VHX

Short Description:

Polymer Hybrid Aluminum Electrolytic Capacitor

Low ESR, small size, high allowable ripple current, high reliability

105°C 2000 hours guarantee, can meet vibration resistance requirements

Surface mount type, high temperature lead-free reflow soldering products,

Compliant with AEC-Q200, has responded to ROHS directive


Product Detail

Product Tags

Technical Parameter

Series Life(Hrs) Features Rated voltage range (V.DC) Rated capacitance (uF) Operating temperature range (°C)
VHX 2000 ultra miniaturization 16~100 6.8~1500 -55~105

The main technical parameters

Item characteristic
range of working temperature -55~+105℃
Rated working voltage 16~100V
capacity range 6.8 ~ 1500uF 120Hz 20℃
Capacity tolerance ±20% (120Hz 20℃)
loss tangent 120Hz 20℃
Leakage current※ Below 0.01 CV(uA), charge at rated voltage for 2 minutes at 20°C
Equivalent Series Resistance (ESR) 100kHz 20°C below the value in the list of standard products
Temperature Characteristics (Impedance Ratio) Z(-25℃)/Z(+20℃)≤2.0 ; Z(-55℃)/Z(+20℃)≤2.5 (100kHz)
Durability At a temperature of 105°C, apply a rated voltage including a rated ripple current, and last for 2000H/5000H, then place it under 2 curves for 16/hour and then test, the product should meet
Guaranteed life time ΦD≤6.3mm:2000Hrs ΦD≥8mm:5000Hrs
Capacitance change rate ±30% of initial value
Equivalent Series Resistance (ESR) ≤200% of the initial specification value
loss tangent ≤200% of the initial specification value
local temperature storage leakage current ≤Initial specification value
Store at 105°C for 1000 hours, place it at room temperature for 16 hours before testing, test temperature: 20°C±2°C, the product should meet
Capacitance change rate ±30% of initial value
Equivalent Series Resistance (ESR) ≤200% of the initial specification value
loss tangent ≤200% of the initial specification value
leakage current to initial specification value
High temperature and humidity After applying the rated voltage for 1000 hours at 85°C and 85%R.H humidity, and placing it at 20°C for 16 hours, the product should meet
Capacitance change rate ±30% of initial value
Equivalent Series Resistance (ESR) ≤200% of the initial specification value
loss tangent ≤200% of the initial specification value
leakage current ≤Initial specification value

※When in doubt about the leakage current value, please place the product at 105°C and apply the rated working voltage for 2 hours, and then conduct the leakage current test after cooling down to 20°C.

Product Dimensions (Unit:mm)

ΦD B C A H E K a
6.3 6.6 6.6 2.6 0.70±0.20 1.8 0.5MAX ±0.5
8 8.3(8.8) 8.3 3 0.90±0.20 3.1 0.5MAX
10 10.3(10.8) 10.3 3.5 0.90±0.20 4.6 0.70±0.20

frequency correction factor

Capacitance C Frequency (Hz) 120Hz 500Hz 1kHz 5kHz 10kHz 20kHz 40kHz 100kHz 200kHz 500kHz
C<47uF correction
factor
0.12 0.2 0.35 0.5 0.65 0.7 0.8 1 1 1.05
47uF≤C<120uF 0.15 0.3 0.45 0.6 0.75 0.8 0.85 1 1 1
C≥120uF 0.15 0.3 0.45 0.65 0.8 0.85 0.85 1 1 1

List Of Standard Products

Rated voltage Nominal capacity (uF) Product Dimension tanδ 120Hz ESR (mΩ100kHz) Rated ripple current Model
(surge voltage) (V) DxL(mm) (mA r.m.s/105℃100kHz) Standard Products Earthquake-resistant products
16(18.4) 100 63x5.8 0.16 45 1600 VHXC0581c101MVCG
16(18.4) 220 6.3x5.8 0.16 45 1600 VHXC0581C221MVCG
16(18.4) 150 6.3x77 0.16 27 2200 VHXC0771C151MVCG ---
16(18.4) 270 6.3x77 0.16 27 2200 VHXC0771C271MVCG
16(18.4) 470 8x10.5 0.16 22 2500 VHXD1051C471MVCG VHXD1051C471MVKZ
16(18.4) 680 8x10.5 0.16 22 2500 VHXD1051C681MVCG VHXD1051C681MVKZ
16(18.4) 680 10x10.5 0.16 18 2600 VHXE1051C681MVCG VHXE1051C681MVKZ
16(18.4) 1000 10x10.5 0.16 18 2600 VHXE1051C102MVCG VHXE1051C102MVKZ
16(18.4) 1000 10x13 0.16 15 3200 VHXE1301C102MVCG VHXE1301C102MVKZ
16(18.4) 1500 10x13 0.14 15 3200 VHXE1301C152MVCG VHXE1301C152MVKZ
25(28.8) 82 6.3/5.8 0.14 50 1300 VHXC0581E820MVCG
25(28.8) 150 6.3x5.8 0.14 50 1300 VHXC0581E151MVCG
25(28.8) 150 6.3x77 0.14 30 2000 VHXC0771E151MVCG
25(28.8) 220 6.3x77 0.14 30 2000 VHXC0771E221MVCG
25(28.8) 330 8x10.5 0.14 27 2300 VHXD1051E331MVCG VHXD1051E331MVKZ
25(28.8) 470 8x10.5 0.14 27 2300 VHXD1051E471MVCG VHXD1051E471MVKZ
25(28.8) 470 10x10.5 0.14 20 2500 VHXE1051E471MVCG VHXE1051E471MVKZ
25(28.8) 680 10x10.5 0.14 20 2500 VHXE1051E681MVCG VHXE1051E681MVKZ
25(28.8) 680 10x13 0.14 16 3000 VHXE1301E681MVCG VHXE1301E681MVKZ
25(28.8) 1000 10x13 0.14 16 3000 VHXE1301E102MVCG VHXE1301E102MVKZ
35(41) 47 63x5.8 0.12 60 1300 VHXC0581V470MVCG
35(41) 100 63x5.8 0.12 60 1300 VHXC0581V101MVCG
35(41) 68 6.3x77 0.12 35 2000 VHXC0771V680MVCG
35(41) 150 6.3x77 0.12 35 2000 VHXC0771V151MVCG
35(41) 180 8x10.5 0.12 27 2300 VHXD1051V181MVCG VHXD1051V181MVKZ
35(41) 330 8x10.5 0.12 27 2300 VHXD1051V331MVCG VHXD1051V331MVKZ
35(41) 330 10x10.5 0.12 20 2500 VHXE1051V331MVCG VHXE1051V331MVKZ
35(41) 470 10x10.5 0.12 20 2500 VHXE1051V471MVCG VHXE1051V471MVKZ
35(41) 470 10x13 0.12 17 3000 VHXE1301V471MVCG VHXE1301V471MVKZ
35(41) 680 10x13 0.12 17 3000 VHXE1301V681MVCG VHXE1301V681MVKZ
50(58) 22 63x5.8 0.1 80 1100 VHXC0581H220MVCG
50(58) 39 6.3/5.8 0.1 80 1100 VHXC0581H390MVCG
50(58) 33 6.3x77 0.1 40 1800 VHXC0771H330MVCG
50(58) 56 6.3x77 0.1 40 1800 VHXC0771H560MVCG
50(58) 82 8x10.5 0.1 30 2100 VHXD1051H820MVCG VHXD1051H820MVKZ
50(58) 120 8x10.5 0.1 30 2100 VHXD1051H121MVCG VHXD1051H121MVKZ
50(58) 120 10x10.5 0.1 25 2300 VHXE1051H121MVCG VHXE1051H121MVKZ
50(58) 220 10x10.5 0.1 25 2300 VHXE1051H221MVCG VHXE1051H221MVKZ
50(58) 180 10x13 0.1 19 2800 VHXE1301H181MVCG VHXE1301H181MVKZ
50(58) 330 10x13 0.1 19 2800 VHXE1301H331MVCG VHXE1301H331MVKZ
63(73) 15 63x5.8 0.08 100 1000 VHXC0581J150MVCG
63(73) 27 63x5.8 0.08 100 1000 VHXC0581J270MVCG
63(73) 22 6.3x77 0.08 80 1500 VHXC0771J220MVCG
Rated voltage Nominal capacity (uF) Product Dimension DxL(mm) tanδ 120Hz ESR (mΩ100kHz) Rated ripple current Model
(surge voltage) (V) (mA r.m.s/105℃100kHz) Standard Products Earthquake-resistant products
63(73) 47 6.3x77 0.08 80 1500 VHXC0771J470MVCG
63(73) 56 8x10.5 0.08 40 1900 VHXD1051J560MVCG VHXD1051J560MVKZ
63(73) 100 8x10.5 0.08 40 1900 VHXD1051J101MVCG VHXD1051J101MVKZ
63(73) 100 10x10.5 0.08 30 2100 VHXE1051J101MVCG VHXE1051J101MVKZ
63(73) 150 10x10.5 0.08 30 2100 VHXE1051J151MVCG VHXE1051J151MVKZ
63(73) 150 10x13 0.08 20 2600 VHXE1301J151MVCG VHXE1301J151MVKZ
63(73) 220 10x13 0.08 20 2600 VHXE1301J221MVCG VHXE1301J221MVKZ
80(92) 8.2 63x5.8 0.08 120 900 VHXC0581K8R2MVCG
80(92) 10 6.3x5.8 0.08 120 900 VHXC0581K100MVCG
80(92) 12 6.3x77 0.08 100 1400 VHXC0771K120MVCG
80(92) 27 6.3x77 0.08 100 1400 VHXC0771K270MVCG
80(92) 33 8x10.5 0.08 45 1600 VHXD1051K330MVCG VHXD1051K330MVKZ
80(92) 56 8x10.5 0.08 45 1600 VHXD1051K560MVCG VHXD1051K560MVKZ
80(92) 56 10x10.5 0.08 35 1800 VHXE1051K560MVCG VHXE1051K560MVKZ
80(92) 100 10x10.5 0.08 35 1800 VHXE1051K101MVCG VHXE1051K101MVKZ
80(92) 82 10x13 0.08 22 2300 VHXE1301K820MVCG VHXE1301K820MVKZ
80(92) 120 10x13 0.08 22 2300 VHXE1301K121MVCG VHXE1301K121MVKZ
100(115) 6.8 6.3/5.8 0.08 120 900 VHXC0582A6R8MVCG
100(115) 10 6.3x5.8 0.08 120 900 VHXC0582A100MVCG
100(115) 8.2 6.3x77 0.08 100 1400 VHXC0772A8R2MVCG
100(115) 15 6.3x77 0.08 100 1400 VHXC0772A150MVCG
100(115) 22 8x10.5 0.08 50 1600 VHXD1052A220MVCG VHXD1052A220MVKZ
100(115) 33 8x10.5 0.08 50 1600 VHXD1052A330MVCG VHXD1052A330MVKZ
100(115) 33 10x10.5 0.08 40 1800 VHXE1052A330MVCG VHXE1052A330MVKZ

 

Conductive polymer hybrid aluminum electrolytic capacitors are a type of capacitor that combines the benefits of both aluminum electrolytic and conductive polymer capacitors. They are widely used in the electronics industry due to their high capacitance, low ESR, and long lifespan. In this guide, we'll explore how these capacitors work and why they're a preferred choice for many applications.

Introduction to Conductive Polymer Hybrid Aluminum Electrolytic Capacitors.

Conductive polymer hybrid aluminum electrolytic capacitors are a type of capacitor that has gained popularity in recent years due to their unique combination of features. These capacitors are made by combining the benefits of aluminum electrolytic capacitors and conductive polymer capacitors, resulting in a capacitor that has high capacitance, low ESR, and a long lifespan. In this guide, we'll take a closer look at how these capacitors work and why they're a preferred choice in the electronics industry.

How Conductive Polymer Hybrid Aluminum Electrolytic Capacitors Work.

Conductive polymer hybrid aluminum electrolytic capacitors work by combining the benefits of two different types of capacitors. The aluminum electrolytic capacitor provides high capacitance, while the conductive polymer capacitor provides low ESR (Equivalent Series Resistance) and a long lifespan. The conductive polymer layer is added to the aluminum electrolytic capacitor to improve its performance. The conductive polymer layer is made up of a conductive polymer material that is added to the aluminum oxide layer of the capacitor. This layer helps to reduce the ESR of the capacitor and improve its performance. The result is a capacitor that has high capacitance, low ESR, and a long lifespan, making it a preferred choice in the electronics industry.

Advantages of Conductive Polymer Hybrid Aluminum Electrolytic Capacitors.

Conductive polymer hybrid aluminum electrolytic capacitors offer several advantages over traditional capacitors. Firstly, they have a longer lifespan due to the conductive polymer layer, which helps to prevent the formation of aluminum oxide. This means that they can be used in applications where reliability is crucial, such as in automotive electronics or medical devices. Secondly, they have a lower ESR, which means that they can handle higher ripple currents and provide better filtering performance. Finally, they have a higher capacitance than other types of capacitors, which makes them ideal for use in high-power applications. Overall, conductive polymer hybrid aluminum electrolytic capacitors are a reliable and efficient choice for many different electronic applications.

Applications of Conductive Polymer Hybrid Aluminum Electrolytic Capacitors.

Conductive polymer hybrid aluminum electrolytic capacitors are used in a wide range of electronic applications due to their reliability and efficiency. They are commonly used in automotive electronics, medical devices, power supplies, and telecommunications equipment. In automotive electronics, they are used in engine control units, airbag systems, and navigation systems. In medical devices, they are used in pacemakers, defibrillators, and other implantable devices. In power supplies, they are used in voltage regulators, DC-DC converters, and inverters. In telecommunications equipment, they are used in base stations, routers, and switches. Overall, conductive polymer hybrid aluminum electrolytic capacitors are a versatile component that can be used in many different electronic applications.

Choosing the Right Conductive Polymer Hybrid Aluminum Electrolytic Capacitor for Your Project.

When choosing a conductive polymer hybrid aluminum electrolytic capacitor for your project, there are several factors to consider. First, consider the voltage rating and capacitance required for your application. You should also consider the operating temperature range and the expected lifespan of the capacitor. Additionally, it's important to consider the size and shape of the capacitor, as well as any specific mounting requirements. Finally, consider the manufacturer's reputation for quality and reliability, as well as any certifications or approvals that may be required for your application. By carefully considering these factors, you can choose the right conductive polymer hybrid aluminum electrolytic capacitor for your project and ensure reliable performance over the long term.


  • Previous:
  • Next:

  • Write your message here and send it to us

    Products categories