AGM-Semi-AGM612MBQ

Part #AGM-Semi-AGM612MBQ
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AGM-Semi-AGM612MBQ
AGM612MBQ  
●
General Description  
Product Summary  
The AGM612MBQ combines advanced trench  
MOSFET technology with a low resistance package  
to provide extremely low R

DS(ON)  

.
This device is ideal  
protection applications.  
for load switch and battery  
BVDSS  
RDSON  
ID  
●
Features  
60V  
13mΩ  
29A  
■
Advance high cell density Trench technology  
WQFN3.3*3.3
Pin Configuration  
■
■
Low R

DS(ON)

to minimize conductive loss  
Low Gate Charge for fast switching  
■
Low Thermal resistance  
●
Application  
■
MB/VGA Vcore  
nd  
■
■
■
SMPS 2
 
Synchronous Rectifier  
POL application  
BLDC Motor driver  
Package Marking and Ordering Information  
Quantity  
Device Marking  
Device  
Device Package  
Reel Size  
Tape width  
AGM612MBQ  
AGM612MBQ  
WQFN3.3*3.3  
330mm  
12mm  
5000  
Tabl
e
1
.  
Absolute Maximum Ratings (TC=25  
)
℃
Symbol  
Parameter  
Drain-Source Voltage (VGS=0V
)
 
Value  
Unit  
VDS  
VGS  
V
V
60  
±20  
29  
Gate-Source Voltage (VDS=0V)  
(Note 1)  
A
A
A
Drain Current-Continuous(Tc=25
℃
)  
I
D
c
Drain Current-Continuous(T
 
=100
℃
)  
18  
(Note 2)  
I
Drain Current-Continuous@ Current-Pulsed  
116  
20.8  
8.3  
DM (pluse)  
w
w
Maximum Power Dissipation(Tc=25
℃
)  
Maximum Power Dissipation(Tc=100
℃
)  
P
D
(Note 3)  
EAS  
T ,T  
mJ  
31  
Avalanche energy  
J
STG  
Operating Junction and Storage Temperature Range  
℃
-55 To 150  
Tabl
e
2
.  
Thermal Characteristic  
Symbol  
Typ  
Max  
Unit  
Parameter  
1
—  
62.5  
6.0  
R
θJA  
℃
/W  
℃
/W  
Thermal Resistance Junction-ambient (Steady State)  
1
R
—  
θJC  
Thermal Resistance Junction-Case  
1
VER2.6  

AGM612MBQ  
Tabl
e
3
.  
Symbol  
On/Off States  
Electrical Characteristics (TJ=25
 
unless otherwise noted)  
℃
Parameter  
Conditions  
Min  
Typ  
Max  
Unit  
BV  
V
GS  
V
DS  
V
GS  
=0V I
 
=250μA  
—  
—  
—  
—  
1
Drain-Source Breakdown Voltage  
Zero Gate Voltage Drain Current  
Gate-Body Leakage Current  
D
60  
—  
V
DSS  
DSS  
=60V,V =0V  
GS  
μA  
nA  
I
I
=±20V,V =0V  
DS  
—  
±
GSS  
100  
V
Gate Threshold Voltage  
V
V
V
V
=V ,I
 
=250μA  
DS GS
 
D  
GS(th)  
1.2  
—  
1.6  
2.5  
—  
V
S
g
FS  
=5V,I =10A  
D
Forward Transconductance  
DS  
GS  
GS  
—  
=10V, I
 
=10A  
D
—  
—  
mΩ  
mΩ  
13  
20  
18  
25  
R
Drain-Source On-State Resistance  
DS(on)  
=4.5V, I
 
=6A  
D
Dynamic Characteristics  
—  
—  
—  
—  
—  
—  
C
C
C
Input Capacitance  
iss  
pF  
pF  
pF  
510  
Output Capacitance  
oss  
rss  
VDS=30V,VGS=0V,  
F=1MHZ  
170  
11  
Reverse Transfer Capacitance  
=0V,  
=0V,f=1.0MHz  
VGS  
VDS  
Rg  
Gate resistance  
—  
—  
Ω
—  
Switching Times  
Turn-on Delay Time  
—  
—  
—  
—  
—  
—  
—  
—  
—  
—  
—  
—  
—  
—  
t
nS  
nS  
nS  
nS  
nC  
nC  
nC  
d(on)  
6.0  
4.0  
25  
t
t
Turn-on Rise Time  
Turn-Off Delay Time  
Turn-Off Fall Time  
Total Gate Charge  
Gate-Source Charge  
Gate-Drain Charge  
r
VGS=10V,VDS=30V,  
ID=8A,RGEN=3Ω  
d(off)  
t
f
3.0  
11.7  
2.0  
3.5  
Q
g
VGS=10V, VDS=30V,  
ID=8A  
Q
gs  
gd  
Q
Source-Drain Diode Characteristics  
Source-Drain Current(Body Diode)  
—  
—  
—  
—  
I
29  
A
SD  
Forward on Voltage  
VGS=0V,IS=6A  
V
SD  
1.2  
V
ns  
t
rr  
Reverse Recovery Time  
Reverse Recovery Charge  
—  
—  
—  
—  
—  
—  
IF=6A , dI/dt=100A/µs ,  
nc  
TJ=25
℃
 
Q
rr  
Notes 1.The maximum current rating is package limited.  
Notes 2.Repetitive Rating: Pulse width limited by maximum junction temperature  
Notes 3.EAS condition: T
 
=25
℃  
J
2
VER2.6  

AGM612MBQ  
Typical Characteristics  
Fig.1 Typical Output Characteristics  
Fig.2 On-Resistance vs G-S Voltage  
Fig.4 Gate-Charge Characteristics  
Fig.6 Normalized R

DSON

vs T

J  

Fig.3 Source Drain Forward Characteristics  
Fig.5 Normalized V

GS(th)

vs T

J  

3
VER2.6  

AGM612MBQ  
Fig.7 Capacitance  
Fig.8 Safe Operating Area  
1
DUTY=0.5  
0.2  
0.1  
0.1  
0.05  
P

DM  

T

ON  

0.02  
0.01  
T
D =
T

ON

/T  
SINGLE  
T

Jpeak

=
T

C

+P

D
M

XR

θJC  

0.01  
0.00001  
0.0001  
0.001  
0.01  
0.1  
1
t , Pulse Width (s)  
Fig.9 Normalized Maximum Transient Thermal Impedance  
1
2
BV

DSS  

BV

DSS

-V

DD  

EAS=  
BV

DSS  

L x I

AS

2

x  
V

DS  

90%  
V

DD  

I

AS  

10%  
V

GS  

T

d(on)  

T

r  

T

on  

T

d(off)  

T

f  

T

off  

V

GS  

Fig.10 Switching Time Waveform  
Fig.11 Unclamped Inductive Waveform  
4
VER2.6  

AGM612MBQ  
W
QFN3333 Package Outlin
e
D
ata  
D
A
A1  
1
8
(A3)  
TOP VIEW  
[顶视图]  
SIDE VIEW  
[侧视图]  
D1  
D2  
L
A
0.700  
0.000  
0.750  
0.020  
0.800  
0.050  
A1  
A3  
b
0.203 REF  
0.400  
0.350  
1.600  
2.900  
2.900  
0.450  
1.800  
3.100  
3.100  
b1  
D
1.700  
8
1
3.000  
E
3.000  
(K1)  
(K)  
e
0.650 BSC  
0.500  
BOTTOM VIEW  
[背视图]  
D1  
D2  
E1  
L
0.400  
0.850  
2.225  
0.220  
0.600  
1.050  
2.425  
0.420  
0.950  
2.325  
0.320  
K
0.280 REF  
0.350 REF  
K1  
5
VER2.6  

AGM612MBQ  
Disclaimer:  
The information provided in this document is believed to be accurate and reliable.  
however,Shenzhen Core Control Electronics Technology Co., Ltd. does not assume  
any responsibility for the following consequences.Do not consider the use of  
such information or use beyond its
 
scope.  
The information mentioned in this document may be changed at any time without  
notice.  
The products and information provided in this document do not infringe patents.  
Shenzhen Core Control Electronics Technology Co., Ltd. assumes no responsibility  
for any infringement of any other rights of third parties.The result of using such  
products and information.  
This document is the second version issued on May 10th, 2023. This document  
replaces all
 
previously provided information.  
It is a registered trademark of Shenzhen Core Control Electronics  
Technology Co., Ltd.  
Copyright © 2017 Shenzhen Core Control Electronics Technology Co., Ltd. all rights  
reserved.  
6
VER2.6