Surface Mount, Low Current Consumption, Low Dropout Voltage Linear Regulator ICs
■Features
• Compact surface mount package (TO252-5)
• Output current: 1.0 A
• Low dropout voltage: V
DIF
≤
0.6 V (at I
O
= 1.0
A)
• Low current consumption: Iq
≤
350
µ
A
(600
µ
A for SI-3010KM/SI-3050KM/SI-
3090KM/SI-3120KM)
• Low circuit current at output OFF: Iq (OFF)
≤
1
µ
A
• Built-in overcurrent and thermal protection
circuits
• Output ON/OFF control function
• Compatible with low ESR capacitors (SI-
3012KM/SI-3025KM/SI-3033KM)
Parameter
DC Input Voltage
Output Control Terminal Voltage
DC Output Current
Power Dissipation
Junction Temperature
Storage Temperature
Thermal Resistance (Junction to Ambient Air)
Thermal Resistance (Junction to case)
Symbol
V
IN
V
c
I
O
P
D*2
T
j
T
stg
SI-3012KM/
3025KM/3033KM
17
V
IN
1.0
1
–30 to +125
–30 to +125
95
6
■Absolute
Maximum Ratings
Ratings
SI-3010KM/3050KM/
3090KM/3120KM
35
*1
(T
a
=25°C)
Unit
V
V
A
W
°C
°C
°C/W
°C/W
θ
j-a*2
θ
j-c
*1: A built-in input-overvoltage-protection circuit shuts down the output voltage at the Input Overvoltage Shutdown Voltage
of the electrical characteristics.
*2: When mounted on glass-epoxy board of 900mm
2
(copper laminate area 4.3%).
■Applications
• Secondary stabilized power supply (local power supply)
■Recommended
Operating Conditions
Ratings
Parameter
Input Voltage Range
Output Current Range
Operating Ambient Temperature
Operating Junction Temperature
Symbol
V
IN
I
O
T
op
T
j
SI-3012KM
2.4
*2
to
6.0
*1
SI-3025KM
2.4
*2
to
5
*1
SI-3033KM
*2
SI-3010KM
2.4
*2
to
27
*1
0 to 1.0
–30 to +85
–20 to +100
SI-3050KM
2.4
*2
to
17
*1
SI-3090KM
*2
SI-3120KM
*2
Unit
V
A
°C
°C
to
6
*1
to
20
*1
to
25
*1
*1: V
IN
(max) and I
O
(max) are restricted according to operating conditions due to the relation P
D
= (V
IN
-V
O
)
×
I
O
. Please calculate these values referring to the Copper Laminate Area
vs. Power Dissipation data as shown hereinafter.
*2: Refer to the Dropout Voltage parameter.
■Electrical
Characteristics 1 (Low V
O
type compatible with low ESR output capacitor)
Ratings
Parameter
Input Voltage
Output Voltage
(Reference voltage VADJ for SI-3012KM)
Line Regulation
Load Regulation
Symbol
min.
V
IN
V
O
(V
ADJ
)
Conditions
∆V
OLINE
Conditions
∆V
OLOAD
Conditions
V
DIF
Dropout Voltage
Conditions
Conditions
Quiescent Circuit Current
Circuit Current at Output OFF
Temperature Coefficient
of Output Voltage
Ripple Rejection
Overcurrent Protection
Starting Current
*2
Control Voltage (Output ON)
Control Voltage (Output OFF)
V
C
Control Current
Terminal (Output ON)
Control Current
(Output OFF)
Iq
Conditions
Iq (OFF)
Conditions
∆V
O
/∆T
a
Conditions
R
REJ
Conditions
I
S1
Conditions
V
C
, IH
V
C
, IL
I
C
, IH
Conditions
I
C
, IL
Conditions
–5
V
C
=2V
0
V
C
=0V
–5
2.0
0.8
40
V
C
=2V
0
V
C
=0V
–5
1.1
V
IN
=3.3V
2.0
0.8
40
V
C
=2V
0
V
C
=0V
V
IN
=3.3V, V
C
=0V
±0.3
T
j
=0 to 100°C (V
C
=2.5V)
55
V
IN
=3.3V, f=100 to 120H
Z
(V
O
=2.5V)
I
O
=0.5A (V
O
=2.5V)
0.6
I
O
=1A (V
O
=2.5V)
350
V
IN
=3.3V, I
O
=0A, V
C
=2V, R2=24kΩ
1
V
IN
=3.3V, V
C
=0V
±0.3
T
j
=0 to 100°C
55
V
IN
=3.3V, f=100 to 120H
Z
1.1
V
IN
=3.3V
2.0
0.8
40
V
IN
=3.3V, I
O
=0A, V
C
=2V
1
V
IN
=5V, V
C
=0V
±0.3
T
j
=0 to 100°C
55
V
IN
=5V, f=100 to 120H
Z
1.1
V
IN
=5V
I
O
=1A
350
V
IN
=5V, I
O
=0A, V
C
=2V
1
2.4
*1
1.24
1.28
V
IN
=3.3V, I
O
=10mA
15
V
IN
=3.3 to 8V, I
O
=10mA (V
O
=2.5V)
40
V
IN
=3.3V, I
O
=0 to 1A (V
O
=2.5V)
0.4
I
O
=0.5A
0.6
I
O
=1A
350
V
IN
=3.3V, I
O
=0 to 1A
0.4
I
O
=0.5A
0.6
V
IN
=3.3 to 8V, I
O
=10mA
40
V
IN
=5V, I
O
=0 to 1A
0.4
V
1.32
SI-3012KM (Variable type)
typ.
max.
min.
*1
SI-3025KM
typ.
2.50
V
IN
=3.3V, I
O
=10mA
15
max.
2.55
min.
*1
SI-3033KM
typ.
3.300
V
IN
=5V, I
O
=10mA
15
V
IN
=5 to 10V, I
O
=10mA
50
max.
Unit
V
3.366
V
mV
mV
2.45
3.234
µ
A
µ
A
mV/
°C
dB
A
V
µ
A
µ
A
*1: Refer to the Dropout Voltage parameter.
*2: I
S1
is specified at the 5% drop point of output voltage V
O
on the condition that V
IN
=overcurrent protection starting current, I
O
= 10 mA).
*3: Output is OFF when output control terminal (V
C
terminal) is open. Each input level is equivalent to LS-TTL level. Therefore, the device can be driven directly by LS-TTLs.
16
ICs
SI-3000KM Series
■Electrical
Characteristics 2 (High V
O
type)
Ratings
Parameter
Input Voltage
Output Voltage
(Reference voltage VADJ for SI-3010KM)
Line Regulation
Conditions
∆V
OLOAD
Load Regulation
Conditions
V
DIF
Dropout Voltage
Conditions
Conditions
Iq
Quiescent Circuit Current
Conditions
Circuit Current at Output OFF
Temperature Coefficient of
Output Voltage
Ripple Rejection
Conditions
Overcurrent Protection
Starting Current
*2
Control Voltage (Output ON)
Control Voltage (Output OFF)
V
C
Control Current
Terminal (Output ON)
Control Current
(Output OFF)
Input Overvoltage Shutdown Voltage
I
S1
Conditions
V
C
, IH
V
C
, IL
I
C
, IH
Conditions
I
C
, IL
Conditions
V
OVP
Conditions
33
I
O
=10mA
–5
V
C
=2V
0
V
C
=0V
26
I
O
=10mA
–5
2.0
0.8
40
V
C
=2V
0
V
C
=0V
30
I
O
=10mA
–5
Iq (OFF)
Conditions
∆V
O
/∆T
a
Conditions
R
REJ
V
IN
=7V, V
C
=0V
±0.5
T
j
=0 to 100°C (V
O
=5V)
75
V
IN
=7V,
f=100 to 120Hz (V
O
=5V)
1.1
V
IN
=7V
2.0
0.8
40
V
C
=2V
0
V
C
=0V
33
I
O
=10mA
–5
1.1
V
IN
=7V
2.0
0.8
40
V
C
=2V
0
V
C
=0V
I
O
=0.5A (V
O
=5V)
0.6
I
O
=1A (V
O
=5V)
600
V
IN
=7V, I
O
=0A, V
C
=2V
R2=10kΩ
1
V
IN
=7V, V
C
=0V
±0.5
T
j
=0 to 100°C
75
V
IN
=7V,
f=100 to 120Hz
1.1
V
IN
=11V
2.0
0.8
40
V
IN
=7V, I
O
=0A,
V
C
=2V
1
V
IN
=11V, V
C
=0V
±1.0
T
j
=0 to 100°C
68
V
IN
=11V,
f=100 to 120Hz
1.1
V
IN
=14V
I
O
=1A
600
V
IN
=11V, I
O
=0A,
V
C
=2V
1
V
IN
=14V, V
C
=0V
±1.5
T
j
=0 to 100°C
66
V
IN
=14V,
f=100 to 120Hz
dB
V
IN
=7V,
I
O
=0 to 1A (V
O
=5V)
0.3
I
O
=0.5A
0.6
I
O
=1A
600
V
IN
=14V, I
O
=0A,
V
C
=2V
1
Symbol
V
IN
V
O
(V
ADJ
)
Conditions
∆V
OLINE
V
IN
=6 to 11V,
I
O
=10mA (V
O
=5V)
75
V
IN
=7V, I
O
=0 to 1A
0.3
I
O
=0.5A
0.6
I
O
=1A
600
SI-3010KM (Variable type)
min.
2.4
*1
0.98
1.00
1.02
30
V
IN
=7V, I
O
=10mA
typ.
max.
min.
*1
SI-3050KM
typ.
5.00
max.
5.10
30
V
IN
=6 to 11V, I
O
=10mA
75
min.
*1
SI-3090KM
typ.
9.00
max.
9.18
54
V
IN
=10 to 15V, I
O
=10mA
135
V
IN
=11V, I
O
=0 to 1A
0.3
min.
*1
SI-3120KM
typ.
12.00
max.
Unit
V
12.24
72
mV
4.90
8.82
11.76
V
IN
=7V, I
O
=10mA
V
IN
=11V, I
O
=10mA
V
IN
=14V, I
O
=10mA
V
V
IN
=13 to 18V, I
O
=10mA
180
mV
V
IN
=14V, I
O
=0 to 1A
0.3
I
O
=0.5A
0.6
V
µ
A
µ
A
mV/
°C
A
V
µ
A
µ
A
V
*1: Refer to the Dropout Voltage parameter.
*2: I
S1
is specified at the 5% drop point of output voltage V
O
on the condition that V
IN
=overcurrent protection starting current, I
O
= 10 mA).
*3: Output is OFF when output control terminal (V
C
terminal) is open. Each input level is equivalent to LS-TTL level. Therefore, the device can be driven directly by LS-TTLs.
*4: SI-3010KM, SI-3050KM and SI-3090KM, SI-3120KM cannot be used in the following applications because the built-in foldback-type overcurrent protection may cause errors during
start-up stage.
(1) Constant current load (2) Positive and negative power supply (3) Series-connected power supply (4) V
O
adjustment by raising ground voltage
*5: V
IN
(max) and I
O
(max) are restricted by the relation P
D
= (V
IN
- V
O
)
×
I
O
. Please calculate these values referring to the Copper Laminate Area vs. Power Dissipation data as shown
How to modify PCB pads in batches? The modification methods in DXF or 99SE, PADS software are roughly the same. Take PCB design Protel 99se as an example: Double-click the pad to be modified. If you w...
[b][color=#ff0000]This content is originally created by EEWORLD forum user [size=3]dcexpert[/size]. If you want to reprint or use it for commercial purposes, you must obtain the author's consent and i...
[i=s] This post was last edited by zhangpersist on 2017-7-20 17:21 [/i] How to calculate the resistance and the capacitance value connected in parallel with the resistance in the 5x amplification of t...
As the title says, my purpose is to delete a running program. I create a dialog box under VC and select a file to delete. I heard from others that to delete it under ring0, DDK is used. I just don't k...
Dual-mode inverters can operate both in conjunction with the grid and independently. These inverters can inject excess energy from renewable energy and storage devices into the grid, and withdraw p...[Details]
Long ago, the lifespan of cars in my country was 15 years. Once a car reached 15 years old, it was forced to be scrapped. However, the policy was later changed. As long as the car does not exceed 6...[Details]
Electric motors and internal combustion engines of the same power have similar torque levels. High power requires high torque, and torque determines a vehicle's acceleration speed, commonly known a...[Details]
summary
There are multiple approaches to making industrial systems more intelligent, including applying artificial intelligence (AI) technology at the edge and in the cloud to sensor...[Details]
As time goes by, people are increasingly concerned about their own and their families' health. However, existing monitoring devices for individual vital signs have struggled to gain market share du...[Details]
According to foreign media reports, secondary battery materials company POSCO Future M announced that it has successfully developed two experimental (prototype) positive electrode materials for the...[Details]
On August 22, Lantu Motors officially launched its Lanhai Intelligent Hybrid technology via an online livestream. This intelligent hybrid technology, which integrates a full-range 800V high-voltage...[Details]
Based on a survey of more than ten intelligent robot companies, this article sorts out and analyzes the current development status of the intelligent industry and the challenges and differences it ...[Details]
This paper proposes a temperature real-time transmission and display solution based on LED optical data transmission, with Jingwei Yager low-power FPGA HR (Yellow River) series as the main controll...[Details]
introduction
According to the China Fire Statistics Yearbook, electrical fires accounted for more than 30% of fire accidents in the past decade, and the trend is increasing year by year. They ...[Details]
On August 20, Geely announced its focus on "One Cockpit". Through a unified AI OS architecture, a unified AI Agent, and a unified user ID, it will achieve an All-in-One AI cockpit, create the first...[Details]
The difference between a series inverter and a parallel inverter is that they use different oscillation circuits. A series inverter connects L, R, and C in series, while a parallel inverter connect...[Details]
With the increasing popularity of automated equipment, linear modules, a common auxiliary device for automated equipment, have also seen a bright future. In particular, in recent years, many small ...[Details]
A pure sine wave inverter has a good output waveform with very low distortion, and its output waveform is essentially the same as the AC waveform of the mains power grid. In fact, the AC power prov...[Details]
With the advancement of science and technology and the promotion of green, energy-saving, and circular development, the demand for precise control and accurate measurement is increasing. In the pow...[Details]