Cable Ferrites

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1,964
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Inner Dimension
Impedance @ Frequency
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ImageProduct DetailPriceAvailabilityECAD ModelSeriesMounting TypeRatingsTypeLengthMaterialDesignImpedance @ FrequencyInner DimensionOuter Dimension
SB28B2034AT
FERRITE 30OHM HINGED 13MM
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Quantity
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PCB Symbol, Footprint & 3D Model
-
Free Hanging
-
Flat
1.000" (25.40mm)
28
Hinged (Snap On)
30Ohm @ 100MHz
0.512" Dia (13.00mm)
1.252" W x 0.587" H (31.80mm x 14.90mm)
28R1261-100
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Quantity
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PCB Symbol, Footprint & 3D Model
28
Free Hanging
-
Flat
1.378" (35.00mm)
28
Solid
350Ohm @ 100MHz
0.988" W x 0.035" H (25.10mm x 0.90mm)
1.260" W x 0.305" H (32.00mm x 7.75mm)
ESD-FPL-14.5-3
NI-ZN FOR FLAT CABLE, BARE 11.0
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Quantity
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PCB Symbol, Footprint & 3D Model
ESD-FPL
Free Hanging
-
Flat
0.118" (3.00mm)
NIZn
Solid
-
0.433" W x 0.031" H (11.00mm x 0.80mm)
0.571" W x 0.108" H (14.50mm x 2.75mm)
CT0443164251F
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Quantity
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PCB Symbol, Footprint & 3D Model
CT0443164251F
Free Hanging
-
Round
0.787" L (20.00mm)
-
Hinged (Snap On)
200Ohm @ 100MHz
0.256" Dia (6.50mm)
0.807" W x 0.787" H (20.50mm x 20.00mm)

Cable Ferrites

Ferrite cores serve as essential devices designed to mitigate high frequency noise or electromagnetic interference (EMI) in electronic circuits and systems. These cores are specifically designed to be placed on cables or wires to suppress unwanted electromagnetic emissions and enhance signal integrity. Ferrite cores come in various types, such as flat or round, and are available in different designs including clamp, clip, hinged, solid, or tubular configurations. The choice of type and design depends on the specific application requirements and the form factor of the cables or wires being addressed. Additionally, the inner and outer dimensions, length, and mounting type (e.g., cable tie, chassis mount, or free-hanging) are important considerations in selecting the appropriate ferrite core for a given application. One of the critical characteristics of ferrite cores is their impedance at a specific frequency. Impedance plays a crucial role in determining the effectiveness of the ferrite core in attenuating EMI at particular frequency ranges. By selecting ferrite cores with the appropriate impedance characteristics, engineers can tailor the suppression of EMI to match the frequency spectrum of the noise being targeted. In practical terms, ferrite cores are deployed to address a wide range of EMI issues in electronic systems, including interference from power lines, radio frequency interference, and other sources of electromagnetic noise. When properly applied, these cores help to maintain signal integrity, minimize data corruption, and ensure the reliable operation of electronic equipment. In summary, ferrite cores play a vital role in managing high frequency noise and EMI in electronic circuits and systems. Their diverse types, designs, dimensions, and impedance characteristics cater to a broad spectrum of applications, offering engineers an effective means to enhance electromagnetic compatibility and signal quality.