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
Start up input voltage
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
Maximum
Maximum
VDC
VDC
VDC
VDC
%
W
A
A
A
A
mVpp
mVpp
mVpp
%
%
%
µF
µF
3,3
5
12
15
+/- 2
25
6
5
2
1,65
50
100
150
+/- 1
+/- 2,5
83
2.000
470
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Minimum
Maximum
Typical
Typical
Maximum
Units
Industrial
Grade
Single Output MGDSI-25
25 - H
20
9-36
/
40/0,1
8,5
30
300
40
60
25 - O
48
18-75
/
80/0,1
17,5
30
300
40
60
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
(Consult factory)
Full load
Ui nominal within 3 ms
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
ms
mApp
mA
mA
3,3
5
12
15
+/- 2
25
6
5
2
1,65
50
100
150
+/- 1
+/- 2,5
83
2.000
470
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
Capacity load
3,3V and 5V output
12V and 15V output
5
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
Note * : For 9-36 VDC input range modules a derating has to be observed with a power decreasing linearly from 25W at 13 VDC down to 20W at 9 VDC input voltage.
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
Start up input voltage
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 *
+/- 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
Capacity 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
Nominal
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Maximum
Typical
Typical
Typical
Typical
Maximum
Maximum
VDC
VDC
VDC
%
W
A
A
A
mVpp
mVpp
mVpp
%
%
%
%
µF
µF
+/- 5
+/- 12
+/- 15
+/- 2
+/- 12,5
+/- 2,5
+/- 1
+/- 0,825
50
100
150
+/- 1
+/- 2,5
+/- 0,5
85
1.000
220
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Minimum
Maximum
Typical
Typical
Maximum
Units
Industrial
Grade
Bi Output MGDBI-25
25 - H
20
9-36
/
40/0,1
8,5
30
300
40
60
25 - O
48
18-75
/
80/0,1
17,5
30
300
40
60
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
(Consult factory)
Full load
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
ms
mApp
mA
mA
+/- 5
+/- 12
+/- 15
+/- 2
+/- 12,5
+/- 2,5
+/- 1
+/- 0,825
50
100
150
+/- 1
+/- 2,5
+/- 0,5
85
1.000
220
5
Note * : For 9-36 VDC input range modules a derating has to be observed with a power decreasing linearly from 25W at 13 VDC down to 20W at 9 VDC input voltage.
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
Start up input voltage
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
Maximum
Maximum
VDC
VDC
VDC
VDC
%
W
A
A
A
A
mVpp
mVpp
mVpp
%
%
%
%
µF
µF
3,3 & +/- 12
3,3 & +/- 15
5 & +/- 11,5
5 & +/- 14,6
+/- 2
12,5 & +/- 6,25
3 & +/- 0,5
3 & +/- 0,4
2,5 & +/- 0,5
2,5 & +/- 0,4
50
100
150
+/- 1
+/- 3
+/- 0,5
80
2.200
100
Conditions
Limit or
typical
Nominal
Min. - Max.
Min. - Max.
Maximum
Minimum
Maximum
Typical
Typical
Maximum
Units
Industrial
Grade
Tri Output MGDTI-25
25 - H
20
9-36
/
40/0,1
8,5
30
300
40
60
25 - O
48
18-75
/
80/0,1
17,5
30
300
40
60
Full temperature range
Full temperature range
Full temperature range
(Consult factory)
Full load
Full load
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
ms
mApp
mA
mA
3,3 & +/- 12
3,3 & +/- 15
5 & +/- 11,5
5 & +/- 14,6
+/- 2
12,5 & +/- 6,25
3 & +/- 0,5
3 & +/- 0,4
2,5 & +/- 0,5
2,5 & +/- 0,4
50
100
150
+/- 1
+/- 3
+/- 0,5
83
2.200
100
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
5
Ui nominal
Full load
BW = 20MHz
Ui min. to max.
Full load
Ui nominal
Load regulation ****
25% to full load
Ui nominal
Cross load output regulation + Vout nominal load
- Vout from 25% to full load
Ui nominal
Efficiency
Full load
Maximum admissible
Ui nominal
Capacity load
Full load
3,3V and 5V output
Per output
12V and 15V output
Note * : For 9-36 VDC input range modules a derating has to be observed with a power decreasing linearly from 25W at 13 VDC down to 20W at 9 VDC input voltage.
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.
TI has many products and seminars. You will gain something from attending each seminar. Sitara AM335x, which was launched last year, has gained a lot of popularity after the slogan of $5 was released....
Why when using AD to make differential equal length, some differential equal lengths do not have the equal length frame, as shown in the figure, it is always a cross...
There are two ideas now. One is to expand the networking distance , but it seems difficult to implement. The other is to remove the networking process, so that a certain number of nodes are connected ...
For graduation project, I would like to ask the experts for an English paper related to 430 1122 (if you can provide translation, please provide translation)
The best is a paper, because it is short a...
Xilinx Spartan 3E Starter Kit platform controls 1602 LCD programLCD1602 and Intel Flash Memory on Xilinx Spartan 3E Starter Kit share four data lines. The upper four bits and lower four bits are used ...
Debugging experience - Hardware Many novices fail in their experiments due to hardware failures during the initial hardware debugging process. Therefore, all software experiments will not be able to p...
With the rapid development of urban economy, elevators are increasingly used as a vertical transportation tool. However, elevator fault detection and maintenance, especially the role of elevator remot...[Details]
introduction
The emergence of high-performance, low-power embedded CPUs and high-reliability network operating systems has made it possible to implement applications with large amounts of comp...[Details]
1 Introduction
Water resources are the basic conditions for human survival and the lifeline of economic development. The reality shows that due to the global shortage of water resources and th...[Details]
LED is the abbreviation of light emitting diode, which is an electric light source made of semiconductor technology. The core part of LED is a chip composed of P-type semiconductor and N-type semi...[Details]
The automotive lighting and signal control system is responsible for controlling the vehicle's lighting, signal lights, electric horns, reversing and brake buzzers. Traditional automotive lighting...[Details]
The typical fault troubleshooting listed below is for reference of maintenance personnel.
When the computer is turned on, the indicator light is off and there is no screen display
Mainte...[Details]
In today's body control module (BCM) designs, savvy engineers are moving away from electromechanical relays whenever possible. Their next step is to eliminate fuses. But is eliminating fuses a nece...[Details]
It is well known to automotive suppliers that automakers are demanding more from their supply base. For connector suppliers, this means stricter requirements for product performance, stability and ...[Details]
The era of mobile access to the Internet has arrived, and it will rapidly change the business and infrastructure needs of mobile operators under a whole new trend of requirements. We need 4G LTE to...[Details]
Only a small number of LED manufacturers can produce high-quality LEDs. For applications that are only used for simple indication, low-quality LEDs are sufficient. However, high-quality LEDs must...[Details]
1. Introduction
With the increasing popularity of fully automatic washing machines, consumers have higher and higher requirements for their environmenta...[Details]
1 Introduction to LED
With the development of science and technology, people have higher and higher requirements on automobile light sources. LED (Light Emitting Diode) has gradually attracted...[Details]
introduction
At present, the research on micron and nanotechnology is very active, which has led to the rapid development of microtechnology and micro-mechanical electronic system (MEMS) t...[Details]
Currently, the commonly used solar cell technologies include monocrystalline silicon solar cells and polycrystalline silicon thin-film solar cells. Production process: Monocrystalline silicon solar...[Details]
The automotive power electronics market has grown rapidly as comfort and active safety features become more common. As traditional mechanical functions shift to electronic applications, the demand ...[Details]
DSP and ARM Processors
京公网安备 11010802033920号
EEWORLD
