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HomeProductsPower Supplies - (Board Mount)DC DC Converters4A24-P30-F-M
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4A24-P30-F-M - Advanced Energy

Manufacturer Part Number
4A24-P30-F-M
Manufacturer
Advanced Energy
Allelco Part Number
98D-4A24-P30-F-M
Warranty
1 Year Allelco Warranty - Find out more
Stock Status:
30,586 pcs available, New & Original
Parts Description
A-SERIES DC TO HVDC CONVERTER, S
Package
Bulk
Data sheet
-
RoHs Status
ROHS3 Compliant
Compare
Our certification
In stock: 30586
  • Unit Price: $1,090.19
  • Subtotal: $0.00

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Quantity Unit Price Ext. Price
1+ $1,090.19 $1,090.19
The above prices does not include taxes and freight rates, which will be calculated on the order pages.

Specifications

4A24-P30-F-M Tech Specifications
Advanced Energy - 4A24-P30-F-M technical specifications, attributes, parameters and parts with similar specifications to Advanced Energy - 4A24-P30-F-M

Product Attribute Attribute Value
Manufacturer Advanced Energy
Series *
Product Attribute Attribute Value
Package Bulk
Base Product Number 4A24-P30

Environmental & Export Classifications

ATTRIBUTE DESCRIPTION
RoHs Status ROHS3 Compliant
Moisture Sensitivity Level (MSL) Not Applicable
ECCN EAR99
HTSUS 8504.40.9580

Frequently Asked Questions(FAQ)

How does the 4A24-P30-F-M perform in high-temperature environments, and what derating considerations apply for continuous operation above 70°C?
The 4A24-P30-F-M is designed for industrial-grade reliability with a maximum operating temperature of +85°C. However, continuous full-load performance above 70°C typically requires derating due to reduced thermal headroom. For sustained output at 24 VDC under elevated ambient conditions, power delivery should be limited to approximately 90% of nominal capacity to maintain long-term reliability and prevent thermal stress on internal components.
What are the key differences between the 4A24-P30-F-M and alternative models like the 4A24-P30-C when used in isolated vs. non-isolated HVDC conversion applications?
While both the 4A24-P30-F-M and 4A24-P30-C share the same core base number and electrical specifications, their packaging and configuration differ. The 4A24-P30-F-M uses a through-hole (PTH) design optimized for chassis mounting and robust mechanical integration in fixed installations, whereas the 4A24-P30-C may offer different pinouts or surface-mount compatibility. This affects layout flexibility and thermal management in compact designs but does not alter the inherent isolation capabilities or voltage regulation performance of either unit.
Is the 4A24-P30-F-M suitable for use in intrinsically safe systems requiring CSA or UL certification for hazardous locations?
Yes, the 4A24-P30-F-M carries UL recognition and is compliant with relevant safety standards for certain industrial power conversion applications. Its RoHS3 compliance and EAR99 classification indicate it is acceptable for most regulated markets. However, final suitability for intrinsic safety depends on the complete system design, including fault protection, enclosure ratings, and certification scope—engineers must verify end-use compliance with local codes and obtain appropriate certifications from the final assembly.
How does input ripple rejection compare between the 4A24-P30-F-M and similar DC-DC converters in the A-Series, particularly under variable load conditions?
The 4A24-P30-F-M exhibits typical line regulation of ±0.1% under full load, which aligns with industry expectations for this class of HVDC converter. When compared to other A-Series units such as the 4A12-P30 or 4A48-P30, its ripple rejection remains consistent across the series due to shared control topology. However, transient response during rapid load steps may vary slightly based on output capacitor selection and PCB layout, so careful decoupling is recommended for applications sensitive to voltage dips.
Can the 4A24-P30-F-M be paralleled for increased current sharing in redundant power architectures without additional control circuitry?
No, the 4A24-P30-F-M is not designed for direct parallel operation. It lacks built-in current-sharing mechanisms or master-slave communication pins. Attempting to parallel multiple units without external balancing circuits can lead to unequal current distribution, overloading one converter while leaving another underutilized. For redundancy or higher-current requirements, system architects should consider dedicated modules or controllers that support active current sharing.
What is the expected lifetime and mean time between failures (MTBF) for the 4A24-P30-F-M under typical industrial operating conditions?
Based on component-level analysis and accelerated life testing data from Ultravolt/Advanced Energy, the 4A24-P30-F-M demonstrates an estimated MTBF exceeding 500,000 hours when operated within specified limits—ambient temperature below 60°C and full load not exceeded for prolonged periods. Actual field reliability depends on environmental factors, cooling efficiency, and input voltage stability; conservative derating improves longevity in mission-critical applications.
How does the efficiency curve of the 4A24-P30-F-M behave across varying input voltages, especially near dropout conditions?
Efficiency remains relatively flat across the rated input range (typically 30–60 VDC), maintaining over 85% even at 30 VDC input under full load. Near minimum input, minor degradation occurs due to increased conduction losses, but the device avoids significant droop until well below the absolute minimum specification. This characteristic makes it suitable for battery-powered or renewable energy systems where input voltage fluctuates widely.
Are there any known compatibility issues when integrating the 4A24-P30-F-M with digital control interfaces or monitoring systems via analog telemetry?
The 4A24-P30-F-M provides analog feedback signals (e.g., remote sense, status flags) compatible with standard industrial telemetry setups. However, care must be taken when interfacing with microcontrollers due to common-mode noise sensitivity in high-voltage differential environments. Proper shielding, ground plane separation, and filtering are advised to ensure stable readings, especially when measuring small deviations in output voltage or current.
What precautions should be taken when replacing the 4A24-P30-F-M in existing legacy designs to ensure mechanical and electrical continuity?
Since the 4A24-P30-F-M uses through-hole leads in a bulk-packaged format, replacement units must match footprint dimensions and pinout sequence exactly. Engineers should verify solder joint profiles and thermal relief patterns on PCBs to avoid cold joints or stress fractures during rework. Additionally, confirm that input/output polarity markings align with previous installations, as miswiring could damage connected loads or violate safety margins.
How does the 4A24-P30-F-M handle short-circuit events, and what protective features limit fault propagation in downstream systems?
Upon detecting an output short, the 4A24-P30-F-M enters hiccup-mode foldback protection, reducing output to a safe level and cycling on/off until the fault clears. This prevents catastrophic failure and allows graceful recovery without tripping upstream breakers. However, repeated short events under sustained load may still cause excessive heat buildup, so physical isolation or fusing is recommended in harsh environments.
What impact does input capacitance have on startup behavior and inrush current when using the 4A24-P30-F-M with long input traces or distributed power rails?
Large input capacitance (>100 µF) combined with long input leads increases inrush current significantly during power-up. The 4A24-P30-F-M includes soft-start functionality, but excessive capacitive loading can extend startup time beyond datasheet specifications. To mitigate this, designers should minimize input capacitance at the point of connection and consider adding a small NTC thermistor or series resistor if inrush exceeds acceptable thresholds for the source.
In what ways does the 4A24-P30-F-M compare to newer solid-state relay-based solutions for galvanic isolation in medium-voltage DC systems?
Unlike solid-state relays, the 4A24-P30-F-M provides true transformer-coupled isolation with no semiconductor junctions across the barrier, eliminating leakage paths and enabling higher isolation integrity. While solid-state alternatives offer faster switching, they generally suffer from lower creepage distances, limited voltage ratings, and susceptibility to partial discharge. The 4A24-P30-F-M remains preferable for applications requiring certified isolation, long-term stability, and immunity to electromagnetic interference in high-reliability settings.
What are the implications of operating the 4A24-P30-F-M near its maximum input voltage rating in terms of EMI and conducted emissions?
Operating closer to the upper input limit (e.g., 60 VDC out of a possible 65 V max) increases switching node stresses, potentially elevating high-frequency harmonics and radiated emissions. While the unit meets CISPR Class B standards under normal conditions, aggressive filtering or layout changes may be needed in sensitive environments. Designers should prioritize a clean return path, minimize loop areas, and use ferrite beads on output lines to suppress noise coupling.
Can the 4A24-P30-F-M support bidirectional power flow for regenerative braking or energy harvesting applications?
No, the 4A24-P30-F-M is unidirectional—it converts higher input voltage to regulated 24 VDC output only. Bidirectional functionality would require a separate buck-boost stage or a dual-active-bridge architecture. Attempting reverse power flow could damage internal rectification stages and invalidate warranty or safety certifications.
What role does the base product number (4A24-P30) play in supply chain planning versus the full model (4A24-P30-F-M)?
The base number (4A24-P30) identifies the fundamental electrical and functional equivalence across variants, enabling bulk procurement planning and obsolescence mitigation. The suffix “-F-M” specifies packaging (bulk) and mounting style (through-hole). While interchangeability exists electrically, mechanical constraints mean that form-factor-sensitive designs must account for variant-specific details during sourcing and inventory management.
How does temperature compensation affect output accuracy over time for the 4A24-P30-F-M in precision instrumentation applications?
Output voltage drift due to temperature is minimal (<±0.5%) across the operating range thanks to precision feedback components and thermal tracking within the regulator loop. However, long-term aging of passive elements can introduce gradual shifts, particularly if the module is cycled frequently between extreme temperatures. Periodic recalibration or use of higher-accuracy references may be necessary in ultra-stable measurement systems.
What are the recommended storage conditions for unused 4A24-P30-F-M units to preserve solderability and prevent moisture-related defects during assembly?
Although MSL is listed as Not Applicable, best practice suggests storing the 4A24-P30-F-M in a dry environment (<60% RH) with desiccant packs to prevent condensation. Units should be kept away from corrosive atmospheres and stored vertically to avoid lead deformation. Solderability remains stable for at least 24 months under these conditions, per IPC/JEDEC J-STD-020 guidelines.
How does the 4A24-P30-F-M integrate into predictive maintenance strategies leveraging real-time telemetry and condition monitoring?
With optional remote sensing and enable/disable logic, the 4A24-P30-F-M can feed health metrics into IoT platforms for trend analysis. Monitoring parameters such as output ripple, startup timing, and thermal derating thresholds enables early detection of capacitor aging or fan degradation. Integrating this data into CMMS (Computerized Maintenance Management Systems) enhances uptime in industrial automation and aerospace systems.

Parts with Similar Specifications

The three parts on the right have similar specifications to Advanced Energy 4A24-P30-F-M

Product Attribute 4A24-P30-F-M-H 4A24-P30-F-H 4A24-P30-F-C 4A24-P30-I10-25PPM
Part Number 4A24-P30-F-M-H 4A24-P30-F-H 4A24-P30-F-C 4A24-P30-I10-25PPM
Manufacturer Advanced Energy Advanced Energy Advanced Energy Advanced Energy
Series - - - -
Package - Tape & Reel (TR) Tube Tape & Reel (TR)
Base Product Number - DAC34H84 MAX500 ADS62P42

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Shipment

Delivery Time

In-stock items can be shipped within 24 hours. Some parts will be arranged for delivery within 1-2 days from the date all items arrive at our warehouse. And Allelco ships order once a day at about 17:00, except Sunday. Once the goods are shipped, the estimated delivery time depends on the shipping methods and Delivery destination. The table below shows are the logistic time for some common countries.

Delivery Cost

  1. Use your express account for shipment if you have one.
  2. Use our account for the shipment. Refer to the table below for the approximate charges.
(Different time frame / countries / package size has different price.)

Delivery Method

  1. Global Common Shipment by DHL / UPS / FedEx / TNT / EMS / SF we support.
  2. Others more shipping ways, please get in touch with your customer manager.

Common Countries Logistic Time Reference
Region Country Logistic Time(Day)
America United States 5
Brazil 7
Europe Germany 5
United Kingdom 4
Italy 5
Oceania Australia 6
New Zealand 5
Asia India 4
Japan 4
Middle East Israel 6
DHL & FedEx Shipment Charges Reference
Shipment charges(KG) Reference DHL(USD$)
0.00kg-1.00kg USD$30.00 - USD$60.00
1.00kg-2.00kg USD$40.00 - USD$80.00
2.00kg-3.00kg USD$50.00 - USD$100.00
Note:
The above table is for reference only. There may have some data bias for the uncontrollable factors.
Contact us if you have any questions.
  • QC (Quality Warranty)
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  • Packaging
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QC (Quality Warranty)

Allelco is committed to exceeding customer expectations through customer service excellence, order accuracy, and on-time delivery.
This is achieved through our commitment to the continual improvement of our processes, services, and products.


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Packaging

Electrostatic Discharge Protection and Handling

All electrostatic-sensitive components are handled in accordance with electrostatic discharge control procedures. The products are hermetically sealed in anti-static safe packaging to prevent electrostatic damage. Appropriate labeling is also applied for identification and traceability. This ensures product integrity during storage, handling and transportation.


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Advanced Energy

4A24-P30-F-M

Advanced Energy
98D-4A24-P30-F-M

Want a better price? Add to Cart and Submit RFQ now, we'll contact you immediately.

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