IR2128SPBF vs IR2010SPBF Comparison
Detailed side-by-side comparison of IR2128SPBF by Infineon and IR2010SPBF by Infineon. Compare key specifications, electrical parameters, packaging, lifecycle status, pricing, and availability to determine the best component for your design requirements.
Specification Comparison
| Parameter | IR2128SPBF | IR2010SPBF |
|---|---|---|
| Brand | Infineon | Infineon |
| Category | Power MOSFET Drivers | Power MOSFET Drivers |
| Lifecycle Status | Active | Active |
| Stock Status | In Stock | In Stock |
| Unit Price (USD) | $1.62 | $1.20 |
| Driver Type | High-Side, Low-Side (Half-Bridge), Inverting | β |
| Number of Channels | 1 | β |
| Output Current | 0.5 A | β |
| Maximum Offset Voltage | 600 V | β |
| Supply Voltage Range | 10 V to 20 V | β |
| Propagation Delay | 150 ns (typical) | β |
| Logic Input Compatibility | CMOS / LSTTL (down to 3.3 V) | CMOS or LSTTL, down to 3.0 V |
| Gate Drive Range (Motor Drive) | 20 V (IR2127/IR2128) | β |
| dV/dt Immunity | Yes | β |
| Negative Transient Tolerance | Yes | β |
| Technology | HVIC and latch-immune CMOS | β |
| Current Sensing | Integrated (single channel) | β |
| Operating Temperature | -40 C to +125 C | -40C to +150C |
| Package | 8-SOIC (PDSO8) | 16-SOIC (SOIC-16) |
| Mounting Type | Surface Mount | Surface Mount |
| Lead-Free / RoHS | Yes (PbF suffix) | β |
| Configuration | Inverting input | Half-Bridge (high + low side) |
| Number of Drivers | β | 2 (independent high/low-side outputs) |
| Offset Voltage (max) | β | 200 V |
| Peak Source/Sink Current | β | 3 A / 3 A |
| Propagation Delay (typ) | β | 95 ns |
| Rise / Fall Time (typ) | β | [DATA_NEEDED: rise/fall time] |
| VCC Supply Voltage (low side) | β | 10 V to 20 V |
| VB Bootstrap Supply (high side) | β | VCC + 10 V to VCC + 20 V |
| Shutdown Feature | β | Yes (active input) |
| MSL Level | β | [DATA_NEEDED: MSL rating] |
| RoHS Status | β | Compliant (Pb-free PBF suffix) |
| Drive Technology | β | High-speed power MOSFET / IGBT driver |
| Channel Matching | β | Matched propagation delays for cross-conduction minimization |