Faital Pro HF105 16 Ohm, 1-Inch Compression Driver
The Faital Pro HF105 compression driver gives loudspeaker projects a clearly defined high-frequency component. It has strong sensitivity and a broad 1.4–20 kHz operating range. Its 16 Ohm design, annular Ketone Polymer diaphragm and compact 1-inch throat provide practical parameters. All for evaluating a driver in a larger speaker design.
High-Frequency Detail with Useful Headroom
With 107 dB sensitivity, the driver is well suited to designs where high-frequency output needs careful consideration. AES power handling is 40 W. Meanwhile, maximum power handling reaches 80 W. Therefore, giving designers clear figures to work with when assessing the electrical demands of a speaker section.
Purposeful Diaphragm Construction
The annular diaphragm uses Ketone Polymer, paired with a 37 mm voice coil, aluminum winding material and a Kapton former. Together, these documented construction details give the driver a defined mechanical layout, while the radial phase plug and combined exit describe how its internal high-frequency assembly is configured.
Practical Fit and Mounting Data
The 25.4 mm throat, 91 mm overall diameter and 61 mm depth make the physical format straightforward to measure against a planned enclosure. Mounting-hole spacing is specified at 76 mm across 180°, while the 1.1 kg net weight is useful to account for during cabinet planning.
Clear Electrical and Magnetic Reference Points
A 16 Ohm nominal impedance, 13.5 Ohm minimum impedance and 1.7 kHz minimum crossover frequency provide important figures for crossover and system assessment. The ferrite ring magnet and 1.5 T flux density add further construction detail for anyone comparing driver options by electrical and magnetic parameters.
Key Features
- High 107 dB sensitivity for assessing high-frequency speaker sections
- 40 W AES and 80 W maximum power handling
- Annular Ketone Polymer diaphragm with radial phase plug design
- Compact 1-inch throat format with documented mounting dimensions
- Ferrite Ring magnet with 1.5 T flux density