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README

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AIP74HC541SA20.TR

Wuxi I core Elec · Buffers, Drivers, Receivers, Transceivers · SOP-20-300mil

AIP74HC541SA20.TR from Wuxi I core Elec, in a SOP-20-300mil. Pinout and pin descriptions extracted from the manufacturer datasheet (extract_pins, cross-checked by a second model); symbol, footprint, and 3D from KiCad-official CAD.

Pinout

Pin Name Type Function
1 OE1 input Active-LOW output enable input; a HIGH level on OE1 forces the Y outputs into the high-impedance OFF-state.
2 A0 input Data input for channel 0; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
3 A1 input Data input for channel 1; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
4 A2 input Data input for channel 2; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
5 A3 input Data input for channel 3; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
6 A4 input Data input for channel 4; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
7 A5 input Data input for channel 5; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
8 A6 input Data input for channel 6; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
9 A7 input Data input for channel 7; the inputs have clamp diodes so current-limiting resistors can interface them to voltages above VCC, with CMOS levels for AiP74HC541 and TTL levels for AiP74HCT541.
10 GND power_in Ground (0 V) reference for all device voltages.
11 Y7 tri_state Non-inverting 3-state data output for channel 7 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
12 Y6 tri_state Non-inverting 3-state data output for channel 6 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
13 Y5 tri_state Non-inverting 3-state data output for channel 5 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
14 Y4 tri_state Non-inverting 3-state data output for channel 4 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
15 Y3 tri_state Non-inverting 3-state data output for channel 3 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
16 Y2 tri_state Non-inverting 3-state data output for channel 2 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
17 Y1 tri_state Non-inverting 3-state data output for channel 1 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
18 Y0 tri_state Non-inverting 3-state data output for channel 0 that goes high-impedance when the output enables are inactive; absolute maximum output current is ±35 mA.
19 OE2 input Active-LOW output enable input; a HIGH level on OE2 forces the Y outputs into the high-impedance OFF-state.
20 VCC power_in Supply voltage: recommended 2.0 V to 6.0 V for AiP74HC541 and 4.5 V to 5.5 V for AiP74HCT541, with absolute maximum 7.0 V.

Key specifications

Parameter Value
Manufacturer Wuxi I core Elec
Package SOP-20-300mil
Category Logic
Pins 20

Electrical characteristics

Limits as printed in the datasheet (page.json metadata.characteristics carries them as data).

Parameter Symbol Min Typ Max Unit Conditions Page
supply voltage VCC -0.5 7 V 8
input clamping current IIK -20 20 mA VI < -0.5V or VI > VCC+0.5V 8
output clamping current IOK -20 20 mA VO < -0.5V or VO > VCC+0.5V 8
output current IO -35 35 mA -0.5V < VO < VCC+0.5V 8
supply current ICC 70 mA 8
ground current IGND -70 mA 8
storage temperature Tstg -65 150 ℃ 8
total power dissipation Ptot 500 mW 8
soldering temperature TL 250 ℃ 10s, SOP20 8
supply voltage (AiP74HC541) VCC 2 5 6 V 8
input transition rise and fall rate Δt/ΔV 625 ns/V VCC=2.0V 8
input transition rise and fall rate Δt/ΔV 1.67 139 ns/V VCC=4.5V 8
input transition rise and fall rate Δt/ΔV 83 ns/V VCC=6.0V 8
ambient temperature Tamb -40 105 ℃ 8
HIGH-level input voltage VIH 1.5 V Tamb=-40℃ to +105℃; VCC=2.0V 11
HIGH-level input voltage VIH 3.15 V Tamb=-40℃ to +105℃; VCC=4.5V 11
HIGH-level input voltage VIH 4.2 V Tamb=-40℃ to +105℃; VCC=6.0V 11
LOW-level input voltage VIL 0.5 V Tamb=-40℃ to +105℃; VCC=2.0V 11
LOW-level input voltage VIL 1.35 V Tamb=-40℃ to +105℃; VCC=4.5V 11
LOW-level input voltage VIL 1.8 V Tamb=-40℃ to +105℃; VCC=6.0V 11
HIGH-level output voltage VOH 1.9 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=-20uA; VCC=2.0V 11
HIGH-level output voltage VOH 4.4 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=-20uA; VCC=4.5V 11
HIGH-level output voltage VOH 5.9 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=-20uA; VCC=6.0V 11
HIGH-level output voltage VOH 3.7 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=-6.0mA; VCC=4.5V 11
HIGH-level output voltage VOH 5.2 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=-7.8mA; VCC=6.0V 11
LOW-level output voltage VOL 0.1 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=20uA; VCC=2.0V 11
LOW-level output voltage VOL 0.4 V Tamb=-40℃ to +105℃; VI = VIH or VIL; IO=6.0mA; VCC=4.5V 11
input leakage current II -1 1 uA Tamb=-40℃ to +105℃; VI=VCC or GND; VCC=6.0V 11
OFF-state output current IOZ -10 10 uA Tamb=-40℃ to +105℃; VI=VIH or VIL; VCC=6.0V; VO=VCC or GND 11
supply current ICC 160 uA Tamb=-40℃ to +105℃; VI=VCC or GND; IO=0A; VCC=6.0V 11
An to Yn propagation delay tpd 175 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=2.0V; see Figure 6 14
An to Yn propagation delay tpd 35 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=4.5V; see Figure 6 14
An to Yn propagation delay tpd 30 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=6.0V; see Figure 6 14
OE-n to Yn enable time ten 240 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=2.0V; see Figure 7 14
OE-n to Yn enable time ten 48 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=4.5V; see Figure 7 14
OE-n to Yn enable time ten 41 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=6.0V; see Figure 7 14
OE-n to Yn disable time tdis 240 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=2.0V; see Figure 7 14
OE-n to Yn disable time tdis 48 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=4.5V; see Figure 7 14
OE-n to Yn disable time tdis 41 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=6.0V; see Figure 7 14
transition time tt 90 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=2.0V; see Figure 6 14
transition time tt 18 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=4.5V; see Figure 6 14
transition time tt 15 ns Tamb=-40℃ to +105℃; CL=50pF; VCC=6.0V; see Figure 6 14
An to Yn propagation delay tpd 33 115 ns Tamb=25℃; CL=50pF; VCC=2.0V; see Figure 6 12
An to Yn propagation delay tpd 12 23 ns Tamb=25℃; CL=50pF; VCC=4.5V; see Figure 6 12
An to Yn propagation delay tpd 10 20 ns Tamb=25℃; CL=50pF; VCC=6.0V; see Figure 6 12
OE-n to Yn enable time ten 55 160 ns Tamb=25℃; CL=50pF; VCC=2.0V; see Figure 7 12
OE-n to Yn enable time ten 20 32 ns Tamb=25℃; CL=50pF; VCC=4.5V; see Figure 7 12
OE-n to Yn enable time ten 16 27 ns Tamb=25℃; CL=50pF; VCC=6.0V; see Figure 7 12
OE-n to Yn disable time tdis 61 160 ns Tamb=25℃; CL=50pF; VCC=2.0V; see Figure 7 12
OE-n to Yn disable time tdis 22 32 ns Tamb=25℃; CL=50pF; VCC=4.5V; see Figure 7 12
OE-n to Yn disable time tdis 18 27 ns Tamb=25℃; CL=50pF; VCC=6.0V; see Figure 7 12
transition time tt 14 60 ns Tamb=25℃; CL=50pF; VCC=2.0V; see Figure 6 12
transition time tt 5 12 ns Tamb=25℃; CL=50pF; VCC=4.5V; see Figure 6 12
transition time tt 4 10 ns Tamb=25℃; CL=50pF; VCC=6.0V; see Figure 6 12
supply current ICC 8 uA Tamb=25℃; VI=VCC or GND; IO=0A; VCC=6.0V 9
HIGH-level output voltage VOH 3.98 4.32 V Tamb=25℃; VI = VIH or VIL; IO=-6.0mA; VCC=4.5V 9
LOW-level output voltage VOL 0.15 0.26 V Tamb=25℃; VI = VIH or VIL; IO=6.0mA; VCC=4.5V 9

CAD (KiCad official)

  • Symbol: AIP74HC541SA20.TR
  • Footprint: Package_SO:SOP-20_7.5x12.8mm_P1.27mm
  • 3D model: SOP-20-300mil, generated from the KiCad footprint (body from the F.Fab outline, terminals on the pads, 2.65 mm nominal SOIC height). Neither the vendor nor KiCad ships a 3D model for this package, so the dimensions are nominal, not the manufacturer's CAD (STEP)
  • 3D model files: aip74hc541sa20-tr-etched.step / aip74hc541sa20-tr-etched.glb carry the MPN laser-etched on the die in a toggleable Adom.LaserEtch group (Fusion-ready); aip74hc541sa20-tr.step / aip74hc541sa20-tr.glb are the bare package body.

Provenance

Data extracted from the manufacturer datasheet, not a distributor listing:

  • Datasheet: Wuxi I core Elec datasheet (20 pp, sha256 6569b10c7e169d6a, retrieved 2026-10-19, tier: lcsc)
  • Extractor: parts-factory 2.0.0 / extract_pins 0.3, primary claude-haiku-5-5 (text), consensus claude-sonnet-5-5 (agreed), guards: pin_guards 0.1: passed. Pins are checked against the footprint pad set and their cited datasheet pages before publish.
  • CAD: KiCad official libraries (CC-BY-SA 4.0).

Datasheet PDF