MCP1402T-E/OT vs 2EDN7524GXTMA1 Gate Driver ICs: Component Comparison

Quick verdict

For simple, low-current single-driver applications with limited board space and basic MOSFET or IGBT gate drive needs, the MCP1402T-E/OT is a compact, straightforward choice. When driving high-speed, high-current GaN or MOSFET switches that require fast switching times, matched dual channels, and greater drive strength, the 2EDN7524GXTMA1 is clearly superior despite its larger footprint and complexity.


Spec comparison table

SpecMCP1402T-E/OT2EDN7524GXTMA1Notes
Channel typeSingleIndependent (2 drivers)Dual drivers enable half-bridge or multi-channel designs; single driver limits flexibility.
Number of drivers122EDN7524GXTMA1 supports dual independent outputs, useful for complementary or multi-phase.
Current peak output source/sink500mA / 500mA5A / 5A2EDN7524GXTMA1 provides 10x higher peak current, critical for fast switching of large gates.
Driven configurationLow-SideLow-SideBoth are low-side drivers, no difference here.
Gate typeIGBT, MOSFET (N-Channel, P-Channel)GaN FET, MOSFET (N-Channel)MCP1402T-E/OT supports P-Channel and IGBT; 2EDN7524GXTMA1 focuses on N-Channel MOSFET and GaN.
Input typeNon-InvertingNon-InvertingBoth non-inverting, compatible with standard logic signals.
Logic voltage VIL / VIH0.8V / 2.4VNot specifiedMCP1402T-E/OT specified VIH/VIL gives clearer input logic level requirements.
Input voltage rangeNot specified-5V to +20V2EDN7524GXTMA1 tolerates wider input voltage, useful in noisy or harsh environments.
Voltage supply4.5V to 18V4.5V to 20V2EDN7524GXTMA1 supports slightly wider supply range.
Operating temperature range (TJ)-40°C to 150°C-40°C to 150°CEquivalent thermal operating range.
Rise time (typical)19ns5.3ns2EDN7524GXTMA1 is ~3.5x faster, better for high-frequency switching.
Fall time (typical)15ns4.5nsFaster fall time on 2EDN7524GXTMA1 reduces switching losses.
Package caseSC-74A, SOT-753 (SOT-23-5)8-WDFN Exposed Pad (PG-WSON-8-1)MCP1402T-E/OT smaller footprint; 2EDN7524GXTMA1 has exposed pad for better thermal dissipation.
Mounting typeSurface mountSurface mountBoth SMT, no difference.
Supply voltage max (absolute max)18V20V2EDN7524GXTMA1 allows higher max supply voltage.
On resistance (typical)Not specified0.7Ω (pos), 0.55Ω (neg)2EDN7524GXTMA1’s output stage Rds(on) equivalent affects efficiency and thermal loss.
Output current sink max500mA5A2EDN7524GXTMA1 supports 10x higher sink current; critical for large gate charge MOSFETs.
Output current source max500mA5ASame as sink current.
Channel-to-channel delay accuracyN/A (single channel)1ns (typical)Tight matching essential for synchronous gate drive applications.
Input enable pinsNoYes2EDN7524GXTMA1 supports enable pins, useful for firmware-controlled gating.
Undervoltage lockout (UVLO)Not specified4.2V / 8V (with hysteresis)UVLO on 2EDN7524GXTMA1 enhances robustness against undervoltage conditions.
Input pull-up / pull-down resistorsNot specified400kΩ / 100kΩIntegrated resistors simplify input biasing on 2EDN7524GXTMA1.
Thermal resistance junction-to-ambient (typ)Not specified61 K/W (WSON-8), 64 K/W (TSSOP-8)2EDN7524GXTMA1 thermal specs indicate moderate heat dissipation; MCP1402T-E/OT not specified.
ESD capability (typical)Not specified1.5kV (CDM), 2.5kV (HBM)2EDN7524GXTMA1 has specified ESD ratings, useful for rugged environments.
Minimum input pulse widthNot specified151ns (min)2EDN7524GXTMA1 requires minimum pulse width, relevant in high-frequency PWM.
Input signal duty cycleNot specified10–90% (typ)Limited duty cycle range on 2EDN7524GXTMA1 must be respected.
Reverse current (typ, max)Not specifiedVarious values up to -10W2EDN7524GXTMA1 datasheet details reverse current behavior, important in some designs.

Design trade-offs

The most striking difference between these two drivers lies in their drive current capability and channel count. The MCP1402T-E/OT’s single channel and 500mA peak source/sink current limits it to driving relatively small MOSFET gates or IGBTs with low gate charge or applications where switching speed is not critical. In contrast, the 2EDN7524GXTMA1’s dual independent channels each deliver up to 5A peak current, enabling it to rapidly charge and discharge large GaN or MOSFET gates, reducing switching losses and improving efficiency at high frequencies.

This difference directly affects layout and thermal design. The MCP1402T-E/OT’s SOT-23-5 package is very compact, making it suitable for dense boards or cost-sensitive designs with limited gate drive requirements. However, its limited current capacity means switching losses in the MOSFET may be higher, and switching transition times longer, potentially increasing EMI and heat in the power stage. The 2EDN7524GXTMA1’s exposed pad 8-WDFN package supports better thermal conduction, essential when driving multiple channels at high current. The larger package footprint and more pins increase PCB area but provide better heat spreading and more robust electrical connections.

From a firmware and system perspective, the 2EDN7524GXTMA1 offers enable pins and undervoltage lockout with hysteresis, enhancing design robustness and control flexibility. The MCP1402T-E/OT lacks these features, so external circuitry must handle UVLO and enable logic if needed. The 2EDN7524GXTMA1 also accommodates a wider input voltage range (-5V to +20V), providing better tolerance to noisy or fault conditions on the input signal.

The rise/fall times are significantly faster on the 2EDN7524GXTMA1 (around 5ns vs 15-19ns), which improves switching efficiency and reduces losses but also demands careful PCB layout to minimize ringing and EMI. The MCP1402T-E/OT’s slower edges are easier to manage but limit switching frequency and efficiency.

Cost-wise, the MCP1402T-E/OT’s simplicity and smaller package are likely cheaper per unit and easier to source for low-to-mid volume designs. The 2EDN7524GXTMA1’s complex dual driver and advanced features come at a premium but enable high-performance designs that offset cost in power savings and system reliability.


Use-case fit

Choose MCP1402T-E/OT when…

Choose 2EDN7524GXTMA1 when…