NC7WZ16P6X Ficha técnica, pdf y precio onsemi

Discover comprehensive details in the NC7WZ16P6X Reference manual. Access in-depth information, specifications, and features of this component in the PDF format, ideal for your technical needs.

Marcas: onsemi

Descargar: NC7WZ16P6X Datasheet PDF

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En stock: 13,630

Tipo de lógica: Buffer, no inversor

Número de elementos: 2

Número de bits por elemento: 1

Paquete: 6-TSSOP, SC-88, SOT-363

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nc7wz16p6x

If you’re looking for a fast and efficient inverter, the NC7WZ16P6X could be just what you need. It works within a 2V to 5.5V range and has a super-fast speed with a typical propagation delay of just 3.6ns at 5V. Its ultra-low input current is perfect for low-power designs. The output can drive standard loads, making it reliable for most logic circuits. With high noise tolerance, it can operate in noisy environments, and it also includes current-limiting protection for long-term stability. It’s great for low-power circuits, digital signal processing, and energy-saving designs.

nc7wz16p6x pinout diagram

Número PIN	Nombre del pin	Descripción de la función
1	A	Input pin (signal input)
2	Y	Output pin (signal output)
3	Tierra	Ground (electrical ground connection)
4	VCC	Power supply input pin (2V to 5.5V)

Here’s the pinout for the NC7WZ16P6X. The A pin is the input where you send your signal, and it gets inverted and output through the Y pin. Y provides the inverted signal, and can drive standard logic circuits, but be sure not to exceed the IC’s rated output current. GND is the ground pin for stable operation, and VCC is the power supply pin—keep it within the 2V to 5.5V range for stable performance.

Note: Make sure the power supply stays within the recommended range, and limit the input current to avoid damage. With low static power consumption, it’s ideal for low-power designs.

nc7wz16p6x equivalent schmitt trigger ic

Especificación	NC7WZ16P6X	74LVC1G14	SN74LVC1G14
Tipo de paquete	SOT-23 (P6X)	SOT-23	SOT-23
Rango de voltaje de entrada	2V to 5.5V	1.65V to 5.5V	1.65V to 5.5V
Propagation Delay	3.6 ns	5,6 ns	5,5 ns
Tipo de entrada	Inversor	Schmitt Trigger	Schmitt Trigger
Corriente de salida	Standard logic output	6mA (low level), +6mA (high level)	6mA (low level), +6mA (high level)
Operating Temperature Range	-40°C a +125°C	-40°C a +125°C	-40°C a +125°C
Typical Icc	2μA	1μA	1μA

If you’re considering alternatives to the NC7WZ16P6X, the 74LVC1G14 and SN74LVC1G14 are solid options. They’re Schmitt triggers with similar voltage ranges and output capabilities, and they come in the same SOT-23 package. However, their propagation delay is a bit higher (5.5 to 5.6ns) compared to the faster 3.6ns delay of the NC7WZ16P6X. If speed is a priority, the NC7WZ16P6X might be the better choice. Also, while these Schmitt triggers offer good noise tolerance, their input logic differs from the inverter in the NC7WZ16P6X, so you should check whether the Schmitt trigger feature is necessary for your design.

nc7wz16p6x input buffer circuit

Here’s how the NC7WZ16P6X works: when you feed your input signal, it first goes through the chip’s built-in high-speed CMOS buffer. This cleans up and inverts your signal. Then it drives the output, usually connected to loads like capacitances from PCB traces or cables, and resistances from the next circuit stage. This buffering setup helps keep the input isolated from the output, giving you clean and fast signals, perfect for your high-speed digital circuits or low-power designs.

nc7wz16p6x noise immunity design

The NC7WZ16P6X isn’t exactly a Schmitt trigger, but its fast switching means noise or slow edges won’t easily disrupt your circuit. At 5V, the high-low threshold gap is about 2V, offering solid noise immunity. Its strong output stage helps minimize reflections or glitches. When designing, adding simple resistors and capacitors at the output can prevent signal echoes from long traces. Keep inputs neat—short wires and proper filtering resistors or capacitors help avoid noise. This way, you’ll easily achieve a stable, low-noise signal path, perfect for high-speed, low-power embedded designs.

nc7wz16p6x signal conditioning wiring

When wiring the NC7WZ16P6X for signal conditioning, connect your sensor, switch, or logic signal to input pin A—it’s high impedance, great for weak signals. Pin Y outputs the inverted signal to your MCU, counter, or communication interface. Power it simply from a stable 2V~5.5V supply and add a 0.1µF capacitor near VCC to reduce noise. Keep load capacitance under 15pF, or use a resistor if it’s higher. A 10kΩ load resistor helps keep signals stable. It’s ideal for sharpening slow edges, voltage-level shifting, or simple debouncing with an RC network.

nc7wz16p6x smd logic application

The NC7WZ16P6X is versatile in SMD logic circuits. It can clean up slow or noisy digital signals, making them fast and reliable—perfect for high-speed interfaces or switch debouncing. With a wide voltage range (2V~5.5V), it’s great for level shifting between logic levels, like 3.3V and 5V. In space-constrained PCBs, it can replace traditional 74-series inverters, saving space. Its strong output drive capability allows it to drive multiple inputs or long lines. With ultra-low static power consumption, it’s ideal for battery-powered devices.