Texas Instruments
UCC3626DW
UCC3626DW
Couldn't load pickup availability
UCC3626DW Texas Instruments - Yeehing Electronics
3-phase sensored trapezoidal BLDC controller for -40°C to +70°C applications
Pricing (USD)
| Quantity | Unit Price | 
| 1 — 99 | 10.196 | 
| 100 — 249 | 8.906 | 
| 250 — 999 | 6.867 | 
| 1,000 + | 4.30 | 
The above prices are for reference only.
Specifications
| Manufacturer | Texas Instruments | 
| Product Category | Motor / Motion / Ignition Controllers & Drivers | 
| RoHS | Y | 
| Product | Brushless DC Motor Controllers | 
| Type | Brushless DC Motor Controller | 
| Operating Supply Voltage | 11 V to 14.5 V | 
| Operating Supply Current | 3 mA | 
| Minimum Operating Temperature | 0 C | 
| Maximum Operating Temperature | + 70 C | 
| Mounting Style | SMD/SMT | 
| Package / Case | SOIC-28 | 
| Packaging | Tube | 
| Features | Brushless DC Motor Control, Current-Limited, Diff Curr Sense Amp, Switching Control, Tachometer | 
| Operating Temperature Range | 0 C to + 70 C | 
| Series | UCC3626 | 
| Brand | Texas Instruments | 
| Moisture Sensitive | Yes | 
| Product Type | Motor / Motion / Ignition Controllers & Drivers | 
| Factory Pack Quantity | 20 | 
| Subcategory | PMIC - Power Management ICs | 
| Unit Weight | 0.027937 oz | 
For more information, please refer to datasheet
Documents
 
 | UCC3626DW Datasheet | 
More Information
The UCC3626 motor controller device combines many of the functions required to design a high-performance, two- or four-quadrant, three-phase, brushless dc motor controller into one package. Rotor position inputs are decoded to provide six outputs that control an external power stage. A precision triangle oscillator and latched comparator provide PWM motor control in either voltage- or current-mode configurations. The oscillator is easily synchronized to an external master clock source via the SYNCH input. Additionally, a QUAD select input configures the chip to modulate either the low-side switches only, or both upper and lower switches, allowing the user to minimize switching losses in less demanding two-quadrant applications.
