3214JN ebm-papst Compact Fan

Brand:
Type:
Compact Fan
Max. Air Flow:
130 m³/h
Noise:
51 dB
Input Power:
6.5 W
Speed:
6000 RPM
Voltage:
24 V
Model:
3214JN
Order Number:
ICX-2027421-3214JN
Description:
3214JN,ebm-papst,Compact Fan,DC,24V,6000RPM,6.5W,130m³/h,65Pa,92x92x38mm,51dB

Product parameters

Product attributes Attribute value Filter product attributes
Brand: ebm-papst
Type: Compact Fan
Max. Air Flow: 130 m³/h
Voltage Type: DC
Conformity with Standards​: CE/UL507/VDE/CSA
Motor Bearing: Ball Bearing
Direction of Rotation: Clockwise (rotor view)
Airflow Direction​: V
Housing Material: Plastic
Impeller Material: Plastic
Height: 38 mm
Width: 92 mm
Length: 92 mm
Noise: 51 dB
Max. Pressure: 65 Pa
Max. Ambient Temperature: 70 ℃
Min. Ambient Temperature: -20 ℃
Input Power: 6.5 W
Speed: 6000 RPM
Voltage: 24 V
Products with the same attribute : 0
Show details

Details

Product Overview

I. Basic Product Information

1.1 Core Type and Structural Design

The 3214 JN is an axial fan. When viewed from the rotor direction, the rotor rotates clockwise, and the airflow direction is "air outlet over struts". This fan adopts a ball bearing system and supports installation in any position without restrictions on installation angle. Both the housing and the impeller are made of plastic, with an overall mass of 0.220 kg and external dimensions of 92.0 mm × 92.0 mm × 38.0 mm, featuring a compact design.

1.2 Installation and Connection Specifications

In terms of installation, the maximum torque at the two mounting flanges of the fan is 30 Ncm (consistent for the wire outlet corner and other corners), which is compatible with M4 degreased screws conforming to the ISO 4762 standard. No additional brackets or washers are required during installation. For electrical connection, a wire configuration is adopted. The wire length is 310 mm with a tolerance of ±10.0 mm, the wire gauge is 24 AWG, and the insulation diameter is 1.55 mm; among them, the red wire corresponds to "+ UB" (positive pole), and the blue wire corresponds to "- GND" (negative pole).

II. Operating Parameters

2.1 Electrical Operating Data

The measurement conditions for the electrical operating parameters of this fan are: standard air density of 1.2 kg/m³, temperature of 23°C ± 3°C, horizontal placement of the motor shaft, 5-minute warm-up before measurement, and no solid obstructions within 0.5 m in the air intake and outlet areas (except for special instructions). The specific parameters are as follows:
  • Voltage range: Under the condition of free air flow (∆p = 0), the fan can operate with a voltage ranging from 11.0 V to 28.0 V, and the nominal voltage is 24.0 V.
  • Power and current: At 11.0 V, the power is 1.3 W (tolerance ±17.5%) and the current is 115 mA (tolerance ±17.5%); at 24.0 V, the power is 6.5 W (tolerance ±12.5%) and the current is 270 mA (tolerance ±12.5%); at 28.0 V, the power is 9.5 W (tolerance ±15.0%) and the current is 340 mA (tolerance ±15.0%).
  • Rotational speed: At 11.0 V, the rotational speed is 2780 r/min (tolerance ±12.5%); at 24.0 V, the rotational speed is 6000 r/min (tolerance ±7.5%); at 28.0 V, the rotational speed is 6650 r/min (tolerance ±10.0%).
  • Starting current: The starting current consumption is less than 2200 mA.
In addition, this fan has no control input or alarm function, and no electronic functions; it is equipped with reversed polarity protection (using a rectifying diode with IF ≤ 100 μA) and locked rotor protection (auto-restart mode). When the rotor is locked, the current is approximately 2200 mA, the clock signal t3 (restart interval) ranges from 0.6 s to 1.3 s (typical value: 0.1 s), and t4 (locked rotor duration) ranges from 3.0 s to 25.7 s (typical value: 8.2 s).

2.2 Aerodynamic Performance

The aerodynamic performance measurement is conducted in accordance with the DIN EN ISO 5801 standard using a double-chamber intake rig, with the same measurement conditions as those for electrical operating parameters (temperature, air density, and obstruction requirements). When the fan operates at a rotational speed of 6000 r/min (under free air flow), the maximum free-air flow is 130.0 m³/h, and the maximum static pressure is 205 Pa; the optimal operating point is 88.0 m³/h @ 65 Pa.

2.3 Acoustic Data

In the measurement of acoustic data, the sound pressure level is measured with a 1-meter distance between the microphone and the air intake. The sound power level is measured in a semi-anechoic chamber (background noise Lp(A) < 5 dB(A)) in accordance with DIN 45635 Part 38 (ISO 10302) standard, and other measurement conditions are consistent with those for aerodynamic performance. At the optimal operating point (88.0 m³/h @ 65 Pa), the sound power level is 6.1 bel(A); under free air flow (measured with the fan fixed by rubber bands), the sound pressure level is 51.0 dB(A).

III. Environmental and Safety Requirements

3.1 Environmental Adaptability

  • Temperature range: The operating temperature ranges from -20°C to 70°C, and the storage temperature ranges from -40°C to 80°C.
  • Climatic requirements: It can withstand a constant humid heat environment conforming to the DIN EN 60664-1 standard (for 14 consecutive days); there are no requirements for water resistance, radiation resistance, dust resistance, salt fog resistance, or harmful gas resistance. It should be used indoors in sheltered areas with controlled temperature and humidity, and direct exposure to water must be avoided; the pollution degree is Class 1 (no pollution or only dry, non-conductive pollution, and the pollution has no negative impact).

3.2 Safety Performance and Certifications

  • Electrical safety: The dielectric strength complies with the DIN EN 60950 (VDE 0805) and DIN EN 60335 (VDE) standards. For the type test (after storage for 48 hours in an environment with 95% relative humidity and 25°C), the test condition is 500 VAC for 1 minute; for the routine test, it is 500 VAC for 1 second. No arcing or breakdown is allowed during the test; the insulation resistance (measured with 500 VDC for 1 minute under the same storage conditions as the type test) is greater than 10 MΩ; the air distance and creepage distance are 1.0 mm and 1.2 mm respectively; the protection class is Class III.
  • Certification status: It has obtained certifications including CE, UL (conforming to the UL 507 standard, category of electric fans), VDE (conforming to the EN 60950 (VDE 0805) standard, category of information technology equipment), and CSA (conforming to the C22.2 No. 113 standard, category of fans and ventilators), but has not obtained the CCC certification; the maximum voltage for UL certification is 28.0 V, and the maximum temperature for certification is 70.0°C.

IV. Reliability

The service life data of the 3214 JN fan is based on the L10 life (the life that 90% of products can achieve): at 40°C, the L10 life is 70,000 hours; at the maximum operating temperature (70°C), the L10 life is 35,000 hours; when using the Delta design at 40°C, the L10 life is 140,000 hours.

Frequently asked questions

  • How does the Ebm-papst dedicated controller adjust the speed of the fan?

    FFU is widely used in clean rooms in chip manufacturing, integrated circuits, and biopharmaceutical industries. The two EC centrifugal fans R3G470-AB05-24 and R3G470-AA05-24 are used in multiple projects with stable air volume, and are also used with the Ebm dedicated controller CHW040 to achieve speed regulation.
    Users who have just come into contact may not know how to use it, don't worry, let us show you!
    The connectors of the controller and the fan are already matched through the female and male connectors, just plug them in directly
    The controller is connected to 1~220 volt 50hz AC power, and the controller starts working
    Click the MODE button to switch to the on/off function. Select on with the up and down keys, and set to confirm to start the fan
    Click the MODE button to switch to the SET function. Use the up and down keys to increase or decrease the speed value, set to confirm after selection, so that the fan can accelerate or decelerate, and the actual speed is displayed on the display.
    The controller also supports fan monitoring function. When an alarm occurs, the controller will stop while displaying the alarm code. The cause of the fault can be queried based on the code.

  • How to set the power derating of ebm-papst EC fan?

    Take ebm-papst model R3G250-RR01-H1 as an example, the rated power is 500W, and the customer requires the fan power to be reduced to 350W. The settings are as follows:
    The first step is to connect the fan neutral and live wires to the 230V AC power supply
    The second step is to connect the fan RS485 interface to the computer through an adapter
    The third step is to use EC control and change the Y2 parameter of input curve 1 in the setting to 83%.
    The fourth step is to power on and run at full speed. The output power value is about 350W when observed through the software

  • How to perform a withstand voltage test on an ebm-papst fan?

    The basic wiring for a withstand voltage test on an ebm-papst fan is: 1. The high voltage output line of the withstand voltage tester (usually red) is connected to the power supply and signal input terminals of the device under test. 2. The loop grounding line of the withstand voltage tester (usually black) is connected to the accessible non-electrical metal part of the device under test.
    The following points should be noted when wiring: 1. The fan must be insulated from the earth before testing. 2. The grounding terminal of the instrument must be reliably connected to the object under test during the withstand voltage test, and open circuit is strictly prohibited. 3. The withstand voltage tester must be reliably grounded to prevent accidents. 4. The withstand voltage tester operator must wear rubber insulating gloves and put rubber insulating pads under his feet to prevent high voltage electric shock.
    Withstand voltage test voltage value: The test voltage value will be different under different standards:
    Since ebm-papst will perform factory withstand voltage tests on the fan, the client repeats the high voltage withstand test. The safety regulations clearly state that the voltage value needs to be reduced for repeated withstand voltage tests, generally 80%, 1s. If the insulation of a product has been damaged after repeated voltage withstand tests lasting more than 1 second, ebm-papst strongly recommends that the product not be released from the factory for sale.

  • Anti-corrosion grade of fan

    Usually, the anti-corrosion grade of fan is determined according to the corrosion resistance of its materials and coatings. Common anti-corrosion grades of fans include:
    Ordinary anti-corrosion: The fan surface undergoes certain anti-corrosion treatment, such as spraying anti-corrosion paint, etc., which can resist general corrosion to a certain extent.
    High anti-corrosion: The fan is made of materials with better corrosion resistance, such as stainless steel, galvanized steel, etc., which can resist strong corrosion.
    Explosion-proof and anti-corrosion: Suitable for fans used in flammable and explosive environments, with explosion-proof and anti-corrosion functions.
    Marine anti-corrosion: Suitable for fans used in marine environments, with the characteristics of seawater corrosion resistance.
    The anti-corrosion grade will vary according to different use environments and needs. It can be divided into C1, C2, C3, C4, C5, etc. The higher the grade, the longer the salt spray test time can be tolerated. You can choose a fan with a suitable anti-corrosion grade according to the specific situation.
    Our ebm-papst products also have strict distinctions in terms of corrosion resistance. In the specifications, you can see words such as H1 and H2, which also correspond to the C1-C5 we mentioned earlier.

  • Introduction to the principle of the fan with three-speed speed regulation function

    Some customers want to buy a speed-regulating fan, but do not want to be equipped with a PWM speed regulator or a 0-10V speed regulation device. They ask us if we have any speed-regulating fans that meet the requirements?
    Of course, some of our fans support three-speed or four-speed speed regulation functions. No external DC speed regulation power supply is required. The speed change can be achieved by changing the wiring. Customers can choose the appropriate gear according to their needs.
    The speed regulation principle of the fan with three-speed speed regulation function:
    The speed regulation function of the fan is realized by changing the impedance of the main winding and the capacitor winding inside the fan. No external DC speed regulation power supply is required, and the operation is simple and convenient. The high-speed gear requires the neutral wire and the live wire to be connected to the black wire and the blue wire of the fan. The medium-speed gear requires the neutral wire and the live wire to be connected to the black wire and the gray wire of the fan. The low-speed gear requires the neutral wire and the live wire to be connected to the black wire and the brown wire of the fan.
    Take the ebm-papst D2E146-HR93-01 fan as an example:
    The fan has 6 wires, including the neutral wire, the ground wire, and the 4-speed speed adjustment wire. Select the gear and connect it to the single-phase 230V AC power supply to test the fan speed.

  • What are the reference standards for leakage current of withstand voltage test of different types of fans of ebm-papst?

    Since EC fans are stepless speed regulating motors, most EC fans can refer to IEC61800-5-1 standard. EC fans are widely used in household appliances such as air conditioners and air purifiers, so many of our EC fans refer to IEC60335-1 standard.
    AC fans are single-speed fans. Generally, we do not recommend speed regulation. Therefore, most AC fans can refer to IEC60334-1 standard. AC fans are also widely used in household appliances such as air conditioners and air purifiers, so many of our AC fans refer to IEC60335-1 standard.
    Since DC fans are powered by low-voltage direct current, most DC fans can refer to IEC60950-1 standard. DC fans are widely used in household appliances such as air purifiers, so many of our DC fans refer to IEC60335-1 standard.

  • Characteristics and classification of centrifugal fans

    It is called a centrifugal fan because it relies on the centrifugal force of the impeller to inhale the gas axially but blow it out radially. Its structural characteristics enable it to withstand greater wind pressure than axial flow fans.
    EBM-PAPST centrifugal fans are divided into forward centrifugal fans and backward centrifugal fans according to the different impeller structures. Different impellers create different characteristics and applications of the two fans.
    The forward centrifugal fan has small blades, large numbers, and high density, so the overall structure is more compact and quieter, suitable for small spaces and high wind pressure environments, but it outputs a small amount of air and generally needs to be used with a volute.
    The backward centrifugal fan adopts a free wheel design and does not require a volute. Compared with the forward centrifugal fan, it can output a larger amount of air, but it can withstand less wind pressure.
    For centrifugal fans with external rotor motors, the motor is integrated into the impeller, which not only ensures excellent cooling of the motor, but also achieves a very compact design.
    The entire product range offers AC fans and EC fans with EC technology. In addition to energy saving, the integrated control circuit of EC fans can also realize control, monitoring and maintenance functions, which are particularly suitable for purification, industrial air conditioning, fresh air systems, electronic cooling and other related applications.
    ebm-papst centrifugal fans are unparalleled high-pressure experts in centrifugal design with 90° air deflection and carefully optimized impellers.

Rachel

Industrial Control Sales Specialist: Focuses on delivering high-performance, cost-effective industrial control products. Offers end-to-end one-stop procurement support—covering rapid quotation, streamlined order fulfillment, and responsive after-sales service—to simplify clients’ procurement processes. Email: Anthony@icxsg.com

We offer competitive product pricing. For fast support, send your email, phone, address, and the product model & quantity you want—we’ll reach out quickly!

We typically respond via email within one business day! You can also contact us at Anthony@icxsg.com

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