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QTS48T67096-NCBP

型号:

QTS48T67096-NCBP

品牌:

BEL[ BEL FUSE INC. ]

页数:

11 页

PDF大小:

286 K

QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
Features  
Lead-free/RoHS compatible design  
“G” option designates RoHS for all six substances;  
Standard configurations are RoHS compliant with  
Pb-solder exemption  
Cost-effective, single-board design  
5:1 Fixed ratio converter  
Ultra-high efficiency 96.0%  
0.480” height profile (12.20mm)  
Narrow input range 38 – 55VDC  
Parallel operation with current sharing (2 Units)  
Input-to-output isolation 1500VDC  
Start-up into pre-biased output  
Start-up into high capacitive load  
Low conducted and radiated EMI  
No minimum load required  
Applications  
Intermediate Bus Architectures  
Data communications/processing  
LAN/WAN  
Input undervoltage lockout  
Output overcurrent protection and overtemperature  
protection  
Servers, Workstations  
Operating ambient temperature: -10 °C to 75 °C  
Fixed frequency operation (240 kHz)  
High reliability, MTBF = TBD Million Hours  
Benefits  
All materials meet UL94, V-0 flammability rating  
High efficiency– no heat sink required  
Cost effective  
Approved to UL60950-1/CAN/CSA-C22.2 No.  
60950-1-03, and TUV approved to EN 60950-1, IEC  
60950-1.  
Description  
The QTS48T67096 bus converter provides a 5:1 fixed ratio, isolated, step-down voltage. Output voltage is  
directly proportional to the input voltage with a conversion ratio of 5:1. At an input voltage of 48 VDC the resulting  
output voltage will be 9.6 VDC. The converter provides ultra-high efficiency up to 96%; as a result very little heat  
is dissipated and a heat sink is not required. Two QTS48T67096 converters can be connected in parallel.  
The QTS48T67096 is an excellent choice as a front end DC-DC converter for intermediate bus applications.  
Non-isolated Point of Load converters with a wide input range (7VDC – 12VDC) can be used with the  
QTS48T67096 to convert its output into multiple regulated, low voltage outputs.  
ZD-02069 REV. 1.0  
www.power-one.com  
Page 1 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
Electrical Specifications  
Conditions: TA = 25 ºC, Airflow = 300 LFM (1.5 m/s), Vin = 48 VDC, unless otherwise specified.  
Parameters  
Notes  
Min  
Typ  
Max  
Units  
Absolute Maximum Ratings  
Input Voltage  
Continuous  
0
60  
75  
VDC  
°C  
Operating Ambient Temperature  
Operating Temperature  
Storage Temperature  
- 10  
-10  
-55  
Case Temperature (Q411)  
125  
125  
°C  
°C  
Feet Above Sea Level  
(Derate Operational Temperature TBD °C  
per 1000 feet.)  
Altitude – Operational  
Isolation Characteristics  
Input to Output Isolation  
Isolation Resistance  
13000  
Feet  
1500  
10  
VDC  
M  
Feature Characteristics  
Switching Frequency  
240  
kHz  
Input Overvoltage Protection shut down  
Input Overvoltage Protection recovery  
57  
56  
58  
57  
59  
58  
VDC  
VDC  
Overtemperature Shutdown  
Component (Tc)  
150  
°C  
Case (Q401), Non-Latching  
Turn-On Delay Time  
With Vin (Converter Enabled, then Vin  
applied)  
Full resistive load  
Time from UVLO to Vo = 90% Vonom  
1
1
2.0  
2.0  
10  
10  
ms  
ms  
With Enable (Vin = Vin(nom) applied, then  
enabled)  
Time from Enable to Vo = 90% Vonom  
(Signal referenced to - VIN)  
ON/OFF Control Signal  
ON/OFF Control (Positive Logic)  
Converter Off (logic low)  
-18  
2.4  
0.8  
18  
VDC  
VDC  
Converter On (logic high)  
ON/OFF Control (Negative Logic)  
Converter Off (logic low)  
2.4  
-18  
63  
18  
0.8  
77  
VDC  
VDC  
kꢀ  
Converter On (logic high)  
Resistance from ON/OFF pin to –VIN  
Input Characteristics  
With and W/out +VIN shorted to -VIN  
Non-latching  
70  
50  
Operating Input Voltage Range  
Input Undervoltage Lockout  
Turn-on Threshold  
38  
55  
VDC  
33  
31  
35  
32  
37  
33  
VDC  
VDC  
Turn-off Threshold  
67 ADC Output @ 38 VDC Input  
Vin = 48 VDC, Converter disabled  
Vin = 48 VDC, Converter enabled  
See Fig. C for setup (BW = 25 MHz)  
See Fig. C for setup  
Maximum Input Current  
Input Stand-by Current  
Input No Load Current  
13.8  
ADC  
3
mADC  
mADC  
120  
20  
Input Reflected-Ripple Current – ( is )  
Input Ripple Current – (ic )  
mAPK-PK  
mArms  
485  
ZD-02069 REV. 1.0  
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Page 2 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
Electrical Specifications (continued)  
Conditions: TA = 25 ºC, Airflow = 300 LFM (1.5 m/s), Vin = 48 VDC, unless otherwise specified.  
Parameter  
Notes  
Min  
Typ  
Max  
Units  
Output Characteristics  
Output Voltage Set Point (No Load)  
9.55  
9.6  
9.65  
VDC  
Vin = 48VDC  
Output Regulation  
Over Line  
Full resistive load  
3.8  
0.4  
V
V
Over Load  
From no load to full load  
Over line, load and temperature  
7.20  
11.4  
150  
5,000  
67  
VDC  
Output Voltage Range  
Output Ripple and Noise – 25 MHz bandwidth Full load+10 µF tantalum+1 µF ceramic  
75  
mVPK-PK  
μF  
External Load Capacitance  
Output Current Range  
Plus full load (resistive)  
Power limited to 485W over line  
0
ADC  
Power Limit Inception  
Latching  
108  
120  
130  
%Pout  
Time required to latch after Pout  
exceeds limit  
Time required to latch after Pout  
exceeds limit  
Time to Latch at start-up  
5
10  
ms  
µs  
Time to Latch after start-up  
200  
1000  
Current Share Operation  
Requires identical external input and  
Current Share Accuracy (2 units in parallel) 1 output impedance  
4
8
%
W
Max Output Power @ 55 oC, 50V, 300LFM2  
2 units in parallel  
902  
Maximum Output Power  
Max Output Power @ 55 oC, 50V, 300LFM2  
Max Output Power @ 55 oC, 38V, 200LFM2  
Max Output Power @ 70 oC, 50V, 300LFM2  
Max Output Power @ 70 oC, 38V, 200LFM2  
Dynamic Response  
Max component temperature 125 oC  
Max component temperature 125 oC  
Max component temperature 150 oC  
Max component temperature 150 oC  
470  
360  
470  
360  
480  
480  
W
W
W
W
Load Change 50%-75%-50%, di/dt = 0.1 A/μs Co = 1 μF ceramic  
di/dt = 1.0 A/μs Co = 1,455 µF 90% OSCON, 10% CER  
9
3
% Vout  
% Vout  
µs  
Settling Time (VOUT < 10% peak deviation)  
100  
Efficiency  
100% Load  
50% Load  
Vin = 50V, Tcomp = 125 oC  
95.6  
96.0  
96  
%
%
Notes:  
1 - The difference in output current as a percentage of Iout max. For instance, the max output current is 67A. The difference in the output  
current between two units in parallel will typically not be greater than 67A * 0.04 = 2.7A .  
2 – Airflow across the width (1.45”) of the converter (e.g., from pin 3 to pin 1)  
General Specifications  
Parameter  
Notes  
Min  
Typ  
Max  
Units  
Million  
Hours  
Calculated MTBF  
Weight  
50% Stress, Ta=40°C  
TBD  
48  
(1.7)  
-
-
g(oz.)  
ZD-02069 REV. 1.0  
www.power-one.com  
Page 3 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
be capable of sinking up to 0.2mA at a low level  
voltage of 0.8V. An external voltage source (±18V  
maximum) may be connected directly to the ON/OFF  
input, in which case it must be capable of sourcing or  
sinking up to 1mA depending on the signal polarity.  
Operations  
Input and Output Impedance  
These power converters have been designed to be  
stable with no external capacitors when used in low  
inductance input and output circuits.  
Protection Features  
In many applications, the inductance associated with  
the distribution from the power source to the input of  
the converter can affect the stability of the converter.  
The addition of a 100 µF electrolytic capacitor with  
an ESR < 1 across the input helps to ensure  
stability of the converter. In many applications, the  
user has to use decoupling capacitance at the load.  
The power converter will exhibit stable operation with  
external load capacitance up to 5,000 µF on the  
output.  
Input Undervoltage Lockout  
Input undervoltage lockout is standard with this  
converter. The converter will shut down when the  
input voltage drops below a pre-determined voltage.  
The input voltage must be typically 35V for the  
converter to turn on. Once the converter has been  
turned on, it will shut off when the input voltage  
drops typically below 32V. This feature is beneficial  
in preventing deep discharging of batteries used in  
telecom applications.  
Additionally, see the EMC section of this data sheet  
for discussion of other external components which  
may be required for control of conducted emissions.  
Output Overcurrent Protection (OCP)  
The converter is protected against overcurrent or  
short circuit conditions. Upon sensing an overcurrent  
condition, the converter will latch off.  
ON/OFF (Pin 2)  
The ON/OFF pin is used to turn the power converter  
on or off remotely via a system signal. There are two  
remote control options available, positive and  
negative logic, with both referenced to Vin(-). A  
typical connection is shown in Fig. A.  
Once the converter has shut down, input power must  
be recycled or the enable pin must be toggled for the  
unit to recover. Optional Hiccup mode overcurrent  
protection is available.  
Input Overvoltage Protection (OVP)  
The converter will shut down if the input voltage  
exceeds the threshold of the OVP circuitry. The  
converter will automatically recover when the input  
voltage is reduced below the turn on threshold  
Overtemperature Protection (OTP)  
The converter will shut down under an  
overtemperature condition to protect itself from  
overheating caused by operation outside the thermal  
derating curves, or operation in abnormal conditions  
such as system fan failure. After the converter has  
cooled to a safe operating temperature, it will  
automatically restart.  
Fig. A: Circuit configuration for ON/OFF function.  
The positive logic version turns on when the ON/OFF  
pin is at a logic high and turns off when at a logic  
low. The converter is on when the ON/OFF pin is left  
open. See the Electrical Specifications for logic  
high/low definitions.  
Safety Requirements  
The converters meet North American and  
International safety regulatory requirements per  
UL60950 and EN60950 (pending). Operational  
Insulation is provided between input and output.  
The negative logic version turns on when the pin is  
at a logic low and turns off when the pin is at a logic  
high. The ON/OFF pin can be hardwired directly to  
Vin(-) to enable automatic power up of the converter  
without the need of an external control signal.  
To comply with safety agencies’ requirements, an  
input line fuse must be used external to the  
converter. A 20 Amp fuse is recommended for use  
with this product.  
The ON/OFF pin is internally pulled up to 5V through  
a resistor. A properly debounced mechanical switch,  
open-collector transistor, or FET can be used to  
drive the input of the ON/OFF pin. The device must  
The QTS48T67096 converter is UL approved  
(pending) for a maximum fuse rating of 20 Amps. To  
ZD-02069 REV. 1.0  
www.power-one.com  
Page 4 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
protect a group of converters with a single fuse, the  
rating can be increased from the recommended  
value above.  
Characterization  
General Information  
The converter has been characterized for many  
operational aspects, to include thermal derating  
(maximum load current as a function of ambient  
temperature and airflow) for vertical and horizontal  
mountings, efficiency, startup and shutdown  
parameters, output ripple and noise, transient  
response to load step-change, overload, and short  
circuit.  
Electromagnetic Compatibility (EMC)  
EMC requirements must be met at the end-product  
system level, as no specific standards dedicated to  
EMC characteristics of board mounted component  
dc-dc converters exist. However, Power-One tests its  
converters to several system level standards,  
primary of which is the more stringent EN55022,  
Information  
technology  
equipment  
-
Radio  
The following pages contain specific plots or  
waveforms associated with the converter. Additional  
comments for specific data are provided below.  
disturbance characteristics-Limits and methods of  
measurement.  
An effective internal LC differential filter significantly  
reduces input reflected ripple current, and improves  
EMC.  
Test Conditions  
All data presented were taken with the converter  
soldered to a test board, specifically a 0.060” thick  
printed wiring board (PWB) with four layers. The top  
and bottom layers were not metalized. The two inner  
layers, comprised of two-ounce copper, were used to  
provide traces for connectivity to the converter.  
With the addition of a simple external filter, the  
QTS48T67096 converter will pass the requirements  
of Class B conducted emissions per EN55022 and  
FCC requirements. Please contact Power-One  
Applications Engineering for details of this testing.  
The lack of metalization on the outer layers as well  
as the limited thermal connection ensured that heat  
transfer from the converter to the PWB was  
minimized. This provides a worst-case but consistent  
scenario for thermal derating purposes.  
Parallel Operation  
The following precautions must be observed when  
operating two QTS48T67096 units in parallel:  
1. The inputs of all units must be attached to  
the same voltage source  
All measurements requiring airflow were made in the  
vertical and horizontal wind tunnels using Infrared  
2. The PCB trace resistance into each unit  
should be equalized as much as is practical.  
3. The enable pins must be tied together and  
operated as a single unit.  
4. The under voltage lockout start-up point will  
vary from unit to unit, therefore the dv/dt of  
the input source as it rises from 0V to its final  
value will affect the ability of the parallel  
units to turn on into a load equal to more that  
the maximum rated load of 1 unit. The dv/dt  
of the rising edge of the input voltage must  
be greater than 0.1V/mS.  
5. The accuracy of the current sharing will be  
affected by the series impedance between  
each unit at the load. Balancing these  
impedances will enhance the current share  
accuracy.  
(IR)  
thermography  
and  
thermocouples  
for  
thermometry.  
Ensuring components on the converter do not  
exceed their ratings is important to maintaining high  
reliability. If one anticipates operating the converter  
at or close to the maximum loads specified in the  
derating curves, it is prudent to check actual  
operating  
temperatures  
in  
the  
application.  
Thermographic imaging is preferable; if this  
capability is not available, then thermocouples may  
be used. The use of AWG #40 gauge thermocouples  
is recommended to ensure measurement accuracy.  
Careful routing of the thermocouple leads will further  
minimize measurement error. Refer to Figure B for  
the optimum measuring thermocouple location.  
ZD-02069 REV. 1.0  
www.power-one.com  
Page 5 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
During normal operation, derating curves with  
maximum FET temperature less than or equal to  
125 °C should not be exceeded. Temperature on the  
MOSFET at the thermocouple location shown in  
Figure B should not exceed 125 °C in order to  
operate inside the derating curves.  
Thermocouple  
Ripple and Noise  
The output voltage ripple waveform is measured at  
full rated load current. Note that all output voltage  
waveforms are measured across a 10 μF ceramic  
capacitor (Cout) and input waveforms are measured  
with a 3 x 10µF ceramic capacitor (Cin).  
Figure B: Location of the thermocouples for thermal testing.  
The output voltage ripple and input reflected ripple  
current waveforms are obtained using the test setup  
shown in Figure C.  
Thermal Derating  
Output power vs. ambient temperature and airflow  
rates are given in Figures 5 and 7 for maximum  
temperature of 125 °C. Ambient temperature was  
varied between 25 °C and 85 °C, with airflow rates  
from 30 to 400 LFM (0.15 m/s to 2.0 m/s), and  
vertical and horizontal converter mountings. The  
airflow during the testing is parallel to the long axis of  
the converter.  
is  
ic  
Vi(+)  
Ltest  
12uH  
47 uF  
ESR <0. 5 OHM  
@ 20ºC, 100kHz  
Cs 220uF  
ESR <0. 1 OHM  
@ 20ºC, 100kHz  
BATTERY  
Vi(-)  
For each set of conditions, the maximum load  
current is defined as the lowest of:  
Figure C: Test setup diagram showing the  
measurement of the reflected ripple current( is) and  
the ripple current (ic) at the pins of the UUT.  
(i) The output current at which any MOSFET  
temperature does not exceed a maximum specified  
temperature (125°C) as indicated by the  
thermographic image, or  
NOTE: The reflected ripple current must be  
measured with a simulated source inductance (Ltest)  
of 12 µH.  
(ii) The maximum power rating of the converter  
(485W)  
0.97  
0.96  
0.95  
0.94  
0.93  
0.98  
0.96  
0.94  
0.92  
0.90  
0.88  
0.86  
38V  
48V  
55V  
40 C  
55 C  
70 C  
0.92  
0.91  
0.90  
0
100  
200  
300  
400  
500  
600  
0
100  
200  
300  
400  
500  
600  
Output Power (W)  
Output Power (W)  
Fig. 1: Efficiency Curve vs. Output Power and  
Input Voltage @ 25 oC, 200LFM.  
Fig. 2: Efficiency vs. Output Power for Converter  
Mounted Vertically. (Vin = 48Vdc and air flowing from  
pin 3 to pin 1 at 200 LFM (1.0m/s)).  
ZD-02069 REV. 1.0  
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Page 6 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
25  
20  
30.00  
25.00  
20.00  
15.00  
10.00  
5.00  
38V  
15  
48V  
55V  
10  
5
40 C  
55 C  
70 C  
0.00  
0
0
100  
200  
300  
400  
500  
600  
0
100  
200  
300  
400  
500  
600  
Output Power (W)  
Output Power (W)  
Fig. 3: Power Dissipation vs. Output Power and Input  
Voltage @ 25 oC, 200LFM for Different Input Voltages.  
Fig. 4: Efficiency vs. Output Power for Converter  
Mounted Vertically. (Vin = 48Vdc and air flowing from  
pin 3 to pin 1 at 200 LFM (1.0m/s)).  
500  
35  
30  
25  
20  
15  
450  
400  
350  
300  
250  
200  
150  
100  
50  
400 LFM  
300 LFM  
200 LFM  
100 LFM  
50 LFM  
400 LFM  
300 LFM  
200 LFM  
100 LFM  
50 LFM  
10  
5
0
0
20  
30  
40  
50  
60  
70  
80  
90  
20  
30  
40  
50  
60  
70  
80  
90  
Ambient Temerature (oC)  
Ambient Temperature (oC)  
Fig. 5: Available Output Power vs. Ambient Temperature  
and Airflow Rates with Vin = 38 Vdc, and Maximum  
MOSFET Temperature 125 °C. Vertical Orientation  
(Airflow from Vin - pin to Vin + pin.)  
Fig. 6: Power Dissipation vs. Ambient Temperature and  
Airflow Rates with Vin = 38 Vdc, and Maximum MOSFET  
Temperature 125 °C. Vertical Orientation (Airflow from  
Vin - pin to Vin + pin.)  
ZD-02069 REV. 1.0  
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Page 7 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
25  
550  
500  
450  
400  
350  
300  
250  
200  
150  
100  
50  
20  
15  
10  
400 LFM  
400 LFM  
300 LFM  
200 LFM  
100 LFM  
50 LFM  
300 LFM  
5
200 LFM  
100 LFM  
50 LFM  
0
0
20  
30  
40  
50  
60  
70  
80  
90  
20  
30  
40  
50  
60  
70  
80  
90  
Ambient Temperature (oC)  
Ambient Temperature (oC)  
Fig. 8: Power Dissipation vs. Ambient Temperature  
and Airflow Rates with Vin = 50 Vdc, and Maximum  
MOSFET Temperature 125 °C. Vertical Orientation  
(Airflow from Vin - pin to Vin + pin.)  
Fig. 7: Available Output Power vs. Ambient  
Temperature and Airflow Rates Vin = 50 Vdc, and  
Maximum MOSFET Temperature 125 °C. Vertical  
Orientation (Airflow from Vin - pin to Vin + pin.)  
ZD-02069 REV. 1.0  
www.power-one.com  
Page 8 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
Fig. 10: Turn-on transient at full rated load current (resistive) plus  
5,000uF output capacitor at Vin = 48 Vdc, triggered via ON/OFF  
pin. Top Trace: ON/OFF Signal (5V/div). Bottom Trace: Output  
Voltage (5V/div). Time Scale: 2ms/div.  
Fig. 9 Turn-on transient at full rated load current (resistive)  
with no output capacitor at Vin- 48Vdc, triggered via ON/OFF  
pin. Top Trace: ON/OFF Signal (5V/div). Bottom Trace: Output  
Voltage (5V/div). Time Scale: 2mS/div.  
Fig. 12: Output voltage response to load current step change  
(39A – 26 – 39) at Vin = 48 Vdc. (Current Slew Rate: 1A/us. Co =  
1,350uF OSCON + 1uF ceramic). Top Trace: Output Voltage  
(200mV/div). Bottom Trace: Load Current (20A/div). Time Scale:  
0.2 ms/div.  
Fig. 11: Output voltage response to load current step change  
(26A – 39A – 26A) at Vin = 48Vdc. (Current Slew Rate: 0.1A/us.  
Co = 10uF tantalum + 1uF ceramic). Top Trace: Output Voltage  
(100mV/div). Bottom Trace: Load Current (20A/div). Time Scale:  
0.2 ms/div.  
ZD-02069 REV. 1.0  
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Page 9 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
Fig. 14: Input ripple current (ic) measured at the input terminals  
at full rated load current and Vin = 48Vdc. Vertical Axis:  
200mA/div. Time Scale: 2us/div.  
Fig. 13: Output voltage ripple (20 mV/div) at 52A current into a  
resistive load with C0 = 10μF tantalum + 1uF ceramic and Vin =  
48 Vdc. Time Scale: 2 μs/div.  
Fig. 16: Load Current into 10mOhm load during short circuit test  
at Vin = 48Vdc. Top Trace: Load Current (20A/div). Bottom  
Trace: Output Voltage (5V/div). Time Scale: 1ms/div.  
Fig. 15: Input reflected ripple current (is) measured through a  
12uH inductor/220uF capacitor filter at the source at full rated  
load current and Vin = 48Vdc. Vertical Axis: 20mA/div. Time  
Scale: 2 μs/div.  
ZD-02069 REV. 1.0  
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Page 10 of 11  
QTS48T67096 DC-DC Converter  
485W at 48Vin Quarter-Brick Bus Converter  
Preliminary Data Sheet  
Physical Information  
Pad/Pin Connections  
Pad/Pin #  
Function  
Vin (+)  
1
2
3
4
5
6
7
ON/OFF  
Vin (-)  
Vout (+)  
Vout (-)  
Vout (+)  
Vout (-)  
QTS48T67096 Platform Notes  
All dimensions are in inches [mm]  
All pins are .032 x .032  
Pin Material & Finish: Brass Alloy with Matte  
Tin over Nickel  
H=0.480” Max  
CL=0.010” Min  
Tolerances:  
x.xxx in. +/- .010 [x.xx mm +/- 0.25]  
x.xx in. +/- .020 [x.x mm +/- 0.5]  
Unless otherwise indicated  
Converter Part Numbering Scheme/Ordering Information  
Rated  
Load  
Current  
Product  
Series  
Input  
Voltage  
Mounting  
Scheme  
Output  
Voltage  
ON/OFF  
Logic  
Maximum  
Height [HT] Length [PL]  
Pin  
Special  
Features  
Environmental  
G
QTS  
48  
T
67  
096  
-
N
C
A
P
No Suffix RoHS  
Pb solder exempt  
compliant1  
N ⇒  
Through  
hole  
Through  
hole  
Negative  
P Latching  
Overcurrent  
Protection  
1/4th  
Brick  
Format  
T⇒  
Through-  
hole  
67 67 A 096 9.6 V  
38-55 V  
G RoHS  
compliant for all six  
substances  
A 0.188”  
B 0.145”  
C 0.110”  
C 0.48”  
P ⇒  
Positive  
The example above describes P/N QTS48T67096-NCAPG: 38-55 VDC input, through-hole mounting, 67A @ 9.6VDC output, negative  
ON/OFF logic, a maximum height of 0.48”, a through the board pin length of 0.188”, latching OCP , and RoHS compliant. Consult factory for  
the complete list of available options.  
1
The solder exemption is for customers choosing to use the exemptions for lead in solders for servers, storage and storage array systems,  
and network infrastructure equipment for switching, signaling, transmission, and network management for telecommunications.  
NUCLEAR AND MEDICAL APPLICATIONS - Power-One products are not designed, intended for use in, or authorized for use as critical  
components in life support systems, equipment used in hazardous environments, or nuclear control systems without the express written  
consent of the respective divisional president of Power-One, Inc.  
TECHNICAL REVISIONS - The appearance of products, including safety agency certifications pictured on labels, may change depending on  
the date manufactured. Specifications are subject to change without notice.  
ZD-02069 REV. 1.0  
www.power-one.com  
Page 11 of 11  
厂商 型号 描述 页数 下载

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QTS-016-01-L-D-DP [ 暂无描述 ] 1 页

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