• MX41 BA1 Water Cooled Resonant Capacitor

MX41 BA1 Water Cooled Resonant Capacitor

  • Series: MX41 BA1
  • Working Voltage Range: 400VAC - 1100VAC
  • Capacitance Range: 0.1uF - 5uF
  • Working Temperature: -40℃~+85℃
  • Load Life: 100000h at UN and 70℃,30000h at Urms
  • Application: Widely used in high power and high frequency resonant devices

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■ Product's Introduction

MX41 BA1 Water Cooled, Conduction Cooled Capacitors

APPLICATION

Induction heating, heat treatment, plasma applications, resonant circuits, medical imaging, wireless power transfer, EV (electric vehicle) charging, IPT, high frequency inverters, etc.

ELECTRICAL CHARACTERISTICS

Conduction water-cooled

Polypropylene dielectric

Low dissipation factor(tgδ),low ESL and low ESR

High voltage, high frequency and high dv/dt,

High current resistance, excellent heat dissipation

TECHNICAL DATA

 Reference standards  GB/T 3984-2004 IEC 60110.1
 Operating temperature range  -40℃~+85
 Capacitance range  0.1μF5μF
 Rated capacitance  100kVar-1500 kVar
 Rated voltage  400VAC-1100VAC
 Tolerance  ±5% ±10%
 Test voltage between terminals  1.5UNAC 10s
 3.5UNDC 10s at 25±5
 Dissipation factor  tgδ5×10-4   at 25±5℃,1kHz
 Insulation resistance  R•C3000sat 100VDC25±5℃,60s
 Life expectancy  100000h at UN  and 70℃,30000h at Urms
  
■ Specification

Part Number Rated Voltage Vrms Nominal Capaciance μF at 1Khz Max Irms A Max Power kVar Freq Range
@Full Power
(kHz)
ESR
Dimension(mm) Case Code Replacment
CSP 305B/600
L H T
MX41401405JBA1301-01 400 4.0 800 300 74.6-84.9 0.2 80 80 36.5 BA1 -
MX41501155JBA1301-01 500 1.5 650 300 127.3-149.5 0.4 80 80 36.5 BA1 155HC4500K2UM8
MX41501265JBA1301-01 500 2.6 750 300 73.5-114.8 0.3 80 80 36.5 BA1 265HC3500K4VM6
MX41601105KBA1301-01 600 1.0 650 300 132.7-1224 0.4 80 80 36.5 BA1 105HC3600K4TM6
MX41601125KBA1301-01 600 1.2 650 300 110.6-186.9 0.4 80 80 36.5 BA1 125HC3600K4TM6
MX41701244KBA1201-01 700 0.24 350 200 270.8-406.4 1.3 80 80 36.5 BA1 254HC3700K4TM6
MX41701334KBA1301-01 700 0.33 500 300 295.4-402 1.0 80 80 36.5 BA1 334HC3700K4TM6
MX41701664KBA1301-01 700 0.66 500 300 147.7-201 0.8 80 80 36.5 BA1 664HC3700K4TM6
MX41701684JBA1301-01 700 0.68 500 300 143.4-195 0.8 80 80 36.5 BA1 -
MX41102334KBA1301-01 1000 0.33 500 300 144.8-402 1.0 80 80 36.5 BA1 334HC4102K2EM8
MX41102664KBA1301-01 1000 0.66 500 300 72.4-201 0.8 80 80 36.5 BA1 664HC4102K2EM8
MX41102664KBA1401-01 1000 0.66 600 400 96.5-217 0.8 80 80 37.5 BA1 664HC4102K4TM6
MX41501305JBA1401-01 500 3.0 800 400 84.9 0.3 80 80 36.5 BA1 505HC3400K4TM6
MX41401505KBA1401-01 400 5.0 1000 400 79.6 0.2 80 80 36.5 BA1 505HC3400K4VM6
 
Replacement parts of 155HC4500K2UM8,265HC3500K4VM6,105HC3600K4TM6,125HC3600K4TM6,254HC3700K4TM6,334HC3700K4TM6,664HC3700K4TM6,
334HC4102K2EM8,664HC4102K2EM8,664HC4102K4TM6,505HC3400K4TM6,505HC3400K4VM6
 
Above is gerneral purpose specificaton, we can custom design according to customers' requirement.
More specification please inquiry us.

■ How To Order
Send us ORDER CODE for quote.


Guide to Using Water cooled Capacitors
1. Choosing the Best Capacitor for Your Needs
 
When choosing a capacitor for an application, select a capacitor with maximum rated voltage RMS, current and reactive power that most closely matches the highest operating voltage and frequency of the application. Take into account any ripple and any DV bias that can occur during operation, as even momentarily over voltage damages the capacitor and reduces its life time. The maximum ratings appear clearly on the data sheet of each capacitor.
 
The reactive power formula is:
 
Qc= V2rms x C x 2πf x 10-6
 
where 
 
Qc is reactive power in kVAr
 
Vrms is RMS voltage in volts
 
C is capacitance in µF
 
f is frequency in kHz
 
2. Proper Cooling and Termination for Power Capacitors
 
conduction-cooled power capacitors handle a large amount of power in relatively small volume. In order to operate correctly, capacitors must be terminated properly to ensure uniform cooling of all internal elements.
 
Four critical requirements must be addressed when using conduction cooled capacitors:
 
1. Cooling. The entire area of the capacitor’s contacts surface must be placed in contact with the heat sink using a thermal conductive paste to ensure optimal heat conductance. This is particularly critical when the capacitor is working at its maximum limits. Never tighten the bolts beyond the maximum allowed torque.
 
2. Conduction losses. Most power capacitors are able to supply hundreds of amperes. When several capacitors are connected to a common collector, insufficient collectors’ surface area may result, due to the skin effect, in extreme heating of the bus bar where the current is collected, and overheating of the capacitor despite proper cooling.
 
3. Induction heating of capacitors. When several conduction-cooled capacitors are assembled between two bus bars, those located closest to the output terminals may experience induction heating. This situation should be avoided by mounting the capacitors as illustrated in diagram B or by building a low inductance path between the bus bars as illustrated in diagram C. The C-Cap technology overcomes this deficiency.

 

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