Data are valid at +25°C, unless otherwise specified.
Parameter
Input
Nominal input voltage
Permanent input
voltage range (Ui)
Extended permanent input
voltage range
Transient input voltage
Undervoltage lock-out
(UVLO)
Start up time
Reflected ripple current
Input current in short
circuit mode (Average)
No load input power
Output
Output voltage
Full temperature range
Ui min. to max.
75% load
Ambient temperature : +25°c
Ui nominal, 75% load
Full temperature range
Ui min. to max.
Full temperature range
Ui min. to max.
Nominal
Nominal
Nominal
Nominal
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Typical
VDC
VDC
VDC
VDC
%
W
A
A
A
A
mVpp
mVpp
mVpp
%
%
%
3,3
5
12
15
+/- 2
35
7
7
2,9
2,3
100
200
200
+/- 1
+/- 2
83
3,3
5
12
15
+/- 2
35
7
7
2,9
2,3
100
200
200
+/- 1
+/- 2
84
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Nominal
Nominal
Maximum
Maximum
Typical
Maximum
Units
Industrial
Grade
Single Output MGDSI-35
35 - H
20
9-36
/
40/0,1
8,8
8
30
600
TBD
300
35 - O
48
18-75
/
80/0,1
17
16
30
600
TBD
500
35 - Q
72
36-140
36-154
175/0,1
33
30
30
600
TBD
800
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
(Consult factory)
Turn-on voltage
Turn-off voltage
Ui nominal within 3 ms
Nominal output
Full load : resistive
Ui nominal, full load at
switching freq. BW = 20MHz
Ui nominal
Short-circuit
Ui min. to max.
No load or Stanby
VDC
VDC
VDC
VDC/S
VDC
VDC
ms
mApp
mA
mW
3,3
5
12
15
+/- 2
35
7
7
2,9
2,3
100
200
200
+/- 1
+/- 2
85
Set Point accuracy
Output power
Output current
3,3V output
5V output
12V output
15V output
Ripple output voltage *
3,3V and 5V output
12V output
15V output
Line regulation
Load regulation **
Efficiency
Maximum admissible
Capacitive load
3,3V and 5V output
12V and 15V output
5
Ui nominal
Full load
BW = 20MHz
Ui min. to max.
75% load
Ui nominal
25% to full load
Ui nominal
Full load
Ui nominal
Full load
Per output
Maximum
Maximum
µF
µF
10 000
1 000
10 000
1 000
10 000
1 000
Note * : The ripple output voltage is the periodic AC component imposed on the output voltage, an aperiodic and random component (noise) has also to be considered. This
noise can be reduced by adding an external capacitor (typically 10nF/rated voltage depending on isolation requirement) connected between the pin Gin and the pin Gout
of the converter. This capacitor should be layed-out as close as possible from the converter.
Note ** : For load regulation characteristics from 0% to full load, please contact factory.
Data are valid at +25°C, unless otherwise specified.
Industrial
Grade
Parameter
Input
Nominal input voltage
Permanent input
voltage range (Ui)
Extended permanent input
voltage range
Transient input voltage
Undervoltage lock-out
(UVLO)
Start up time
Reflected ripple current
Input current in short
circuit mode (Average)
No load input power
Output
Output voltage
Set Point accuracy
Output power *
Output current *
+/- 5V output
+/- 12V output
+/- 15V output
Ripple output voltage **
5V output
12V output
15V output
Line regulation
Load regulation ***
Cross load output
regulation
Efficiency
Maximum admissible
Capacitive load
5V output
12V and 15V output
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Nominal
Nominal
Maximum
Maximum
Typical
Maximum
Units
Bi Output MGDBI-35
35 - H
20
9-36
/
40/0,1
8,8
8
30
600
TBD
400
35 - O
48
18-75
/
80/0,1
17
16
30
600
TBD
500
35 - Q
72
36-140
36-154
175/0,1
33
30
30
600
TBD
800
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
(Consult factory)
Turn-on voltage
Turn-off voltage
Ui nominal
Nominal output
Full load : resistive
Ui nominal, full load at
switching freq. BW = 20MHz
Ui nominal
Short-circuit
Ui min. to max.
No load or Stanby
Full temperature range
Ui min. to max.
75% load
Ambient temperature : +25°c
Ui nominal, 75% load
Full temperature range
Ui min. to max.
Full temperature range
Ui min. to max.
Ui nominal
Full load
BW = 20MHz
Ui min. to max.
75% load
Ui nominal
25% to full load
Ui nominal
+ Vout at 75% load
- Vout from 25% to full load
Ui nominal
Full load
Ui nominal
Full load
Per output
VDC
VDC
VDC
VDC/S
VDC
VDC
ms
mApp
mA
mW
Nominal
Nominal
Nominal
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Typical
VDC
VDC
VDC
%
W
A
A
A
mVpp
mVpp
mVpp
%
%
%
%
+/- 5
+/- 12
+/- 15
+/- 2
+/- 20
+/- 4
+/- 1,7
+/- 1,3
100
200
200
+/- 1
+/- 2
+/- 0,5
84
+/- 5
+/- 12
+/- 15
+/- 2
+/- 20
+/- 4
+/- 1,7
+/- 1,3
100
200
200
+/- 1
+/- 2
+/- 0,5
85
+/- 5
+/- 12
+/- 15
+/- 2
+/- 20
+/- 4
+/- 1,7
+/- 1,3
100
200
200
+/- 1
+/- 2
+/- 0,5
85
5
Maximum
Maximum
µF
µF
1 000
1 000
1 000
1 000
1 000
1 000
Note * : Maximum power per output with total power not exceeding 35W.
Note ** : The ripple output voltage is the periodic AC component imposed on the output voltage, an aperiodic and random component (noise) has also to be considered. This
noise can be reduced by adding an external capacitor (typically 10nF/rated voltage depending on isolation requirement) connected between the pin Gin and the pin Gout of
the converter. This capacitor should be layed-out as close as possible from the converter.
Note *** : For load regulation characteristics from 0% to full load, please contact factory.
Data are valid at +25°C, unless otherwise specified.
Parameter
Input
Nominal input voltage
Permanent input
voltage range (Ui)
Extended permanent
input voltage range
Transient input voltage
Undervoltage lock-out
(UVLO)
Start up time
Reflected ripple current
Input current in short
circuit mode (Average)
No load input power
Output
Output voltage (1)
Full temperature range
Ui min. to max.
75% load
Nominal
Nominal
Nominal
Nominal
VDC
VDC
VDC
VDC
%
W
A
A
A
A
mVpp
mVpp
mVpp
%
%
%
%
/
/
5 & +/- 11,8
5,1 & +/- 14,7
/
/
5,1 & +/- 11,8
5,1 & +/- 14,7
Industrial
Grade
Conditions
Limit or
typical
Nominal
Units
Tri Output MGDTI-35
35 - H
20
9-36
/
40/0,1
8,8
8
30
600
TBD
300
35 - O
48
18-75
/
80/0,1
17
16
30
600
TBD
500
35 - Q
72
36-140
36-154
175/0,1
33
30
30
600
TBD
800
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
Turn-on voltage
Turn-off voltage
Ui nominal
Nominal output
Full load : resistive
Ui nominal, full load at
switching freq. BW = 20MHz
Ui nominal
Short-circuit
Ui min. to max.
No load or Stanby
VDC
Min. - Max. VDC
Min. - Max. VDC
Maximum
Nominal
Nominal
Maximum
Maximum
Typical
Maximum
VDC/-
S
VDC
VDC
ms
mApp
mA
mW
3,3 & +/-12,15
/
5 & +/- 12,25
5 & +/- 15,4
Set Point accuracy
Output power *
Output current *
3,3V & +/- 12V output
3,3V & +/- 15V output
5V & +/- 12V output
5V & +/- 15V output
Ripple output voltage **
3,3V and 5V output
12V output
15V output
Line regulation
Load regulation ***
Cross load output
regulation
Efficiency
Maximum admissible
Capacitive load
3,3V and 5V output
12V and 15V output
Ambient temperature : +25°c
Maximum
Ui nominal, 75% load
Full temperature range
Maximum
Ui min. to max.
Full temperature range
Ui min. to max.
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Typical
+/- 2
20 & +/- 14
/
/
4 & +/- 1,1
4 & +/- 0,9
100
200
200
+/- 1
+/- 2
+/- 0,5
84
+/- 2
20 & +/- 14
/
/
4 & +/- 1,1
4 & +/- 0,9
100
200
200
+/- 1
+/- 2
+/- 0,5
85
+/- 2
20 & +/- 14
4 & +/- 1,1
/
4 & +/- 1,1
4 & +/- 0,9
100
200
200
+/- 1
+/- 2
+/- 0,5
85
5
Ui nominal
Full load
BW = 20MHz
Ui min. to max.
75% oad
Ui nominal
25% to full load
Ui nominal
+ Vout at 75% load
- Vout from 25% to full load
Ui nominal
Full load
Ui nominal
Full load
Per output
Maximum
Maximum
µF
µF
4 700
470
4 700
470
4 700
470
Note (1) : The primary voltage should be minimum loaded (consult factory) to be able to get the secondary outputs.
Note * : Maximum power per output with total power not exceeding 35W.
Note ** : The ripple output voltage is the periodic AC component imposed on the output voltage, an aperiodic and random component (noise) has also to be considered. This
noise can be reduced by adding an external capacitor (typically 10nF/rated voltage depending on isolation requirement) connected between the pin Gin and the pin Gout of
the converter. This capacitor should be layed-out as close as possible from the converter.
Note *** : For load regulation characteristics from 0% to full load, please contact factory.
The picture is the spec of the DAC chip (AD5676), and I have the following questions:
1. What do zero scale and midscale mean?
2. What are the advantages and disadvantages of zero scale mode and midsc...
:time:I saw a piece of news somewhere else, saying that two students from the MIT Media Lab in the United States made a magical circuit board that can turn almost any object, such as highly insulating...
Let me first talk about the situation of my computer. I use a USB WIFI module to connect to the router through the WIFI module, and I also use a wireless mouse (Logitech). When I used WeChat to send a...
For healthcare professionals, accurate diagnosis and treatment are crucial for a clear picture of a person's health. However, healthcare professionals often rely on tests at medical facilities, cli...[Details]
Gross profit margin jumped from 13.6% in the first half of last year to 25.9%, almost doubling year-on-year.
On August 21, RoboSense released its interim performance report, in which the...[Details]
On August 22, South Korean media Nate reported on the 20th local time that Samsung Electronics is introducing Hyper Cell technology into its most advanced 2nm process technology, striving to improv...[Details]
One of the most core components of electric vehicles is the motor. The power supply provides electrical energy to the motor, which converts this electrical energy into mechanical energy, which in t...[Details]
PowiGaN achieves 95% efficiency at both light and full loads, meeting critical operational and safety requirements.
DARWIN, Australia and SAN JOSE, Calif.,
August 22, 2025 – Powe...[Details]
Compared to cloud databases, minicomputers are purpose-built for decentralized, rugged computing at the edge of the network. By moving applications, analytics, and processing services closer to the...[Details]
China, August 21, 2025 – STMicroelectronics (NYSE: STM), a world-leading semiconductor company serving a wide range of electronics applications, has published its IFRS 2025 semi-annual financial re...[Details]
For new energy vehicles, the importance of batteries is unquestionable. Not only does it determine the performance of the vehicle, but the battery density also has a great relationship with the veh...[Details]
The composition of the water heater
The water heater itself is divided into the following parts:
1. Water tank.
This is where the water heater is filled with water and where the wate...[Details]
introduction
The rapid adoption of computers has led to a growing number of tasks being performed on them. People from all walks of life, especially programmers and writers, are spending incre...[Details]
This article uses the Allwinner T507 quad-core automotive-grade processor as the development board. This article explains how to configure Ethernet for the T507 development board. Other boards may ...[Details]
Charge your electric car for just six minutes and you'll get 1,000 kilometers! This isn't just a scene from a science fiction film, but a reality made possible by Guoxuan High-Tech's Jinshi solid-s...[Details]
Amid the rapid advancement of automotive intelligence, on-board storage has become a thorny bottleneck restricting the "large-scale popularization" of advanced assisted driving.
On the o...[Details]
• Standard message
1: Speed control
• Standard Telegram
2: Speed Control
• Standard Telegram
3: Speed/Position Control (used when the 1200 is configured as a TO)
...[Details]
Let’s first take a look at the development concept of the EVD series.
The EVD control module is specially developed for operation in extreme environments. Components that meet these requiremen...[Details]