Comparison Hoco DB03 Max Centurion vs Hoco DB03 Endure
Add to comparison |  |  |
|---|---|---|
| Hoco DB03 Max Centurion | Hoco DB03 Endure | |
| Outdated Product | Outdated Product | |
| User reviews | ||
| TOP sellers | ||
| Battery capacity | 100000 mAh 370 W*h | 100000 mAh 370 W*h |
| Real capacity | 54000 mAh | 54000 mAh |
| Battery type | Li-Pol | Li-Pol |
Charging gadgets / outputs | ||
| USB-C | 2 pcs | 1 pcs |
| USB-A | 6 pcs | 6 pcs |
| USB-C1 | 65 W | 20 W |
| USB-C2 | 65 W | |
| USB-A1 | 22.5 W | 22.5 W |
| USB-A2 | 15 W | 15 W |
| USB-A3 | 15 W | 15 W |
| USB-A4 | 15 W | 15 W |
| Other connectors | USB A №5, №6 – 15 W | USB A №5, №6 – 15 W |
| Power output (all ports) | 15 W | 15 W |
Power bank charging | ||
| Power bank charging inputs | USB-C | USB-C |
| Power bank charge power | 60 W | 18 W |
| Full charge time | 20 h | |
Features | ||
| Fast charge | Quick Charge 3.0 Power Delivery 3.0 | Quick Charge 3.0 Power Delivery 3.0 |
| Bundled cables (adapters) | USB-C | USB-C |
| Features | info display lamp | info display lamp |
General | ||
| Body material | plastic | plastic |
| Dimensions | 166x106x97 mm | 166x106x97 mm |
| Weight | 1893 g | 1893 g |
| Color | ||
| Added to E-Catalog | january 2025 | september 2024 |
Compare Hoco DB03 Max Centurion and DB03 Endure
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Glossary
USB-C
The number of modern ports USB-C and built-in USB-C cables that can be used to charge smartphones, tablets, headphones, consoles, and other current devices. This format is particularly convenient today because USB-C has become the main connector for most new devices and usually supports higher charging power than USB-A. One USB-C output is usually enough for everyday use, while two and three are convenient if you need to connect several gadgets at the same time.
USB-C1
The power capacity of the main USB-C port, which among USB-C connectors is typically the most powerful. This specification is especially important for smartphones with fast charging, tablets, portable consoles, and laptops that require increased power supply.
Values around 18 – 30 W are usually sufficient for fast charging smartphones, 45 – 65 W are suitable for portable consoles, some ultrabooks, and other more demanding devices, and 100 W and above are even designed for powerful laptops and heavy loads.
Values around 18 – 30 W are usually sufficient for fast charging smartphones, 45 – 65 W are suitable for portable consoles, some ultrabooks, and other more demanding devices, and 100 W and above are even designed for powerful laptops and heavy loads.
USB-C2
Maximum output power of the second USB-C port, which usually lags behind USB-C1, but can still be suitable for fast charging smartphones, portable consoles, and other modern devices.
Power bank charge power
The power in watts at which the power bank is charged under normal conditions.
The higher the charging power, the less time it takes to charge (given the same battery capacity). For example, fast charging of a power bank typically means a charging power of 30W or more. However, this parameter does not directly affect compatibility with charging devices: modern portable batteries can work with chargers of both higher and lower power. In the first case, the battery controller will automatically limit the charging current, while in the second case, charging will simply take more time.
The higher the charging power, the less time it takes to charge (given the same battery capacity). For example, fast charging of a power bank typically means a charging power of 30W or more. However, this parameter does not directly affect compatibility with charging devices: modern portable batteries can work with chargers of both higher and lower power. In the first case, the battery controller will automatically limit the charging current, while in the second case, charging will simply take more time.
Full charge time
The time required to fully charge a battery discharged “to zero”. Features of the charging process in different models may be different, respectively, and the time required for this may differ markedly even with the same capacity.
Fast-charging batteries tend to be more expensive. Therefore, choosing this option makes sense if you do not have much time to replenish your energy supply — for example, for hiking. However, keep in mind that charging at full speed may require a charger that supports certain fast charging technologies (see below).
It must also be said that in most modern batteries, the charging speed is uneven — it is highest at the several first percent from zero, then gradually decreases. Therefore, the time required to replenish the energy supply by a certain percentage will not be strictly proportional to the total claimed charge time; moreover, this time will depend on how much the battery is already charged at the time the procedure starts. For example, charging from 0 to 50% will take less time than from 50 to 100%, although both there and there we are talking about half the capacity.
Fast-charging batteries tend to be more expensive. Therefore, choosing this option makes sense if you do not have much time to replenish your energy supply — for example, for hiking. However, keep in mind that charging at full speed may require a charger that supports certain fast charging technologies (see below).
It must also be said that in most modern batteries, the charging speed is uneven — it is highest at the several first percent from zero, then gradually decreases. Therefore, the time required to replenish the energy supply by a certain percentage will not be strictly proportional to the total claimed charge time; moreover, this time will depend on how much the battery is already charged at the time the procedure starts. For example, charging from 0 to 50% will take less time than from 50 to 100%, although both there and there we are talking about half the capacity.