PSA/PSR Series Data Sheet Positive Switching Regulators

Transcription

1 Features RoHS lead-free-solder and lead-solder-exempted products are available Compliant to EN (version V04 or later) Input voltage up to 44 VDC Single output 5 to 48 V No input-to-output isolation High efficiency up to 95% Extremely wide input voltage range Low input-to-output differential voltage Very good dynamic properties Input undervoltage lockout Output voltage adjustment and inhibit function Continuously no-load and short-circuit proof All boards are coated with a protective lacquer Board or chassis mountable 50.0" 70.8" 5.0" Safety-approved to the latest edition of IEC/EN and UL/CSA Description The PSA Series of positive switching regulators are designed as power supplies for electronic systems when no input-tooutput isolation is required. Their major advantages include a high level of efficiency, high reliability, low output ripple, and excellent dynamic response. Models with input voltages up to 44 V are especially designed for secondary-switched and battery-driven mobile applications. The regulators are suitable for railway applications according to EN 5055 and EN 50. The case design allows for operation up to 7 C. The PSA Series is designed for wall or chassis mounting with faston connections or with solder pins for insertion into a PCB. Various options are available to adapt the regulators to different applications. Table of Contents Page Page Description... Model Selection... Functional Description... 3 Electrical Input Data... 4 Electrical Output Data... 6 Auxiliary Functions... 9 Electromagnetic Compatibility (EMC)... 0 Immunity to Environmental Conditions... Mechanical Data... Safety and Installation Instructions... Description of Options... 3 Accessories... 4 Copyright 07, Bel Power Solutions Inc. All rights reserved. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page of 5

2 Model Selection Table : PSA Series Output Output Operating input Nom. input Efficiency Type Options voltage current voltage range voltage designation V o nom [V] I o nom [A] V i [V] V i nom [V] η min [%] η typ [%] PSR5-7 Y PSR53-9G -7, i, P, R, Y, non-g PSR54-9iG -7, P, R, Y, non-g PSA55-9iG -7, R, Y, non-g PSA5A- i RY PSA5A5- -7, iry PSA.5-9i RG -7, Y, non-g PSR.5-9 ig -7, P, R, Y, non-g PSA3- i RY PSA5.5-9iRG -7, Y, non-g PSR5.5-9G -7, P, R, Y, non-g PSA53- i RY PSA4.5-9iRG -7, Y, non-g PSR4-9iG -7, P, R, Y, non-g PSA4.5-G i RY 3, non-g PSA36-9iRG -7, Y, non-g PSR36-9iRG -7, Y, non-g PSA48-9iRG -7, Y, non-g Surges up to 56 V for s; see Electrical Input Data Efficiency at V i nom and I o nom 3 Options iry in a package NFND: Not for new designs. Preferred for new designs Note: The output voltage V o is adjusted to 08% of V o nom for all models with option P or R, if they don t have option Y in addition. Part Number Description Positive switching regulator in case A0... PSA or PSR Nominal output voltage in Volt... 5 to 48 Nominal output current in Ampere... to 5 PSA.5-9 i R G Operational ambient temperature range T A 0 to 50 C to 50 C (customer-specific models) to 7 C (option) to 7 C other (customer-specific models) Inhibit input (standard for all -7 and -9 models)... i Control input for output voltage adjustment... R Potentiometer (option, NFND)... P RoHS-compliant for all 6 substances... G Option P (not available for PSA models) excludes feature R. Note: The sequence of options must follow the order above. Example: PSA.5-9iRG designates a positive switching regulator with an output V,.5 A, ambient temperature 40 to 7 C, inhibit input, output voltge adjust by R-pin, RoHScompliant for all 6 substances. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page of 5

3 Customer-specific Models Positive switching regulator in case A0... PSA Nominal output voltage in Volt (without decimals)... Decimal places: 0.0 V... Z 0. V... A 0.5 V... B 0. V... C 0.5 V... D 0.3 V... E 0.4 V... F 0.5 V... G 0.6 V... H 0.7 V... J 0.8 V... K 0.9 V... L other... Y Output current in Ampère... 3 Identification character... A, B,.. Temperature range and options, e.g i RG Produkt Marking Type designation, applicable safety approval marks, pin allocation, patent information, company logo. Label with input voltage range, nominal output voltage and PSA Z 3 A -9 i RG current, protection degree, batch no., serial no., data code comprising production site, version (modification status), date of production. Functional Description The switching regulators use the buck converter topology. The input is not electrically isolated from the output. During the on period of the switching transistor, current is transferred to the output, and energy is stored in the output choke. During the off period, this energy forces the current to continue flowing through the output, to the load, and back through the freewheeling diode. Regulation is accomplished by varying the duty cycle (on/off ratio) of the main switch. The regulator starts operating only when the input voltage exceeds the trigger level of the UVL (undervoltage lockout). These regulators are ideal for a wide range of applications, where input to output isolation is not necessary or is already provided by an external front end (e.g., a transformer with rectifier). To optimize customers needs, additional options and accessories are available. 0306b V i I i C e + Input Filter Vi+ Bead C i Control circuit + Vo+ i I o V o R Gi Go Fig. Block diagram. The resistance of the input circuit Option P BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 3 of 5

4 Electrical Input Data General Conditions: T A = 5 C, unless T C is specified Table a: Input data Model PSA55 PSA5A5 PSR54 PSA5A Unit Characteristics Conditions min typ max min typ max min typ max min typ max V i Operating input voltage I o = 0 I o nom V V io min Min. diff. voltage V i V o T C min T C max.9.9 V i UVL Undervoltage lockout I i 0 No load input current I o = 0, V i min V i max ma I inr p Peak value of inrush current V i nom A R i Input resistance mω C i Input capacity µf v i RFI EN 550, MHz V i nom, I o nom B -- B -- Class Tab. b: Input data Model PSA3 PSA53 PSA4.5 Unit Characteristics Conditions min typ max min typ max min typ max V i Operating input voltage I o = 0 I o nom V V io min Min. diff. voltage (V i V o ) T C min T C max V i UVL Undervoltage lockout I i 0 No load input current I o = 0, V i min V i max ma I inr p Peak value of inrush current V i nom A R i Input resistance mω C i Input capacity µf v i RFI EN 550, MHz V i nom, I o nom Class Tab. c: Input data Model PSR5 PSR53 PSR.5 Unit Characteristics Conditions min typ max min typ max min typ max V i Operating input voltage I o = 0 I o nom V V io min Min. diff. voltage (V i V o ) T C min T C max V i UVL Undervoltage lockout I i 0 No load input current I o = 0, V i min V i max ma I inr p Peak value of inrush current V i nom A R i Input resistance mω C i Input capacity µf v i RFI EN 550, MHz V i nom, I o nom B B B Class With C e = 470 µf / 40 V and input filter FP38; see Accessories. With C e = 470 µf / 00 V and input filter FP80; see Accessories. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 4 of 5

5 Table d: Input data. General Conditions as per table a Model PSR5.5 PSR4 PSR36 PSA.5 Unit Characteristics Conditions min typ max min typ max min typ max min typ max V i Operating input voltage I o = 0 I o nom V V io min Min. diff. voltage V i V o T C min T C max V i UVL Undervoltage lockout I i 0 No load input current I o = 0, V i min V i max ma I inr p Peak value of inrush current V i nom A R i Input resistance mω C i Input capacity µf v i RFI EN 550, MHz V i nom, I o nom B B B B 3 Class Table e: Input data. General Conditions as per table a Model PSA5.5 PSA4.5 PSA36 PSA48 Unit Characteristics Conditions min typ max min typ max min typ max min typ max V i Operating input voltage I o = 0 I o nom V V io min Min. diff. voltage V i V o T C min T C max V i UVL Undervoltage lockout I i 0 No load input current I o = 0, V i min V i max ma I inr p Peak value of inrush current V i nom A R i Input resistance mω C i Input capacity.... µf v i RFI EN 550, MHz V i nom, I o nom B 3 B 3 B 3 B 3 Class Surges up to 56 V for s With C e = 470 µf/ 00 V and input filter FP80; see Accessories 3 With C e = 3.3 µf / 50 V MKT and input filter FP44; see Accessories External Input Circuitry The sum of the lengths of the supply lines to the source or to the nearest capacitor 00 µf (a + b) should not exceed 5 m, unless option L is fitted. This option is recommended in order to prevent power line oscillations and reduce superimposed interference voltages. 0406a + a Vi+ Vo+ b Gi Go Fig. Switching regulator with long supply lines. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 5 of 5

6 Electrical Output Data General conditions: T A = 5 C, unless T C is specified R-input open (or V o set to V o nom with option P) Table 3a: Output data Model PSA55 PSA5A5 PSR54 PSA5A Unit Characteristics Conditions min typ max min typ max min typ max min typ max V o Output voltage V i nom, I o nom V I io Output current V i min V i max A Output current limitation T C min T C max I ol v o Output Switching frequ. V i nom, I o nom mv pp voltage IEC/EN 604 Total noise BW = 0 MHz V o V Static line regulation V i min V i max, I o nom mv V o I Static load regulation V i nom, I o = 0 I o nom v o d Dynamic Voltage deviation V i nom voltage I t o nom /3 I o nom d Recovery time µs regulation IEC/EN 604 α Vo Temperature coefficient V i min V i max ±0.0 ±0.0 ±0.0 ±0.0 %/K V o / T C (T C min T C max ) I o = 0 I o nom Table 3b: Output data Model PSA3 PSA53 PSA4.5 Unit Characteristics Conditions min typ max min typ max min typ max V o Output voltage V i nom, I o nom V I o Output current V i min V i max A Output current limitation T C min T C max I ol v o Output Switching frequ. V i nom, I o nom mv pp voltage IEC/EN 604 Total noise BW = 0 MHz V o V Static line regulation V i min V i max, I o nom mv V o l Static load regulation V i nom, I o = 0 I o nom v o d Dynamic Voltage deviat. V i nom load I t d Recovery time o nom /3 I o nom µs regulation IEC/EN 604 α Vo Temperature coefficient V i min V i max ±0.0 ±0.0 ±0.0 %/K V o / T C (T C min T C max ) I o = 0 I o nom Models with option R, but without option Y, are adjusted to 08% of V o nom. Models with option P are preadjusted to 08% of V o nom. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 6 of 5

7 Table 3c: Output data. Gerneral conditions as per table 3a Model PSR5 PSR53 PSR.5 Unit Characteristics Conditions min typ max min typ max min typ max V o Output voltage V i nom, I o nom V I o Output current V i min V i max A Output current limitation T C min T C max I ol v o Output Switching frequ. V i nom, I o nom mv pp voltage IEC/EN 604 Total noise BW = 0 MHz V o V Static line regulation V i min V i max, I o nom mv V o l Static load regulation V i nom, I o = 0 I o nom v o d Dynamic Voltage deviat. V i nom load I t d Recovery time o nom /3 I o nom µs regulation IEC/EN 604 α Vo Temperature coefficient V i min V i max ±0.0 ±0.0 ±0.0 %/K V o / T C (T C min T C max ) I o = 0 I o nom Table 3d: Output data. Gerneral conditions as per table 3a Model PSR5.5 PSR4 PSR36 PSA.5 Unit Characteristics Conditions min typ max min typ max min typ max min typ max V o Output voltage V i nom, I o nom V I io Output current V i min V i max A Output current limitation T C min T C max I ol v o Output Switching frequ. V i nom, I o nom mv pp voltage IEC/EN 604 Total noise BW = 0 MHz V o V Static line regulation V i min V i max, I o nom mv V o I Static load regulation V i nom, I o = 0 I o nom v o d Dynamic Voltage deviation V i nom voltage I t o nom /3 I o nom d Recovery time µs regulation IEC/EN 604 α Vo Temperature coefficient V i min V i max ±0.0 ±0.0 ±0.0 ±0.0 %/K V o / T C (T C min T C max ) I o = 0 I o nom Table 3e: Output data. Gerneral conditions as per table 3a Model PSA5.5 PSA4.5 PSA36 PSA48 Unit Characteristics Conditions min typ max min typ max min typ max min typ max V o Output voltage V i nom, I o nom V I io Output current V i min V i max A Output current limitation T C min T C max I ol v o Output Switching frequ. V i nom, I o nom mv pp voltage IEC/EN 604 Total noise BW = 0 MHz V o V Static line regulation V i min V i max, I o nom mv V o I Static load regulation V i nom, I o = 0 I o nom v o d Dynamic Voltage deviation V i nom voltage I t o nom /3 I o nom d Recovery time µs regulation IEC/EN 604 α Vo Temperature coefficient V i min V i max ±0.0 ±0.0 ±0.0 ±0.0 %/K V o / T C (T C min T C max ) I o = 0 I o nom Models with option R, but without option Y, are adjusted to 08% of V o nom. Models with option P are preadjusted to 08% of V o nom. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 7 of 5

8 V o Thermal Considerations When a switching regulator is located in free, quasi-stationary air (convection cooling) at a temperature T A = 7 C and is operated at I o nom, the case temperature T C will be about 95 C Convection cooling T A min 50 Fig. 4a Output current versus temperature (models -) I o /I o nom v od I o /I o nom I o /I o nom T A min t d T [ C] A convection cooling V o ±% V o ±% v od 0 µs 0 µs Fig. 3s Switching regulator with long supply lines. Forced cooling 0503a 0503a forced cooling C t d 0500a t t T C max T C max T A after the warm-up phase, measured at the measuring point of case temperature T C ; see Mechanical Data. Under practical operating conditions, T A may exceed 7 C, provided that additional measures (heat sink, fan etc.) are taken to ensure that T C does not exceed T C max. Output protection and Short Circuit Behavior A voltage suppressor diode, which in worst case conditions fails into a short circuit, protects the output against an internally generated overvoltage. Such an overvoltage could occur due to a failure of either the control circuit or the switching transistor. The output protection is not designed to withstand externally applied overvoltages. A constant current limitation circuit holds the output current almost constant, when an overload or a short circuit is applied to the output. It acts self-protecting and recovers automatically after removal of the overload or short-circuit condition. Parallel and Series Connection Outputs of equal nominal voltages can be parallel-connected. However, the use of a single regulator with higher output power, is always the better solution. In parallel-connected operation, one or several outputs may operate continuously at their current limit knee-point which will cause an increase of the heat generation. Consequently, the max. ambient temperature should be reduced by 0 K. Outputs can be series-connected with any other regulator. In series-connection the maximum output current is limited by the lowest current limitation, but electrically separated source voltages are needed for each regulator. V o /V o nom I o L Fig. 5 Overload and short-circuit behavior V o versus I o 05033a I o /I o nom Fig. 4b Output current versus temperature (models -7 and - 9) BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 8 of 5

9 Auxiliary Functions i Inhibit (Remote On / Off) The inhibit input allows the switching regulator output to be disabled via a control signal. In systems with several I inh [ma] a converters, this feature can be used, for example, to control the activation sequence of the converters by a logic signal (TTL, C- MOS, etc.). No output voltage overshoot will occur at switch-on. Note: With open i-pin, the output is enabled. LED Output Voltage Indicator A yellow LED indicator is illuminated, when the output voltage is present (not for - models). 4 3 V o on V inh = 0.8 V V inh =.4 V V o off V inh [V] Fig. 6 Typical inhibit current I inh versus inhibit voltage V inh 06009a Vi+ Vo+ i I inh V inh Gi Go Fig. 7 Definition of I inh and V inh V o /V o nom t t r t f Inhibit 0 t Fig. 8 Output response as a function of inhibit signal Table 4: Inhibit characteristics Characteristics Conditions min typ max Unit V inh Inhibit input voltage V o = on V i min V i max V V o = off T C min T C max t r Switch-on time V i = V i nom ms Switch-off time R L = V o nom /I o nom 4 t f I i inh Input current when inhibited V i = V i nom 0 ma BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 9 of 5

10 Electromagnetic Compatibility (EMC) Electromagnetic Immunity Table 5: Immunity type tests Phenomenon Standard Class Coupling Value Waveform Source Test In Perf. Level mode applied Imped. procedure oper. crit. Voltage surge 3 IEC i/c, +i/ i 800 V p 00 µs 00 Ω pos. and neg. yes B 500 V p 50 µs surge per coupling mode 3000 V p 5 µs 4000 V p µs 7000 V p 00 ns Electrostatic IEC/EN 3 3 contact discharge 6000 V 3 p /50 ns 330 Ω 0 positive and yes B 5 discharge to case 4000 V 4 p 0 negative discharges Electromagnetic IEC/EN 3 3 antenna 0 V/m 3 AM 80% MHz yes A field V/m 4 khz Electrical fast IEC/EN 3 3 i/c, +i/ i 000 V p bursts of 5/50 ns 50 Ω 60 s positive yes A 5 transients/burst V p 5 khz rep. rate 60 s negative transients with transients per 5 ms burst coupling mode duration and a 300 ms period Surges 5 IEC/EN 3 i/c 000 V p./50 µs Ω 5 pos. and 5 neg. yes B surges per +i/ i 500 V p Ω coupling mode Conducted IEC/EN 3 3 i, o, signal wires 0 VAC 3 AM 80% 50 Ω MHz yes A disturbances VAC 4 khz i = input, o = output, c = case. A = Normal operation, no deviation from specifications, B = Normal operation, temporary loss of function or deviation from specs possible 3 Not applicable for - models 4 Valid for - models 5 With the filters and input caps as specified in the foot notes of table Electromagnetic Emission For emission levels refer to Electrical Input Data. [dbmv] EN 550 A EN 550 B MHz Fig. 8 Typical disturbance voltage (quasipeak) at the input according to EN 550, measured at V i nom and I o nom. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 0 of 5

11 Immunity to Environmental Conditions Table 6: Mechanical and climatic stress Test method Standard Test conditions Status Cab Damp heat IEC/EN Temperature: 40 ± C Regulator steady state MIL-STD-80D section 507. Relative humidity: 93 +/-3 % not Duration: 56 days operating E a Shock IEC/EN Acceleration amplitude: 50 g n = 490 m/s Regulator (half-sinusoidal) MIL-STD-80D section 56.3 Bump duration: ms operating Number of bumps: 8 (3 each direction) Fc Vibration IEC/EN Acceleration amplitude: 0.35 mm (0 60 Hz) Regulator (sinusoidal) MIL-STD-80D section g n = 49 m/s ( Hz) operating Frequency ( Oct/min): Hz Test duration: 7.5 h (.5 h each axis) Fda Random vibration IEC/EN Acceleration spectral density: 0.05 g /Hz Regulator wide band DIN part 3 Frequency band: Hz operating Reproducibility Acceleration magnitude: 4.9 g n rms high Test duration: 3 h ( h each axis) Kb Salt mist, cyclic IEC/EN Concentration: 5% (30 C) Regulator (sodium chloride Duration: h per cycle not NaCl solution) Storage: 40 C, 93% rel. humidity operating Storage duration: h per cycle Number of cycles: 3 Temperatures Table 7: Temperature specifications, valid for an air pressure of hpa ( mbar) Temperature - -7 (Option) -9 Unit Characteristics Conditions min max min max min max T A Ambient temperature Regulator C Case temperature operating T C T S Storage temperature Non operational See Thermal Considerations Reliability Table 8: Typical MTBF and device hours MTBF Ground Benign Ground Fixed Ground Mobile Device Hours T C = 40 C T C = 40 C T C = 70 C T C = 50 C MTBF accord. to MIL-HDBK-7F h h h h h Statistical values, based on an average of 4300 working hours per year and in general field use BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page of 5

12 Mechanical Data Dimensions in mm Potentiometer (option P) 0905b Yellow LED (not - models) European Projection Go Vo+ i R ±0. M.5 Mounting screws 70. ±0.5 Ø Gi Vi+ Fig. 9 Case A0, weight 00 g, Aluminum, black anodized and self cooling Notes: Pin i and pin R are only fitted if the regulator exhibits these options. 7 ±0.5.7 ± ±0. min. 5.8 x 0.5 (.0 x 0.5 option Y) 6.5 ± 5. ±0.5 Measuring point of case temperature b 8.75 To avoid short circuits with the board, you can use the isolation pad HZZ003-G; see Accessories. Fig. 0 Footprint. a = rectangular slots 3.0 mm 0.7 mm (or 3.0 mm through-plated holes) 7.4 a R i Vo+ Go M.5 mounting screws 47.5 ±0. 65 For option Y preview through-plated holes with.3 to.5 mm for the pins and holes for two M.5 fastening screws. Vi+ 5.4 Gi Safety and Installation Instructions Installation Instruction Installation must strictly follow the national safety regulations in compliance with the enclosure, mounting, creepage, clearance, casualty, markings and segregation requirements of the end-use application. Check for hazardous voltages before connecting. The input and the output circuit are not separated, i.e. the negative path is internally interconnected. Do not open the regulator! Ensure that a regulator failure (e.g. by an internal short-circuit) does not result in a hazardous condition. Cleaning Liquids In order to avoid possible damage, any penetration of cleaning fluids must be prevented, since the power supplies are not hermetically sealed. Protection Degree The protection degree is IP 30 (IP 0, if equipped with option P). It applies only if the regulator is soldered to the mother board. Standards and Approvals All switching regulators have been approved according to the latest edition of IEC/EN and UL/CSA The regulators have been evaluated for: BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page of 5

13 Building in The use in a pollution degree environment Connecting the input to a secondary circuit, which is subject to a maximum transient rating of 500 V. The switching regulators are subject to manufacturing surveillance in accordance with the above mentioned standards and with ISO 900:008. Isolation Electric strength test voltage between input connected with output against case: 500 VDC, s (for some PSA/PSR models only with version V03 or higher). These tests are performed in the factory as routine test in accordance with EN 5054 and EN Railway Application The regulators have been developed observing the railway standards EN 5055 and EN 50. All boards are coated with a protective lacquer. Description of Options -9 Extended Temperature Range This option defines an extended temperature range as specified in table 7. R Control (Output Voltage Adjust) Note: With open R input, V o V o nom. Vi+ Gi V ref =.5 V + Fig. Voltage adjustment via R-input The output voltage V o can either be adjusted with an external voltage source (V ext ) or with an external resistor (R or R ). The adjustment range is 0 08% of V o nom. The minimum differential voltage V io min between input and output (see Electrical Input Data) should be maintained. a) V o = 0 V o max, using V ext between pins R and Go : V o 4 kω Control logic JM078 Vo+ V ext V ext.5 V V o V o nom V o nom.5 V Caution: To prevent damage, V ext should not exceed 0 V, nor be negative. R Go R ext R ext + V ext b) V o = 0 to V o nom, using R ext between pins R and Go : 4000 Ω V o V o nom R ext R ext V o - V o nom V o R ext Ω c) V o = V o nom to V o max, using R ext between pins R and Go : P 4000 Ω V o (V o nom.5 V) R ext.5 V (Vo Vo nom) V o nom.5 V R ext V o.5 V (R ext Ω) V o nom 4000 Ω Caution: To prevent damage, R ext should never be less than 47 kω. Note: With option R, the ouput voltage V o is adjusted to 08% of V o nom, if the regulator doesn t have option Y in addition. Potentiometer Option P excludes R function; the R-input (pin 6) should be left open-circuit. The output voltage V o can be adjusted in the range 90 08% of V o nom. However, the minimum differential voltage V i o min between input and output specified in Electrical Input Data must be observed. Note: Option P is not recommended, if several regulators are operated in parallel connection. Y Solder Pins Models with rectangular pins mm (length 6.5 mm). Such regulators can be fitted to PCB boards (through-plated holes with.3 to.5 mm). G RoHS Compliance Models with G are RoHS-compliant for all six substances. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 3 of 5

14 Accessories A variety of electrical and mechanical accessories are available including: Filters and ring core chockes for ripple and interference reduction; see table 9. Tags and isolation pads for easy and safe PCB-mounting Adapters for chassis and DIN-rail mounting Isolation Pads for PCB Mounting In applications, where PCB mounting converters are placed on top of double sided boards, the use of an isolation pad is recommended. This fibre foil avoids short circuits and provide excellent protection against possible damage to tracks. Part number: HZZ003-G JM05 Fig. 3 Different filters Input filters Different input filters are available; see table 9. V i FP filter 3 Fig. 4 Connection of the FP filter Vi+ Gi PSA/PSR JM079 Vo+ Go V o R L European Projection Fig. Isolation pad HZZ003-G (ISOLATIONA,A0) 0.3 mm thick 47.5 ± ±0.5 5 ±0.5 min ± Fig. 5 Mechanical data of the FP filter. Weight approx. 30 g 0.9 x 0.56 ø.3 ± M ± (3.66) 3. ± (3.) 4 06a 3 positioning pin positioning pin 4 Table 9: Input filters FP. T A = 5 C unless otherwise specified Characteristics Conditions FP 38 FP 80 FP 44 Unit min typ max min typ max min typ max I Fn Rated current L = 0.75 L o 4 4 A V Fn Rated voltage T C min T C max VDC R F Ohmic resistance mω L o No load inductance I L = 0, T C min T C max µh T A Ambient temperature I F = I Fn C T C Case temperature T S Storage temperature For currents I F > 4 A the following derating takes place: T A max = 00.3 I F [ C], T C max = I F [ C]. FP 38 is obsolete. BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 4 of 5

15 Mounting Supports Different mounting supports for DIN-rail and chassis mountig are described in the Mounting Supports data sheet BCD.0007 posted on our web site. They also allow for fitting additional components. Fig. 6 Adapter for chassis mounting For additional accessory product information, see the accessory data sheets listed with each product series at our web site. NUCLEAR AND MEDICAL APPLICATIONS - These products are not designed or intended for use as critical components in life support systems, equipment used in hazardous environments, or nuclear control systems. TECHNICAL REVISIONS - The appearance of products, including safety agency certifications pictured on labels, may change depending on the date manufactured. Specifications are subject to change without notice. Copyright 07, Bel Power Solutions Inc. All rights reserved. belfuse.com/power-solutions BCD005-G Rev AE, 3-Jul-07 The Power Partners. Page 5 of 5