MCP14E10 Series

Dual 3 A MOSFET Gate Driver with Enable

Catalog

Dual 3 A MOSFET Gate Driver with Enable

Part	Gate Type	Input Type	Logic Voltage - VIH	Logic Voltage - VIL	Channel Type	Voltage - Supply (Maximum)	Voltage - Supply (Minimum)	Operating Temperature (Min)	Operating Temperature (Max)	Mounting Type	Fall Time (Typ)	Rise Time (Typ)	Driven Configuration	Package / Case	Number of Drivers	Gate Channel	Package Width	Package Name	Package Length	Current - Peak Output (Sink)	Current - Peak Output (Source)
Microchip Technology MCP14E10T-E/MF	IGBT MOSFET N-Channel P-Channel MOSFET	Non-Inverting	2.4 V	0.8 V	Independent	18 V	4.5 V	-40 °C	150 °C	Surface Mount	25 ns	25 ns	Low-Side	8-VDFN Exposed Pad	2	N-Channel P-Channel	5 mm	8-DFN-S	6 mm	3 A	3 A
Microchip Technology MCP14E10-E/P	IGBT MOSFET N-Channel P-Channel MOSFET	Non-Inverting	2.4 V	0.8 V	Independent	18 V	4.5 V	-40 °C	150 °C	Through Hole	25 ns	25 ns	Low-Side		2	N-Channel P-Channel	7.62 mm	8-DIP 8-PDIP	0.3 in	3 A	3 A
Microchip Technology MCP14E10-E/MF	IGBT MOSFET	Non-Inverting	2.4 V	0.8 V	Independent	18 V	4.5 V	-40 °C	150 °C	Surface Mount	25 ns	25 ns	Low-Side	8-VDFN Exposed Pad	2	N-Channel P-Channel	5 mm	8-DFN-S	6 mm	3 A	3 A
Microchip Technology MCP14E10T-E/SN	IGBT MOSFET N-Channel P-Channel MOSFET	Non-Inverting	2.4 V	0.8 V	Independent	18 V	4.5 V	-40 °C	150 °C	Surface Mount	25 ns	25 ns	Low-Side		2	N-Channel P-Channel	3.9 mm	8-SOIC	0.154 in	3 A	3 A
Microchip Technology MCP14E10-E/SN	IGBT MOSFET N-Channel P-Channel MOSFET	Non-Inverting	2.4 V	0.8 V	Independent	18 V	4.5 V	-40 °C	150 °C	Surface Mount	25 ns	25 ns	Low-Side		2	N-Channel P-Channel	3.9 mm	8-SOIC	0.154 in	3 A	3 A

Catalog

Dual 3 A MOSFET Gate Driver with Enable

Description

The MCP14E9/E10/E11 devices are a family of 3 A, dual output buffers/MOSFET gate drivers with separate enable functions for each output. As MOSFET gate drivers, the MCP14E9/E10/E11 can charge 1,800 pF gate capacitance in under 25 ns (max).The inputs are TTL/CMOS compatible and provide 300 mV of hysteresis between the high and low input levels that allows it to be driven from slow rising and falling signals and provide noise immunity.