MPS MP2019GN 40v, 300ma, low quiescent current adjustable output linear regulator Datasheet

MP2019
40V, 300mA, Low Quiescent Current
Adjustable Output Linear Regulator
DESCRIPTION
FEATURES
The MP2019 is a low-power linear regulator
that supplies power to systems with highvoltage batteries. It includes a wide 3V to 40V
input range, low-dropout voltage, and a low
quiescent-supply current. The low quiescent
current and low dropout voltage allow
operations at extremely low-power levels.
Therefore, the MP2019 is ideal for low-power
microcontrollers
and
battery-powered
equipment.



The MP2019 provides a wide variety of fixed
output-voltage options (if requested): 1.8V, 1.9V,
2.3V, 2.5V, 3.0V, 3.3V, 3.45V, and 5.0V; also,
it provides the output-adjustable option (from
1.25V to 15V).
The regulator output current is limited internally,
and the device is protected against short-circuit,
over-load, and over-temperature conditions.
The MP2019 includes thermal shutdown (TSD),
current-limiting fault protection, and is available
in a SOIC-8 EP package.









3V to 40V Input Range
10µA Quiescent Supply Current
Stable with Low-Value Output Ceramic
Capacitor (> 0.47μF)
300mA Specified Current
Fixed 5V, 3.3V, and Adjustable Output (1.2
V to 15 V) Versions
Output ±2% Accuracy Over Temperature
Specified Current Limit
Power Good
Programmable Power Good Delay
Thermal Shutdown and Short-Circuit
Protection
-40°C to +125°C Specified JunctionTemperature Range
Available in a SOIC-8 EP Package
APPLICATIONS





Industrial/Automotive Applications
Portable/Battery-Powered Equipment
Ultra-Low Power Microcontrollers
Cellular Handsets
Medical Imaging
All MPS parts are lead-free, halogen-free, and adhere to the RoHS directive. For
MPS green status, please visit the MPS website under Quality Assurance.
“MPS” and “The Future of Analog IC Technology” are registered trademarks of
Monolithic Power Systems, Inc.
TYPICAL APPLICATION
IN
IN
EN
OUT
MP2019GN
PG
FB
PGDL
EN
OUT
MP2019GN
PG
FB
PGDL
GND
Output-Adjustable Version
MP2019 Rev. 1.01
1/10/2018
Vout
Vout
GND
Output-Fixed Version
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1
MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
ORDERING INFORMATION
Part Number*
Package
MP2019GN
SOIC-8 EP
MP2019GN-33
SOIC-8 EP
MP2019GN-5
SOIC-8 EP
Top Marking
See Below
* For Tape & Reel, add suffix –Z (e.g. MP2019GN–Z);
TOP MARKING
MP2019: part code of MP2019GN;
LLLLLLLL: lot number;
MPS: MPS prefix:
Y: year code;
WW: week code:
TOP MARKING
MP2019-33: part code of MP2019GN-33
LLLLLLLL: lot number;
MPS: MPS prefix:
Y: year code;
WW: week code:
TOP MARKING
MP2019-5: part code of MP2019GN-5
LLLLLLLL: lot number;
MPS: MPS prefix:
Y: year code;
WW: week code:
MP2019 Rev. 1.01
1/10/2018
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2
MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PACKAGE REFERENCE
FB
OUT
PGDL
NC
GND
PG
VIN
EN
SOIC-8 EP
ABSOLUTE MAXIMUM RATINGS (1)
Thermal Resistance
IN, EN .......................................... -0.3V to +42V
OUT ............................................. -0.3V to +17V
PG .............................................. -0.3V to +15V
PGDL, FB ...................................... -0.3V to +6V
Junction Temperature ............................ +150C
Lead Temperature ................................. +260C
Storage Temperature ............... -65C to +150C
(2)
Continuous Power Dissipation (TA = +25°C)
SOIC-8 EP .................................................2.5W
SOIC-8 EP.............................. 50 ...... 10 ... C/W
Notes:
1)
2)
ESD SUSCEPTIBILITY (3)
HBM (Human Body Mode) ...........................4kV
MM (Machine Mode)...................................200V
Recommended Operating Conditions
(4)
3)
4)
5)
(5)
θJA
θJC
Exceeding these ratings may damage the device.
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 produces an excessive die temperature,
causing the regulator to go into thermal shutdown.
Internal thermal shutdown circuitry protects the device
from permanent damage.
Devices are ESD sensitive. Handle with precaution.
The device is not guaranteed to function outside of its
operating conditions.
Measured on JESD51-7, 4-layer PCB.
Supply Voltage VIN ............................. 3V to 40V
Output Voltage VOUT ..................... 1.25V to 15V
Operating Temperature ...... TJ=-40°C to +125°C
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
ELECTRICAL CHARACTERISTICS
VIN = VEN = 13.5V, TJ =+25°C, unless otherwise noted.
Parameter
Symbol Condition
Input Voltage
Output-Voltage Range
Max Units
VIN
3
40
V
1.25
V
IGND
MP2019GN-33
MP2019GN-5
Shutdown Supply Current
Typ
VOUT
MP2019GN
GND Current
Min
IS
0<ILOAD<1mA
1mA<ILOAD<30mA
30mA<ILOAD<300mA
0<ILOAD<1mA
10
15
65
12
15
15
21
95
16
1mA<ILOAD<30mA
30mA<ILOAD<300mA
0<ILOAD<1mA
1mA<ILOAD<30mA
30mA<ILOAD<300mA
16
65
12
16
65
22
95
16
22
95
µA
1
µA
VEN =0V
Load Current Limit
ILIMIT
VIN=7V, VOUT = 0V
FB Voltage
VFB
MP2019GN, FB = OUT, ILOAD=5mA
1000
1350
mA
1.225
1.25
1.275
V
MP2019GN-33, ILOAD=5mA
3.2
3.3
3.4
MP2019GN-5, ILOAD=5mA
4.85
5
5.15
200
400
420
550
230
430
V
MP2019GN
(6)
VDROPOUT MP2019GN-33
MP2019GN-5
FB Input Current
Line Regulation
MP2019 Rev. 1.01
1/10/2018
µA
600
Output Voltage Accuracy
Dropout Voltage
µA
IFB
VOUT=5V,
ILOAD = 150mA
VOUT=5V,
ILOAD = 300mA
VOUT=3.3V,
ILOAD = 150mA
VOUT=3.3V,
ILOAD = 300mA
VOUT=5V,
ILOAD = 150mA
VOUT=5V,
ILOAD = 300mA
mV
480
640
230
430
480
640
MP2019GN
VFB = 1.3V
50
MP2019GN
VIN = 3V to 40V, ILOAD =
5mA, VOUT = VFB
-10
1
10
MP2019GN-33
VIN = 5V to 40V, ILOAD =
5mA, VOUT = 3.3V
-10
1
10
MP2019GN-5
VIN = 6V to 40V, ILOAD =
5mA, VOUT = 6V
-10
1
10
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nA
mV
4
MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
ELECTRICAL CHARACTERISTICS (continued)
VIN = VEN = 13.5V, TJ =+25°C, unless otherwise noted.
Parameter
Symbol Condition
Load Regulation
Output Voltage PSRR
(7)
Start-Up Response Time
EN Threshold Voltage
VIL
VIH
EN Input Current
PG Reaction Time
CPGDL=47nF
Notes:
6)
7)
Shutdown
15
1
15
1
15
0.9
1.5
0.5
1
0.9
1.5
89%
88%
88%
0.1
93%
92%
92%
CPGDL=47nF
0.1
3
1.4
0.2
5
mV
dB
dB
dB
0.5
97%
96%
96%
5%
Sink 1mA Current
VPG=5V
VPGDL=1V
Thermal
(7)
Hysteresis
1
0.3
PG Low Voltage
PG Leakage Current
PGDL Charging Current
PGDL Rising Threshold
PGDL Falling Threshold
PG Delay Time
(7)
Max Units
57
45
51
Threshold
Thermal Shutdown
Typ
1.8
EN = 0V or 15V
MP2019GN
MP2019GN-33
MP2019GN-5
PG Rising Threshold
PG Rising
Hysteresis
Min
ILOAD = 5mA to 300mA,
MP2019GN
VOUT = 5V
ILOAD = 5mA to 300mA,
MP2019GN-33
VOUT = 3.3V
ILOAD = 5mA to 300mA,
MP2019GN-5
VOUT = 5V
100Hz, COUT = 10μF, ILOAD=10mA
1kHz, COUT = 10μF, ILOAD=10mA
100kHz, COUT = 10μF, ILOAD=10mA
RLOAD=500Ω, VOUT = 5V,
MP2019GN
COUT=22µF, VOUT from
10% to 90%
RLOAD=500Ω,VOUT=3.3V,
MP2019GN-33
COUT=22µF, VOUT from
10% to 90%
RLOAD=500Ω,VOUT=5V,
MP2019GN-5
COUT=22µF, VOUT from
10% to 90%
ms
V
V
μA
VFB
VFB
5.5
1.7
0.4
10
0.4
1
9
2
0.7
15
V
µA
µA
V
V
ms
0.5
2
µs
TSD
165
C
ΔTSD
30
C
Dropout Voltage: Measured when the output voltage VOUT has dropped 100mV from the nominal value obtained at VIN=13.5V.
Derived from bench characterization. Not tested in production.
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
PIN FUNCTIONS
Pin #
Name
1
OUT
2
3
4
NC
GND
VIN
5
EN
6
7
PG
PGDL
8
FB
MP2019 Rev. 1.01
1/10/2018
Description
Regulated Output Voltage. Only a low-value ceramic capacitor (≥ 0.47μF) on the output
is required for stability.
No Connection. Do NOT connect.
Ground. Connect the exposed pad and GND to the same ground plane.
Input Voltage. Connect a 3V to 40V supply to VIN.
Regulator On/Off Control Input. Logic low shuts down the IC; logic high starts up the IC.
Connect EN to VIN for automatic start-up.
Power Good. If not used, pin can be left floating.
Programmable Power-Good Delay Time. If not used, pin can be left floating.
Feedback Input for Output Adjustable Version. FB is regulated to 1.25V nominally. This
terminal is used to set the output voltage.
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
TYPICAL PERFORMANCE CHARACTERISTICS
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
TYPICAL PERFORMANCE CHARACTERISTICS
CIN = 1µF, COUT = 22µF, VOUT = 5V, TA = 25°C, unless otherwise noted.
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
TYPICAL PERFORMANCE CHARACTERISTICS (continued)
CIN = 1µF, COUT = 22µF, VOUT = 5V, TA = 25°C, unless otherwise noted.
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
TYPICAL PERFORMANCE CHARACTERISTICS (continued)
CIN = 1µF, COUT = 22µF, VOUT = 5V, TA = 25°C, unless otherwise noted.
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
OPERATION
The MP2019 is a linear regulator that supplies
power to systems with high-voltage batteries. It
includes a wide 3V to 40V input range, low
dropout voltage, and a low quiescent-supply
current (see Fig. 1).
The MP2019 provides a wide variety of fixed
output-voltage options: 1.8V, 1.9V, 2.3V, 2.5V,
3.0V, 3.3V, 3.45V, and 5.0V; also, it provides the
output-adjustable option (from 1.25V to 15V).
The output-adjustable version has an output that
is adjustable from 1.25V to 15V with a simple
resistor divider. It uses external feedback,
allowing the user to set the output voltage with an
external resistor divider. The FB threshold is
1.25V, typically.
The IC enters shutdown mode when EN is low. In
shutdown mode, the pass transistor, control
circuitry, reference, and all biases turn off; this
reduces the supply current to <1µA. Connect EN
to VIN for automatic start-up.
The regulator output current is limited internally,
and the device is protected against short-circuit,
over-load, and over-temperature conditions (see
Fig. 2).
which shuts down the IC. The IC will re-start
when the temperature has cooled sufficiently.
The maximum power output current is a function
of the package’s maximum power dissipation for
a given temperature.
The maximum power dissipation is dependent on
the thermal resistance of the case and the circuit
board, the temperature difference between the
die junction and the ambient air, and the rate of
air flow. GND and the exposed pad must be
connected to the ground plane for proper
dissipation.
MP2019 has one power good (PG) pin. The PG
pin is the open drain of an internal MOSFET. It
should be connected to VOUT or external voltage
source(<15V) through a resistor (i.e. 100kohm).
After the VFB reaches 93% of nominal value, the
MOSFET turns off and PG pin is pulled to high by
VOUT or external voltage source. When the VFB
drops to 88% of nominal value, the PG voltage is
pulled to GND.
There is a delay time when PG asserts high. The
delay time can be programmed by adding a
capacitor on PGDL. To select a capacitor for
PGDL, use below equation:
CPGDL (nF) 
tPGDL (ms)  IPGDL ( A)
Vth_PGDL (V)
The peak output current is limited to around
1000mA,
which
exceeds
the
300mA
recommended continuous output current.
Where tPGDL is the desired delay time for PG
asserts high, IPGDL is the PGDL charging current
and Vth_PGDL is 1.7V.
When the junction temperature is too high, the
thermal sensor sends a signal to the control logic
Figure 2 shows the power good timing.
VIN
UVLO
Vreference
EA
VOUT
EN
For Fixed Output
Version Only
FB
PG
PG
PGDL
GND
Figure 1. Functional Block Diagram
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PRELIMINARY SPECIFICATIONS SUBJECT TO CHANGE
IIN
4
VIN
IN
CIN
1uF
5
EN
OUT
MP2019GN
IOUT
1
Vo
R1
FB 8
COUT
22uF
RPG
100K
R2
IPGDL
7
VPGDL
CPGDL
47nF
IPG
PG
PGDL
GND
VPG
6
3
IGND
VIN
t
< tPGR
VOUT
VPG-High
t
d∆V/d∆t
=IPGDL/CPGDL
VPGDL
VPGDL-High
VPGDL-Low
t
VPG
tPGD
tPGR
t
Power-On
Reset
Thermal
Shutdown
Voltage Dip
at Input
Undervoltage
Secondary Overload at
Spike
Output
Figure 2. Power Good Timing
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
APPLICATION INFORMATION
COMPONENT SELECTION
Setting the Output Voltage
Set the output voltage of the MP2019 by using a
resistor divider (see Fig. 3).
OUT
VOUT
MP2019
GND
R1
R2
Choose R2=1MΩ to maintain a 1.215µA
minimum load. Calculate the value for R1 using
the following equation:
 V

R1  R2   OUT  1
1.25V


For a fixed-output version, VOUT can be
adjusted by adding an external resistor divider
(see Fig. 4). When choosing an external divider,
take the internal FB resistor divider into
consideration.
OUT
VOUT
R1_IN
R2_IN
GND
R1
FB
R2
Figure 4. FB Divider for Fixed-Output Version
When R2 is selected, R1 can be calculated with
the equation below:
R1_ IN
R1 
1.25  R1_ IN  R2  R2 _ IN
1
 VOUT  1.25   R2  R2 _ IN
Table 1 below shows the internal FB resistor
dividers for different fixed-output versions.
Table 1. Internal FB Resistor Divider
Fixed-Output Voltage
3.3V
5V
MP2019 Rev. 1.01
1/10/2018
Table 2. 3.3V Fixed-Output Version with External
FB Divider
VOUT(V)
11
8.5
8
6.5
5
R1 (k)
80.6
59
54.9
43
30.1
R2 (k)
10
10
10
10
10
FB
Figure 3. FB Resistor Divider to Set VOUT
MP2019
Table 2 below shows various output voltages for
a fixed-output version with an external FB divider..
R1_IN
1.64MΩ
3MΩ
R2_IN
1MΩ
1MΩ
Enable Control (EA)
EN is a digital control pin that turns the regulator
on and off. When EN is pulled below 0.3V, the
chip shuts down. When EN is pulled above 1.8V,
the chip starts up. If this function is not used, EN
can be connected to VIN directly.
Input Capacitor
For efficient operation, place a ceramic capacitor,
(C1) between 1µF and 10µF of dielectric type
(X5R or X7R) between the input pin and ground.
Larger values in this range improve line transient
response.
Output Capacitor
For stable operation, use a ceramic capacitor (C2)
of type X5R or X7R between 1µF and 22µF.
Larger values in this range improve load transient
response and reduce noise. Output capacitors of
other dielectric types may be used, but they are
not recommended as their capacitance can
deviate greatly from their rated value over
temperature.
To improve load transient response, add a small
ceramic (X5R, X7R, or Y5V dielectric) 2.2nF
feed-forward capacitor in parallel with R1. The
feed-forward capacitor is not required for stable
operation.
Output Noise
The MP2019 exhibits noise on the output during
normal operation. This noise is negligible for
most applications. However, in applications that
include analog-to-digital converters (ADCs) of
more than 12 bits, consider the ADC’s power
supply rejection specifications. The feed-forward
capacitor C2 across R1 reduces significantly the
output noise.
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
External Reverse Voltage Protection
In some situations, e.g. a backup battery is
connected as MP2019 load, the output voltage
may be held up while the input is either pulled to
ground, pulled to some intermediate voltage or is
floating. Thus, the output voltage is higher than
input voltage. Since the MP2019 PMOS pass
element has a body diode, a current will conduct
from the output to input and is not internally
limited. It’s possible that the IC will be damaged
by this unlimited reverse current. To avoid this,
it’s recommended to place an external diode at
input like below.
VIN D1
VOUT
OUT
IN
MP2019
Top Layer
GND
PCB Layout Guidelines
Efficient PCB layout is critical to achieve good
regulation, ripple rejection, transient response,
and thermal performance. It is recommended
highly to duplicate the EVB layout for optimum
performance.
If changes are necessary, refer to Fig. 5 and
follow the guidelines below:
1) Place input and output bypass ceramic
capacitors close to IN and OUT, respectively.
2) Ensure all feedback connections are short
and direct. Place the feedback resistors and
compensation components as close to the
chip as possible.
3) Connect IN, OUT, and especially, GND,
respectively, to a large copper area to cool
the chip. This improves thermal performance
and long-term reliability.
VIN
IN
EN
C4
PGDL
GND
C2
PG
Fig. 6 is a design example following the
application guidelines for VOUT=3.3V with a feedforward cap:
VIN
IN
C1
1uF
R2
R3
C3
C4
47nF
VOUT
OUT
MP2019
R1
FB
C1
DESIGN EXAMPLE
VOUT
OUT
MP2019
Bottom Layer
Figure 5. Recommended PCB Layout
EN
FB
PGDL
GND
PG
C2
2.2nF
R1
1.64MΩ
R2
1MΩ
R3
3.3V
C3
22uF
100KΩ
Figure 6. Design Example
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
TYPICAL APPLICATION CIRCUITS
VIN
IN
VOUT
OUT
R1
1.64MΩ
MP2019
EN
C1
1uF
C3
47nF
PGDL
GND
R2
1MΩ
FB
R3
PG
3.3V
C2
22uF
100KΩ
Figure 7. 3.3V Output Typical Application Circuit
VIN
IN
MP2019
EN
C1
1uF
C4
47nF
VOUT
OUT
PGDL
GND
FB
PG
C2
2.2nF
R1
1.64MΩ
R2
1MΩ
R3
3.3V
C3
22uF
100KΩ
Figure 8. 3.3V Output with Feed-Forward Capacitor
MP2019 Rev. 1.01
1/10/2018
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MP2019 - 40V, 300mA, LOW QUIESCENT-CURRENT LINEAR REGULATOR
PACKAGE INFORMATION
SOIC-8 EP
0.189(4.80)
0.197(5.00)
8
0.124(3.15)
0.136(3.45)
5
0.150(3.80)
0.157(4.00)
PIN 1 ID
1
0.228(5.80)
0.244(6.20)
0.089(2.26)
0.101(2.56)
4
TOP VIEW
BOTTOM VIEW
SEE DETAIL "A"
0.013(0.33)
0.020(0.51)
0.051(1.30)
0.067(1.70)
SEATING PLANE
0.000(0.00)
0.006(0.15)
0.0075(0.19)
0.0098(0.25)
SIDE VIEW
0.050(1.27)
BSC
FRONT VIEW
0.010(0.25)
x 45o
0.020(0.50)
GAUGE PLANE
0.010(0.25) BSC
0.050(1.27)
0.024(0.61)
0o-8o
0.016(0.41)
0.050(1.27)
0.063(1.60)
DETAIL "A"
0.103(2.62)
0.138(3.51)
RECOMMENDED LAND PATTERN
0.213(5.40)
NOTE:
1) CONTROL DIMENSION IS IN INCHES. DIMENSION IN
BRACKETS IS IN MILLIMETERS.
2) PACKAGE LENGTH DOES NOT INCLUDE MOLD FLASH,
PROTRUSIONS, OR GATE BURRS.
3) PACKAGE WIDTH DOES NOT INCLUDE INTERLEAD FLASH
OR PROTRUSIONS.
4) LEAD COPLANARITY (BOTTOM OF LEADS AFTER FORMING)
SHALL BE 0.004" INCHES MAX.
5) DRAWING CONFORMS TO JEDEC MS-012, VARIATION BA.
6) DRAWING IS NOT TO SCALE.
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.
MP2019 Rev. 1.01
1/10/2018
www.MonolithicPower.com
MPS Proprietary Information. Patent Protected. Unauthorized Photocopy and Duplication Prohibited.
© 2018 MPS. All Rights Reserved.
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