AVX 0402 COG (NPO) Dielectric MLCCs AVX COG (NPO) dielectric capacitors offer one of the most stable capacitor dielectrics available.Capacitance change with temperature<BR/>Is 0 ±30ppm/°C which is less than ±0.3% C from -55°C to +125°C.Operating Temperature Range 55ºC to +125ºC

AVX 0402 COG (NPO) Dielectric MLCCs AVX COG (NPO) dielectric capacitors offer one of the most stable capacitor dielectrics available.Capacitance change with temperature<BR/>Is 0 ±30ppm/°C which is less than ±0.3% C from -55°C to +125°C.Operating Temperature Range 55ºC to +125ºC

SR Series C0G dielectric<BR/>Conformally coated

AVX is the number one tantalum capacitor supplier with four manufacturing plants worldwide, which provides flexibility and capacity for the demanding electronic industry. AVX is the global leader in MnO2 solid tantalum technologies such as smallest case size MnO2, highest temperature capabilities up to 230°C and lowest DCL product offering. AVX has the industry leading position in high reliability tantalum capacitors and is the largest supplier of high reliability solid tantalum capacitors for medical and military/aerospace applications with the industry&#146;s widest range of medical, COTS-Plus, MIL spec and space level products.AVX Conformal technology offers leading edge solutions for audio and infrastructure applications.AVX has an open and progressive policy on ethical supply and is first to be in compliance with OECD guidelines and legislation on conflict materials. Multi-anode construction<BR/>Super low ESR<BR/>"Mirror" multi-anode construction used with D, Y case capacitors reduces ESL to half The AVX TPM Series of tantalum capacitors feature a "mirror" multi-anode construction used with the D case capacitors to reduce ESL to half. The AVX TPM series multi-anode ultra low ESR capacitors are PB-free and RoHS compliant.

SR Series C0G dielectric<BR/>Conformally coated

CK Series The AVX CK Series of Radial leaded capacitors provide industry standard models to your applications. Available in a wide variety of Voltages, capacitance and tolerance. All ceramic models are highly reliable and excellent quality.

AVX 1206 MLCC Series X7R formulations are called &#147;temperature stable&#148; ceramics and fall into EIA Class II materials, and COG (NPO) is the most popular &#147;temperature-compensating&#148; EIA Class I ceramic materials Multilayer Ceramic Capacitors whose temperature variation is within ±15% from -55°C to +125°C<BR/>The capacitance change is non-linear<BR/>AVX high voltage chips have advantages of high value, low leakage and small size, thus applications include as snubbers in high frequency power converters, resonators in SMPS and high voltage coupling/DC blocking<BR/>These high voltage chip designs exhibit low ESRs at high frequencies

SA Series C0G dielectric<BR/>Conformally coated

TPS Series 10 to 16Vdc The TPS series of low ESR SMD capacitors from AVX are designed for use mainly in power supply applications. The TPS series of capacitor is available with 14 different case size options. Low ESR (equivalent series resistance)<BR/>High ripple current capability<BR/>Low power and heat dissipation

TPS Series 10 to 16Vdc The TPS series of low ESR SMD capacitors from AVX are designed for use mainly in power supply applications. The TPS series of capacitor is available with 14 different case size options. Low ESR (equivalent series resistance)<BR/>High ripple current capability<BR/>Low power and heat dissipation

TPS Series 2.5 to 6.3Vdc The TPS series of low ESR SMD capacitors from AVX are designed for use mainly in power supply applications. The TPS series of capacitor are available in 14 different case sizes. Low ESR (equivalent series resistance)<BR/>High ripple current capability<BR/>Low power and heat dissipation

TPS Series 10 to 16Vdc The TPS series of low ESR SMD capacitors from AVX are designed for use mainly in power supply applications. The TPS series of capacitor is available with 14 different case size options. Low ESR (equivalent series resistance)<BR/>High ripple current capability<BR/>Low power and heat dissipation