The SN74LVC1G17QDCKRQ1 serves as a Schmitt-trigger buffer, adeptly implementing the Y = A Boolean function. Its design embraces a broad voltage spectrum, providing flexibility for a variety of uses. Leveraging CMOS technology, it delivers elevated output levels while curbing static power usage. Multiple packaging options further contribute to its suitability for various circuit configurations.
The expansive voltage range of the SN74LVC1G17QDCKRQ1 responds to diverse supply voltage needs found in contemporary digital systems. This adaptability ensures harmonious operation and reliability across multiple platforms. Its energy-efficient nature aligns with modern calls for technology that respects resource conservation.
Deployment of the buffer in practical scenarios highlights the reduction of static power consumption as instrumental in fostering energy-efficient functionality. You can frequently select such components for battery-operated devices where extending battery duration takes precedence. This experience emphasizes the role of CMOS technology in refining performance without excessive energy use.
Pin Number |
Pin Name |
Description |
1 |
NC |
Not connected |
2 |
A |
Input |
3 |
GND |
Ground |
4 |
Y |
Output |
5 |
VCC |
Power terminal |
Feature |
Description |
Qualified for Automotive Applications |
Yes |
Supports 5-V VCC Operation |
Yes |
Input Voltage Range |
Accepts voltages up to 5.5 V |
Maximum Propagation Delay (tpd) |
8 ns at 3.3 V |
Power Consumption |
Low, with a maximum ICC of 20 μA |
Output Drive Capability |
±24 mA at 3.3 V |
Ioff Support |
Supports live insertion, partial-power-down mode, and
back-drive protection |
ESD Protection |
JEDEC JS-001 compliant |
Human-body Model ESD Protection |
2000 V |
Charged-device Model ESD Protection |
1000 V |
Type |
Parameter |
Lifecycle Status |
ACTIVE (Last Updated: 4 days ago) |
Factory Lead Time |
6 Weeks |
Mount |
Surface Mount |
Mounting Type |
Surface Mount |
Package / Case |
5-TSSOP, SC-70-5, SOT-353 |
Number of Pins |
5 |
Operating Temperature |
-40°C ~ 125°C TA |
Packaging |
Tape & Reel (TR) |
Series |
Automotive, AEC-Q100, 74LVC |
JESD-609 Code |
e4 |
Pbfree Code |
Yes |
Part Status |
Active |
Moisture Sensitivity Level (MSL) |
1 (Unlimited) |
Number of Terminations |
5 |
ECCN Code |
EAR99 |
Terminal Finish |
Nickel/Palladium/Gold (Ni/Pd/Au) |
Packing Method |
TR |
Voltage - Supply |
1.65V ~ 5.5V |
Terminal Position |
DUAL |
Terminal Form |
GULL WING |
Peak Reflow Temperature (Cel) |
260 |
Number of Functions |
1 |
Supply Voltage |
1.8V |
Frequency |
100MHz |
Base Part Number |
74LVC1G17 |
Pin Count |
5 |
Output Type |
Push-Pull |
Polarity |
Non-Inverting |
Power Supplies |
3.3V |
Number of Channels |
1 |
Nominal Supply Current |
500nA |
Propagation Delay |
6 ns |
Quiescent Current |
20μA |
Input Type |
Schmitt Trigger |
Turn On Delay Time |
14 ns |
Family |
LVC/LCX/Z |
Logic Function |
Buffer, Schmitt Trigger |
Output Characteristics |
3-STATE |
Logic Type |
Buffer, Non-Inverting |
Max I(ol) |
0.032 A |
Schmitt Trigger |
YES |
Power Supply Current-Max (ICC) |
0.02mA |
Number of Output Lines |
1 |
Ambient Temperature Range High |
125°C |
Height |
1.1mm |
Length |
2mm |
Width |
1.25mm |
Thickness |
900μm |
REACH SVHC |
No SVHC |
Radiation Hardening |
No |
RoHS Status |
ROHS3 Compliant |
Lead Free |
Lead Free |
Part Number |
Manufacturer |
Package / Case |
Number of Pins |
Logic Function |
Propagation Delay |
Supply Voltage |
Technology |
Mount |
Terminal Position |
View Compare |
SN74LVC1G17QDCKRQ1 |
Texas Instruments |
5-TSSOP, SC-70-5, SOT-353 |
5 |
Buffer, Schmitt Trigger |
6 ns |
1.8 V |
CMOS |
Surface Mount |
DUAL |
SN74LVC1G17QDCKRQ1 |
SN74LVC2G04DCKR |
Texas Instruments |
6-TSSOP, SC-88, SOT-363 |
6 |
- |
8 ns |
1.8 V |
CMOS |
Surface Mount |
DUAL |
SN74LVC1G17QDCKRQ1 VS SN74LVC2G04DCKR |
SN74AHCT1G14DCKR |
Texas Instruments |
5-TSSOP, SC-70-5, SOT-353 |
5 |
Buffer, Inverter |
7.5 ns |
3.3 V |
CMOS |
Surface Mount |
DUAL |
SN74LVC1G17QDCKRQ1 VS SN74AHCT1G14DCKR |
SN74AHC1G04DCKRE4 |
Texas Instruments |
5-TSSOP, SC-70-5, SOT-353 |
5 |
Buffer, Inverter |
7.5 ns |
3.3 V |
CMOS |
Surface Mount |
DUAL |
SN74LVC1G17QDCKRQ1 VS SN74AHC1G04DCKRE4 |
MC74VHC1G05DFT2 |
ON Semiconductor |
5-TSSOP, SC-70-5, SOT-353 |
5 |
Buffer, Inverter, Schmitt Trigger |
8 ns |
5 V |
CMOS |
Surface Mount |
DUAL |
SN74LVC1G17QDCKRQ1 VS MC74VHC1G05DFT2 |
The SN74LVC1G17QDCKRQ1 device is distinguished by its balanced output drive, thanks to its CMOS structure. Elevating its performance involves addressing bus congestion, which could lead to excessive current flow and possible component damage. Quick signal transitions into light loads require careful routing to prevent issues such as signal ringing.
Inputs should remain stable in multi-bit logic devices. Floating inputs occur when, for example, only two inputs of a triple-input AND gate are utilized, or when three out of four buffer gates are in use. With many functions or parts left idle, external connections may carry undefined voltages, leading to unpredictable operating states. Such input terminals should stay connected.
To address floating, connect all unused inputs of digital logic devices to either a high or low bias. The specific logic level applied to unused inputs is guided by the device’s intended function. Typically, connecting unused inputs to GND or Vcc is common, and chosen based on necessity or convenience.
Part Number |
Description |
Manufacturer |
SN74LVC1G17DCKTE4LOGIC |
Single 1.65-V to 5.5-V buffer with Schmitt-Trigger
inputs, 5-SC70, -40 to 125°C |
Texas Instruments |
74LVC1G17GWLOGIC |
IC LVC/LCX/Z Series, 1-Input Non-Invert Gate, PDSO5,
Plastic, MOC-203, SC-88A, SOT353-1, TSSOP-5, Gate |
NXP Semiconductors |
74LVC1G17GW-Q100 |
Buffer, LVC/LCX/Z Series, 1-Function, 1-Input, CMOS,
PDSO5 |
Nexperia |
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Cylindrical Battery Holders.pdf
The operational voltage range covers 1.65 to 5.5 V VCC. This adaptable range accommodates diverse applications across various devices, allowing integration into multiple electronic systems. In practical scenarios, maintaining this range can enhance both stability and efficiency, aligning with the complex requirements of intricate circuitry. This adaptability often appeals to engineers who seek to balance efficiency with diverse operational demands.
This device performs the Y = A function, indicating a direct correlation where the output replicates the input. Its straightforwardness aids usage in digital circuits where uncomplicated logic processing is desired. You can often appreciate this simplicity as it minimizes complexity, fostering reliability and predictability within systems. This direct approach aligns well with those valuing clear and efficient circuit design.
It features high output drive capabilities, supporting robust functionality under varying voltage conditions. This broadens the scope of potential applications as you can tailor circuitry to handle different load conditions, promoting consistent performance even in dynamic environments. This characteristic frequently becomes a focal point for those looking to maximize device efficacy across variable contexts.
A variety of packages are available, addressing diverse design and spatial requirements. This selection equips engineers with the flexibility to determine the best package for specific needs, whether compact or expansive. Adaptable packaging ensures adherence to industry standards, fostering efficient implementation in various operational settings. This versatility often proves invaluable to you seeking harmony between form and function.