P0903 POT Core
The P0903 is a ferrite pot core designed for applications requiring low leakage inductance, high Q factor, and temperature stability. Its enclosed design minimizes electromagnetic interference, making it suitable for use in broadband and narrowband transformers, telecom inductors, power transformers, power inductors, and inductive switches.Ā
Key Dimensions:
- A: 7.2 Ā±0.2 mm
- D1: 9.15 Ā±0.5 mm
- D2: 7.62 +0.13/-0.12 mm
- D3: 3.8 Ā±0.1 mm
- D4: 2.05 Ā±0.05 mm
- G: 1.9 Ā±0.5 mm
- H1: 2.65 Ā±0.1 mm
- H2: 1.88 Ā±0.5 mm
These dimensions ensure compatibility with standard bobbins and hardware, facilitating ease of assembly in various electronic circuits.
Material and Inductance Factor (AL):
The P0903 core is available in multiple ferrite materials, each offering distinct inductance factors (AL) to suit specific application needs:
- CF 140: AL = 1350 nH
- CF 196: AL = 1200 nH
- CF 139: AL = 1250 nH
- CF 195: AL = 1750 nH
- CF 130: AL = 1450 nH
These variations allow designers to select the appropriate material based on the desired inductance and performance characteristics.Ā
Effective Parameters:
- Effective Magnetic Path Length (Le): 11.97 mm
- Effective Cross-Sectional Area (Ae): 10.46 mmĀ²
These parameters are crucial for calculating the inductance and understanding the magnetic behavior of the core in different circuit configurations
P0903 POT Core
The P0903 is a ferrite pot core designed for applications requiring low leakage inductance, high Q factor, and temperature stability. Its enclosed design minimizes electromagnetic interference, making it suitable for use in broadband and narrowband transformers, telecom inductors, power transformers, power inductors, and inductive switches.Ā
Key Dimensions:
- A: 7.2 Ā±0.2 mm
- D1: 9.15 Ā±0.5 mm
- D2: 7.62 +0.13/-0.12 mm
- D3: 3.8 Ā±0.1 mm
- D4: 2.05 Ā±0.05 mm
- G: 1.9 Ā±0.5 mm
- H1: 2.65 Ā±0.1 mm
- H2: 1.88 Ā±0.5 mm
These dimensions ensure compatibility with standard bobbins and hardware, facilitating ease of assembly in various electronic circuits.
Material and Inductance Factor (AL):
The P0903 core is available in multiple ferrite materials, each offering distinct inductance factors (AL) to suit specific application needs:
- CF 140: AL = 1350 nH
- CF 196: AL = 1200 nH
- CF 139: AL = 1250 nH
- CF 195: AL = 1750 nH
- CF 130: AL = 1450 nH
These variations allow designers to select the appropriate material based on the desired inductance and performance characteristics.Ā
Effective Parameters:
- Effective Magnetic Path Length (Le): 11.97 mm
- Effective Cross-Sectional Area (Ae): 10.46 mmĀ²
These parameters are crucial for calculating the inductance and understanding the magnetic behavior of the core in different circuit configurations
Product Information
Product Information
Shipping & Returns
Shipping & Returns
Description
The P0903 is a ferrite pot core designed for applications requiring low leakage inductance, high Q factor, and temperature stability. Its enclosed design minimizes electromagnetic interference, making it suitable for use in broadband and narrowband transformers, telecom inductors, power transformers, power inductors, and inductive switches.Ā
Key Dimensions:
- A: 7.2 Ā±0.2 mm
- D1: 9.15 Ā±0.5 mm
- D2: 7.62 +0.13/-0.12 mm
- D3: 3.8 Ā±0.1 mm
- D4: 2.05 Ā±0.05 mm
- G: 1.9 Ā±0.5 mm
- H1: 2.65 Ā±0.1 mm
- H2: 1.88 Ā±0.5 mm
These dimensions ensure compatibility with standard bobbins and hardware, facilitating ease of assembly in various electronic circuits.
Material and Inductance Factor (AL):
The P0903 core is available in multiple ferrite materials, each offering distinct inductance factors (AL) to suit specific application needs:
- CF 140: AL = 1350 nH
- CF 196: AL = 1200 nH
- CF 139: AL = 1250 nH
- CF 195: AL = 1750 nH
- CF 130: AL = 1450 nH
These variations allow designers to select the appropriate material based on the desired inductance and performance characteristics.Ā
Effective Parameters:
- Effective Magnetic Path Length (Le): 11.97 mm
- Effective Cross-Sectional Area (Ae): 10.46 mmĀ²
These parameters are crucial for calculating the inductance and understanding the magnetic behavior of the core in different circuit configurations
