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Comparison Hoco DB62 vs Hoco DB25

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Hoco DB62
Hoco DB25
Hoco DB62Hoco DB25
Outdated ProductOutdated Product
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Output connectors: 1 x 9V 1.8A/12V 1.35A, 1 x 5V 2A, 15/24V POE.
Typelow voltage UPS (router, camera)low voltage UPS (router, camera)
Form factorstandard (flat)standard (flat)
Input
Input voltage1 phase (230V)1 phase (230V) / 1 phase (120V)
Input voltage range100 – 240 В
Bypass (direct connection)in absentin absent
Output
Output voltageDC (constant voltage)DC (constant voltage)
Rated output power18 W25 W
USB-A for charging1 pcs1 pcs
USB-C for charging1 pcs
DC output1 x DC 9 H/12 H
PoE output (LAN)24 H15 H/24 H
Battery
Total battery capacity20 Ah8.8 Ah
Protection
Protection
short circuit protection
overload protection
short circuit protection
overload protection
General
Dimensions (HxWxD)35x206x120 mm28x160x105 mm
Weight0.64 kg0.38 kg
Added to E-Catalogfebruary 2025october 2023
Compare Hoco DB62 and DB25
Hoco DB62 often compared
Hoco DB25 often compared
Glossary

Input voltage

The input voltage for which the UPS is designed. This parameter practically also determines the type of network — different voltages correspond to a different number of phases:

1 phase (230 V). Connection to ordinary household networks of the 230 V standard. It is these networks that are used by most devices powered by uninterruptible power supplies: computers, video and audio equipment, gas boilers, air conditioners, medical equipment, etc. Therefore, the vast majority of modern UPSs are designed specifically for 230 V. At the same time, relatively low-power models can work directly from the outlet, but for devices with a high maximum output power — from 3.5 kVA — a special connection format (directly to the shield) may be required.

3 phases (400 V). Connection to three-phase networks of 400 V format. Such networks are used to power powerful industrial equipment, as well as to supply energy from substations to entire segments of the power grid (for example, the entire building). Accordingly, in the case of a UPS, it makes sense to use such an input voltage only in the most powerful models designed for a significant load — for example, an entire data centre, or an industrial workshop with high requirements for process continuity. The effective output power of such “uninterruptible power supplies” is from 4 kW, and the output voltage (see below) can be either single- or three-phase....

— 1 phase (230 V) / 3 phases (400 V). Uninterruptible devices that allow connection to any of the types of networks described above. Most of these devices are, in fact, models for three phases, supplemented by the ability to work also from 230 V. Note that for operation from a single-phase network, such models usually need to be connected directly to the shield, and the output power with such a connection may be lower the claimed maximum (this point needs to be specified separately).

Input voltage range

In this case, the input voltage range is implied, in which the UPS is able to supply a stable voltage to the load only due to its own regulators, without switching to the battery. For redundant UPSs (see "Type") this range is quite small, approximately 190 to 260 V; for interactive and especially inverter ones, it is much wider. Some UPS models allow you to manually set the input voltage range.

Rated output power

The effective output power of the UPS is, in fact, the maximum active power of the load that can be connected to the device.

Active power is consumed directly for the operation of the device; it is expressed in watts. In addition to it, most AC devices also consume reactive power, which is "wasted" (relatively speaking) is spent by coils and capacitors. Apparent power (denoted in volt-amperes) is precisely the sum of active and reactive power; it is this characteristic that should be used in accurate electrical calculations. See "Maximum output power" for details; here we note that when selecting a UPS for a relatively simple application, it is quite possible to use only effective power. This is at least easier than converting the watts claimed in the characteristics of the connected devices into full power volt-amps.

The most modest modern "uninterruptibles" give out less than 500 watts. 501 – 1000 W can be considered an average value, 1.1 – 2 kW is above average, and in the most powerful models this figure exceeds 2 kW and can reach very impressive values (up to 1000 kW or more in some industrial class UPS).

USB-C for charging

The number of symmetrical USB-C ports in the UPS design, which are used for charging gadgets. Often, a UPS with such an interface is equipped with one USB-C output, less often with two.

DC output

The presence of a DC connector (or several such outputs) in the device for powering external devices with direct current. A standard DC jack is round in shape and has a pin in the center. However, its dimensions may differ in depth and diameter. The voltages output to the DC output may vary.

PoE output (LAN)

Availability of a LAN connector in the UPS with support for PoE (Power over Ethernet) power supply. This technology allows energy to be transmitted via an Ethernet cable to power network devices. It is possible to power such devices directly from the UPS, which ensures equipment backup in case of power supply interruptions. Such devices include IP video surveillance cameras, access points, various sensors, etc.

Total battery capacity

The capacity of the battery installed in the UPS. For models with multiple batteries, this is both the total working capacity and the capacity of each individual battery: the batteries in such devices are usually connected in series, so that their total capacity corresponds to the capacity of each individual cell.

Theoretically, a higher battery capacity means the ability to power loads of a given capacity for longer. However, in fact, this parameter is more of a reference than practically significant. The fact is that the actual amount of energy stored by the battery depends not only on the capacity in amp-hours, but also on the voltage in volts; this voltage is often not specified in the characteristics, despite the fact that for accurate calculations it must be known. So when choosing, you should focus on more "close to life" characteristics — first of all, on the directly claimed operating time in different modes (see above).