Ceramic capacitor set with a range of values and a 50 V rating for general electronics work Key benefits - Broad value range for versatile use: values include small pF levels such as 30 pF and 1 pF, as well as larger values like 100 pF and 220 nF, enabling both precision and filtering tasks. - Standardized value codes for quick identification: common three-digit markings are used to denote capacitance, for example 101 equals 100 pF, 683 equals 68 000 pF, and 224 equals 220 000 pF. - Clear voltage rating for reliable operation: most capacitors are rated at 50 V, suitable for many low to moderate voltage circuits. - Ceramic construction for stability: designed for dependable performance in typical electronic applications. - Easy reference for measurement and testing: capacitance meters noted in the data, including a 82 pF example at 50 V, support verification and quality checks. - Data-driven because the collection includes both capacitance and voltage information, aiding compatibility decisions. Specifications at a glance - Type: Ceramic capacitors - Voltage rating: 50 V (mainly) - Capacitance range examples: 30 pF, 1 pF, 100 pF, 220 nF, and other values in the collection - Capacitance markings: 101 = 100 pF; 683 = 68 000 pF; 224 = 220 000 pF - Capacitance meter reference: 82 pF at 50 V noted in the data How to use and read - Capacitance values are often marked with three-digit codes; refer to the examples above to translate codes into pF or nF. - When sourcing parts for a circuit, match the voltage rating to the circuit requirement, with 50 V being the common rating in this collection. Applications and use scenarios - Decoupling and noise reduction on low to moderate voltage PCBs: place capacitors near ICs to stabilize power rails and reduce high-frequency noise. - Signal filtering in analog and RF circuits: select appropriate capacitance values (pF to nF range) to shape frequency response and filter unwanted signals. - Timing and coupling in microcontroller or logic circuits: use small capacitance values to influence timing characteristics and inter-stage coupling where appropriate.