Comparison Hoco J138 Distant vs ATRIA WPD-101
Add to comparison | ![]() | ![]() |
|---|---|---|
| Hoco J138 Distant | ATRIA WPD-101 | |
| Outdated Product | Outdated Product | |
| User reviews | ||
| TOP sellers | ||
| Battery capacity | 60000 mAh 222 W*h | 60000 mAh 222 W*h |
| Real capacity | 33000 mAh | 37700 mAh |
| Battery type | Li-Pol | Li-Pol |
Charging gadgets / outputs | ||
| USB-C | 2 pcs | 2 pcs |
| USB-A | 3 pcs | 2 pcs |
| USB-C1 | 20 W | 100 W |
| USB-C2 | 60 W | |
| USB-A1 | 22.5 W | 22.5 W |
| USB-A2 | 15 W | |
| USB-A3 | 15 W | |
| Power output (all ports) | 15 W | |
| DC connector | 12V/1.4A | 12V/5A |
Power bank charging | ||
| Power bank charging inputs | USB-C | USB-C |
| Power bank charge power | 18 W | 100 W |
Features | ||
| Pass-through charging | ||
| Fast charge | Quick Charge 3.0 Power Delivery 3.0 | Quick Charge 3.0 Power Delivery 3.0 |
| Bundled cables (adapters) | DC cable + connectors | |
| Features | info display flashlight | info display lamp |
General | ||
| Body material | plastic | plastic |
| Dimensions | 139x84x81 mm | 118x95x72 mm |
| Weight | 1360 g | 1152 g |
| Color | ||
| Added to E-Catalog | april 2025 | december 2023 |
Compare Hoco J138 Distant and ATRIA WPD-101
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Glossary
Real capacity
The real capacity of the power bank.
Real capacity is the amount of energy that a power bank is able to transfer to rechargeable gadgets. This amount is inevitably lower than the nominal capacity (see above) — most often by about 1.6 times (due to the fact that part of the energy goes to additional features and transmission losses). However, it is by real capacity that it is easiest to evaluate the actual capabilities of an external battery: for example, if this figure is 6500 mAh, this model is guaranteed to be enough for two full charges of a smartphone with a 3000 mAh battery and smartwatches for 250 mAh.
The capacity in this case is indicated for 5 V — the standard USB charging voltage. At the same time, the features of milliamp-hours as a unit of capacity are such that the actual amount of energy in the battery depends not only on the number of mAh, but also on the operating voltage. In fact, this means that when using fast charging technologies (see below) that involve increased voltage, the actual value of the actual capacity will differ from the claimed one (it will be lower). There are formulas and methods for calculating this value, they can be found in special sources.
Real capacity is the amount of energy that a power bank is able to transfer to rechargeable gadgets. This amount is inevitably lower than the nominal capacity (see above) — most often by about 1.6 times (due to the fact that part of the energy goes to additional features and transmission losses). However, it is by real capacity that it is easiest to evaluate the actual capabilities of an external battery: for example, if this figure is 6500 mAh, this model is guaranteed to be enough for two full charges of a smartphone with a 3000 mAh battery and smartwatches for 250 mAh.
The capacity in this case is indicated for 5 V — the standard USB charging voltage. At the same time, the features of milliamp-hours as a unit of capacity are such that the actual amount of energy in the battery depends not only on the number of mAh, but also on the operating voltage. In fact, this means that when using fast charging technologies (see below) that involve increased voltage, the actual value of the actual capacity will differ from the claimed one (it will be lower). There are formulas and methods for calculating this value, they can be found in special sources.
USB-A
The number of USB-A ports available for charging smartphones, headphones, accessories, and other devices. This format is still in demand because USB-A is widely used and fits a large number of existing cables and devices, although it usually falls behind USB-C in terms of relevance and power. A single USB-A output is typically sufficient for basic everyday use, while two, three, four, or more are convenient for connecting multiple gadgets simultaneously.
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.
USB-A2
The maximum power of the second USB-A output, which is usually slightly less than USB-A1, but is still suitable for charging smartphones, accessories, and other everyday devices.
USB-A3
The power on the USB-A3 port indicates the maximum power at which the third USB-A port operates, which is often used as an additional output when charging multiple devices simultaneously. It should be noted that simultaneous charging on multiple ports reduces the maximum output power values.
Power output (all ports)
The total charge power provided by the power bank on all connectors overnight - when devices are connected simultaneously to all charging ports.
This parameter is given due to the fact that the total charge power does not always correspond to the sum of the maximum powers of all available ports. The built-in battery of a power bank often has its own limitation on the output power. Therefore, for example, in a model with two 18 W USB ports, each total charge power can be the same 18 W. Note that the distribution of power among the connectors may be different: in some models it is divided equally, in others it is divided in proportion to the maximum current strength (if it differs on different ports). These nuances should be clarified using the detailed characteristics of the charging connectors.
If you plan to regularly use all power bank connectors at once, you should pay attention to this indicator.
This parameter is given due to the fact that the total charge power does not always correspond to the sum of the maximum powers of all available ports. The built-in battery of a power bank often has its own limitation on the output power. Therefore, for example, in a model with two 18 W USB ports, each total charge power can be the same 18 W. Note that the distribution of power among the connectors may be different: in some models it is divided equally, in others it is divided in proportion to the maximum current strength (if it differs on different ports). These nuances should be clarified using the detailed characteristics of the charging connectors.
If you plan to regularly use all power bank connectors at once, you should pay attention to this indicator.
DC connector
The DC connector parameter shows what voltage and current the power bank can work with through this output. This parameter helps to immediately understand compatibility with the connected devices, as it is important for the device to have not only the plug itself but also the appropriate electrical parameters. It should be noted that the DC output often supports several operating modes for different scenarios and devices.
When choosing, it is especially important that the voltage matches the device's requirements, and the allowable current is not lower than necessary. For example, for a laptop powered at 19V/3.42A, an output of 19V/3.5A or 19V/4A will be suitable, whereas values of 12V/2A or 24V/3.5A are unacceptable (in the first case it won't charge, and in the second, you could damage the laptop).
When choosing, it is especially important that the voltage matches the device's requirements, and the allowable current is not lower than necessary. For example, for a laptop powered at 19V/3.42A, an output of 19V/3.5A or 19V/4A will be suitable, whereas values of 12V/2A or 24V/3.5A are unacceptable (in the first case it won't charge, and in the second, you could damage the laptop).
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.



