25878
25875
25872
90413
60168
90904B
90912
80113
30758
70336
50209
80551
15086
15169
90597A
70819
70774
90322
40747
90549
90409
40914
40915
90767
90664
90663
40749
90877
10344
50339
60451
60450
10191
50150
70427 (1m) / 70429 (2m)
60761
60980
10144
30780
60990B
50564
60700
50706
60560
25878
25875
25872
90413
60168
90904B
90912
80113
60560
50706
30758
80551
70336
50209
15086
15169
70819
70774
90322
40747
90409
40914
40915
90767
90664
90663
40749
90597A
90877
10344
50339
60451
60450
10191
60990B
50564
60980
10144
30780
50150
70427 (1m) / 70429 (2m)
60761
60700
Most modern day chargers use electricity transistors made of silicon making up the chips inside the charger. Unfortunately, silicon is limited when it comes to how big a charger can be and how much heat it generates.
GaN is the evolution of charging, and is ideal for ultra-fast charging accessories. Gallium nitride (GaN) transfers more power, faster, while using less heat (or energy) than silicon. By reducing the amount of energy used when charging, critical components can work closer together, so your product is more compact, and ultimately has a longer lifespan.
Multi port GaN chargers not only power devices and charge them quicker, it allows for multiple devices to be charged at once, eradicating the need for multiple chargers. By requiring only one charger it reduces the need to manufacture greater quantities of chargers, resulting in the reduction of CO2 produced in the manufacturing of these products.
The result is a super-efficient charger that’s safer and smaller, that has less impact on the environment, helps with cheaper energy bills and overall more dependable for years to come.
Most modern day chargers use electricity transistors made of silicon making up the chips inside the charger. Unfortunately, silicon is limited when it comes to how big a charger can be and how much heat it generates.
GaN is the evolution of charging, and is ideal for ultra-fast charging accessories. Gallium nitride (GaN) transfers more power, faster, while using less heat (or energy) than silicon. By reducing the amount of energy used when charging, critical components can work closer together, so your product is more compact, and ultimately has a longer lifespan.
Multi port GaN chargers not only power devices and charge them quicker, it allows for multiple devices to be charged at once, eradicating the need for multiple chargers. By requiring only one charger it reduces the need to manufacture greater quantities of chargers, resulting in the reduction of CO2 produced in the manufacturing of these products.
The result is a super-efficient charger that’s safer and smaller, that has less impact on the environment, helps with cheaper energy bills and overall more dependable for years to come.