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 current
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
Typical
Typical
Typical
VDC
VDC
VDC
VDC
%
W
A
A
A
A
mVpp
mVpp
mVpp
%
%
%
3,3
5
12
15
+/- 2
10
2
2
0,80
0,65
40
50
60
+/- 1
+/- 2,5
3,3
5
12
15
+/- 2
10
2
2
0,80
0,65
40
50
60
+/- 1
+/- 2,5
See on page 6
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Minimum
Maximum
Maximum
Typical
Maximum
Maximum
Units
Hi-Rel
Grade
Single Output MGDS-10
10-C
5
4,5-5,5
/
/
4
4,3
30
50
50
50
10 - H
20
9-36
/
40/0,1
7
8,5
30
50
30
30
10 - J
28
16-40
16-45
50/0,1
12
15
30
30
30
30
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load (Consult factory)
turn-on/turn-off threshold
Ui nominal
Nominal output
Full load : resistive
Ui nominal, full load at
switching freq. BW = 20MHz
Ui nominal
Short-circuit
Ui nominal
No load
VDC
VDC
VDC
VDC/S
VDC
VDC
ms
mApp
mA
mA
3,3
5
12
15
+/- 2
10
2
2
0,80
0,65
40
50
60
+/- 1
+/- 2,5
4
Set Point accuracy
Output power
Output current **
3,3V output
5V output
12V output
15V outputt
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
Ui nominal
Full load
BW = 20MHz
Ui min. to max.
Full load
Ui nominal
25% to full load
Ui nominal
Full load
Ui nominal
Full load
Per output
Maximum
Maximum
µF
µF
1.000
330
1.000
330
1.000
330
Note * : For proper operation the MGDM-10 module requires to install a 22µF chemical or tantalum capacitance accross output terminals.
Note ** : For 9-36V input range, the current is derated at 80% at 9V and increases linearly to full current at 12V.
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 see page 6.
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 current
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
Typical
Typical
Typical
Typical
VDC
VDC
VDC
VDC
%
W
A
A
A
A
mVpp
mVpp
mVpp
%
%
%
%
+/- 5
+/- 12
+/- 15
/
+/- 2
+/- 5
+/- 1
+/- 0,40
+/- 0,33
/
40
50
60
+/- 1
+/- 2,5
+/- 0,5
+/- 5
+/- 12
+/- 15
/
+/- 2
+/- 5
+/- 1
+/-0, 40
+/- 0,33
/
40
50
60
+/- 1
+/- 2,5
+/- 0,5
See on page 6
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Minimum
Maximum
Maximum
Typical
Maximum
Maximum
Units
Hi-Rel
Grade
Bi Output MGDB-10
10-C
5
4,5-5,5
/
/
4
4,3
30
50
50
50
10 - H
20
9-36
/
40/0,1
7
8,5
30
50
30
30
10 - J
28
16-40
16-45
50/0,1
12
15
30
30
30
30
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load (Consult factory)
Turn-on/turn-off threshold
Ui nominal
Nominal output
Full load : resistive
Ui nominal, full load at
switching freq. BW = 20MHz
Ui nominal
Short-circuit
Ui nominal
No load
VDC
VDC
VDC
VDC/S
VDC
VDC
ms
mApp
mA
mA
+/- 5
+/- 12
+/- 15
+/- 24
+/- 2
+/- 5
+/- 1
+/-0, 40
+/- 0,33
+/-0,20
40
50
60
+/- 1
+/- 2,5
+/- 0,5
Set Point accuracy
Output power
Output current **
5V output
12V output
15V output
24V output
Ripple output voltage ***
5V output
12V output
15V and 24 output
Line regulation
Load regulation ****
Cross load output
regulation
Efficiency
Maximum admissible
Capacitive load
5V output
12V, 15V and 24V output
4
Ui nominal
Full load
BW = 20MHz
Ui min. to max.
Full load
Ui nominal
25% to full load
Ui nominal
+ Vout nominal load
- Vout from 25% to full load
Ui nominal
Full load
Ui nominal
Full load
Per output
Maximum
Maximum
µF
µF
470
100
470
100
470
100
Note * : For proper operation the MGDM-10 module requires to install a 22µF chemical or tantalum capacitance accross output terminals.
Note ** : For 9-36V input range, the current is derated at 80% at 9V and increases linearly to full current at 12V.
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 see page 6.
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 current
Output
Output voltage *
Set Point accuracy
Output power
Output current **
5 & +/- 12V output
5 & +/- 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
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.
Full load
Ui nominal
25% to full load
Ui nominal
+ Vout nominal load
- Vout from 25% to full load
Ui nominal
Full load
Ui nominal
Full load
Per output
Nominal
Nominal
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Typical
Typical
Typical
Typical
VDC
VDC
%
W
A
A
mVpp
mVpp
mVpp
%
%
%
%
5 & +/- 12
5 & +/- 15
+/- 2
5 & +/- 2,5
1 & +/- 0,20
1 & +/- 0,15
40
50
60
+/- 1
+/- 2,5
+/- 0,5
82
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
Turn-on/turn-off threshold
Ui nominal
Nominal output
Full load : resistive
Ui nominal, full load at
switching freq. BW = 20MHz
Ui nominal
Short-circuit
Ui nominal
No load
Nominal
Min. - Max.
Min. - Max.
Maximum
Minimum
Maximum
Maximum
Typical
Maximum
Maximum
VDC
VDC
VDC
VDC/S
VDC
VDC
ms
mApp
mA
mA
20
9-36
/
40/0,1
7
8,5
30
50
30
30
Conditions
Limit or
typical
Units
Hi-Rel
Grade
Tri Output MGDT-10
10 - H
10 - J
28
16-40
16-45
50/0,1
12
15
30
30
30
30
5 & +/- 12
5 & +/- 15
+/- 2
5 & +/- 2,5
1 & +/- 0,20
1 & +/- 0,15
40
50
60
+/- 1
+/- 2,5
+/- 0,5
82
4
Maximum
Maximum
µF
µF
470
100
470
100
Note * : For proper operation the MGDM-10 module requires to install a 22µF chemical or tantalum capacitance accross output terminals.
Note ** : For 9-36V input range, the current is derated at 80% at 9V and increases linearly to full current at 12V.
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 see page 6.
From: deyisupport When your expensive new drone is busy capturing 4K UHD video at 2,000 feet, your biggest concern is whether it has enough "power" to help you complete your new YouTube masterpiece or...
Hello: Broadkey Industrial Technology Co., Ltd. specializes in providing various development tools such as altera download cable, xilinx download cable, powerpc emulator, etc., with low price and qual...
The acquisition equipment I made recently uses low-power MSP430. The main control chip needs to complete three functions: constant current chip drive (four pin outputs), 8-channel ADC conversion, and ...
Examiner: What is the retail price of Windows 7 Professional in mainland China? Me: 5 yuan Examiner: Get out, next person. The word "give up" has never appeared in my dictionary. I applied and applied...
I use the AD program generated by the F1 series stm32f103RCT6. When sampling 3.3V voltage, I can measure the digital value as 4095 using my own program, but I can only measure 4033 with a change of pl...
Emergency hand-held lamps powered by 6V maintenance-free batteries are widely used in rural areas. The charger used is a transformer step-down and single diode half-wave rectifier, and the charging...[Details]
Today, with the increasing integration of functions, mobile phones can also be used as portable media players (PMP), digital cameras, handheld computers (PDAs), and even global positioning systems ...[Details]
Do you often have to add brake fluid to your car's brakes? The fact that you need to pump out the brake fluid to make sure there is no gas in the brake fluid line may not be done by the car owner h...[Details]
introduction
Throughout the history of automotive lighting, power has always played an important role. Initially, cars only needed headlights to see the road in the dark. Later, other light so...[Details]
For a long time, due to the limitation of hardware conditions, the display devices of traditional small handheld devices such as PDA are usually monochrome LCD, and the user interface is very simpl...[Details]
5. Identifiers and keywords of C language
A complete PIC microcontroller C language program usually consists of six parts: include files (i.e. header files 1, variable definitions, variable de...[Details]
1. Overview
The Virtual CAN Interface (VCI) function library is an application program interface specifically provided for the use of ZLGCAN devices on PCs. The functions in the library ar...[Details]
1. Introduction to CIF Board
Fieldbus integration based on PC system
Whether it is a master or a slave, fieldbus has won unanimous praise in the field of PC-based automation. For more...[Details]
1. Project Introduction
Shandong Dezhou Xingtai Paper Co., Ltd. is a newly built high-end paperboard production enterprise with domestic leading level established by Shandong Zhaodongfang Pape...[Details]
LED lamps and bulbs are now rapidly replacing incandescent, halogen and CFL (compact fluorescent lamp) light sources in many general lighting applications. Flyback DC/DC converters are the power su...[Details]
I've been studying dot matrix recently. It looks simple, but it takes a while to master it completely! The 8*8 dot matrix hardware circuit I'm making now is like this. The row is driven by 74HC138 + t...[Details]
Investment in
the
medical device
industry has been on the rise in recent years. In the past two years, venture capital for medical devices has almost doubled, reaching $4 billion in 2007. Fr...[Details]
Abstract: In recent years, with the establishment and grid-connected power generation of a large number of solar photovoltaic power stations at home and abroad, photovoltaic grid-connected inverter...[Details]
Recently, news came from the certification department that the photovoltaic grid-connected inverter of Samil New Energy Co., Ltd. (hereinafter referred to as "Samil New Energy") has once again obta...[Details]
At present, how various communication technologies will evolve after 3G is a focus of great concern in the industry. Especially for TD-SCDMA, whether it can achieve smooth evolution to the next gen...[Details]