CB Series, Ferrite Beads and Chips

Results:
3
Series
DC Resistance (DCR) (Max)
Impedance @ Frequency
Current Rating (Max)
Operating Temperature
Number of Lines
Filter Type
Ratings
Results remaining3
Applied Filters:
CB
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ImageProduct DetailPriceAvailabilityECAD ModelOperating TemperatureRatingsDC Resistance (DCR) (Max)SeriesNumber of LinesFilter TypeImpedance @ FrequencyCurrent Rating (Max)
CB05YTYH331
FERRITE BEAD 330 OHM 0805 1LN
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Quantity
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PCB Symbol, Footprint & 3D Model
-55°C ~ 125°C
-
80mOhm
CB
1
Power Line
330 Ohms @ 100 MHz
2A
CB02YTYH121
FERRITE BEAD 120 OHM 0402 1LN
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Quantity
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PCB Symbol, Footprint & 3D Model
-55°C ~ 125°C
-
-
CB
1
Power Line
120 Ohms @ 100 MHz
-
CB03YTYH151
FERRITE BEAD 150 OHM 0603 1LN
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Quantity
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PCB Symbol, Footprint & 3D Model
-55°C ~ 125°C
-
85mOhm
CB
1
Power Line
150 Ohms @ 100 MHz
2A

About  Ferrite Beads and Chips

Ferrite cores are specialized devices specifically engineered to mitigate high-frequency noise and electromagnetic interference (EMI). These cores are designed to be incorporated into electric circuits, offering effective noise suppression and improved signal integrity. When selecting a ferrite core, several key characteristics need to be considered. The first is the filter type, which can be differential, signal, or power, depending on the specific application requirements. The number of lines that the ferrite core will interact with is also an important consideration, as it determines the core's ability to suppress noise across multiple channels. Another crucial characteristic is the maximum current rating, which indicates the highest current that the ferrite core can handle without compromising its functionality. This specification ensures that the core is suitable for the intended circuit and prevents any potential damage due to excessive current flow. The impedance and specified frequency are essential parameters to consider when selecting a ferrite core. Impedance determines the opposition that the core presents to the flow of alternating current at a specific frequency range. Matching the impedance of the ferrite core to the circuit's impedance helps in achieving optimal noise suppression. Lastly, the mounting type should be chosen based on the circuit's design and requirements. Ferrite cores can be free-hanging, surface-mounted, or through-hole mounted, allowing for flexibility in installation and integration within the electric circuit. In summary, ferrite cores serve as effective tools for reducing high-frequency noise and electromagnetic interference in electric circuits. Their characteristics, such as filter type, number of lines, max current rating, impedance, specified frequency, and mounting type, play vital roles in ensuring proper noise suppression and improved signal integrity. By carefully selecting and integrating ferrite cores into circuits, engineers can enhance the overall performance and reliability of electronic systems.