8 V Fixed Capacitors 15

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Part	Manufacturer	Capacitor Type	Mounting Feature	Capacitance	Rated DC Voltage (URdc)	Maximum Operating Temperature	Dielectric Material	Tan Delta	Minimum Operating Temperature	Terminal Finish	Leakage Current (mA)	Package Shape	Polarity	Height	Width	Ripple Current (mA)	Diameter	Equivalent Series Resistance / ESR (mohm )	Additional Features	Packing Method	Size Code	JESD-609 Code	No. of Terminals	Package Style (Meter)	Length	Terminal Shape	Positive Tolerance	Reference Standard	Negative Tolerance
M39006/30-0038	Vishay Intertechnology	TANTALUM CAPACITOR	THROUGH HOLE MOUNT	430 uF	8 V	125 Cel	TANTALUM (WET)	0.23	-55 Cel	Tin/Lead (Sn/Pb)	0.002	TUBULAR PACKAGE	POLARIZED				9.53 mm	710				e0	2	Axial	19.46 mm	WIRE	5 %	MIL-PRF-39006/30	5 %
M39006/30-0040	Vishay Intertechnology	TANTALUM CAPACITOR	THROUGH HOLE MOUNT	850 uF	8 V	125 Cel	TANTALUM (WET)	0.3	-55 Cel	Tin/Lead (Sn/Pb)	0.004	TUBULAR PACKAGE	POLARIZED				9.53 mm	470				e0	2	Axial	26.97 mm	WIRE	10 %	MIL-PRF-39006/30	10 %
8TPE100MAZB	Panasonic	TANTALUM CAPACITOR	SURFACE MOUNT	100 uF	8 V	105 Cel	TANTALUM (SOLID POLYMER)	0.08	-55 Cel	PALLADIUM GOLD	0.08		POLARIZED	1.9 mm	2.8 mm	1400		35	ESR IS MEASURED AT 100 KHZ, RIPPLE CURRENT IS MEASURED AT 100 KHZ AND 45CEL	TR, Embossed, 7 Inch	1411	e4	2	SMT	3.5 mm	J BEND	20 %		20 %
M39006/25-0009	Vishay Intertechnology	TANTALUM CAPACITOR	THROUGH HOLE MOUNT	180 uF	8 V	125 Cel	TANTALUM (WET)	0.41	-55 Cel	TIN LEAD	0.002	TUBULAR PACKAGE	POLARIZED			270	4.78 mm		RIPPLE CURRENT IS MEASURED AT 40KHZ, 85CEL			e0	2	Axial	11.51 mm	WIRE	20 %	MIL-PRF-39006/25	20 %
M39006/250009	Cornell Dubilier Electronics	TANTALUM CAPACITOR	THROUGH HOLE MOUNT	180 uF	8 V	125 Cel	TANTALUM (WET)	0.41	-55 Cel		.002	TUBULAR PACKAGE	POLARIZED			390							2			WIRE	20 %	MIL-C-39006/25	20 %
A700X107M008ATE010	KEMET Corporation	ALUMINUM ELECTROLYTIC CAPACITOR	SURFACE MOUNT	100 uF	8 V	125 Cel	ALUMINUM (SOLID POLYMER)	0.06	-55 Cel	MATTE TIN OVER NICKEL	.032	RECTANGULAR PACKAGE	POLARIZED	4 mm	4.3 mm	4700		10	ESR IS MEASURED AT 100 KHZ, RIPPLE CURRENT IS MEASURED AT 1000 KHZ, 20 CEL	TR, 7 INCH	2917	e3	2	SMT	7.3 mm	J BEND	20 %		20 %
F380K476MSA	KYOCERA AVX	TANTALUM CAPACITOR	SURFACE MOUNT	47 uF	8 V	105 Cel	TANTALUM (SOLID POLYMER)	0.1	-55 Cel		0.0376		POLARIZED	.8 mm	1.25 mm	237		200	ESR AND RIPPLE CURRENT IS MEASURED AT 100KHZ	TR, 7 INCH	0805		2	SMT	2 mm	ONE SURFACE	20 %		20 %
8TPG47M	Panasonic	TANTALUM CAPACITOR	SURFACE MOUNT	47 uF	8 V	105 Cel	TANTALUM (SOLID POLYMER)	0.1	-55 Cel		0.0376	RECTANGULAR PACKAGE	POLARIZED	1.1 mm	2.8 mm	1000		70	ESR IS MEASURED AT 100KHZ, RIPPLE CURRENT IS MEASURED AT 100KHZ AND 45CEL	TR, Embossed, 7 Inch	1411		2	SMT	3.5 mm	WRAPAROUND	20 %		20 %
A700X107M008ATE012	KEMET Corporation	ALUMINUM ELECTROLYTIC CAPACITOR	SURFACE MOUNT	100 uF	8 V	125 Cel	ALUMINUM (SOLID POLYMER)	0.06	-55 Cel	Matte Tin (Sn) - with Nickel (Ni) barrier	0.032	RECTANGULAR PACKAGE	POLARIZED	4 mm	4.3 mm	4300		12	ESR IS MEASURED AT 100 KHZ, RIPPLE CURRENT IS MEASURED AT 100 KHZ AND 20CEL	TR, EMBOSSED PLASTIC, 7 INCH	2917	e3	2	SMT	7.3 mm	J BEND	20 %		20 %
T520B476M008ATE035	KEMET Corporation	TANTALUM CAPACITOR	SURFACE MOUNT	47 uF	8 V	105 Cel	TANTALUM (SOLID POLYMER)	0.08	-55 Cel	Matte Tin (Sn)	0.0376	RECTANGULAR PACKAGE	POLARIZED	1.9 mm	2.8 mm	475		35	ESR AND RIPPLE CURRENT IS MEASURED AT 100KHZ	TR, EMBOSSED PLASTIC, 7 INCH	1411	e3	2	SMT	3.5 mm	J BEND	20 %		20 %
TCSOPE0K336M8R-ZF1	KYOCERA AVX	TANTALUM CAPACITOR	SURFACE MOUNT	33 uF	8 V	105 Cel	TANTALUM (SOLID POLYMER)	0.15	-55 Cel		0.0264		POLARIZED	.8 mm	1.25 mm	516		150	ESR IS MEASURED AT 100KHZ; RIPPLE CURRENT IS MEASURED AT 100KHZ, 45CEL	TR, 7 INCH	0805		2	SMT	2 mm	ONE SURFACE	20 %		20 %
A700V336M008ATE018	KEMET Corporation	ALUMINUM ELECTROLYTIC CAPACITOR	SURFACE MOUNT	33 uF	8 V	125 Cel	ALUMINUM (SOLID POLYMER)	0.06	-55 Cel	Matte Tin (Sn) - with Nickel (Ni) barrier	0.011	RECTANGULAR PACKAGE	POLARIZED	2 mm	4.3 mm	3900		18	ESR IS MEASURED AT 100 KHZ, RIPPLE CURRENT IS MEASURED AT 100 KHZ AND 20CEL	TR, EMBOSSED PLASTIC, 7 INCH	2917	e3	2	SMT	7.3 mm	J BEND	20 %		20 %
A700X107M008ATE015	KEMET Corporation	ALUMINUM ELECTROLYTIC CAPACITOR	SURFACE MOUNT	100 uF	8 V	125 Cel	ALUMINUM (SOLID POLYMER)	0.06	-55 Cel	MATTE TIN OVER NICKEL	0.032	RECTANGULAR PACKAGE	POLARIZED	4 mm	4.3 mm	3900		15	ESR IS MEASURED AT 100 KHZ, RIPPLE CURRENT IS MEASURED AT 100 KHZ AND 20CEL	TR, EMBOSSED PLASTIC, 7 INCH	2917	e3	2	SMT	7.3 mm	J BEND	20 %		20 %
M39006/22-0030	Vishay Intertechnology	TANTALUM CAPACITOR	THROUGH HOLE MOUNT	220 uF	8 V	125 Cel	TANTALUM (WET)	0.37	-55 Cel	TIN LEAD	0.001	TUBULAR PACKAGE	POLARIZED			369.9	7.14 mm		RIPPLE CURRENT IS MEASURED AT 40KHZ, 85CEL			e0	2	Axial	16.28 mm	WIRE	20 %	MIL-PRF-39006/22	20 %
M39006/220030	Cornell Dubilier Electronics	TANTALUM CAPACITOR	THROUGH HOLE MOUNT	220 uF	8 V	125 Cel	TANTALUM (WET)	0.37	-55 Cel		.001	TUBULAR PACKAGE	POLARIZED			534.3							2			WIRE	20 %	MIL-C-39006/22	20 %

Fixed Capacitors

Fixed capacitors are electronic components that have a fixed capacitance value that cannot be changed. They are used in electronic circuits to provide a specific capacitance value for a given application.

Fixed capacitors are made using a variety of dielectric materials, including ceramic, tantalum, aluminum electrolytic, polyester, and polypropylene. The choice of dielectric material depends on the specific requirements of the application, such as operating voltage, temperature range, and stability.

Fixed capacitors are available in a variety of shapes and sizes, such as through-hole, surface mount, and leaded types. They can also be classified based on their operating voltage, tolerance, and temperature coefficient.

Some common applications of fixed capacitors include decoupling, filtering, timing, and coupling circuits. In decoupling circuits, fixed capacitors are used to filter out unwanted high-frequency noise and ensure stable power supply operation. In timing circuits, fixed capacitors are used to set the time constant and determine the frequency of oscillation.

One of the main advantages of fixed capacitors is their stable capacitance value, which does not change over time or with changes in operating conditions. This makes them suitable for applications that require consistent and predictable performance.