EXCEL FAMILY SWITCHMODE POWER SUPPLY SPECIFICATIONS
Specifications:
1. General Character:
The model WSL400, WSL500, WSX400, WSZ400 and WSZ500 series power supplies are designed for use in medical, information technology
or laboratory environments. They provide a "universal" AC input operation.
1.1 The model number suffix "M", indicates that a specific model is for use in a medical environment.
1.2 Optional suffix indicates mechanical input configuration:
N, North American (or NEMA) plug-in
U, United Kingdom plug-in BS1363
E, European mainland, CEE7/16
A, Australian, AS3112
H, Non-detachable Hospital Grade input cord
If blank, then the standard IEC320 inlet is specified.
2. Electrical Specifications:
2.1 Input: 100-250Vac 50/60Hz
(90-264 Vac, 47-63 Hz is the tested operational range, 100-250 Vac range is marked on product to comply with safety standards.)
2.1.1 Input Fuses:
A current fuse is incorporated in each of the 2 AC lines, slo
blo type fuse element, 2AG size, configured with integral welded on leads. Fuse Rating: WSL400 family = 1.25A, 250V / WSL500 family = 2A, 250V / WSX400, WSZ400 and WSZ500 families = 3.5A, 250V.
2.1.2 Input Switch:
An optional input switch may be provided if required. A "I" and a "O"
will be marked on it, or next to it.
2.2 Output:
( Optional model number suffix letter "M", indicates medical
usage. )
| WSL433 WSL439 WSL445 WSL450 WSL455 WSL460 WSL465 WSL470 WSL475 WSL480 WSL490 WSL410 WSL411 WSL412 WSL413 WSL414 WSL415 WSL416 WSL418 WSL420 WSL422 WSL424 WSL426 WSL428 WSL430 WSL432 WSL436 WSL440 WSL444 WSL448 |
3.3Vdc 8.2A 3.9Vdc 8.2A 4.5Vdc 8.2A 5.0Vdc 8.2A 5.5Vdc 7.6A 6.0Vdc 7.1A 6.5Vdc 6.7A 7.0Vdc 6.2A 7.5Vdc 5.83A 8.0Vdc 5.5A 9.0Vdc 5.0A 10Vdc 4.7A 11Vdc 4.4A 12Vdc 4.2A 13Vdc 3.85A 14Vdc 3.55A 15Vdc 3.3A 16Vdc 3.1A 18Vdc 2.8A 20Vdc 2.5A 22Vdc 2.3A 24Vdc 2.1A 26Vdc 1.9A 28Vdc 1.8A 30Vdc 1.7A 32Vdc 1.6A 36Vdc 1.4A 40Vdc 1.25A 44Vdc 1.14A 48Vdc 1.04A |
WSL533 WSL539 WSL545 WSL550 WSL555 WSL560 WSL565 WSL570 WSL575 WSL580 WSL590 WSL510 WSL511 WSL512 WSL513 WSL514 WSL515 WSL516 WSL518 WSL520 WSL522 WSL524 WSL526 WSL528 WSL530 WSL532 WSL536 WSL540 WSL544 WSL548 |
3.3Vdc 10A |
WSZ433 WSZ439 WSZ445 WSZ450 WSZ455 WSZ460 WSZ465 WSZ470 WSZ475 WSZ480 WSZ490 WSZ410 WSZ411 WSZ412 WSZ413 WSZ414 WSZ415 WSZ416 WSZ418 WSZ420 WSZ422 WSZ424 WSZ426 WSZ428 WSZ430 WSZ432 WSZ436 WSZ440 WSZ444 WSZ448 |
3.3Vdc 12A 3.9Vdc 12A 4.5Vdc 12A 5.0Vdc 12A 5.5Vdc 10.9A 6.0Vdc 10.8A 6.5Vdc 10A 7.0Vdc 9.3A 7.5Vdc 8.7A 8.0Vdc 8.1A 9.0Vdc 7.2A 10Vdc 6.7A 11Vdc 6.7A 12Vdc 6.7A 13Vdc 6.2A 14Vdc 5.7A 15Vdc 5.3A 16Vdc 5.0A 18Vdc 4.5A 20Vdc 4.0A 22Vdc 3.6A 24Vdc 3.3A 26Vdc 3.1A 28Vdc 2.9A 30Vdc 2.7A 32Vdc 2.5A 36Vdc 2.2A 40Vdc 2.0A 44Vdc 1.8A 48Vdc 1.7A |
| WSZ512 WSZ513 WSZ514 WSZ515 WSZ516 WSZ518 WSZ520 WSZ522 WSZ524 WSZ526 WSZ528 WSZ530 WSZ532 WSZ536 WSZ540 WSZ544 WSZ548 |
12Vdc 7.5A 13Vdc 6.9A 14Vdc 6.4A 15Vdc 6.0A 16Vdc 5.6A 18Vdc 5.0A 20Vdc 4.5A 22Vdc 4.1A 24Vdc 3.8A 26Vdc 3.5A 28Vdc 3.2A 30Vdc 3.0A 32Vdc 2.8A 36Vdc 2.5A 40Vdc 2.3A 44Vdc 2.0A 48Vdc 1.9A |
WSX412 WSX413 WSX414 WSX415 WSX416 WSX418 WSX420 WSX422 WSX424 WSX426 WSX428 WSX430 WSX432 WSX436 WSX440 WSX444 WSX448 |
12Vdc 8.3A 13Vdc 7.7A 14Vdc 7.15A 15Vdc 6.7A 16Vdc 6.25A 18Vdc 5.55A 20Vdc 5.0A 22Vdc 4.5A 24Vdc 4.2A 26Vdc 3.8A 28Vdc 3.6A 30Vdc 3.3A 32Vdc 3.1A 36Vdc 2.8A 40Vdc 2.5A 44Vdc 2.3A 48Vdc 2.1A |
2.3 Output Variance, Voltage:
+/- 5% at Full Load, any input voltage or environmental condition
2.4 Load Regulation, Voltage:
Not to exceed 800 millivolts for 100% to 0% load change, varies due to output cord
selected, remote sense option available, contact factory.
2.5 Protection Circuitry: The output is protected from short circuit and prolonged overload.
3. Mechanical Specifications:
3.1 Enclosure Dimensions:
WSL400 and WSL500 families:4.75"L X 3.00"W X 1.90 "H inches.
WSZ400 and WSZ500 families: 6.5 "L X 3.75"W X 2.17"H inches. WSX400 family: 6.5 "L X 3.75"W X 2.56"H inches.
Enclosure outline drawings available upon request.
3.2 Input Configuration: Male IEC320 power inlet, 2 or 3 conductor option. Optional input connector lock available. Optional non-detachable input cords available for various international requirements.
3.3 Output Configuration: 6 foot length standard, various conductor arrangements and jacket material selections are available. Cordsets may be terminated with various dc connectors, custom output connector assemblies are available, contact customer service for details. Standard in-stock cordsets can be seen in the Jerome Industries engineering manual / catalog on pages 10 and 11.
4. Environmental:
|
4.1 Operating :
|
Please contact customer service if a wider operating range is required. |
4.2 Storage :
Temperature: -40 to 75C
Humidity: 10% to 95% non-condensing
Atmosperic pressure: 50 to 106 kPa
5. Regulatory Compliance
5.1 Safety Compliance: Regulatory Agency UL TUV Standard Classification File#
These power supplies have been certified by the following safety agencies to the standards
shown:
5.1.1 Single Output Models
These power supplies have been certified by the following safety agencies to the standards shown:
UL testing and
evaluation of
Canadian
requirements.
UL60601-1
UL60950-1
C22.2#601-1
C22.2#60950-1
EN60601-1
EN60950-1
Isolation, BF
SELV
Isolation, BF
SELV
Isolation, BF
SELV
E160908
E148586
E160908
E148586
B040924072017
B040924072017
5.2 Power supplies shipped to European market need to bear the CE mark. Jerome Industries
can supply a CE mark under the following standards:
| Standard EN60601-1 EN60950-1 |
Classification Isolation, BF SELV |
5.3 Electro Magnetic Compatibility:
Meets requirements of European EMC directive and FCC requirements.
5.3.1 Medical:
Meets EMC
requirements from EN60601-1-2 (EMC requirements for ElectroMedical Equipment).
5.3.2 Emissions:
Meets level B requirements of FCC 47 CFR part 15 and CISPR11 (EN55011) and CISPR22 (EN55022),
EN61000-6-3 (light industrial) and line harmonic emissions EN61000-3-1.
5.3.3 Immunity:
Meets CISPR24 (EN55024), EN61326 and EN61000-6-3.
5.3.4 EMC Responsibility:
It is the responsibility of the OEM customer to verify EMC compliance with his system
before marketing the end-use system.
Notes:
1) Emissions are monitored on all prototypes using a spectrum analyzer with peak, quasi peak and average mode power measurement capabilities. Conducted emissions are recorded for both 120 Vac and 230 Vac input conditions. A correlated radiated emissions program is used in order to economically verify the radiated emissions from a specific model.
The emissions program works from the premises of the power supply acting as a dipole antenna radiator, one side of the dipole antenna being the input cord, the other side being the output cord. Levels are monitored on the cords by a common mode current sensing device operating into a spectrum analyzer. Correlation factors have been established which are based upon the difference between radiated field measurements made at independent labs and Jerome Industries lab common mode current measurements on the cords of reference power supplies.
Using this technique, Jerome Industries has experienced a 100% passing rate for prototypes submitted for radiated field emissions testing at independent labs.
OEM System Engineer Instructions
* The EMC characteristics of the final system comprised of both the power supply and the main system must be evaluated to the applicable EMC environment regulations.
* Should a power supply need repair, please return it along with a note describing the particular problem to:
Jerome Industries Inc.
730 Division St.
Elizabeth, NJ 07201
U.S.A.
* Circuit operation block diagrams, isolation diagrams, and a list of safety critical components will be available on request to appropriately qualified personnel.
* All products which contain externally replaceable double input fuses shall contain the following text in the system installation manual: "CAUTION: DOUBLE POLE/NEUTRAL FUSING"
Medical Products
* When used with medical products the Instruction Manual prepared for the
end use product must incorporate at a minimum, the following power supply warning notices:
a) Warning: When cleaning the power unit, use a cloth dampened with cleaning alcohol on the outside of the enclosure only. Do not immerse product in water or a safety hazard could arise during use.
b) Warning: Do not use this power unit in the presence of flammable anesthetics.
* Periodic leakage current testing should be done on the combined power supply and end-use system on a yearly basis when used in a hospital environment where such test equipment is commonly available.
Appendix A
WSL400/WSL500 Family Typical Leakage Current
Measurements per IEC60601-1 Clause 19
| NC | SFC | |
| Earth Leakage Current | 153.85 | 234.0 |
| Enclosure Leakage Current | 1.08 | 1.68 |
| Patient Leakage Current (to output negative cord connection) |
19.38 | 86.69 |
| Patient Leakage Current (floating), Mains Voltage Applied (to output negative cord connection) |
N/A | 274.2 |
WSX400/WSZ400/WSZ500 Family Typical Leakage Current
Measurements per IEC60601-1 Clause 19
| NC | SFC | |
| Earth Leakage Current | 234 | 420 |
| Enclosure Leakage Current | 0.9 | 1.7 |
| Patient Leakage Current (to output negative cord connection) |
15 | 107 |
| Patient Leakage Current (floating), Mains Voltage Applied (to output negative cord connection) |
N/A | 383 |
Notes:
1) Measurement data in microamps
2) Measurements made with 275 Vac, 60 Hz input.
3) Worst case measurement condition, including humidity preconditioning.
4) Reduced leakage designs available (including CF category compliant designs), contact factory for availability.
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