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Rochester Electronics MC74HC393N Environmental and export classification status description

The OnsemiMC74HC393N is a high-speed CMOS (Complementary Metal-Oxide-Semiconductor) dual 4-stage binary ripple counter. It features two independent binary counters, each with a divide-by-2, a divide-by-4, a divide-by-8, and a divide-by-16 counter. It operates at a wide voltage range and is commonly used in various digital applications. Functions: - Dual 4-stage binary ripple counter - Divide-by-2, divide-by-4, divide-by-8, and divide-by-16 counter functions - High-speed CMOS technology Applications: - Frequency division in digital circuits - Clock signal generation - Event counting in digital systems Alternative Components: Some alternative components to the OnsemiMC74HC393N include: 1. SN74HC393N from Texas Instruments 2. CD74HC393E from Texas Instruments 3. TC74HC393AF from Toshiba Semiconductor Embedded Modules: No specific embedded modules are associated with the OnsemiMC74HC393N, as it is primarily used as a standalone IC in various digital applications. Related Q&A: 1. What is the maximum operating frequency supported by the OnsemiMC74HC393N? The OnsemiMC74HC393N can typically support operating frequencies in the range of several megahertz. 2. Can the OnsemiMC74HC393N be cascaded for higher modulus counting applications? Yes, multiple MC74HC393N ICs can be cascaded to achieve higher modulus counting as needed. 3. Is the OnsemiMC74HC393N compatible with both 3.3V and 5V systems? Yes, the OnsemiMC74HC393N is generally compatible with a wide range of voltage supplies, including both 3.3V and 5V systems. 4. What is the power consumption of the OnsemiMC74HC393N in typical operating conditions? The power consumption of the MC74HC393N is relatively low in typical operating conditions, making it suitable for power-conscious applications. 5. Are there any specific layout considerations to keep in mind when using the OnsemiMC74HC393N in a design? It is recommended to follow standard PCB layout practices to minimize noise and ensure signal integrity when integrating the MC74HC393N into a circuit design.