Which packages are listed?

SN74LVC1G08DBVR is SOT23-5 with C08K marking, and SN74LVC1G08DCKR is SC70-5 with CE5 marking.

SN74LVC1G08 Single 2-Input Positive-AND Gate

Q: What logic function does SN74LVC1G08 implement?

It is one 2-input positive-AND gate. Y is HIGH only when both A and B are HIGH.

Q: What supply range is recommended?

VCC is specified from 1.65 V to 5.5 V for operation. The separate 1.5 V to 5.5 V entry is data retention only.

Q: Can the inputs accept 5.5 V when VCC is lower?

The recommended input range is 0 V to 5.5 V. Verify output-level compatibility and all board-level sequencing paths.

Q: Is SN74LVC1G08 a Schmitt-trigger AND gate?

No. The specification does not provide hysteresis thresholds.

Q: Does the output support tri-state or open-drain operation?

No. Y is a push-pull output with no enable pin.

Q: What propagation-delay values are listed?

The PDF lists typical tpd values of 11.6 ns at 1.8 V, 6.6 ns at 2.5 V, 5.4 ns at 3.3 V and 4.3 ns at 5 V under the stated loads.

Q: What does Ioff provide?

Ioff is specified with VCC = 0 V and VI or VO = 5.5 V, with ±10 µA maximum over the full temperature range.

Q: Can unused inputs be left open?

No. All unused inputs must be held at VCC or GND.

Q: Do the listed applications establish product certification?

No. Qualification, safety, EMC, reliability and production validation remain system responsibilities.

NYFEA SN74LVC1G08 is a single 2-input positive-AND gate specified for 1.65 V to 5.5 V operation. It accepts input voltages up to 5.5 V, supports I_off partial-power-down operation and is offered in green SOT23-5 and SC70-5 packages.

Product scope: In positive logic, the device implements Y = A · B. Y is HIGH only when both A and B are HIGH. It is a push-pull AND gate, not a Schmitt-trigger input, open-drain output, tri-state buffer or analog switch.

Download SN74LVC1G08 Datasheet Contact NYFEA for Product Support

Use the current controlled PDF for threshold limits, output loading, switching conditions, package tolerances, tape orientation and production-release decisions.

Photorealistic NYFEA SN74LVC1G08 SOT23-5 two-input AND gate product appearance — NYFEA SN74LVC1G08 SOT23-5 product appearance. The full model marking is shown for page identification; use the dimensioned PDF for incoming inspection and PCB-library release.

LOGIC FUNCTION2-input positive-AND, Y = A · B

SUPPLYVCC 1.65 V to 5.5 V

INPUT RANGEVI 0 V to 5.5 V

TEMPERATURE-40 °C to +125 °C ambient

Product Overview and Selection Scope

SN74LVC1G08 integrates one 2-input positive-AND gate. The output is HIGH only when A and B are both HIGH. The specified operating supply is 1.65 V to 5.5 V, while each input may be driven from 0 V to 5.5 V under the recommended operating conditions. This input tolerance can assist mixed-voltage control paths, but the receiving logic threshold, output swing, power sequence and current paths still require system-level validation.

Signal qualification

Y asserts HIGH only after both positive-logic conditions are present. Either LOW input forces Y LOW.

Voltage domain

VCC is 1.65 V to 5.5 V for operation. VIH and VIL limits change with VCC; use the complete threshold table.

Power-down behavior

I_off is specified with VCC = 0 V and VI or VO = 5.5 V to limit backflow through the powered-down device path.

Package choice

SOT23-5 and SC70-5 share the pin assignment but have different markings, footprints and thermal impedances.

Selection boundary: The PDF does not specify Schmitt-trigger hysteresis, open-drain operation, tri-state control, wired logic, analog switching, fail-safe system behavior or end-product qualification. Select another function when any of those behaviors is required.

Logic Function, Truth Table and Pin Assignment

In positive logic, Y = A · B. Y is LOW when either input is LOW and becomes HIGH only for A = HIGH and B = HIGH.

SN74LVC1G08 two-input AND gate symbol and truth table — Positive-AND logic symbol and four-state truth table based on page 2 of the supplied Rev A.1 specification.

SN74LVC1G08 SOT23-5 and SC70-5 top-view pin configuration — Common top view for SOT23-5 and SC70-5: pin 1 A, pin 2 B, pin 3 GND, pin 4 Y and pin 5 VCC.

Pin	Name	Type	Function	Engineering note
1	A	Input	First positive-logic input	Hold at VCC or GND when unused.
2	B	Input	Second positive-logic input	Hold at VCC or GND when unused.
3	GND	Power	Ground	Use a short return to the local bypass capacitor.
4	Y	Output	Push-pull AND output	Do not connect to another active output.
5	VCC	Power	Supply	Place local decoupling near pins 5 and 3.

Ordering Codes and Package Selection

Ordering number	Temperature range	Package	Top marking	MSL	Packing
SN74LVC1G08DCKR	-40 °C to +125 °C	SC70-5 / SOT353 equivalent	CE5	MSL 3	Tape and reel, 3,000 units
SN74LVC1G08DBVR	-40 °C to +125 °C	SOT23-5	C08K	MSL 3	Tape and reel, 3,000 units

Additional lot, date, vendor, logo or environmental markings may appear. Confirm the full ordering code, package drawing, top marking and Q3 tape orientation during receiving inspection.

Recommended Operating Conditions and Absolute Limits

Recommended operating conditions define the functional design range. Absolute maximum ratings are stress limits only and do not establish normal operation or long-term reliability.

Parameter	Condition	Minimum	Maximum	Unit
Supply voltage, VCC	Operating	1.65	5.5	V
Supply voltage, VCC	Data retention only	1.5	5.5	V
Input voltage, VI	Operating	0	5.5	V
Output voltage, VO	Operating	0	VCC	V
Input rise/fall, tr or tf	VCC = 1.8 V ±0.15 V or 2.5 V ±0.2 V	-	20	ns/V
Input rise/fall, tr or tf	VCC = 3.3 V ±0.3 V	-	10	ns/V
Input rise/fall, tr or tf	VCC = 5 V ±0.5 V	-	5	ns/V
Ambient temperature, TA	Operating	-40	125	°C

Absolute maximum and handling limits

Parameter	Condition	Minimum	Maximum	Unit
Supply voltage	VCC	-0.5	6.5	V
Input voltage	VI	-0.5	6.5	V
Output voltage	High-impedance or power-off state	-0.5	6.5	V
Output voltage	HIGH or LOW state	-0.5	VCC + 0.5	V
Input clamp current	VI < 0 V	-50		mA
Output clamp current	VO < 0 V	-50		mA
Continuous output current	IO	±50		mA
Continuous VCC or GND current	-	±100		mA
Junction temperature	TJ	-65	150	°C
Storage temperature	Tstg	-65	150	°C

Thermal impedanceθJA = 208 °C/W for SOT23-5 and 283 °C/W for SC70-5, calculated in accordance with JESD-51.

HBM / CDM / MM±4000 V / ±1000 V / ±200 V. Handle in an ESD-protected area.

Power dissipationUse PD = (TJ(MAX) - TA) / RθJA and the actual PCB thermal environment.

DC Characteristics and Logic Levels

Unless otherwise noted, full-range limits apply from -40 °C to +125 °C. Typical values are characterized at +25 °C and are not guaranteed production limits.

VCC range	VIH minimum	VIL maximum	Engineering interpretation
1.65 V to 1.95 V	0.65 × VCC	0.30 × VCC	Thresholds scale with supply.
2.3 V to 2.7 V	1.7 V	0.7 V	Use the fixed guaranteed limits.
3.0 V to 3.6 V	2.2 V	0.8 V	Use the fixed guaranteed limits.
4.5 V to 5.5 V	0.70 × VCC	0.30 × VCC	Thresholds scale with supply.

Output levels, leakage and supply current

Parameter	Test condition	VCC	Temperature	Limit or typical value	Unit
VOH	IOH = -100 µA	1.65 V to 5.5 V	Full	Minimum VCC - 0.1 V	V
VOH	IOH = -4 / -8 / -16 / -24 / -32 mA	1.65 / 2.3 / 3.0 / 3.0 / 4.5 V	Full	Minimum 1.2 / 1.9 / 2.4 / 2.3 / 3.8 V	V
VOL	IOL = 100 µA	1.65 V to 5.5 V	Full	Maximum 0.1 V	V
VOL	IOL = 4 / 8 / 16 / 24 / 32 mA	1.65 / 2.3 / 3.0 / 3.0 / 4.5 V	Full	Maximum 0.45 / 0.30 / 0.40 / 0.55 / 0.55 V	V
II	A or B at 5.5 V or GND	0 V to 5.5 V	+25 °C / Full	Typical ±0.1 µA / maximum ±5 µA	µA
Ioff	VI or VO = 5.5 V	0 V	+25 °C / Full	Typical ±0.1 µA / maximum ±10 µA	µA
ICC	VI = 5.5 V or GND, IO = 0	1.65 V to 5.5 V	+25 °C / Full	Typical 0.1 µA / maximum 10 µA	µA
ΔICC	One input at VCC - 0.6 V; other at VCC or GND	3 V to 5.5 V	Full	Maximum 500 µA	µA

Threshold boundary: Input tolerance to 5.5 V does not convert the gate into a general-purpose level translator. Verify the guaranteed output HIGH level against the receiving device's VIH requirement at the actual VCC and load.

AC Switching and Test Conditions

The Rev A.1 PDF lists typical propagation-delay values under the stated supply, resistor and capacitive loads. Because no maximum t_pd values are given in the table, these numbers are engineering reference values rather than guaranteed worst-case timing limits.

Parameter	VCC	Load condition	Value status	Listed value	Unit
Propagation delay, tpd	1.8 V ±0.15 V	CL = 30 pF, RL = 1 kΩ	Typical	11.6	ns
Propagation delay, tpd	2.5 V ±0.2 V	CL = 30 pF, RL = 500 Ω	Typical	6.6	ns
Propagation delay, tpd	3.3 V ±0.3 V	CL = 50 pF, RL = 500 Ω	Typical	5.4	ns
Propagation delay, tpd	5.0 V ±0.5 V	CL = 50 pF, RL = 500 Ω	Typical	4.3	ns
Input capacitance, Ci	0 V	Source table condition	Typical	4	pF
Power-dissipation capacitance, Cpd	3.3 V / 5.0 V	f = 10 MHz	Typical	26 / 31	pF

SN74LVC1G08 propagation-delay load circuit and PDF-listed typical test values — Propagation-delay measurement summary based on page 8. CL includes probe and jig capacitance; the test source specifies one output transition per measurement.

Timing boundary: Do not convert the listed typical values into a guaranteed maximum frequency. The PDF includes generic enable/disable waveforms, but SN74LVC1G08 has no output-enable pin; validate finished-board timing over voltage, load and temperature.

Power Integrity, Input Handling and PCB Layout

The following layout is application guidance rather than a guaranteed reference circuit. Use the electrical tables for limits and validate the complete board power-distribution network and receiving logic interface.

SN74LVC1G08 bypass capacitor and input handling guidance — Keep the bypass loop short, define both inputs and verify the push-pull output load.

Do not leave inputs floating: the PDF requires unused inputs to be held at VCC or GND.
Apply the correct edge-rate limit: the maximum tr/tf entry changes from 20 ns/V at low supply to 5 ns/V at 5 V.
Check receiving VIH: a 5.5 V-tolerant input does not guarantee that a low-VCC output can drive every higher-voltage receiver.
Budget transition current: ΔICC is listed as 500 µA maximum under the stated VCC - 0.6 V input condition.
Prevent output contention: Y is push-pull and has no output-enable control.
Validate partial power-down: Ioff limits the device path; other PCB components can still create back-power paths.

SOT23-5 and SC70-5 Packages, Land Patterns and Packing

Both green package options share the same logical pin assignment but use different body dimensions, lead pitch, top marking and thermal impedance. Do not substitute one footprint for the other.

SN74LVC1G08 SOT23-5 and SC70-5 package outlines and recommended land patterns — High-resolution package and reference land-pattern summary based on pages 10 and 11 of the supplied specification.

Dimension	SOT23-5	SC70-5	Unit
Overall height A	1.050 to 1.250	0.900 to 1.100	mm
Body length D	2.820 to 3.020	2.000 to 2.200	mm
Body width E	1.500 to 1.700	1.150 to 1.350	mm
Overall lead span E1	2.650 to 2.950	2.150 to 2.450	mm
Lead pitch e	0.950 BSC	0.650 BSC	mm
Outer lead pitch e1	1.800 to 2.000	1.300 BSC	mm
Lead width b	0.300 to 0.500	0.150 to 0.350	mm
Lead thickness c	0.100 to 0.200	0.080 to 0.150	mm
Lead length L	0.300 to 0.600	0.260 to 0.460	mm

SN74LVC1G08 SOT23-5 and SC70-5 tape-and-reel dimensions — Both packages use a 7-inch reel, 9.5 mm reel width, 8.0 mm carrier tape, 4.0 mm pitch and Q3 pin-1 quadrant; pocket dimensions differ by package.

Application Guidance and Design Limitations

The Rev A.1 specification lists active noise elimination, barcode scanners, blood-pressure monitors, CPAP machines, fingerprint identification and network-attached storage. These are possible use contexts, not end-product approvals.

Active Noise EliminationCombine two digital qualification signals. The gate does not process the analog audio path.

Barcode ScannersCondition local interlock or ready states after checking edge rate, thresholds and load.

Blood-Pressure MonitorsUse only in non-safety logic paths after complete medical-system risk and qualification review.

CPAP MachinesCombine supervisory signals; do not treat this standard gate as a life-support safety element.

Fingerprint identification terminal icon

Fingerprint IdentificationCombine detect or enable conditions while respecting power-up and partial-power-down sequencing.

Qualification boundary: The supplied specification does not establish automotive, medical, functional-safety, life-support or fault-tolerant qualification. Validate EMC, ESD protection, power sequencing, thermal limits, assembly and environmental performance in the finished product.

SN74LVC1G08 Engineering FAQs

What logic function does SN74LVC1G08 implement?

It is one 2-input positive-AND gate. Y = A · B, so Y is HIGH only when both inputs are HIGH.

What supply range is recommended?

VCC is specified from 1.65 V to 5.5 V for operation. The separate 1.5 V to 5.5 V entry is identified as data retention only.

Can the inputs accept 5.5 V when VCC is lower?

The recommended input range is 0 V to 5.5 V and input leakage is characterized across VCC = 0 V to 5.5 V. Still verify output-level compatibility and all board-level sequencing paths.

Is SN74LVC1G08 a Schmitt-trigger AND gate?

No. The specification does not provide hysteresis thresholds. Use a Schmitt-trigger-qualified device when slow or noisy input transitions require hysteresis.

Does the output support tri-state or open-drain operation?

No. Y is a push-pull output with no enable pin. Do not connect it to another actively driven output or use it for wired logic.

What propagation-delay values are listed?

The PDF lists typical tpd values of 11.6 ns at 1.8 V, 6.6 ns at 2.5 V, 5.4 ns at 3.3 V and 4.3 ns at 5 V under the stated loads. It does not list maximum tpd values in that table.

What does Ioff provide?

Ioff is specified with VCC = 0 V and VI or VO = 5.5 V, with ±10 µA maximum over the full temperature range. It limits the device path but does not eliminate other board-level back-power routes.

Which package should be selected?

SN74LVC1G08DBVR is SOT23-5 with C08K marking. SN74LVC1G08DCKR is SC70-5 with CE5 marking. Both are MSL 3 and packed 3,000 units per reel.

Can unused inputs be left open?

No. The PDF explicitly requires all unused inputs to be held at VCC or GND.

Do the listed applications establish product certification?

No. The application list identifies possible use contexts only. Qualification, safety, EMC, reliability and production validation remain system responsibilities.

Technical source and design authority

This page summarizes the SN74LVC1G08 Rev A.1 product specification for component evaluation and engineering reference. It does not replace the complete controlled specification. Confirm the current revision, ordering code, marking, pin assignment, logic limits, absolute maximum ratings, DC and AC conditions, package tolerances, PCB layout, assembly process and qualification requirements before production release.