MAX60_C_A .......................................................0°C to +70°C
MAX60_E_A ................................................... -40°C to +85°C
MAX60_MJA ................................................. -55°C to +125°C
Junction Temperature ......................................................+150°C
Storage Temperature Range ............................ -65°C to +160°C
Lead Temperature (soldering, 10sec) ............................. +300°C
Stresses beyond those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only, and functional operation of the device at these
or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to absolute maximum rating conditions for extended periods may affect
device reliability.
Electrical Characteristics
(V
IN
= 6V (MAX603) or 4.3V (MAX604), C
IN
= C
OUT
= 10μF,
OFF
= V
IN
, SET = GND, T
J
= T
MIN
to T
MAX
, unless otherwise noted.
Typical values are at T
J
= +25°C.) (Note 1)
PARAMETER
Input Voltage
SYMBOL
V
IN
CONDITIONS
MAX60_C
SET = OUT, R
L
= 1kΩ
I
OUT
= 20μA to 500mA,
6.0V < V
IN
< 11.5V
I
OUT
= 20μA to 300mA,
4.3V < V
IN
< 11.5V
I
OUT
= 1mA to 500mA
I
OUT
= 1mA to 300mA
Line Regulation
∆V
LNR
I
OUT
= 200mA
Dropout Voltage (Note 3)
∆V
DO
I
OUT
= 500mA
I
OUT
= 200mA
I
OUT
= 400mA
Quiescent Current
I
Q
3.0V ≤ V
IN
≤ 11.5V, SET = OUT
OFF
≤ 0.4V, R
L
= 1kΩ,
(V
OUT
+ 1V) ≤ V
IN
≤ 11.5V
MAX60_E
MAX60_M
MAX603
MAX604
MAX603C/E
MAX603M
MAX604
30
7
130
320
240
480
15
0.01
MIN
2.7
2.9
3.0
4.75
3.15
5.00
3.30
60
TYP
MAX
11.5
11.5
11.5
5.25
V
3.45
100
150
100
40
220
550
410
820
35
40
2
10
20
2
6
20
350
1200
160
10
mA
°C
°C
µA
µA
μA
mV
mV
mV
V
UNITS
Output Voltage (Note 2)
V
OUT
Load Regulation
∆V
LDR
(V
OUT
+ 0.5V) ≤ V
IN
≤ 11.5V, I
OUT
= 25mA
MAX603
MAX604
MAX60_C/E
MAX60_M
MAX60_C
MAX60_E
MAX60_M
MAX60_C
MAX60_E
MAX60_M
OFF Quiescent Current
I
Q OFF
Minimum Load Current
Foldback Current Limit
(Note 4)
Thermal Shutdown Temperature
Thermal Shutdown Hysteresis
I
OUT MIN
V
IN
= 11.5V, SET = OUT
V
OUT
< 0.8V
I
LIM
T
SD
∆T
SD
V
OUT
> 0.8V and V
IN
- V
OUT
> 0.7V
www.maximintegrated.com
Maxim Integrated │
2
MAX603/MAX604
5V/3.3V or Adjustable, Low-Dropout,
Low I
Q
, 500mA Linear Regulators
Electrical Characteristics (continued)
PARAMETER
Reverse-Current Protection
Threshold (Note 5)
Reverse Leakage Current
Start-Up Overshoot
Time Required to Exit Shutdown
Dual-Mode SET Threshold
SET Reference Voltage
SET Input Leakage Current
OUT Leakage Current
SYMBOL
∆V
RTH
(V
IN
= 6V (MAX603) or 4.3V (MAX604), C
IN
= C
OUT
= 10μF,
OFF
= V
IN
, SET = GND, T
J
= T
MIN
to T
MAX
, unless otherwise noted.
Typical values are at T
J
= +25°C.) (Note 1)
CONDITIONS
V
OUT
= 4.5V
V
OUT
= 3.0V
V
IN
= 0V, V
OUT
= 4.5V
(MAX603) V
OUT
= 3.0V
(MAX604)
MAX603
MAX604
MAX60_C
MAX60_E
MAX60_M
2
200
80
150
1.16
MAX60_C
MAX60_E
MAX60_M
2.0
3.0
4.0
±0.01
250
±10
nA
μV
RMS
V
80
1.20
±0.01
0.01
1.24
±10
2
6
20
0.4
μA
30
MIN
TYP
6
6
0.01
MAX
20
20
10
20
100
%V
OUT
µs
mV
V
nA
µA
UNITS
mV
I
RVL
V
OSH
t
START
V
SET TH
V
SET
I
SET
I
OUT LKG
V
IL
OFF
R
L
= 1kΩ, C
OUT
= 10μF,
OFF
rise time ≤ 1μs
V
IN
= 9V, R
L
= 18Ω, V
OFF
switched from
0V to V
IN
, time from 0% to 95% of V
OUT
For internal feedback
For external feedback
SET = OUT, R
L
= 1kΩ
V
SET
= 1.5V or 0V
V
IN
= 11.5V, V
OUT
= 2V,
SET = OUT
Off
On, SET = OUT, V
IN
= 4V
On, SET = OUT, V
IN
= 6V
On, SET = OUT, V
IN
= 11.5V
V
OFF
= V
IN
or GND
10Hz to 10kHz, SET = OUT, R
L
= 1kΩ,
C
OUT
= 10μF
OFF
Threshold Voltage
V
IH
OFF
I
OFF
e
n
OFF
Input Leakage Current
Output Noise (Note 6)
Note 1:
Electrical specifications are measured by pulse testing and are guaranteed for a junction temperature (T
J
) equal to the
operating temperature range. C and E grade parts may be operated up to a T
J
of +125°. Expect performance similar to M
grade specifications. For T
J
between +125°C and +150°C, the output voltage may drift more.
Note 2:
(V
IN
- V
OUT
) is limited to keep the product (I
OUT
x (V
IN
- V
OUT
)) from exceeding the package power dissipation limits.
Note 3:
Dropout Voltage is (V
IN
- V
OUT
) when V
OUT
falls to 100mV below its nominal value at V
IN
= V
OUT
+ 2V. For example, the
MAX603 is tested by measuring the V
OUT
at V
IN
= 7V, then V
IN
is lowered until V
OUT
falls 100mV below the measured
value. The difference (V
IN
- V
OUT
) is then measured and defined as
∆V
DO
.
Note 4:
Foldback Current Limit was characterized by pulse testing to remain below the maximum junction temperature.
Note 5:
The Reverse-Current Protection Threshold is the output/input differential voltage (V
OUT
- V
IN
) at which reverse-current
protection switchover occurs and the pass transistor is turned off.
Note 6:
Noise is tested using a bandpass amplifier with two poles at 10Hz and two poles at 10kHz.
www.maximintegrated.com
Maxim Integrated │
3
MAX603/MAX604
5V/3.3V or Adjustable, Low-Dropout,
Low I
Q
, 500mA Linear Regulators
Typical Operating Characteristics
(V
IN
= 7V for MAX603, V
IN
= 5.3V for MAX604,
OFF
= V
IN
, SET = GND, C
IN
= C
OUT
= 10μF, R
L
= 1kΩ, T
J
= +25°C, unless otherwise noted.)
OUTPUT VOLTAGE AND
QUIESCENT CURRENT vs. SUPPLY VOLTAGE
MAX603, V
OUT
= 5V
603
OUTPUT VOLTAGE vs. LOAD CURRENT
MAX603/4-TOC-01
QUIESCENT CURRENT vs. LOAD CURRENT
MAX603/4-TOC-02
NORMALIZED OUTPUT VOLTAGE
QUIESCENT CURRENT (µA)
1.00
0.99
0.98
0.97
0.96
0.95
25
20
15
10
5
0
MAX603, V
IN
= 12V, V
OUT
= 10V
MAX603, V
IN
= 7V, V
OUT
= 5V
MAX604, V
IN
= 5.3V, V
OUT
= 3.3V
5
OUTPUT VOLTAGE (V)
4
3
2
1
22
20
MAX604, V
OUT
= 3.3V
I
Q
, MAX
18
16
14
12
10
8
X604
I
Q
, MA
V
OUT
= 3.3V, 5V, 10V
NORMALIZED TO
OUTPUT VOLTAGE
AT 1mA
0.1
1
10
100
700
LOAD CURRENT (mA)
UPWARD CURVE IS
THERMAL EFFECT
0.1
1
10
100
700
LOAD CURRENT (mA)
0
2
3
4
5
6
7
8
9
10 11 12
6
SUPPLY VOLTAGE (V)
OUTPUT VOLTAGE vs.
TEMPERATURE
MAX603/4-TOC-04
QUIESCENT CURRENT vs.
TEMPERATURE
MAX603/4-TOC-05
NORMALIZED OUTPUT VOLTAGE (%)
103
102
101
100
99
98
97
96
-55 -35 -15
5
25 45
65
QUIESCENT CURRENT (µA)
DROPOUT VOLTAGE (V)
20
15
10
5
0
MAX603
MAX604
0.8
0.7
0.6
0.5
0.4
0.3
0.2
0.1
R
=1
)
.2
Ω
MAX604
V
OUT
= 3.3V
MAX603
V
OUT
= 5V
=0
.65
Ω
N)
R
DS(O
N
(O
DS
R
)
ON
DS(
Ω
= 0.4
85 105 125
-55 -35 -15
5
25 45
65
85 105 125
0
MAX603, V
OUT
= 10V,
SET EXTERNALLY
0
100
200
300 400
500
600
700
LOAD CURRENT (mA)
TEMPERATURE (°C)
TEMPERATURE (°C)
10Hz TO 10kHz OUTPUT NOISE
LINE-TRANSIENT RESPONSE
A
OUTPUT NOISE (1mV/div)
B
MAX603
V
OUT
= 5V
10ms/div
MAX603
V
OUT
= 5V
t
R
= 10µs, t
F
= 70µs
2ms/div
A: V
IN
= 8V (HIGH), V
IN
= 7V (LOW)
B: OUTPUT VOLTAGE (50mV/div)
www.maximintegrated.com
Maxim Integrated │
4
MAX603/4-TOC-06
104
25
0.9
DROPOUT VOLTAGE vs. LOAD CURRENT
QUIESCENT CURRENT (µA)
MAX1603/4 TOC-03
1.01
30
6
24
MAX603/MAX604
5V/3.3V or Adjustable, Low-Dropout,
Low I
Q
, 500mA Linear Regulators
Typical Operating Characteristics (continued)
(V
IN
= 7V for MAX603, V
IN
= 5.3V for MAX604,
OFF
= V
IN
, SET = GND, C
IN
= C
OUT
= 10μF, R
L
= 1kΩ, T
J
= +25°C, unless otherwise noted.)
OVERSHOOT AND TIME
EXITING SHUTDOWN MODE
LOAD-TRANSIENT RESPONSE
B
A
A
5V
B
MAX603
V
OUT
= 5V
2ms/div
A: OUTPUT VOLTAGE (100mV/div)
B: I
OUT
= 500mA (HIGH), I
OUT
= 5mA (LOW)
500µs/div
A:
OFF
PIN VOLTAGE (1V/div)
RISE TIME = 13µs
B: MAX603 OUTPUT VOLTAGE (1V/div)
DELAY = 4.936ms, OVERSHOOT = 1%, RISE TIME = 55µs
0V
Pin Description
PIN
1
2, 3, 6, 7
4
5
8
NAME
IN
GND
OFF
SET
OUT
DESCRIPTION
Regulator Input. Supply voltage can range from 2.7V to 11.5V.
Ground. These pins function as heatsinks, only in the SOIC package. All GND pins must be soldered to the
circuit board for proper power dissipation. Connect to large copper pads or planes to channel heat from the IC.
Shutdown, active low. Switch logic levels in less than 1µs with the high level above the
OFF
threshold.
Feedback for Setting the Output Voltage. Connect to GND to set the output voltage to the preselected 3.3V
or 5V. Connect to an external resistor network for adjustable output
operation.
Regulator Output. Fixed or adjustable from
1.25V to 11.0V. Sources up to 500mA for input voltages above 4V.
[b]Miscellaneous Talks on Sine Oscillator Circuits (Part 1)[/b] The Wien Bridge Oscillator Circuit and Its Limiting The purpose of this series of posts, “Miscellaneous Talks on Sine Oscillations”, is ...
[i=s]This post was last edited by qwqwqw2088 on 2014-1-4 19:51[/i] [backcolor=white][p=24, 2, left][color=rgb(62, 62, 62)][font=Tahoma, Arial, sans-serif][b]Difficulty 1: Heat Treatment[/b][/font][/co...
When I was making a signal generator, I took 256 points in one cycle. Then I adjusted the frequency by adjusting TH0 and TL0. If I set the initial value to 50HZ and require the output frequency to be ...
[i=s]This post was last edited by baiweihu on 2014-1-9 17:46[/i] [font=微软雅黑]Today I have compiled the WINCE paper resources, a total of 28 papers, which were published in journals such as "Microcomput...
My DSP is tms320c6713. When I call the library functions in fastrts67x.lib or math.h in simulation mode, they can be executed correctly. However, when I use the bootloader, the results of some calcula...
At present, the development of wireless power supply technology for electric vehicles (EVs) is becoming more and more active. In 2012, Volvo of Sweden established Volvo Technology Japan in Tokyo as...[Details]
Sailing is gaining more and more attention. How to use modern technology to assist training and improve competition results is particularly important. Considering the real-time data collection in t...[Details]
Automotive applications are particularly sensitive to EMI events, which are unavoidable in a noisy electrical environment consisting of a central battery, bundled wiring harnesses, various inductiv...[Details]
No matter which processor you are learning, the first thing you need to understand is the registers and working mode of the processor.
ARM has 37 registers, including 31 general registers and ...[Details]
The Portable Digital Data Acquisition System (PDDAS) uses LabVIEW Real-Time and PXI to control the wind tunnel test and record air pressure data from 128 different channels.
"The LabVIEW Real-...[Details]
In order to highlight the concept of "energy saving and environmental protection" of intelligent buildings, solar street lights are designed for intelligent communities. The inclination and capacit...[Details]
1. Introduction
With the gradual automation and modernization of industrial control systems, fieldbus control systems have received more and more attention and application. CAN bus is currentl...[Details]
Although it is relatively easy to check the stability of a simple amplifier at lower frequencies, it may be much more difficult to evaluate the stability of a more complex circuit. This artic...[Details]
1 Introduction
Intelligent control instruments are one of the most commonly used controllers in industrial control. They are mainly aimed at a specific parameter (such as pressure, tempera...[Details]
1 Introduction
The Third Steel Plant of Jigang Group is a key investment project of Jigang Group during the "15th Five-Year Plan". It has introduced first-class domestic and foreign advanced eq...[Details]
With the widespread application of new services and technologies in the communications industry, the scale and capacity of operators' network construction are getting larger and larger, and the ris...[Details]
store
To prevent moisture, LEDs should be stored in a dry and ventilated environment with a storage temperature of -40°C to +100°C and a relative humidity below 85%.
The LED should be use...[Details]
Every time I go home and walk up the stairs, I am always scared. The corridor lights are often broken, and no one changes the bulbs, or they are not smart enough and need to be operated manually. E...[Details]
summary
This article will briefly analyze the success and shortcomings of high-frequency DC-DC switching power supplies in the process of miniaturization (the second basic goal), and propose m...[Details]
The capacity of a battery depends on the amount of charge and discharge, in addition to some factors of the battery itself. Obviously, if the charge and discharge of the battery can be recorded all...[Details]