NJW4185DL1-05B-TE1

NJW4185 High Voltage Io=500mA Low Dropout Regulator GENERAL DESCRIPTION The NJW4185 is a high voltage and low current consumption low dropout regulator. It has two product type: A version (built-in ON/OFF function type) and B version (3-terminal / compatible with 78M series) PACKAGE OUTLINE NJW4185 is mounted to TO-252-3/-5 packages and corresponded to Low ESR capacitor (MLCC). The wide input range makes NJW4185 suitable for Automotive applications, Industrial supplies, Multiple cell battery equipment and various applications. FEATURES Wide Operating Voltage Range Low Current Consumption NJW4185DL3 NJW4185DL1 4.0V to 40V 55μA typ. (A version) 48μA typ. (B version) VO 1.0% IO(min.)=500mA 2.0V to 15.0V High Precision Output Output Current Output Voltage Range Correspond to Low ESR capacitor (MLCC) ON/OFF Function (apply only the A ver.) Internal Thermal Overload Protection Internal Over Current Protection Package Outline A version: TO-252-5 B version: TO-252-3 PRODUCT CLASSIFICATION ON/OFF Function NJW4185DL3-xxA A Yes NJW4185DL1-xxB B xx=Output Voltage ex) 33=3.3V 05=5.0V Device Name Version Package TO-252-5 TO-252-3 PIN CONFIGURATION 5 4 3 2 1 3 NJW4185DL3-A Ver.2015-12-01 VOUT NC GND CONTROL VIN 3 VOUT 2 2 GND 1 VIN NJW4185DL1-B -1- NJW4185 BLOCK DIAGRAM ･A version VOUT VIN Current Limit CONTROL Bandgap Reference Thermal Protection GND ･B version VIN VOUT Current Limit Bandgap Reference Thermal Protection GND OUTPUT VOLTAGE RANK LIST ・A version Device Name Output Voltage NJW4185DL3-33A 3.3V NJW4185DL3-05A 5.0V NJW4185DL3-08A 8.0V NJW4185DL3-15A 15.0V ・B version Device Name NJW4185DL1-33B NJW4185DL1-05B NJW4185DL1-08B NJW4185DL1-15B -2- Output Voltage 3.3V 5.0V 8.0V 15.0V Ver.2015-12-01 NJW4185 ABSOLUTE MAXIMUM RATINGS PARAMETER SYNBOL Input Voltage VIN Control Voltage(*1) VCONT Output Voltage VOUT Power Dissipation Junction Temperature Operating Temperature Storage Temperature PD Tj Topr Tstg RATINGS -0.3 to +45 -0.3 to +45 -0.3 to VIN +17 1190 (*2) 3125 (*3) -40 to +150 -40 to +125 -40 to +150 (Ta=25 C) UNIT V V V mW C C C (*1): Apply only the A version. 2 (*2): Mounted on glass epoxy board. (76.2 114.3 1.6mm:based on EIA/JDEC standard size, 2Layers, Cu area 100mm ) (*3): Mounted on glass epoxy board. (76.2 114.3 1.6mm:based on EIA/JDEC standard, 4Layers) (For 4Layers: Applying 74.2 x 74.2mm inner Cu area and thermal via hole to a board based on JEDEC standard JESD51-5) INPUT VOLTAGE RANGE VIN=4.0V to 40V ELECTRICAL CHARACTERISTICS PARAMETER SYMBOL Output Voltage VO Quiescent Current IQ Quiescent Current at Control OFF (*4) Unless otherwise noted, VIN=VO+1V, CIN=1.0μF, CO=2.2μF, Ta=25 C TEST CONDITION MIN. TYP. MAX. UNIT -1.0% - +1.0% A version, IO =0mA, except ICONT - 55 90 B version, IO =0mA - 48 83 IQ (OFF) VCONT =0V - - 1 μA Output Current IO VO 0.9 500 - - mA Line Regulation VO/ VIN VIN = VO+1V to 40V, IO=30mA - - 0.03 %/V Load Regulation VO/ IO IO =0mA to 500mA - - 0.006 %/mA VO=3.3V - 62 - VO=5.0V - 60 - VO=8.0V - 55 - VO=15V - 50 - IO =300mA - 0.27 0.42 V Ripple Rejection Dropout Voltage (*5) RR VI O IO =30mA VIN = VO+1V ,ein=200mVrms, f=1kHz, IO =10mA V μA dB Average Temperature Coefficient of Output Voltage VO/ Ta Ta =0 to 85 C, IO =30mA - 50 - ppm/ C Control Current (*4) ICONT VCONT=1.6V - 1 3 μA VCONT(ON) 1.6 - - V VCONT(OFF) - - 0.6 V Control Voltage for ON-state (*4) Control Voltage for OFF-state (*4) (*4): Apply only the A version. (*5): Except Output Voltage Rank less than 3.8V The above specification is a common specification for all output voltages. Therefore, it may be different from the individual specification for a specific output voltage. Ver.2015-12-01 -3- NJW4185 THERMAL CHARACTERISTICS PARAMETER SYMBOL Junction-to-Ambient ja thermal resistance Junction-to-Top of package jt characterization parameter VALUE 105 (*6) 40 (*7) 17 (*6) 12 (*7) UNIT C/W C/W 2 (*6): Mounted on glass epoxy board. (76.2 114.3 1.6mm:based on EIA/JDEC standard size, 2Layers, Cu area 100mm ) (*7): Mounted on glass epoxy board. (76.2 114.3 1.6mm:based on EIA/JDEC standard, 4Layers) (For 4Layers: Applying 74.2 74.2mm inner Cu area and a thermal via hole to a board based on JEDEC standard JESD51-5) POWER DISSIPATION vs. AMBIENT TEMPERATURE NJW4185DL1/DL3 PowerDissipation (Topr=-40~+125°C,Tj=150°C) 3500 Power Dissipation PD(mW) 3000 on 4 layers board 2500 2000 on 2 layers board 1500 1000 500 0 -50 -25 0 25 50 75 100 125 150 Temperature : Ta( C) -4- Ver.2015-12-01 NJW4185 TEST CIRCUIT ･A version A IIN VIN VIN 1.0μF ICONT A VOUT NJW4185-A 2.2μF IOUT V VOUT (Ceramic) CONTROL GND V VCONT ･B version A VIN IIN VIN 1.0 F VOUT NJW4185-B 2.2 F IOUT V VOUT (ceramic) GND Ver.2015-12-01 -5- NJW4185 TYPICAL APPLICATION ･A version 1. In the case where ON/OFF Control is not required VIN VIN 1.0μF VOUT NJW4185-A VOUT 2.2μF R CONTROL GND Connect control pin to VIN pin 2. In use of ON/OFF CONTROL VIN VIN 1.0μF VOUT NJW4185-A VOUT 2.2μF R CONTROL GND State of control pin: “H” output is enabled. “L” or “open” output is disabled. ･B version VIN VIN 1.0 F VOUT VOUT 2.2 F NJW4185-B GND -6- Ver.2015-12-01 NJW4185 *In the case of using a resistance "R" between VIN and control. If this resistor is inserted, it can reduce the control current when the control voltage is high. The applied voltage to control pin should set to consider voltage drop through the resistor “R” and the minimum control voltage for ON-state. The VCONT (ON) and ICONT have temperature dependence as shown in the "Control Current vs. Temperature" and "Control Voltage vs. Temperature" characteristics. Therefore, the resistance "R" should be selected to consider the temperature characteristics. *Input Capacitor CIN Input Capacitor CIN is required to prevent oscillation and reduce power supply ripple for applications when high power supply impedance or a long power supply line. Therefore, use the recommended CIN value (refer to conditions of ELECTRIC CHARACTERISTIC) or larger and should connect between GND and VIN as shortest path as possible to avoid the problem. *Output Capacitor CO The output capacitor CO will be required for a phase compensation of the internal error amplifier. The capacitance and the equivalent series resistance (ESR) influence to stable operation of the regulator. Use of a smaller CO may cause excess an output noise or an oscillation of the regulator due to lack of the phase compensation. On the other hand, use of a larger CO reduces an output noise and a ripple output, and also improves an output transient response when load rapidly changes. Therefore, use the recommended CO value (refer to conditions of ELECTRIC CHARACTERISTIC) or larger and should connect between GND and VOUT as shortest path as possible for stable operation. The recommended capacitance depends on the output voltage rank. Especially, a low voltage regulator requires larger CO value. In addition, you should consider varied characteristics of capacitor (a frequency characteristic, a temperature characteristic, a DC bias characteristic and so on) and unevenness peculiar to a capacitor supplier enough. When selecting CO, recommend that have withstand voltage margin against an output voltage and superior temperature characteristic. *Transient response characteristic of Output Voltage In general, overshoot or undershoot of output voltage may occur due to the transient response characteristic of an internal error amplifier. Especially, low current consumption regulator may have overshoot or undershoot due to slow feedback caused by current saving design. Therefore, design validation is important in the following cases: 1. Input voltage or output current change sharply 2. Output capacitors is small 3. Output load is light 4. A regulator starts up with very low dropout voltage operation. Increasing the value of input and/or output capacitor is a common countermeasure for improving a transient response characteristic. A transient response characteristic may vary with operating conditions and external components value. Please check it with the actual environment. Ver.2015-12-01 -7- NJW4185 *The notes of the evaluation when output pin is shorted to GND When evaluate short circuit test, the IC may break down because of regenerated energy by the parasitic inductance included in wiring pattern. It phenomenon appears conspicuously when an output voltage is higher(Vo=8.0V or more) or connected to inductive load. In case of short circuit in actual application, not likely to destruction of the IC because of some of Resistance exist between load. If happened above phenomenon by the short circuit test with the actual application, recommend connecting schottky barrier diode(SBD) between Vo pin and GND or using output capacitors that have ESR more than 2Ω like a tantalum or aluminum electrolytic capacitor.(see below figure) (a)In case of insert Schottky barrier diode between output pin - GND V IN V IN V OUT NJW 4185 V OUT SBD GND (b) In case of using the electrolytic capacitor or insert series resistor VIN VIN VOUT VOUT NJW4185 GND -8- Connecting resistor(2 or more)in series. (in case of ESR of COUT is low) Ver.2015-12-01 NJW4185 TYPICAL CHARACTERISTICS NJW4185_5.0V Output Voltage：VO (V) Io=0mA 4.9 Io=30mA @:VIN=4.3V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 6 5.1 5 Output Voltage vs Output Current 7 @:Ta=25ºC CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 5.2 Output Voltage：VO (V) NJW4185_5.0V Output Voltage vs Input Voltage 5.3 Io=500mA 4.8 4.7 5 150ºC 4 3 2 0 4.6 4.8 5 5.2 5.4 5.6 Input Voltage：VIN (V) 5.8 6 0 250 500 750 1000 Output Current：Io (mA) NJW4185(A ver.)_5.0V 450 @:Ta=25ºC Output is Open CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 550 Quiescent Current:IQ (μA) 500 Quiescent Current vs Input Voltage 600 @:Ta=25ºC Output is Open except ICONT CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 550 1250 NJW4187(B ver.)_5.0V Quiescent Current vs Input Voltage 600 Quiescent Current：IQ (μA) -50ºC 1 4.6 400 350 300 250 200 150 500 450 400 350 300 250 200 150 100 100 50 50 0 0 0 10 20 30 Input Voltage：VIN (V) 0 40 Ground Pin Current vs Output Current 600 40 Output Voltage vs Control Voltage 6 @:Ta=25ºC VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) @:Ta=25ºC VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 5 Output Voltage：VO (V) 500 10 20 30 Input Voltage : VIN (V) NJW4185_5.0V NJW4185_5.0V Ground Pin Current：IGND (μA) 25ºC 400 300 200 100 Rc=100kΩ 4 3 Rc=0Ω 2 1 0 0 0 Ver.2015-12-01 100 200 300 400 Output Current：Io (mA) 500 0 0.5 1 1.5 Control Voltage：VCONT (V) 2 -9- NJW4185 NJW4185_5.0V Load Regulation vs Output Current 0 @:Ta=25ºC VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 70 60 Load Regulation ：ΔVo/ΔIo (mV) Control Current：ICONT (μA) 80 NJW4185_5.0V Control Current vs Control Voltage 50 Rc=0Ω 40 30 Rc=100kΩ 20 10 0 -20 -40 -60 -80 -100 -120 @:Ta=25ºC VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) -140 -160 0 10 20 30 Control Voltage：VCONT (V) 40 0 100 200 300 400 Output Current：Io (mA) NJW4185_5.0V NJW4185_5.0V Peak Output Current vs Input Voltage Dropout Voltage：ΔVI-O (V) 800 600 400 @:Ta=25ºC VO=4.5V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 200 0 6 100 Ripple Rejection Ratio：RR (dB) @:Ta=25ºC CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 0.7 1000 10 34 100 200 300 400 Output Current：Io (mA) NJW4185_5.0V 100 40 30 @Ta=25ºC VIN=6.0V Cin=1.0μF(Ceramic) Co=2.2μF(Ceramic) ein=200mVrms 10 0 Ripple Rejection Ratio vs Output Current Io=100mA 0 0.2 NJW4185_5.0V Io=30mA 10 0.3 Ripple Rejection Ratio vs Frequency 70 20 0.4 38 Io=0mA 50 0.5 0 14 18 22 26 30 Input Voltage：VIN (V) 80 60 0.6 0.1 Io=10mA 90 - 10 - Dropout Voltage vs Output Current 0.8 Ripple Rejection Ratio：RR (dB) Peak Output Current：IOPEAK (mA) 1200 100 500 Io=500mA 1k Frequency：f 10k (Hz) 100k 500 90 80 70 f=1kHz 60 50 40 f=10kHz 30 20 10 @Ta=25ºC VIN=6.0V Cin=1.0μF(Ceramic) Co=2.2μF(Ceramic) ein=200mVrms 0 0.001 0.01 0.1 1 10 100 Output Current：Io (mA) 1000 Ver.2015-12-01 NJW4185 NJW4185_5.0V 100 10 Output Voltage vs Temperature 5.3 @VIN=6.0V Cin=1.0μF(Ceramic) Co=2.2μF(Ceramic) 1 Stable Region 0.1 0.01 Io=0 @:VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 5.2 Output Voltage：VO (V) Equivalent Series Resistance：ESR (Ω) NJW4185_5.0V Equivalent Series Resistance vs Output Current Io=30mA Io=500mA 5.1 5 4.9 4.8 4.7 4.6 0.001 0.001 4.5 0.01 0.1 1 10 100 Output Current：Io (mA) -50 1000 0 NJW4185_5.0V Control Current：ICONT (μA) Control Voltage：VCONT (V) 1.2 1 0.8 0.6 0.4 0.2 @:VCONT=1.6V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 3.5 3 2.5 2 1.5 1 0.5 0 0 -50 0 50 Temperature： 100 150 -50 150 Short Cuircuit Current vs Temperature 1000 VIN=6V VIN=40V 900 600 300 Short Circuit Current：ISC (mA) Peak Output Current：IOPEAK (mA) @:VO=4.5V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 50 100 Temperature：(ºC) NJW4185_5.0V Peak Output Current vs Temperature 1500 0 (ºC) NJW4185_5.0V 1200 150 Control Current vs Temperature 4 @:VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 1.4 100 (ºC) NJW4185_5.0V Control Voltage vs Temperature 1.6 50 Temperature： @:VO=0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 900 800 VIN=6V VIN=40V 700 600 500 400 300 200 100 0 0 -50 Ver.2015-12-01 0 50 100 Temperature：(ºC) 150 -50 0 50 100 Temperature : (ºC) 150 - 11 - NJW4185 NJW4185_5.0V Load Regulation vs Temperature 0.05 @:VIN=6.0-40V Io=30mA CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 0.025 Load Regulation：ΔVo/ΔIo (%/mA) Line Regulation: ΔVo/ΔVIN (%/V) 0.05 NJW4185_5.0V Line Regulation vs Temperature 0 -0.025 -0.05 @:VIN=6.0V Io=0-500mA CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 0.025 0 -0.025 -0.05 -50 0 50 100 Temperature: (ºC) 150 -50 Dropout Voltage :VIO (V) Output Voltage：VO (V) 5 4 3 Io=0mA Io=30mA Io=500mA 150 @:CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 0.8 Io=100ｍA Io=300mA Io=500mA 0.7 0.6 0.5 0.4 0.3 0.2 @:VIN=6.0V CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 1 100 (ºC) Dropout Voltage vs Temperature 1 0.9 2 50 Temperature： NJW4185_5.0V NJW4185_5.0V Output Voltage vs Temperature 6 0 0.1 0 0 -50 50 Temperature： 150 -50 (ºC) 0 50 100 Temperature ： (ºC) 150 NJW4185(A ver.)_5.0V Quiescent Current vs Temperature 100 Quiescent Current：IQ (μA) 90 @:VIN=6.0V Output is Open except ICONT CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 80 70 60 50 40 30 20 10 0 -50 - 12 - 0 50 Temperature： 100 150 (ºC) Ver.2015-12-01 NJW4185 NJW4185_5.0V NJW4185_5.0V Input Transient Response Load Transient Response 7 5 @:Ta=25 C VIN=6.0-7.0V Io=30mA CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 4 3 5.1 2 5.0 Output Voltage 1 Output Voltage:Vo (V) 6 Output Voltage：VO (V) Input Voltage Input Voltage：VIN (V) @:Ta=25 C VIN=6.0V Io=0-100mA CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) 200 100 Output Current 0 5.1 5.0 Output Voltage 4.9 Output Current :Io (mA) 300 4.9 0 40 80 120 160 200 0 Time：t (μs) 200 600 800 1000 Time:t (ms) NJW4185(A ver.)_5.0V NJW4185(A ver.)_5.0V ON/OFF Transient Response without Load ON/OFF Transient Response 12 12 10 8 6 Output Voltage 4 2 5 0 0 Control Voltage：VCONT (V) @:Ta=25 C VIN=6.0V Io=0mA CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) Output Voltage：VO (V) Control Voltage：VCONT (V) 400 @:Ta=25 C VIN=6.0V Io=30mA CIN=1.0μF(Ceramic) Co=2.2μF(Ceramic) Output Voltage 10 8 6 4 2 5 0 Output Voltage：VO (V) 0 0 Control Voltage 0 20 40 Control Voltage 60 Time：t (s) 80 100 0 4 8 12 16 20 Time：t (ms) [CAUTION] The specifications on this databook are only given for information , without any guarantee as regards either mistakes or omissions. The application circuits in this databook are described only to show representative usages of the product and not intended for the guarantee or permission of any right including the industrial rights. Ver.2015-12-01 - 13 -