Fast Acting Large Current Surface Mounted Fuse is NEW product - large current version with high current reach 60A and multiple voltage level AC 125V 250V, DC 32V/60V/72V/80V/125V/250V.
1032 Fast Acting Large Current Chip Surface Mount Fuse 1A 125V For LED Driver
Introduction of Fast Acting Large Current Surface Mounted Fuse
1032 Fast Acting Large Current Chip Surface Mount Fuse, featured with small size, rapid fusing, 50mA~60A specification limit, -55℃~+125℃ working environment, high breaking capacity, high anti-vibration capacity, shock resistance and SMT fitness, is a current protection device designed for high-power industrial application. The device is widely applicable to module power supply, server, energy storage management system and other application environments.
Main Features of Fast Acting Large Current Surface Mounted Fuse
Fast acting,Inrush withstand capability
Surface mount high current fuse
Available in ratings of 20 to 60 Amperes
Higher voltage rating up to 100VDC
10.25mm×3.20mm square shape surface mount
-55°C ~125°C Operating temperature
Excellent environmental integrity
Enhanced thermal cycling endurance
RoHS compliant
Halogen Free
Typical Application of Fast Acting Large Current Surface Mounted Fuse
Storage system power
Cooling fan system for PC server
Voltage regulator module
Base station power supply
Voltage regulator module for PC server
High end servers / Blade computing
Battery Management System
Agency Approval of Fast Acting Large Current Surface Mounted Fuse
Agency |
Ampere Range |
Agency File Number |
UL |
50mA ~ 7A-30A |
E340427(JDYX2) |
CUL |
50mA ~ 7A-30A |
E340427(JDYX8) |
Dimension of Fast Acting Large Current Surface Mounted Fuse (mm)
Electrical Characteristics of Fast Acting Large Current Surface Mounted Fuse
% of Ampere Rating(In) |
Blowing Time |
100% * In |
4 hours Min |
200% * In |
120 sec Max |
Ordering Information of Fast Acting Large Current Surface Mounted Fuse
P/N |
Ampere Rating |
Voltage Rating |
Breaking Capacity |
Nominal Cold Resistance (Ohms) |
I2TMelting Integral(A2.S) |
R1032.0200 |
200mA |
125VAC 250VAC |
50A@300VAC 50A@250VAC 200A@125VAC |
0.920 |
0.125 |
R1032.0250 |
250mA |
0.860 |
0.145 |
||
R1032.0300 |
300mA |
0.620 |
0.162 |
||
R1032.0315 |
315mA |
0.550 |
0.189 |
||
R1032.0375 |
375mA |
0.470 |
0.200 |
||
R1032.0400 |
400mA |
0.380 |
0.238 |
||
R1032.0500 |
500mA |
0.320 |
0.275 |
||
R1032.0600 |
600mA |
0.285 |
0.470 |
||
R1032.0630 |
630mA |
0.256 |
0.566 |
||
R1032.0700 |
700mA |
0.208 |
0.805 |
||
R1032.0750 |
750mA |
0.175 |
1.240 |
||
R1032.0800 |
800mA |
0.155 |
1.880 |
||
R1032.1100 |
1A |
0.148 |
3.500 |
||
R1032.1125 |
1.25A |
0.102 |
4.760 |
||
R1032.1150 |
1.5A |
0.085 |
6.305 |
||
R1032.1160 |
1.6A |
0.075 |
6.505 |
||
R1032.1200 |
2A |
0.044 |
8.950 |
||
R1032.1250 |
2.5A |
0.043 |
16.025 |
||
R1032.1300 |
3A |
0.033 |
21.560 |
||
R1032.1315 |
3.15A |
0.029 |
22.750 |
||
R1032.1350 |
3.5A |
0.027 |
27.050 |
||
R1032.1400 |
4A |
0.025 |
31.808 |
||
R1032.1500 |
5A |
0.019 |
40.250 |
||
R1032.1600 |
6A |
0.018 |
67.245 |
||
R1032.1630 |
6.3A |
0.017 |
73.550 |
||
R1032.1700 |
7A |
0.015 |
76.280 |
||
R1032.2100 |
10A |
0.013 |
77.350 |
||
R1032.2120 |
12A |
0.012 |
78.180 |
||
R1032.2150 |
15A |
0.011 |
79.280 |
||
R1032.2200 |
20A |
0.011 |
80.180 |
||
R1032.2250 |
25A |
0.010 |
83.350 |
||
R1032.2300 |
30A |
0.010 |
90.080 |
Fuse Selection Guide
The purpose of this reference guide is to assist engineers to select fuses that will provide effective circuit protection for designated electronic components or equipment.
Factors to consider
1) Select the proper fuse size according to the available circuit space.
2) Select the proper fuse shape according to the mounting method of the circuit.
3) Select the proper fuse according to the product’s required safety certification standards: C-UL, VDE, SEMKO, PSE, CCC, KC, BSI.
4) Determine the proper fuse voltage rating according to the applied voltage of the circuit.
5) Select the appropriate fuse current rating (In) according to the maximum normal working current of the circuit.
- Considered the fuse decaying factors.
- Considered the derating of fuse based on the ambient temperature.
6) Consider the current pulse
- Calculate the circuit’s maximum current pulse I2t value.
- Calculate the required I2t value of fuse.
Time-lag fuse typically is recommended when distinctive current pulse is specified.
7) Select the fuse type.
8) Test run the selected fuse in the circuit/product.
Average Time Current Curves of Fast Acting Large Current Surface Mounted Fuse