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MOT GaN Device Naming Rules Explained

Technical code behind model

The GaN package model uses the " three-part code rule " to pass technical parameters accurately by combining letters and numbers.

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Example model: MOTGE65R190Q

Prefixing technical route

– GE: E-mode nitrogen

– GD: D-mode nitrogen oxides

Technical difference: E-mode devices need not have a negative break and drive circuits are simpler; D-mode needs a combination of drive IC to achieve a permanent closure.

2. Pressure proofing

-65: 650V piercing voltage (actual test value 700V)

-70: 700V piercing voltage (fitting 800V bus system)

3. Controlling electrical resistance precision

-R190: 25 °C at R<sub>DS(on)</sub>=190m

– Test: JEDEC JS-709-1A (pulse method)

4. Seal codes

-Q: DFN8 x 8 (sized 8mm x 8mm, supporting double-sided heat)

-G: DFN5 x 6 (5mm x 6mm, compact design)

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Product matrix versus performance

Type | Type | Stress (V) | R<sub>DS(on)</ sub>(m) < Seal Qsub>g</sub> (nC)

| MOTGE65R190Q |E-mode |650|190 DDFN8x8 8. 8. 5

| MOTGD65R110Q | D-mode | 650 | 110 D DFN5 x 6 | 6. 2

| MOOTGE70R350G | E-mode | 700 | 350 | DFN5 x 6 | 12. 8

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Interpretation of key parameters

E-mode Low Qg Advantage: Qg of MoTGE65R190Q only 8. 5nC supports 500kHz HF switches

D-mode ultra-low internal barrier: R<sub>DS(on)</sub> of MOTGD65R110Q is as low as 110 m and lead losses are 60% lower than Silicon MOS

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Right away, contact the sales to get the Ingien GaN Handbook.

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