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1N6019A

Microchip 1N6019A Zener Diode, 62 V, 500 mW, DO-35

MPN1N6019A
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Microchip Technology 1N6019A Zener diode, 62 V nominal, 500 mW, ±10% tolerance, DO-204AH (DO-35) axial-lead package, through-hole mount.

$1.9200Ref. price · indicative, final on quote
Independent supplier — new & surplus stockAuthenticity-screened · ESD-safe packingListing updated Aug 2026

Specifications

1N6019A specifications
ParameterValue
MountingThrough Hole
Voltage - zener (Nom)62 V
Voltage - forward (Vf) (Max) @ if1.1 V @ 200 mA
Current - reverse leakage @ vr100 nA @ 39 V
Power - max500 mW
Operating temperature-65°C~175°C
PackageBulk
Tolerance±10%
CaseDO-204AH, DO-35, Axial
Impedance (Max)265 Ohms

Product details

62 V Zener — the regulation anchor

The 1N6019A is a 62 V Zener diode from Microchip Technology, rated for 500 mW continuous power dissipation in a DO-35 axial-lead package. With a reverse leakage of only 100 nA at 39 V, the diode draws negligible current below the breakdown knee — useful in battery-powered or high-impedance bias networks where every nanoamp counts.

DO-35 axial — board-fit reality

The DO-204AH (DO-35) glass package is a through-hole axial-lead format measuring about 4.5 mm body length with 0.55 mm diameter leads. It mates with standard 0.035-inch diameter plated-through holes on 0.4-inch lead spacing — a footprint shared by countless small-signal diodes, so the board layout is already proven. The 500 mW power limit derates above 25°C — at 175°C the allowable dissipation drops to zero, so keep the junction temperature budget in mind for continuous operation near the limit.

Frequently asked questions

Where can I buy the 1N6019A and get a price?

Submit a request for your target quantity to receive a current price and availability confirmation.

What is the tolerance and power rating of the 1N6019A?

The Zener voltage tolerance is ±10%, and the maximum power dissipation is 500 mW. The 62 V nominal value combined with 265 Ohms maximum Zener impedance means the regulation voltage shifts with load current — budget the impedance drop in precision circuits.