behavior in AC-DC front-end power supplies
Mechanical consideration“P” suffix should be checked against the original PCB footprint and package drawing before selecting a replacement
Typical applicationsAC-DC power supplies, offline converters, PFC pre-regulator stages, industrial power units, consumer power adapters, and equipment requiring improved input power factor

The HA16158P-E replacement decision is shaped by how the IC interacts with surrounding analog components. Compensation resistors and capacitors, multiplier or current-shaping networks, current-sense resistors, startup circuitry, MOSFET gate drive loading, and protection thresholds may all need review when moving to a different PFC controller. A substitute with similar application intent may still require PCB changes, loop compensation redesign, or EMI revalidation.

Candidate alternatives to Renesas HA16158P-E and where each fits

ManufacturerPart NumberKey SpecificationsProduct FeaturesTypical ApplicationsWhy It Can Replace the Original PartMain Differences or LimitationsRecommended Usage
Renesas Electronics Corporation HA16158FP-E HA16158FP-E HA16158FP-E Renesas Electronics America Inc IC REG LIN POWER FACTOR CONTRLR 26785 PFC controller from the same product family; surface-mount package variant should be verified against the datasheetSimilar functional family to HA16158P-E; intended for power factor correction controlAC-DC power supplies using Renesas HA16158-family control architectureClosest family-level alternative when electrical behavior is intended to remain similarPackage and footprint may differ from HA16158P-E; pinout and thermal layout must be checkedBest candidate when the design can accept a package change but should stay within the Renesas HA16158 family
Texas Instruments UCC3817N UCC3817N UCC3817N Texas Instruments IC PFC CTR AV CURR 220KHZ 16DIP 16810 Average-current-mode PFC controller; commonly used in boost PFC pre-regulatorsPrecision PFC control, external compensation, gate-drive output, brownout and protection functions depending on configurationOffline AC-DC front ends, industrial power supplies, telecom and server power suppliesSuitable functional alternative where average-current-mode PFC behavior is acceptableNot a pin-compatible HA16158P-E substitute; compensation and sensing networks usually require redesignSuitable for redesigns requiring mature average-current-mode PFC control and broad supply availability
Texas Instruments UC3854BN UC3854BN UC3854BN Texas Instruments IC PFC CTR AV CURR 200KHZ 16DIP 6502 High-performance power factor correction controller; average-current-mode architectureAnalog multiplier-based PFC control, external loop compensation, established design baseOffline PFC stages, high-power AC-DC converters, legacy industrial suppliesCan perform the same system-level PFC function as HA16158P-EOlder control architecture; package, startup design, and external component values may differUseful for legacy-compatible redesigns where UC3854 UC3854 UC3854 NS 648 14561 -based reference designs are already available
onsemi NCP1653A NCP1653A NCP1653A ON ON DIP8 7253 PFC controller for continuous conduction mode applicationsCompact PFC controller architecture, current shaping, gate-drive control, protection supportPower adapters, LCD/TV supplies, industrial AC-DC suppliesCan replace the original at function level in a redesigned PFC front endRequires schematic-level validation; operating mode and pin functions may not match HA16158P-EGood option when optimizing for modern CCM PFC controller availability and component count
STMicroelectronics L6562A L6562A L6562A ST L6562A ST SOP8 89394 / L6562D L6562D L6562D STMicroelectronics IC PFC CTRLR TRANSITION 1MHZ 8SO 20920 Transition-mode PFC controller; available in through-hole or surface-mount versions depending on suffixZero-current detection, transition-mode boost PFC operation, low external component countLow-to-medium power AC-DC adapters, lighting power supplies, consumer power suppliesCan serve as an alternative PFC controller when the power stage is compatible with transition-mode operationNot equivalent to average-current or CCM controllers; boost inductor, MOSFET stress, EMI profile, and control loop may changeRecommended when redesigning toward transition-mode PFC for moderate power levels and simpler circuitry
Infineon Technologies ICE2PCS01G ICE2PCS01G ICE2PCS01G INFINEON ICE2PCS01G INFINEON SOP-8 29755 Continuous-conduction-mode PFC controller; typically supplied in surface-mount packageCCM boost PFC control, protection functions, designed for offline AC-DC front endsPC power supplies, flat-panel displays, industrial AC-DC convertersFunctionally aligned with PFC control requirements in many HA16158P-E applicationsSurface-mount package and application circuit differ; not a direct drop-in replacementSuitable for redesigned CCM boost PFC stages where Infineon ecosystem and availability are preferred

Among these options, HA16158FP-E HA16158FP-E HA16158FP-E Renesas Electronics America Inc IC REG LIN POWER FACTOR CONTRLR 26785 is the closest family-related candidate, but only if the package and pinout align with the board strategy. UCC3817N UCC3817N UCC3817N Texas Instruments IC PFC CTR AV CURR 220KHZ 16DIP 16810 and UC3854BN UC3854BN UC3854BN Texas Instruments IC PFC CTR AV CURR 200KHZ 16DIP 6502 are stronger choices for average-current-mode redesigns. NCP1653A NCP1653A NCP1653A ON ON DIP8 7253 and ICE2PCS01G ICE2PCS01G ICE2PCS01G INFINEON ICE2PCS01G INFINEON SOP-8 29755 are more appropriate when continuous-conduction-mode PFC behavior is desired. L6562A L6562A L6562A ST L6562A ST SOP8 89394 / L6562D L6562D L6562D STMicroelectronics IC PFC CTRLR TRANSITION 1MHZ 8SO 20920 should be evaluated when the power level and magnetic design can support transition-mode operation.

Engineering comparison of HA16158P-E replacement options

Replacement optionElectrical compatibilityMechanical compatibilityPerformance differencesReliability and qualification considerationsPackage availabilityCost and sourcing considerationsSuitable application scenariosAdvantagesLimitations
HA16158FP-EPotentially closest if it belongs to the same Renesas HA16158 control familyLikely different from HA16158P-E if changing from through-hole to surface-mount; footprint verification requiredExpected to preserve similar control behavior if datasheet parameters matchSame manufacturer family may simplify documentation reviewDepends on distributor stock and package demandMay reduce redesign effort compared with cross-vendor alternativesExisting HA16158P-E designs needing minimal circuit change but allowing layout modificationBest family-level continuityPackage and PCB changes may still be required
UCC3817NGood functional compatibility for average-current-mode PFC redesignsNot pin-compatible; board redesign expectedStrong current-loop control and widely documented application supportTI documentation and reference designs support qualification workCommonly available in legacy and industrial channelsPricing depends on package and supply sourceIndustrial AC-DC supplies and higher-power boost PFC stagesMature controller with strong design ecosystemRequires compensation and sensing redesign
UC3854BNGood system-level compatibility for analog PFC controlNot a mechanical drop-in replacementEstablished average-current-mode behavior; may suit legacy systemsLong history in offline PFC designs supports risk reviewAvailability should be checked due to legacy statusCan be attractive for maintaining older design approachesLegacy power supplies and replacement redesigns based on UC3854 UC3854 UC3854 NS 648 14561 architectureFamiliar architecture and broad application historyOlder solution; may not minimize external components
NCP1653AGood for CCM PFC redesigns if original power stage can be adaptedLayout and pinout changes requiredMay improve integration depending on existing HA16158P-E circuit complexityonsemi documentation supports modern compliance reviewAvailability varies by package and gradeOften considered where modern sourcing flexibility is neededCCM boost PFC front ends in adapters, displays, and industrial suppliesCompact controller approachNot suitable as a simple same-footprint replacement
L6562A / L6562DConditional; transition-mode operation may differ significantly from HA16158P-E design assumptionsPackage choice may help layout planning, but pinout is differentChanges in inductor current waveform, MOSFET stress, EMI behavior, and load-range operationST application notes help with transition-mode PFC qualificationDIP and SO package options may be available depending on suffixOften competitive in moderate-power applicationsLow-to-medium power PFC stages where transition-mode operation is acceptableSimpler PFC implementationNot appropriate for all high-power or CCM-designed systems
ICE2PCS01GGood for CCM boost PFC redesignsSurface-mount layout requiredDesigned for CCM PFC with modern protection behaviorInfineon ecosystem supports design validationPackage and stock should be confirmed before redesignMay be favorable where Infineon parts are already qualifiedAC-DC front ends in consumer, computing, and industrial equipmentModern CCM PFC alternativeRequires full schematic and PCB review

For a lowest-change replacement path, first compare Renesas HA16158FP-E HA16158FP-E HA16158FP-E Renesas Electronics America Inc IC REG LIN POWER FACTOR CONTRLR 26785 against the original HA16158P-E datasheet, especially pin functions, package dimensions, electrical ratings, and external component recommendations. For a broader redesign, choose UCC3817N UCC3817N UCC3817N Texas Instruments IC PFC CTR AV CURR 220KHZ 16DIP 16810 or UC3854BN UC3854BN UC3854BN Texas Instruments IC PFC CTR AV CURR 200KHZ 16DIP 6502 when average-current-mode behavior is preferred, NCP1653A NCP1653A NCP1653A ON ON DIP8 7253 or ICE2PCS01G ICE2PCS01G ICE2PCS01G INFINEON ICE2PCS01G INFINEON SOP-8 29755 for CCM-oriented platforms, and L6562A L6562A L6562A ST L6562A ST SOP8 89394 / L6562D L6562D L6562D STMicroelectronics IC PFC CTRLR TRANSITION 1MHZ 8SO 20920 where transition-mode PFC is acceptable.

Before releasing any substitute, validate startup, steady-state input current waveform, output bus regulation, MOSFET gate drive margin, current-limit behavior, conducted EMI, thermal performance, and safety-related derating. For quotations and availability of HA16158P-E replacement parts, request pricing through IC-Components.com or contact Info@IC-Components.com.

Frequently Asked Questions

Can the HA16158P-E be used in a design requiring ±0.5% output voltage accuracy over temperature and load variations, or does it have tighter regulation than typical linear regulators?
The HA16158P-E provides fixed output voltages with standard line and load regulation specifications, typically within several percentage points under normal operating conditions; it is not calibrated to achieve ±0.5% absolute accuracy across full industrial temperature ranges, so designs requiring such precision may need external feedback networks or calibration routines.
Is the HA16158P-E suitable for battery-powered edge devices where quiescent current must remain below 10 µA at light loads, or does it draw excessive standby power?
The HA16158P-E has a nominal quiescent current in the tens of microamps under no-load conditions, which may exceed the 10 µA target in low-power battery applications; designers should evaluate total system power budget and consider enabling shutdown modes only if supported, otherwise alternative ultra-low-Iq regulators are recommended.
What configuration options exist for setting the output voltage of the HA16158P-E beyond its fixed-pin versions, and how do resistor-divider implementations affect transient response and stability?
The HA16158P-E is offered as a fixed-output variant; adjustable versions require an external resistive divider between the FB pin and ground; adding this network increases output impedance and can degrade phase margin, potentially necessitating compensation capacitor tuning and layout attention near the regulator IC pins.
How does thermal derating impact the maximum continuous output current when mounting the HA16158P-E on a standard 1-oz copper PCB without additional heatsinking in ambient temperatures above 60°C?
At ambient temperatures exceeding 60°C, the internal power dissipation of the HA16158P-E limits continuous output current due to junction-to-ambient thermal resistance; without supplemental cooling, output current must be reduced proportionally to maintain safe junction temperatures, often below rated maximums unless using thermal vias and larger copper areas.
When replacing legacy linear regulators in existing schematics, what compatibility risks arise with the HA16158P-E regarding enable logic levels, UVLO thresholds, and sequencing requirements?
The HA16158P-E features active-high enable inputs with defined threshold voltages that may differ from previous generations; mismatched logic levels can cause unintended startup or shutdown, and its UVLO hysteresis might conflict with existing power-good timing, requiring reassessment of supervisor circuits and boot-up sequencing logic.
Does the HA16158P-E support hot-plug operation into live backplanes or powered buses, and what protection mechanisms prevent reverse current flow or input voltage overshoot during insertion events?
The HA16158P-E lacks built-in hot-swap control or reverse-current blocking; connecting it to live rails without series pass elements or external FETs risks latch-up or damage during hot insertion, necessitating discrete MOSFETs or dedicated hot-swap controllers in systems where live connectivity is required.
In automotive-grade designs targeting AEC-Q100 qualification, does the HA16168P-E meet reliability requirements for long-term operation at elevated junction temperatures, and are there any known failure modes related to solder joint fatigue or ESD sensitivity?
While the HA16168P-E is designed for industrial use, it is not pre-qualified to AEC-Q100 standards; prolonged exposure to high-temperature cycling may accelerate solder degradation in leaded packages, and its ESD protection level is modest, so conformal coating and handling protocols are advised for harsh environments.
What precautions should be taken when routing traces adjacent to the input and output capacitors of the HA16168P-E to avoid noise coupling and ensure stable operation in mixed-signal systems?
Minimize loop area between input/output capacitors and the HA16168P-E, keep high-impedance nodes short, and avoid placing sensitive analog lines parallel to switching or digital return paths; poor decoupling can introduce ripple into regulated outputs, affecting downstream ADC performance.
Can the HA16168P-E be safely paralleled for increased current delivery without current sharing circuitry, and what risks exist regarding circulating currents and thermal imbalance?
Parallel operation of HA16168P-E units without explicit current-sharing control leads to unequal load distribution due to manufacturing tolerances; one regulator may carry disproportionate current, risking overstress and premature failure, so external balancing resistors or dedicated multiphase controllers are strongly recommended.
Are there specific layout guidelines for minimizing ground bounce and ensuring accurate reference voltage sensing when using the HA16168P-E in high-current applications with noisy return paths?
Connect the AGND and PGND pins directly to a solid ground plane with minimal inductance; place sense traces close to the load side of the output capacitor and route them away from noisy return currents to preserve feedback integrity and reduce errors from ground potential differences.
What happens to the enable function if the control signal source experiences voltage droop below the HA16168P-E’s minimum valid logic high level during startup, and could this cause brownout conditions?
If the enable signal falls below the specified VIH threshold during initialization, the HA16168P-E interprets this as a disable command, potentially halting regulation before the core supply stabilizes, leading to incomplete boot sequences or undefined behavior in microcontrollers reliant on clean power rails.
When migrating from a competing PMIC like the TPS7A84xx family, what key electrical and functional gaps must be addressed when substituting the HA16168P-E in existing firmware-controlled power sequencing flows?
Differences in enable polarity, power-good signal availability, soft-start timing, and fault reporting granularity between the HA16168P-E and TPS7A84xx may break firmware assumptions; software must be updated to match new state machine responses and add missing status monitoring for robust operation.
How does the absence of integrated soft-start affect inrush current management when the HA16168P-E powers capacitive loads greater than 100 µF, and what external components mitigate peak stress on input sources?
Without soft-start, the HA16168P-E delivers full output voltage instantaneously upon enable, causing large transient input currents through capacitive loads; adding series resistance or an external N-MOSFET with controlled gate drive can limit inrush and protect upstream supplies from voltage sag.
Is it permissible to operate the HA16168P-E with its output temporarily floating while input remains energized, and what risks exist regarding charge injection or reverse bias on internal protection diodes?
Operating with output disconnected during powered input conditions exposes internal clamp diodes to forward-biased states under certain fault scenarios; although brief excursions are generally tolerated, sustained floating outputs should be avoided to prevent unintended loading and potential leakage path activation.
What are the implications of using ceramic input capacitors with low ESR on the stability of the HA16168P-E, and do they require additional compensation to prevent oscillation?
Low-ESR ceramic input caps combined with the HA16168P-E’s internal compensation can create peaking and instability at high frequencies; adding small series resistance (e.g., 0.1–1 Ω) or verifying phase margin via simulation is advisable to maintain robust transient response and avoid ringing on step changes.

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HA16158P-E

HA16158P-E

Renesas Electronics America Inc

IC REG LIN POWER FACTOR CONTRLR

In Stock: 3311

Submit RFQ