Component Comparison: NX3008NBKS,115 vs IMYH200R075M1HXKSA1


Quick verdict

For low-voltage, low-current applications requiring compact, automotive-grade MOSFET arrays, the NX3008NBKS,115 is the clear choice due to its dual-channel integration, logic-level gate drive, and small footprint. Conversely, for high-voltage, high-power switching, especially in industrial or power conversion contexts where 2000 V and 34 A continuous current are required, the IMYH200R075M1HXKSA1 dominates with its SiC technology and robust thermal handling.


Spec comparison table

SpecNX3008NBKS,115IMYH200R075M1HXKSA1Notes
Device typeDual N-Channel MOSFET ArraySingle N-Channel MOSFETDual device vs single transistor; NX3008NBKS better for integrated dual-channel control
Drain-Source Voltage (Vmax)30 V2000 VIMYH200R075M1HXKSA1 supports much higher voltage, suitable for high-voltage applications
Continuous Drain Current (Id, 25°C)350 mA34 A (Tc)IMYH200R075M1HXKSA1 supports 100x higher current; NX3008NBKS is for low current only
Power Dissipation (Max)445 mW267 W (Tc)IMYH200R075M1HXKSA1 handles >500x more power, reflecting TO-247 package and cooling
Gate Threshold Voltage (Vgs_th max)1.1 V @ 250µA5.5 V @ 7.7mANX3008NBKS has logic-level gate threshold, easier to drive from low-voltage logic
Gate Charge (Q_g max)0.68 nC @ 4.5 V64 nC @ 18 VNX3008NBKS requires negligible gate charge, enabling faster switching and lower gate drive losses
Rds(on) (typical @ Id, Vgs)1.4 Ω @ 350mA, 4.5 V98 mΩ @ 13 A, 18 VIMYH200R075M1HXKSA1 has much lower on-resistance at high current, important for conduction losses
Package6-TSSOP (surface mount)TO-247-4 (through-hole)Surface mount vs through-hole; affects assembly, cooling, and footprint
Operating Temperature Range (TJ)-55°C to +150°C-55°C to +175°CIMYH200R075M1HXKSA1 supports wider TJ range, useful for high-temp environments
Thermal Resistance Junction-to-Ambient300 K/W (device typical)Not specified, but TO-247 typically <50 K/WNX3008NBKS limited by small package, IMYH200R075M1HXKSA1 can dissipate more heat
ESD Rating2000 V (HBM)Not specifiedNX3008NBKS has documented ESD rating, useful for automotive-grade applications
Gate Voltage Max±8 V+20 V / -7 VIMYH200R075M1HXKSA1 supports wider gate voltage swings, but requires higher drive voltage
Drain Current Spiking Max1.4 ANot specifiedNX3008NBKS can handle brief spikes up to 1.4 A, no info for IMYH200R075M1HXKSA1
ConfigurationDual N-ChannelSingle N-ChannelNX3008NBKS integrates two transistors, IMYH200R075M1HXKSA1 is a discrete single device
TechnologyMOSFET (Si)SiC MOSFET (SiCFET)SiC offers better high-voltage, high-temp, and switching performance
Mounting TypeSurface MountThrough HoleSurface mount better for compact designs, through-hole better for heat dissipation
GradeAutomotive (AEC-Q101 qualified)Not specifiedNX3008NBKS suited for automotive reliability requirements
Gate leakage current (typical @ 25°C)0.2 - 1 µANot specifiedLow gate leakage beneficial for low-power control logic
Gate-Drain Charge (Qg_d)0.08 nC (typical)Not specifiedLower Miller charge on NX3008NBKS benefits switching speed
Input Capacitance (Ciss)34 - 50 pF (typical)Not specifiedLower input capacitance on NX3008NBKS supports faster switching
Rise/Fall Times (typical @ 25°C)t_rise 11 ns, t_fall 19 nsNot specifiedNX3008NBKS datasheet provides switching times, useful for timing-critical designs
Total Power Dissipation (typ, device)280 mWNot specifiedNX3008NBKS power dissipation limited by small package
Transient Thermal Impedance (typ)~0.01 to 1 K/W (varies by time scale)Not specifiedNX3008NBKS data on transient thermal response aids transient overload design

Design trade-offs

The NX3008NBKS,115 is a low-voltage (30 V), low-current (350 mA) dual MOSFET array optimized for compact, logic-level driven applications with minimal gate charge and low input capacitance. Its 6-TSSOP surface mount package allows for high-density PCB layouts, making it suitable for signal switching, level shifting, or low-power motor control. However, its relatively high Rds(on) of ~1.4 Ω at 350 mA and 4.5 V gate drive means conduction losses become significant at higher currents, and the power dissipation limit of under 0.5 W restricts its use to low-power scenarios. The dual transistor configuration also facilitates half-bridge or complementary switch topologies in a small footprint.

In contrast, the IMYH200R075M1HXKSA1 targets high-voltage (2000 V), high-current (34 A) applications such as power inverters, industrial drives, or power supplies requiring SiC MOSFET benefits like higher switching speed, higher temperature operation, and superior robustness. Its TO-247 through-hole package allows for efficient heat sinking and dissipation of up to 267 W at case temperature, a massive increase over the NX3008NBKS. However, it requires a higher gate drive voltage (up to 18 V) and has a much higher gate charge (64 nC), which translates to greater gate drive power and potentially slower switching unless the gate driver is specifically designed for SiC devices.

From a layout perspective, NX3008NBKS’s small package and low gate charge simplify the gate drive design and enable compact, low-cost PCB implementations, but thermal constraints necessitate careful current and power budgeting. The IMYH200R075M1HXKSA1 demands robust gate drivers capable of 18 V drive and managing 64 nC gate charge, plus a substantial cooling solution due to higher losses and larger package size. SiC’s lower Rds(on) at high current (98 mΩ @ 13 A) significantly reduces conduction losses compared to traditional Si MOSFETs, but the higher gate voltage and charge require more complex gate drive circuits.

Cost at volume is also a major factor: the NX3008NBKS is a low-voltage MOSFET array likely priced in the low cents range, ideal for cost-sensitive automotive or consumer electronics. The IMYH200R075M1HXKSA1, as a high-voltage SiC MOSFET with a rugged package, will be considerably more expensive, justifiable only where its performance enables system-level benefits that outweigh cost.


Use-case fit

Choose NX3008NBKS,115 when…

Choose IMYH200R075M1HXKSA1 when…