Data Sheet March 2008 FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Features RoHS Compliant n Compatible with RoHS EU Directive 200295/EC n Compatible in Pb- free or SnPb reflow environment n n n n The FLTR100V10 Filter Module is encapsulated in a small, nonconductive plastic case. Application n n n Common-mode and differential-mode filtering of power supply dc input and output lines n Computer applications n Communications equipment Description Small size: 51 mm x 28 mm x 12 mm (2.0 in. x 1.1 in. x 0.46 in.) Optimized for use with high-frequency dc-to-dc power modules Printed-circuit board mountable Operating case temperature range: –40 °C to +100 °C UL* 60950 Recognized, CSA† C22.2 No. 60950-00 Certified; VDE 0805 (IEC60950) Licensed CE mark meets 73/23/EEC and 93/68/EEC directives‡ Options n Short pin: 2.8 mm (o.110 in.) n Short pin: 3.7 mm (0.145 in.) n Short pin: 4.6 mm (0.180 in.) The FLTR100V10 Filter Module is designed to reduce the conducted common-mode and differential-mode noise on input or output lines of high-frequency switching power supplies. The module has a maximum current rating of 10 A. It provides high insertion loss throughout the frequency range regulated by the U.S. Federal Communications Commission (FCC) and the International Special Committee on Radio Interference (CISPR) for conducted emissions. The module is 51 mm long, 28 mm wide, and 12 mm high (2.0 in. x 1.1 in. x 0.46 in.) and mounts on a PC board in a natural convection or forced-air environment. * UL is a registered trademark of Underwriters Laboratories, Inc. † CSA is a registered trademark of Canadian Standards Assn. ‡ This product is intended for integration into end-use equipment. All the required procedures for CE marking of end-use equipment should be followed. (The CE mark is placed on selected products.) FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Introduction High-density power modules are usually designed to operate at a high switching frequency to reduce the size of the internal filter components. The small EMI filters internal to the modules are often inadequate to meet stringent international EMI requirements. Many high-density electronic packaging techniques can increase the noise conducted onto the modules’ input and output lines. For example, the close proximity of switching components to the input pins increases internal noise coupling; and planar transformers, designed to handle high-power levels in lowprofile packages, have high interwinding capacitance that can increase common-mode current levels. Also, metal substrates used to facilitate heat transfer from the power train components to an external heat sink add to common-mode noise because of the large capacitance between switching components and the metal substrate. Many international agencies specify conducted and radiated emissions limits for electronic products. Included among these are CISPR, FCC, VCCI, and the new CE specifications. Most agency-conducted noise limits apply only to noise currents induced onto the ac power lines in finished products. European Telecommunication Standard Instructions (ETSI) are an exception, applying CE requirements to dc supplies with cables over three meters long. Although not required to do so by agency standards, some system designers apply the conducted emissions requirements to subassemblies within the product to reduce internal interference between subsystems and to reduce the difficulty of meeting overall system requirements. To meet these requirements, external filtering of the power module is often required. When used in conjunction with the recommended external components and layout, the Lineage Power filter module will significantly reduce the conducted differential and common-mode noise returned to the power source. CISPR and FCC class B requirements can be met by using the filter as described in the following sections. Absolute Maximum Ratings Stresses in excess of the absolute maximum ratings can cause permanent damage to the device. These are absolute stress ratings only. Functional operation of the device is not implied at these or any other conditions in excess of those given in the operations sections of the data sheet. Exposure to absolute maximum ratings for extended periods can adversely affect device reliability. Parameter Input Voltage: Continuous Transient (100 ms) Symbol Min Max Unit VI VI, trans — — 75 100 Vdc V Voltage from GND to Either Input Lead (1 minute) — — 1500 Vdc Operating Case Temperature TC –40 100 °C Storage Temperature* Tstg –55 125 °C * For the processing, handling and storage (module not powered), the filter module can handle -55°C to 125°C exposure. 2 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Electrical Specifications Unless otherwise indicated, specifications apply over all operating input voltage and temperature conditions. Parameter Symbol Min Typ Max Unit R — — 14 mΩ Maximum Average Current (TA = 60 °C, 2.03 m/s (400 lfm) air) I max — — 10 A Maximum Average Current (TA = 60 °C, natural convection) I max — — 6.5 A Common-mode Insertion Loss (50 Ω circuit, 500 kHz) — — 36 — dB Differential-mode Insertion Loss (50 Ω circuit, 500 kHz) — — 44 — dB Resistance per Leg Characteristics COMMON-MODE INSERTION LOSS (dB) 0 12 10 8 6 NC 4 200 LFM 2 400 LFM 0 20 30 40 50 60 70 80 90 -20 -40 -60 -80 -100 0.1 1.0 10 FREQUENCY (MHz) 8-1326b Figure 1. Derating output current vs. Local ambient temperature and Airflow (Vin = 48Vdc) Lineage Power Figure 2. Typical Common-Mode Insertion Loss in a 50 Ω Circuit 3 FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Characteristics (continued) Table 2: DIFFERENTIAL-MODE INSERTION LOSS (dB) 0 -20 -40 -60 Failure Rate in FITs: amb temp 10A 8 6A 20 30 40 50 60 70 80 24.248 38.244 58.588 87.415 127.327 181.441 253.416 11.679 18.925 29.736 45.433 67.671 98.481 140.302 6.89 11.388 18.227 28.336 42.899 63.394 91.632 Internal Schematics -80 -100 0.1 1.0 10 FREQUENCY (MHz) 8-1327b Figure 3. Typical Differential-Mode Insertion Loss in a 50 Ω Circuit IN OUT GND MTBF (T) 8-1324b 1•108 Figure 5. Internal Schematic II = 6 A II = 8 A II = 10 A 5•107 20 30 40 50 60 70 AMBIENT TEMPERATURE (˚C) 80 1-0324 Figure 4. MTBF vs Ambient temperature for 6A, 8A, and 10A Input Current Table 1: 4 MTBF in Hours: amp temp 10A 8A 6A 20 30 40 50 60 70 80 4.124•107 2.615•107 1.707•107 1.144•107 7.854•106 5.511•106 3.946•106 8.563•107 5.284•107 3.363•107 2.201•107 1.478•107 1.015•107 7.127•106 1.451•108 8.781•107 5.486•107 3.529•107 2.331•107 1.577•107 1.091•107 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Application Conducted noise on the input power lines can occur as either differential-mode or common-mode noise currents. Differential-mode noise is measured between the two input lines, and is found mostly at the lowfrequency end of the spectrum. This noise shows up as noise at the fundamental switching frequency and its harmonics. Common-mode noise is measured between the input lines and ground and is mostly broadband noise above 10 MHz. The high-frequency nature of common-mode noise is mostly due to the high-speed switching transitions of power train components. Either or both types of noise may be covered in a specification, as well as a combination of the two. An approved measurement technique is often described, as well. Differential-mode noise is best attenuated using a filter composed of line-to-line capacitors (X caps) and series inductance, provided by either a discrete inductor or the leakage inductance of a common-mode choke. In addition to the differential filtering provided by the filter module, it is recommended that an electrolytic capacitor be located at the converter side of the filter to provide additional attenuation of low-frequency differential noise and to provide a low source impedance for the converter, preventing input filter oscillations and loadtransient induced input voltage dips. Common-mode noise is best attenuated by capacitors from power module input to power module output, capacitors from each input line to a shield plane (Y caps), and common-mode chokes. It is recommended that ceramic capacitors be added around each power module from each input and output pin to a shield plane under the module. The shield plane should be connected to the CASE pin. 5 Data Sheet March 2008 The GND pin of the filter module is attached to Y caps within the module. This pin should be tied to a quiet chassis ground point away from the power modules. GND of the filter module should not be tied to the CASE pin of the power module since this is a noisy node and will inject noise into the filter, increasing the input common-mode noise. If no quiet grounding point is available, it is best to leave the filter module GND pin unattached. Each power system design will be different, and some experimentation may be necessary to arrive at the best configuration. Figure 6 shows a typical schematic of a power module with filter module and recommended external components. Figure 7 is a proposed layout. More than one power module may be attached to a single filter module as long as input current does not exceed 10 A. Figure 8 shows the recommended schematic for two power modules attached to a single filter. In applications where the addition of input to output capacitors is undesirable, do not use C3 and C4 shown in Figures 6 and 7, and do not use C3, C4, C8, and C9 shown in Figure 8. In –48 V applications where the shield plane and the power module case must be tied to a signal, remove C1 in Figures 6 and 7, remove C1 and C6 in Figure 8, and connect the shield plane and CASE pin to the VI(+) plane. In +48 V applications where the shield plane and the power module case must be tied to a signal, remove C2 in Figures 6 and 7, remove C2 and C7 in Figure 8, and connect the shield plane and CASE pin to the VI(–) plane. Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Application (continued) VO(+) VI(+) Vdc INPUT(+) VI(+) VO(+) FILTER MODULE Vdc INPUT(-) VI(-) C5 POWER MODULE VO(-) GND VO(-) VI(-) CHASSIS GROUND CASE C1 C2 C3 C4 SHIELD PLANE 8-1325b Note: C1 through C4 can be 0.01 µF to 0.1 µF. Select the voltage rating to meet input-to-output isolation requirements. C5 should be the recommended value indicated in the power module data sheet. Figure 6. Recommended Schematic When Used as the Input Filter to a High-Frequency dc-to-dc Converter POWER MODULE C1 FILTER MODULE SHIELD PLANE VI(+) Vdc INPUT(+) C4 VO(+) C5 CASE Vdc INPUT(-) VI(-) VO(-) CHASSIS GROUND C2 C3 8-1328d Note: Vdc input(+) and Vdc input(–) planes should overlay each other, as should the VI(+) and VI(–) planes, as should the VO(+) and VO(–) planes. Avoid routing signals or planes under the power module or the filter module. Ensure all connections are low impedance. Figure 7. Recommended Layout When Used as the Input Filter to a High-Frequency dc-to-dc Converter 6 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Application (continued) VI1 (+) Vdc INPUT(+) VI(+) VO(+) FILTER MODULE Vdc INPUT(-) VO1 (+) VI(-) C5 POWER MODULE 1 VO(-) GND VO1 (-) VI1 (-) CHASSIS GROUND CASE 1 C1 C2 C3 C4 C8 C9 SHIELD PLANE VI2(+) VO2(+) POWER MODULE 2 VO2 (-) VI2 (-) CASE 2 C6 C7 SHIELD PLANE 8-1362a Note: C1 through C4 and C6 through C9 can be 0.01 µF to 0.1 µF. Select the voltage rating to meet input-to-output isolation requirements. C5 should be the recommended value indicated in the power module data sheet. Figure 8. Recommended Schematic of Filter Module with Two Power Modules Lineage Power 7 Data Sheet March 2008 Application (continued) Figures 9 and 10 show some experimental results obtained by using the filter module, together with the recommended external components shown in Figures 6 and 7. The JW075A5 module is a lower-noise version of the standard JW series with internal modifications to the power module. The lower noise of the JW075A5 module is achieved at the cost of lower efficiency, and a reduced maximum power rating. Measured noise is highly dependent on layout, grounding, cable orientation, and load characteristics and will, therefore, vary from application to application. Thermal Considerations Filter modules operate in a variety of thermal environments; however, sufficient cooling should be provided to help ensure reliable operation. Considerations include ambient temperature, airflow, module power dissipation, and the need for increased reliability. A reduction in the operating temperature of the module will result in an increase in reliability. The thermal data presented in the data sheet is based on physical measurements taken in a wind tunnel. The thermal reference point used for thermal derating curves presented in Figure 1 is the case of the module. For reliable operation this temperature should not exceed 100oC. Other Considerations FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum The fundamental switching frequency noise spike can be somewhat reduced by adding a high-frequency capacitor of a few microfarads across the input lines of the filter module. Adding additional components to the input filter to improve performance usually has very limited payback, and may actually increase the noise conducted onto the input lines. Adding Y caps to the input side of the filter module couples any noise in the ground plane directly into the input lines, usually degrading performance. Adding additional X and Y caps to the power module side of the filter module produces lowimpedance loops for high-frequency currents to flow, possibly degrading performance. Adding additional common-mode or differential-mode filtering to the power module output leads decreases the power module output noise, and also frequently reduces the input noise by decreasing the noise coupled from output leads to input leads. Common-mode output filtering is particularly important if the load is tied to chassis ground. If common-mode filtering is added to the power module output, ensure that remote-sense leads sense the output voltage before the commonmode filter. Do not use remote-sense on the load side of an output common-mode filter. If input noise performance is unsatisfactory after applying the filter module as described previously, the best remedy is to modify the layout and grounding scheme. It is often useful to make a model of the power card, using copper tape and a vector card, to experiment with various layout and grounding approaches prior to committing to a printed-wiring board. It is essential for good EMI performance that the input lines not be contaminated with noise after passing through the filter. Filtered input traces should therefore be kept away from noise sources such as power modules and switching logic lines. If input voltage sense traces must be routed past the power modules from the quiet side of the filter module, they should be filtered at the point where they leave the quiet input lines. Input traces should be kept as far away from output power traces as possible. 8 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Other Considerations (continued) 8-1388(F) 8-1387(F) Figure 10. JW075A5 Conducted Noise with Filter Figure 9. JW075A1 Conducted Noise with Filter 9 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Outline Diagram Dimensions are in millimeters and (inches). Tolerances: x.x ± 0.5 mm (0.02 in.), x.xx ± 0.25 mm (0.010 in.). Top View 50.8 (2.00) MAX FLTR100V10 Filter Module V IN = 75 Vdc Max. IIN = 10 Adc Max. 27.9 (1.10) IN MAX OUT GND Side View 0.51 (0.020) 11.7 (0.46) MAX 0.79 (0.031) DIA ROUND PIN (TYP) 7.4 (0.2 Bottom View 12.06 (0.475) 3.8 (0.15) 31.11 (1.225) VI1 GND VO1 19.05 (0.750) VI2 VO2 4.6 (0.18) 8-1323c1 10 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Recommended Hole Pattern Component-side footprint. Dimensions are in millimeters and (inches). Tolerances: x.x ± 0.5 mm (0.02 in.), x.xx ± 0.25 mm (0.010 in.). Note: Do not route copper paths beneath power module standoffs. 4.6 (0.18) MODULE OUTLINE VO2 VI2 19.05 (0.750) VI1 3.81 (0.150) GND VO1 31.11 (1.225) 12.06 (0.475) 8-1323c2 Lineage Power 11 FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Post Solder Cleaning and Drying Consideratrions Post solder cleaning is usually the final circuit-board assembly process prior to electrical board testing.The result of inadequate cleaning and drying can affect both the reliability of a power module and the testability of the finished circuit-board assembly.For guidance on appropriate soldering,cleaning and drying procedures,refer to Lineage Power Board Mounted Power Modules:Soldering and Cleaning Application Note. Through-Hole Lead Free Soldering Information The RoHS-compliant through-Hole products use the SAC(Sn/Ag/Cu) Pb-free solder and RoHS- compliant components.They are designed to be processed through single or dual wave soldering machines.The pins have an RoHS-compliant finish that is compatible with both Pb and Pb-free wave soldering processes.A Maximum preheat rate 30C/s is suggested.The wave preheat process should be such that the temperature of the power module board is kept below 2100C.For Pb solder,the recommended pot temperature is 2600C,while the Pb-free solder pot is 2700C max.Not all RoHS-compliant through-hole products can be processed with paste-through-hole Pb or Pb-free reflow process.If additional information is needed,please consult with your Lineage Power representative for more details. 12 Lineage Power FLTR100V10 Filter Module 75 Vdc Input Maximum, 10 A Maximum Data Sheet March 2008 Ordering Information Device Code Comcode Description FLTR100V10 107742447 Standard Pin Length FLTR100V610 108799131 0.145 in. Pin Length FLTR100V810 108799123 0.110 in. Pin Length FLTR100V10-62 108997607 0.180 in. Pin Length FLTR100V10-62Z CC109103801 0.180 in. Pin Length RoHS compliant FLTR100V10Z 109100154 Standard Pin Length RoHS compliant FLTR100V610Z CC109103264 0.145 in. Pin Length RoHS compliant FLTR100V810Z CC1091103272 0.110 in. Pin Length RoHS compliant Option Codes Option Short pin: 2.8 mm ± 0.25 mm (0.110 in. ± 0.010 in.) Short pin: 3.7 mm ± 0.25 mm (0.145 in. ± 0.010 in.) Short pin: 4.6 mm ± 0.25 mm (0.180 in. ± 0.010 in.) Device Code Suffix 8 6 -62 A sia-Pacific Head qu art er s T el: +65 6 41 6 4283 Wor ld W ide Headq u ar ter s Lin eag e Po wer Co rp or atio n 30 00 Sk yline D riv e, Mes quite, T X 75149, U SA Tyco Electronics Power Systems, Inc. +1-800-526-7819 3000 Skyline Drive, Mesquite, (Outs id e U .S.A .: +197 2-2TX 84 75149, -2626)USA +1-800-526-7819 FAX: +1-888-315-5182 www.line ag ep ower .co m (Outside U.S.A.: +1-972-284-2626, FAX: +1-972-284-2900) e-m ail: tech sup por t1@ lin ea gep ower .co m http://power.tycoelectronics.com Eu ro pe, M id dle-East an d Afr ic a He ad qu ar ter s T el: +49 8 9 6089 286 Ind ia Head qu arter s T el: +91 8 0 28411633 Lineage Power reserves the right to m ake changes to the produc t(s) or inform ation contained herein without notice. No liability is ass um ed as a res ult of their use or applic ation. NoCorporation rights under any patent acc pany the sale of any s uc h proroduct(s ) or information. Tyco Electronics reserves the right toom make changes to the product(s) information contained herein without notice. No liability is assumed as a result of their use or application. No rights under any patent accompany the sale of any such product(s) or information. © 2008 Lineage Power Corpor ation, (M esquite, Texas ) All International Rights Res er ved. © 2003 Tyco Electronics Power Systems, Inc. (Mesquite, Texas) All International Rights Reserved. Printed in U.S.A. March 2008 (rev e) FDS01-044EPS (Replaces FDS01-043EPS)