TOSHIBA Bipolar Linear Integrated Circuit Silicon Monolithic TARSU ~ TARSU Point Regulators (Low-Dropout Regulators) The TARSxxU Series consists of general-purpose bipolar LDO regulators with an on/off control pin and features overtemperature and overcurrent protection circuits. Features Low standby current Overtemperature and overcurrent protections Wide operating voltage range High maximum output current Low input-to-output voltage differential Small package (UFV package similar to SOT-) Allows use of ceramic capacitors as the input and output capacitors. Weight:.7 g (typ.) SON-P--. (UFV) Pin Assignment (Top View) V IN V OUT CONTROL GND NOISE The overtemperature and overcurrent protection features are not intended to guarantee correct operation below the absolute maximum ratings. Do not use the TARSxxU under conditions where the absolute maximum ratings may be exceeded. Start of commercial production -8 --
List of Part Numbers and Markings Part No. Marking Part No. Marking Part Marking Example: TARSU (.-V output) TARSU V TARSU V TARSU V TARSU V TARS7U V7 TARSU V TARS8U V8 TARSU V TARS9U V9 TARS7U V7 TARSU V TARS8U V8 TARSU V TARS9U V9 TARSU V TARSU V TARSU V TARSU V TARSU V TARSU V TARSU V TARSU V TARSU V TARSU V TARS7U V7 TARSU V TARS8U V8 TARSU V TARS9U V9 TARS7U V7 TARSU V TARS8U V8 TARSU V TARS9U V9 TARSU V TARSU V V Absolute Maximum Ratings (Ta = C) Characteristics Symbol Rating Unit Supply Voltage V IN V Output Current I OUT ma Power Dissipation P D (Note ) mw Operation Temp. Range T opr to 8 C Storage Temp. Range T stg to C Note: Using continuously under heavy loads (e.g. the application of high temperature/current/voltage and the significant change in temperature, etc.) may cause this product to decrease in the reliability significantly even if the operating conditions (i.e. operating temperature/current/voltage, etc.) are within the absolute maximum ratings and the operating ranges. Please design the appropriate reliability upon reviewing the Toshiba Semiconductor Reliability Handbook ( Handling Precautions / Derating Concept and Methods ) and individual reliability data (i.e. reliability test report and estimated failure rate, etc). Note : Mounted on a glass epoxy circuit board of mm mm; Pad dimension of mm --
TARSU~TARSU Electrical Characteristic (unless otherwise specified, V IN = V OUT + V, I OUT = ma, C IN = μf, C OUT = μf, C NOISE =. μf, T j = C) Characteristics Symbol Test Condition Min Typ. Max Unit Output voltage V OUT Please refer to the Output Voltage Accuracy table. Line regulation Reg line V OUT + V V IN V, I OUT = ma mv Load regulation Reg load ma I OUT ma 7 mv Quiescent current I B I OUT = ma 7 μa I B I OUT = ma 8 Standby current I B (OFF) V CT = V. μa Output noise voltage V NO V IN = V OUT + V, I OUT = ma, Hz f khz, μv rms C NOISE =. μf, Ta = C Temperature coefficient T CVO C T opr 8 C ppm/ C Input voltage V IN. V Ripple rejection R.R. V IN = V OUT + V, I OUT = ma, C NOISE =. μf, f = khz, 7 db V Ripple = mv p-p, Ta = C Control voltage (ON) V CT (ON). V IN V Control voltage (OFF) V CT (OFF). V Control current (ON) I CT (ON) V CT =. V μa Control current (OFF) I CT (OFF) V CT = V. μa TARSU~TARSU Electrical Characteristic (unless otherwise specified, V IN = V OUT + V, I OUT = ma, C IN = μf, C OUT = μf, C NOISE =. μf, T j = C) Characteristics Symbol Test Condition Min Typ. Max Unit Output voltage V OUT Please refer to the Output Voltage Accuracy table. Line regulation Reg line V OUT + V V IN V, I OUT = ma mv Load regulation Reg load ma I OUT ma 7 mv Quiescent current I B I OUT = ma 7 μa I B I OUT = ma 8 Standby current I B (OFF) V CT = V. μa Output noise voltage V NO V IN = V OUT + V, I OUT = ma, Hz f khz, μv rms C NOISE =. μf, Ta = C Dropout volatge V IN V OUT I OUT = ma mv Temperature coefficient T CVO C T opr 8 C ppm/ C Input voltage V IN V OUT +. V V Ripple rejection R.R. V IN = V OUT + V, I OUT = ma, C NOISE =. μf, f = khz, 7 db V Ripple = mv p-p, Ta = C Control voltage (ON) V CT (ON). V IN V Control voltage (OFF) V CT (OFF). V Control current (ON) I CT (ON) V CT =. V μa Control current (OFF) I CT (OFF) V CT = V. μa --
Output Voltage Accuracy (V IN = V OUT + V, I OUT = ma, C IN = μf, C OUT = μf, C NOISE =. μf, T j = C) Part No. Symbol Min Typ. Max Unit TARSU... TARSU... TARS7U..7.7 TARS8U.7.8.8 TARS9U.8.9.9 TARSU.9.. TARSU... TARSU... TARSU... TARSU... TARSU...7 TARSU...7 TARS7U..7.77 TARS8U.7.8.87 TARS9U.8.9.97 TARSU.9..8 TARSU...8 TARSU V OUT...8 TARSU...9 TARSU...9 TARSU...9 TARSU...9 TARS7U..7.8 TARS8U.7.8.9 TARS9U.8.9. TARSU.9.. TARSU.99.. TARSU.9.. TARSU.9.. TARSU.9.. TARSU.8.. TARSU.8..7 TARS7U.8.7.8 TARS8U.8.8.9 TARS9U.77.9. TARSU.87.. V --
Application Notes. Recommended Application Circuit V IN V OUT μf μf CONTROL HIGH Operation ON. μf CONTROL GND NOISE LOW OFF A noise-damping capacitor should be connected between the NOISE pin and GND for stable operation. The recommended value is higher than.7 μf. The above figure shows the recommended application circuit for the TARSxxU. Capacitors should be connected to V IN and V OUT for input/output stabilization. If on/off control is not required, it is recommended to connect the CONTROL pin (pin ) to V CC.. Power Dissipation The power dissipation rating ( mw) is measured on a board shown below. More power can be safely dissipated by reducing the input voltage, output current and/or ambient temperature. It is recommended to use the TARSxxU at 7% to 8% of the absolute maximum power dissipation. Thermal Resistance Evaluation Board V IN V OUT C IN C OUT CONTROL GND NOISE C NOISE Material: Glass epoxy Dimensions: mm mm Copper pad area: mm, t =.8 mm --
. Ripple Rejection The TARSxxU feature a good power supply ripple rejection and input transient response, making them an ideal solution for the RF block of cell phones. 8 Ripple Rejection f TARS8U Input Transient Response 7 Ripple rejection (db) VIN =. V, CNOISE =. μf, CIN = μf, VRipple = mvp p, IOUT = ma, Ta = C k k k k Frequency f (Hz) μf. μf μf Input voltage. V. V.8 V Output voltage Ta = C, CIN = μf, COUT = μf, CNOISE =. μf, VIN:. V. V, IOUT = ma 7 8 9 Time t (ms). NOISE Pin The TARSxxU have a pin named NOISE. To reduce the output noise and ensure stable operation, a capacitor should be inserted between the NOISE pin and GND. The capacitance value should be at least.7 μf. The output voltage rise time varies with the value of the capacitor connected to the NOISE pin. Output noise voltage VN (μv) C NOISE V N CIN = μf, COUT = μf, IOUT = ma, Ta = C TARS TARS TARS. μ. μ. μ. μ NOISE capacitance CNOISE (F) Control voltage VCT (ON) (V) Output voltage VOUT (V) Turn On Waveform Control voltage waveform CNOISE =. μf Output voltage waveform μf. μf. μf CIN = μf, COUT = μf, IOUT = ma, Ta = C 7 8 9 Time t (ms) --
. Examples of Performance Curves When Ceramic Capacitors Are Used The stable operating area (SOA) is an area where the output voltage does not go into oscillation. The following figures represent the SOA obtained using an evaluation circuit shown below. The SOA is determined by the equivalent series resistance (ESR) of the output capacitor and the output current. The TARSxxU provide stable operation even when a ceramic capacitor is used as the output capacitor. If the ripple frequency is khz or greater, the ripple rejection characteristics differ, depending on the type of the output capacitor (ceramic or tantalum) as shown by the bottom figure on this page. It is recommended to verify that TARSxxU operate properly under the intended conditions of use. Examples of Safe Operating Area Characteristics (TARSU) Stable Operating Area (TARSU) Stable Operating Area Equivalent series resistance ESR (Ω). Stable Operating Area @VIN =. V, CNOISE =. μf, CIN = μf, COUT = μf to μf, Ta = C Equivalent series resistance ESR (Ω). Stable Operating Area @VIN =. V, CNOISE =. μf, CIN = μf, COUT = μf to μf, Ta = C. 8. 8 Output current I OUT (ma) (TARS8U) Stable Operating Area Circuit for Stable Operating Area Evaluation Equivalent series resistance ESR (Ω) Stable Operating Area. @VIN =.8 V, CNOISE =. μf, CIN = μf, COUT = μf to μf, Ta = C. 8 V IN = V OUT + V C IN Ceramic CONTROL C NOISE =. μf TARS**U GND ESR C OUT Ceramic Capacitors used for evaluation C IN : Murata GRMBK C OUT : Murata GRMBK / GRMBK R OUT Ripple Rejection Characteristic (f = khz to khz) Ripple rejection (db) 7 (TARSU) Ripple Rejection f Ceramic μf Tantalum μf Ceramic. μf Ceramic μf Tantalum. μf Tantalum μf @VIN =. V, CNOISE =. μf, CIN = μf, VRipple = mvp-p, IOUT = ma, Ta = C k k k k Frequency f (Hz) 7 --
(TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS8U) I OUT V OUT.9 VIN =.8 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C.8 Ta = 8 C..7 (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C. Ta = 8 C.9. (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C. Ta = 8 C.. 8 --
(TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS7U) I OUT V OUT.8 VIN =.7 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C.7 Ta = 8 C.. (TARS8U) I OUT V OUT.9 VIN =.8 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS9U) I OUT V OUT VIN =.9 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms.8 Ta = 8 C.9 Ta = 8 C.7.8 (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C. Ta = 8 C.9. 9 --
(TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C. Ta = 8 C.. (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms. Ta = 8 C. Ta = 8 C.. (TARS8U) I OUT V OUT.9 VIN =.8 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) I OUT V OUT. VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms.8 Ta = 8 C. Ta = 8 C.7.9 --
(TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARS8U) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma --
(TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARS7U) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma (TARS8U) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARS9U) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma --
(TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma (TARS8U) I B V IN (TARSU) I B V IN CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms IOUT = ma IOUT = ma --
(TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS8U) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms --
(TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS7U) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS8U) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS9U) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms --
(TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU) V OUT V IN (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARS8U) V OUT V IN (TARSU) V OUT V IN IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms --
(TARSU). (TARS8U).9 VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms VIN =.8 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms... IOUT = ma.8.8.7 IOUT = ma. 7.7 7 (TARSU). (TARSU). VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms...9 IOUT = ma... IOUT = ma.9 7. 7 (TARSU). (TARSU). VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms... IOUT = ma... IOUT = ma. 7. 7 7 --
(TARSU). (TARS7U).8 VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms VIN =.7 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms... IOUT = ma.7.7. IOUT = ma. 7. 7 (TARS8U).9 (TARS9U). VIN =.8 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms VIN =.9 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms.8.8.7 IOUT = ma.9.9.8 IOUT = ma.7 7.8 7 (TARSU). (TARSU). VIN = V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms...9 IOUT = ma... IOUT = ma.9 7. 7 8 --
(TARSU). VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU). VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms... IOUT = ma... IOUT = ma. 7. 7 (TARSU). VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU). VIN =. V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms... IOUT = ma... IOUT = ma. 7. 7 (TARS8U).9 VIN =.8 V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms (TARSU). VIN = V, CIN = μf, COUT = μf, CNOISE =. μf, Pulse width = ms.8.8.7 IOUT = ma..9 IOUT = ma.7 7.9 7 9 --
I B Ta VIN = VOUT + V, CIN = μf,... COUT = μf, CNOISE =. μf IOUT = ma Pulse width = ms 7 Dropout voltage VIN - VOUT (V) (TARSU~TARSU) V IN -. CIN = μf, COUT = μf, CNOISE =. μf. Pulse width = ms. IOUT = ma... 7 Dropout voltage VIN - VOUT (V) (TARSU~TARSU) V IN - V OUT I OUT. CIN = μf, COUT = μf, CNOISE =.μf Pulse width = ms. 8 Ta = C........ I B I OUT VIN = VOUT + V, CIN = μf, COUT = μf, CNOISE =. μf Pulse width = ms Ta = C 8 Control voltage VCT (ON) (V) Turn On Waveform Control voltage waveform Control voltage VCT (ON) (V) Turn Off Waveform VIN = VOUT + V, VCT (ON) =. V, CIN = μf, COUT = μf, CNOISE =. μf Control voltage waveform Output voltage waveform Output voltage VOUT (V) Ta = C 8 VIN = VOUT + V, VCT (ON) =. V, CIN = μf, COUT = μf, CNOISE =. μf Output voltage VOUT (V) Output voltage waveform Time t (ms) Time t (ms) --
Output noise voltage VN (μv/ Hz ).. V N f VIN = VOUT + V, IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, Hz < f < khz, Ta = C Ripple rejection (db) Ripple Rejection f 8 TARSU (. V) TARSU (. V) 7 TARSU (. V) TARSU (. V) TARSU (. V) TARSU (. V) VIN = VOUT + V, IOUT = ma, CIN = μf, COUT = μf, CNOISE =. μf, VRipple = mvp-p, Ta = C. k k k k k k k Frequency f (Hz) Frequency f (Hz) P D Ta Power dissipation PD (mw) Circuit board material: glass epoxy, Circuit board dimention: mm mm, pad area: mm (t =.8 mm) 8 --
Package Dimensions SON-P--..±. Weight:.7 g (typ.) --
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