MP3414 [MPS]

1.8A,1MHz, Synchronous, Step-up Converter with Output Disconnect;
MP3414
型号: MP3414
厂家: MONOLITHIC POWER SYSTEMS    MONOLITHIC POWER SYSTEMS
描述:

1.8A,1MHz, Synchronous, Step-up Converter with Output Disconnect

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MP3414  
1.8A,1MHz, Synchronous, Step-up  
Converter with Output Disconnect  
The Future of Analog IC Technology  
FEATURES  
DESCRIPTION  
The MP3414 is a high-efficiency, synchronous,  
current–mode, step-up converter with output  
disconnect.  
Up to 96% Efficiency  
0.8V Low Voltage Start-Up  
0.6V-to-4V Input Range  
1.8V-to-4V Output Range  
Internal Synchronous Rectifier  
1MHz Fixed-Frequency Switching  
35μA Quiescent Current  
1μA Shutdown Current  
Current-Mode Control with Internal  
Compensation  
The MP3414 can start up from an input voltage  
as low as 0.8V to provide inrush current limiting,  
and output short-circuit protection. The  
integrated, P-channel, synchronous rectifier  
improves efficiency and eliminates the need for  
an external Schottky diode. The PMOS  
disconnects the output from the input when the  
part shuts down. This output disconnect feature  
allows the output to be completely discharged,  
thus allowing the part to draw a 1μA supply  
current in shutdown mode.  
True Output Disconnect from Input  
VIN>VOUT Down Mode Operation  
High Efficiency under Light-Load Conditions  
Very Small External Components  
Inrush Current Limiting and Internal Soft-  
Start  
The 1MHz switching frequency allows for  
smaller external components, while the internal  
compensation and the soft-start minimize the  
external component count: these feature help to  
produce a compact solution for a wide current  
load range.  
Over-Voltage Protection  
Short-Circuit Protection  
TSOT23-8 Package  
APPLICATIONS  
Battery-Powered Products  
Personal Medical Devices  
Portable Media Players  
Wireless Peripherals  
Handheld Computers and Smartphones  
The MP3414 features an integrated power  
MOSFET that supports up to a 4V output and a  
typical 1.8A peak switching current.  
The MP3414 is available in a small 8-pin  
TSOT23 package.  
All MPS parts are lead-free, halogen free, and adhere to the RoHS directive. For  
MPS green status, please visit MPS website under Quality Assurance. “MPS”  
and “The Future of Analog IC Technology” are Registered Trademarks of  
Monolithic Power Systems, Inc.  
TYPICAL APPLICATION  
L 3.3µH  
100  
90  
3
2
SW  
1
80  
OUT  
FB  
VIN  
IN  
VOUT  
70  
CIN  
10µF  
R1  
60  
50  
40  
30  
COUT  
47µF  
365k  
7
MP3414  
8
EN  
ON OFF  
R2  
20  
10  
0
PGND AGND  
210k  
4
6
0.01 0.1  
1
10  
100 1000  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
1
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
ORDERING INFORMATION  
Part Number*  
Package  
Top Marking  
MP3414DJ  
TSOT23-8  
See Below  
* For Tape & Reel, add suffix –Z (e.g. MP3414DJ–Z);  
For RoHS-compliant packaging, add suffix –LF (e.g. MP3414DJ–LF–Z)  
TOP MARKING  
ACM: product code of MP3414DJ  
Y: year code  
PACKAGE REFERENCE  
TOP VIEW  
TSOT23-8  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
2
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
ABSOLUTE MAXIMUM RATINGS (1)  
Thermal Resistance (4)  
TSOT23-8..............................100..... 55... °C/W  
θJA  
θJC  
SW Pin, OUT Pin ........................-0.5V to +6.5V  
All other Pins...................................-0.5V to +6V  
Continuous Power Dissipation (TA = 25°C) (2)  
................................................................. 1.25W  
Junction Temperature...............................150°C  
Lead Temperature ....................................260°C  
Storage Temperature.............. –65°C to +150°C  
Notes:  
1) Exceeding these ratings may damage the device.  
2) The maximum allowable power dissipation is a function of the  
maximum junction temperature TJ(MAX), the junction-to-  
ambient thermal resistance θJA, and the ambient temperature  
TA. The maximum allowable continuous power dissipation at  
any ambient temperature is calculated by PD(MAX)=(TJ(MAX)-  
TA)/ θJA. Exceeding the maximum allowable power dissipation  
will cause excessive die temperature, and the regulator will go  
into thermal shutdown. Internal thermal shutdown circuitry  
protects the device from permanent damage.  
Recommended Operating Conditions (3)  
Start-up Voltage VST...........................0.8V to 4V  
Supply Voltage VIN .............................0.6V to 4V  
3) The device is not guaranteed to function outside of its  
operation conditions.  
4) Measured on JESD51-7 4-layer board.  
VOUT....................................................1.8V to 4V  
Operating Junction Temp. (TJ). -40°C to +125°C  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
3
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
ELECTRICAL CHARACTERISTICS  
VIN = VEN = 1.8V, VOUT = 3.3V, TA = 25°C, unless otherwise noted.  
Parameters  
Symbol Condition  
Min  
Typ Max Units  
Minimum Startup Voltage  
Operating Input Voltage  
Output Voltage Adjust Range  
VST  
VIN  
0.8  
1.0  
4
V
V
V
0.6  
1.8  
VOUT  
4.0  
VEN=VIN=1.8V, VOUT=3.3V, no load,  
Quiescent Current  
IQNS  
35  
50  
µA  
Measured on OUT pin  
VEN=VOUT=0V, Measured on IN pin  
VIN Rising  
Shutdown Current  
ISD  
VUVLO  
fSW  
1
3
µA  
V
IN Under-Voltage Lockout  
Operation Frequency  
Feedback Voltage  
0.4  
0.8  
0.5  
1.0  
0.6  
1.2  
MHz  
V
VFB  
1.19 1.21 1.23  
Feedback Input Current  
NMOS On-Resistance  
NMOS Leakage Current  
PMOS On-Resistance  
PMOS Leakage Current  
Maximum Duty Cycle  
Startup Current Limit  
NMOS Current Limit  
IFB  
VFB=1.25V  
1
50  
nA  
m  
µA  
mΩ  
µA  
%
RNDS ON  
IN LK  
RPDS ON  
IP LK  
110  
0.1  
120  
0.1  
95  
VSW=6.5V  
1
VSW=6.5V, VOUT=0V  
1
DMAX  
IST LIMIT  
ISW LIMIT  
89  
0.75  
1.8  
A
1.5  
A
0.8×  
VIN  
EN Input High Level  
EN Input Low Level  
VEN_H  
V
V
0.2×  
VIN  
VEN_L  
IEN  
EN Input Current  
Thermal Shutdown(5)  
Over Temperature Hysteresis(5)  
Connect to VIN  
10  
150  
20  
nA  
°C  
°C  
Notes: 5Guaranteed by design, not tested  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
4
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
TYPICAL PERFORMANCE CHARACTERISTICS  
Performance waveforms are tested on the evaluation board in the Design Example section.  
VIN = 1.8V, VOUT = 3.3V, L = 3.3µH, TA = 25°C, unless otherwise noted.  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
5
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
TYPICAL PERFORMANCE CHARACTERISTICS (continued)  
Performance waveforms are tested on the evaluation board in the Design Example section.  
VIN = 1.8V, VOUT = 3.3V, L = 3.3µH, TA = 25°C, unless otherwise noted.  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
6
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
PIN FUNCTIONS  
Pin #  
Name  
Pin Function  
1
IN  
Input Supply. Requires bypass capacitor.  
Output Node. Source of the internal synchronous rectifier. Place the output capacitor as  
close as possible between OUT and PGND.  
2
OUT  
3
4
SW  
Output Switch Node. Connect the inductor to SW to complete the step-up converter.  
Power Ground. Reference ground of the regulated output voltage.  
PGND  
5
6
NC  
No Connection.  
Analog Ground.  
AGND  
Feedback. Connect to the tap of an external resistive voltage divider from the output to  
FB to set the output voltage.  
7
8
FB  
EN  
Enable input. Turns regulator on or off. Logic high (>0.8VIN) turns on the regulator. It is  
internally pulled up to IN Pin through 1.5Mresistor.  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
7
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
BLOCK DIAGRAM  
SW  
IN  
Enable  
EN  
Bias and  
Voltage Ref  
VIN  
Body  
VBETTER  
VDD  
OVP  
OUT  
Control  
HS  
Thermal  
Control  
Zero current  
Cross COMP  
Driver and  
Control logic  
FB  
Start-up  
Mode Control  
LS  
PGND  
Oscillator  
Current Sense  
Amplifier  
+
-
Slope  
COMP  
Σ
PGND  
FB  
+
-
PWM  
COMP  
+
+
-
OUT  
EA  
Soft Start  
AGND  
1.21V  
Clamp  
Figure 1: Functional Block Diagram  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
8
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
OPERATION  
The MP3414 is a 1MHz, synchronous, step-up  
converter housed in a compact TSOT23  
package with true output disconnect. Able to  
operate at low-input voltages of less than 0.8V,  
the device features fixed-frequency current-  
mode PWM control for exceptional line and load  
regulation. Internal soft-start and loop  
compensation simplify the design process and  
minimize the external components. The internal  
low-RDS(ON) MOSFETs combined with Power  
Save Mode operation enable the device to  
maintain high efficiency over a wide current-  
load range.  
charge and continues to rise following the FB  
voltage during the linear charging and free-  
running period. Once the output voltage  
reaches 1.7V, the normal closed-loop operation  
initiates, VOUT starts to rise under the control of  
SS, and the current limit goes to 1.8A. It then  
works either in boost mode or down mode  
depending on VIN and VOUT. Table 1 lists the  
operation modes during start up.  
Table 1: Operation Mode during Start-Up  
Sequence  
VOUT <Vin-200mV & VOUT <1.7V  
Linear Charge  
Free Running  
VOUT Vin-200mV & VOUT <1.7V  
Synchronous Rectifier  
VOUT <Vin+200mV & VOUT 1.7V Down mode  
VOUT >Vin+200mV & VOUT 1.7V Boost Mode  
The MP3414 integrates an N-channel and a P-  
channel MOSFET to realize a synchronous  
rectifier. Replacing the traditional Schottky  
diode with a low-RDS(ON) PMOS improves  
efficiency. In a conventional synchronous  
rectifier, the PMOS body diode is forward-  
In normal mode, when VOUT>VIN+200mV, the  
MP3414 powers itself from VOUT instead of VIN.  
This allows the battery voltage to drop to as low  
as 0.6V without affecting the circuit operation.  
The battery supplies sufficient energy to the  
output and becomes the only limiting factor in  
the application.  
biased, and the current flows from VIN to VOUT  
.
The MP3414 allows for true output disconnect  
by eliminating the body diode, and prevents  
battery depletion when the converter shuts  
down. To prevent excessive inductor current,  
the PMOS synchronous rectifier only functions  
when VOUT > (VIN +200mV).  
Device Enable  
The device operates when EN is high (>0.8VIN).  
It enters shutdown mode when EN is set to  
GND. In shutdown mode, the regulator stops  
switching and halts all internal control circuitry  
and eliminate body-diode conduction of the  
internal PMOS rectifier. This isolates the load  
from the input, and means that the output  
voltage can drop below the input voltage during  
shutdown.  
Start-Up  
When EN is on, the MP3414 starts up with a  
linear charge period. During this linear charge  
period, the rectifier PMOS turns on until the  
output capacitor charges to VIN–200mV; the  
PMOS current is limited during this period to  
around 750mA to avoid inrush current. This  
circuit also helps to limit the output current  
under short circuit conditions.  
Power-Save Mode  
The MP3414 automatically enters power-save  
mode (PSM) when the load decreases, and  
resumes PWM mode when the load increases.  
In PSM, the converter only operates when the  
output voltage falls below the set threshold, and  
ramps up by several pulses with the same  
switching frequency as PWM mode. It resumes  
power-save mode once the output voltage  
exceeds the high threshold. PSM requires  
fewer circuit resources than PWM mode. All  
unused circuitry is disabled, so as to reduce  
After the linear charging period, the device  
starts switching. If VOUT remains below 1.7V, the  
part then works in free-running mode; in this  
mode, the device works in open loop at a fixed  
500kHz switching frequency, the duty cycle  
depends on the input-output ratio, and the  
switching current is limited to 1.2A to avoid the  
start-up current inrush.  
The internal soft-start (SS) does not take  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
9
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
quiescent power dissipation as well as  
Thermal Protection  
switching power loss. The OUT pin voltage-  
monitoring circuit and error amplifier with loop  
compensation for peak-current– mode control  
remain active.  
The device has an internal temperature monitor  
If the die temperature exceeds 150°C, the  
switches turn off. Once the output drops below  
1.7V, it will turn on.  
The output ripple, which is usually around 1%  
peak to peak, can be reduced by increasing the  
output capacitance and also by adding a small  
feed-forward capacitance (around 10pF).  
Output Disconnect and Inrush Limiting  
The MP3414 is designed to allow true output  
disconnect by eliminating the internal PMOS  
rectifier’s body diode conduction. This feature  
allows VOUT to go to 0V during shutdown and  
draw 0A from the input source. It also allows for  
inrush current limiting at start-up, which  
minimizes surge currents at the input supply.  
Note that to optimize output disconnect,  
exclude the external Schottky diode between  
The MP3414 operates from PSM to PWM mode  
depending on the load, which varies with the  
input voltage, inductor value, and the output  
capacitor value.  
Under-Voltage Lockout  
Under-voltage lockout prevents device startup  
when VIN falls below 0.5V while in operation and  
the battery is being discharged.  
SW and VOUT  
.
To minimize voltage overshoot on the SW pin  
due to stray inductance, keep the output filter  
capacitor as close as possible to the VOUT pin  
and use very low ESR/ESL ceramic capacitors  
tied to a clean ground plane.  
Error Amplifier  
The error amplifier (EA) is an internally-  
compensated amplifier. The EA compares the  
internal 1.21V reference voltage against VFB to  
generate an error signal. The output voltage of  
MP3414 could be adjusted from 1.8V to 4V by  
connecting FB to the tap of an external voltage  
divider from VOUT to ground, as per the following  
equation:  
Short-Circuit Protection  
Unlike most step-up converters, the MP3414  
allows for short circuits on the output. In the  
event of a short circuit, the device first turns off  
the NMOS when the sensed current reaches  
the current limit. The device then enters a linear  
charge period with the current limited as with  
the start-up period. In addition, the thermal  
regulation circuit further controls the input  
current if the die temperature rises above  
150°C.  
R1  
V
OUT 1.21V(1R2 )  
(1)  
Set R1 and R2 as large as possible to achieve  
a low quiescent current. Usually, select an R1  
value larger than 300k for good stability and  
transient balance.  
Down Mode (VIN>VOUT) Operation  
Current Sensing  
The MP3414 will continue to regulate the output  
voltage even when the input voltage exceeds  
the output voltage. This is achieved by  
terminating the switching at the synchronous  
PMOS and applying VIN statically on its gate.  
This ensures that the slope of the inductor  
current will reverse while current flows to the  
output. Since the PMOS no longer acts as a  
low-impedance switch in this mode, power  
dissipation increases within the IC to cause a  
sharp drop in efficiency. Limit the maximum  
output current to maintain an acceptable  
junction temperature.  
Lossless current sensing converts the NMOS  
switch current signal to a voltage that can be  
summed with the internal slope compensator.  
The difference between this summed signal and  
the error amplifier output provides control over  
the peak current through the PWM. Peak switch  
current is limited to approximately 1.8A,  
independent of input or output voltage. The  
switching current signal is blanked for 60ns to  
enhance noise rejection.  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
10  
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
APPLICATION INFORMATION  
COMPONENT SELECTION  
Inductor Selection  
The MP3414 can use small surface-mount  
inductors due to its 1MHz switching frequency.  
Inductor values between 1.5μH and 4.7μH are  
suitable for most applications. Larger values of  
inductance will allow slightly greater output  
current capability (and lower the PSM threshold)  
by reducing the inductor ripple current.  
Increasing the inductance above 6.8μH will  
increase component size while providing little  
improvement in output current capability. The  
minimum inductance value is given by:  
Input Capacitor Selection  
Low ESR input capacitors reduce input  
switching noise and reduce the peak current  
drawn from the battery. It follows that ceramic  
capacitors are also a good choice for input  
decoupling and should be located as close as  
possible to the device. Add a ceramic capacitor  
larger than 10μF in parallel with a 100nF  
ceramic capacitor close to the IC.  
Output Capacitor Selection  
The output capacitor requires a minimum  
capacitance value of 22μF at the programmed  
output voltage to ensure stability over the full  
operating range. A higher capacitance value  
may be required to lower the output ripple and  
also the transient response. Low ESR  
capacitors, such as X5R- or X7R-type ceramic  
capacitors, are recommended. Assuming that  
the ESR is zero, estimate the minimum output  
capacitance to support the ripple in the PWM  
mode as.  
V
IN(MIN) (VOUT(MAX) V  
)
IN(MIN)  
L   
(3)  
2VOUT(MAX)IL fS  
Where IL is the acceptable inductor current  
ripple  
The inductor current ripple is typically set at  
30% to 40% of the maximum inductor current.  
High-frequency ferrite-core inductor materials  
reduce frequency-dependent power losses and  
improve efficiency compared to cheaper  
powdered-iron cores. The inductor should have  
low DCR (inductor series resistance without  
saturated windings) to reduce the resistive  
power loss; further reducing the DCR will  
IO (VOUT(MAX) V  
)
IN(MIN)  
CO   
(2)  
fS VOUT(MAX)V  
Where,  
significantly  
improve  
efficiency  
when  
V
V
OUT(MAX) = Maximum output voltage  
DCR<<RDS-ON. Select a large-enough saturation  
current (ISAT) to support the current peak.  
IN(MIN) = Minimum Input voltage  
IO=Output current  
The device enters PSM at a load that borders  
continuous and discontinuous PWM operation,  
which means the averaged inductor current  
(IAVG) is equal to half of the inductor current  
ripple (IL). So a larger inductor may lead to a  
lower PSM enter level.  
fS = Switching frequency  
V= Acceptable output ripple  
Additional output capacitance may also be  
required for applications where VINVOUT to  
reduce ripple in PSM mode and to ensure  
stability in PWM mode, especially at higher  
output load currents.  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
11  
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
PCB Layout Considerations  
output capacitor to reduce spikes on the SW  
node and improve EMI performance.  
Layout is important, especially for switching  
power supplies with high switching frequencies;  
poor layout results in reduced performance,  
EMI problems, resistive loss, and even system  
instability.  
2. Place the input capacitor, output capacitor,  
and inductor as close to the IC as possible  
with a short and wide trace.  
3. Place the feedback divider resistors as  
close as possible to the control GND  
(AGND) pin.  
Following the rules below can help ensure a  
stable layout design:  
1. Place a decoupling capacitor (>100nF) as  
close as possible from VOUT to PGND. Avoid  
placing vias between the OUT pin and the  
4. Use a large copper GND area to lower the  
die temperature.  
Figure 2 shows the recommended component  
placement for the MP3414.  
Figure 2: Recommended PCB Layout  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
12  
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
TYPICAL APPLICATION CIRCUITS  
Figure 3: Boost Circuit. VIN=1.2V, VOUT=1.8V.  
MP3414 Rev 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
13  
MP3414 – 1.8A, 1MHZ, SYNCHRONOUS, STEP-UP CONVERTER WITH OUTPUT DISCONNECT  
PACKAGE INFORMATION  
TSOT23-8  
NOTICE: The information in this document is subject to change without notice. Users should warrant and guarantee that third  
party Intellectual Property rights are not infringed upon when integrating MPS products into any application. MPS will not  
assume any legal responsibility for any said applications.  
MP3414 Rev. 1.05  
3/30/2018  
www.MonolithicPower.com  
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.  
© 2018 MPS. All Rights Reserved.  
14  

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MPS

MP3422

6.5A, 600kHz High Efficiency, Synchronous Step-Up Converter with Output Disconnect in 2x2mm QFN Package
MPS

MP3422GG

6.5A, 600kHz High Efficiency, Synchronous Step-Up Converter with Output Disconnect in 2x2mm QFN Package
MPS