Promotional Code

Use promotional code RSBAHEXTRA5 and get extra 5% off on the price of all products | Payment Options: Debit or Credit Card, Wire Transfer, Cash or Cheque

RS PRO 47 μH Ferrite Leaded Inductor, 760mA Idc, 350mΩ Rdc

RS Stock No.: 228-163Brand: RS PRO
brand-logo
View all in Leaded Inductors

Technical Document

Specifications

Brand

RS Pro

Inductance

47 μH

Maximum dc Current

760mA

Mounting Type

Axial

Maximum DC Resistance

350mΩ

Diameter

3.3mm

Length

67.54mm

Height

9.14mm

Dimensions

3.3 (Dia.) x 9.14mm

Core Material

Ferrite

Series

APIE0309

Terminal Type

Axial Leaded

Lead Diameter

0.51mm

Maximum Operating Temperature

+105°C

Minimum Operating Temperature

-40°C

Country of Origin

China

Product details

RS APIE0309 Series RF Axial Choke

RF Inductors consisting of a ferrite based coil former encapsulated in a polypropylene outer case
IDC Max. based on 0.3W dissipation @ 70 °C

You may be interested in

Stock information temporarily unavailable.

Please check again later.

Stock information temporarily unavailable.

BD 1.160

Each (Exc. Vat)

BD 1.276

Each (inc. VAT)

RS PRO 47 μH Ferrite Leaded Inductor, 760mA Idc, 350mΩ Rdc

BD 1.160

Each (Exc. Vat)

BD 1.276

Each (inc. VAT)

RS PRO 47 μH Ferrite Leaded Inductor, 760mA Idc, 350mΩ Rdc
Stock information temporarily unavailable.

Buy in bulk

quantityUnit price
1 - 9BD 1.160
10 - 99BD 0.975
100 - 249BD 0.730
250+BD 0.695
You may be interested in

Technical Document

Specifications

Brand

RS Pro

Inductance

47 μH

Maximum dc Current

760mA

Mounting Type

Axial

Maximum DC Resistance

350mΩ

Diameter

3.3mm

Length

67.54mm

Height

9.14mm

Dimensions

3.3 (Dia.) x 9.14mm

Core Material

Ferrite

Series

APIE0309

Terminal Type

Axial Leaded

Lead Diameter

0.51mm

Maximum Operating Temperature

+105°C

Minimum Operating Temperature

-40°C

Country of Origin

China

Product details

RS APIE0309 Series RF Axial Choke

RF Inductors consisting of a ferrite based coil former encapsulated in a polypropylene outer case
IDC Max. based on 0.3W dissipation @ 70 °C

You may be interested in