Comparison BASEUS Super Energy Max Car Jump Starter 20000 vs Noco GB20 Boost Sport
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|---|---|---|
| BASEUS Super Energy Max Car Jump Starter 20000 | Noco GB20 Boost Sport | |
| Outdated Product | Compare prices 5 | |
| User reviews | ||
| TOP sellers | ||
The USB type C port is only used to charge the power bank itself, but cannot be used to charge devices. | Charging power connector — Type-C 10W. | |
| Device | booster | booster |
Specs | ||
| Battery voltage | 12 В | 12 В |
| Rated starting power | 1000 А | |
| Peak output current | 2000 А | 500 А |
| Built-in battery capacity | 20000 mAh | 4800 mAh |
Charging gadgets (outputs) | ||
| USB-A | 1 pcs 5В/2.4А 12 W | 1 pcs 5В/2.1А 10.5 W |
| USB-A (fast charge) | 1 pcs 5В/3А, 9В/3А, 12В/2.5А 30 W | |
General | ||
| Built-in flashlight | ||
| IP code | IP65 | |
| Power source | 230 В | 12/230 В |
| Size | 165x87x38 mm | 196x80.3x43.5 mm |
| Weight | 0.47 kg | 0.74 kg |
| Added to E-Catalog | october 2022 | september 2017 |
Compare BASEUS Super Energy Max Car Jump Starter 20000 and Noco GB20 Boost Sport
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Glossary
Rated starting power
Nominal starting current of the starter charger or booster (see "Type").
In this case, it refers to the current that the device can deliver in engine starting mode for a relatively long period (at least 30 seconds, or even more). This indicator should not be lower than the nominal starting current consumed by the car's starter — otherwise, the device simply will not have enough power for effective starter cranking and engine starting. Information about the required starting current can be clarified by the car's documentation or by the specifications of the standard battery used in it. For most passenger cars, this figure ranges from 200 to 400 A; less powerful starting devices are mainly intended for motorcycles and other similar vehicles, while more powerful ones are for buses, trucks, and other heavy equipment, among such "starters" there are models for 400 – 600 A and even over 1000 A.
In this case, it refers to the current that the device can deliver in engine starting mode for a relatively long period (at least 30 seconds, or even more). This indicator should not be lower than the nominal starting current consumed by the car's starter — otherwise, the device simply will not have enough power for effective starter cranking and engine starting. Information about the required starting current can be clarified by the car's documentation or by the specifications of the standard battery used in it. For most passenger cars, this figure ranges from 200 to 400 A; less powerful starting devices are mainly intended for motorcycles and other similar vehicles, while more powerful ones are for buses, trucks, and other heavy equipment, among such "starters" there are models for 400 – 600 A and even over 1000 A.
Peak output current
Peak starting current of the starter charger or booster (see «Type»).
The peak current is the highest current that the device can issue without problems for a short time (1 – 2 seconds). This current is significantly higher than the nominal starting current (see above), which corresponds to the operation of a car starter: as it begins to spin, the starter consumes a very high current that decreases almost immediately.
The peak starting current of the starter charger or booster should not be lower than the peak starting current of the starter. This can be specified in the car's documentation or based on the characteristics of the standard car battery used.
The peak current is the highest current that the device can issue without problems for a short time (1 – 2 seconds). This current is significantly higher than the nominal starting current (see above), which corresponds to the operation of a car starter: as it begins to spin, the starter consumes a very high current that decreases almost immediately.
The peak starting current of the starter charger or booster should not be lower than the peak starting current of the starter. This can be specified in the car's documentation or based on the characteristics of the standard car battery used.
Built-in battery capacity
Capacity of the own battery provided in the design of the starter-charger.
As a rule, boosters and launchers with a power bank function are equipped with their own batteries (see “Type”). The main purpose of such a battery from the point of view of helping to “light up” is to provide the power necessary to start the engine. However, in some models the battery is responsible for other functions, such as the built-in compressor or flashlight. The larger the battery capacity, the longer the device can operate, and the more tasks it can perform on a single charge.
In starting devices with the powerbank function, this parameter is also given to estimate how much energy the battery can accumulate and then transfer to connected gadgets. It is important to consider that there is a nominal (declared) and real capacity - the latter is always less, because it takes into account the inevitable losses during energy conversion. Typically the difference is from 30 to 40%, i.e. a model with a conventional battery capacity of 10,000 mAh will not fully charge a smartphone with a 3,000 mAh battery three times, but at best will provide two power cycles, because in practice its working capacity is about 6,000 mAh. Therefore, it is not entirely correct to compare the mAh values of your gadget’s battery with the nominal capacity of the built-in battery - you should definitely take into account that the real capacity is always less than the “rated” one.
As a rule, boosters and launchers with a power bank function are equipped with their own batteries (see “Type”). The main purpose of such a battery from the point of view of helping to “light up” is to provide the power necessary to start the engine. However, in some models the battery is responsible for other functions, such as the built-in compressor or flashlight. The larger the battery capacity, the longer the device can operate, and the more tasks it can perform on a single charge.
In starting devices with the powerbank function, this parameter is also given to estimate how much energy the battery can accumulate and then transfer to connected gadgets. It is important to consider that there is a nominal (declared) and real capacity - the latter is always less, because it takes into account the inevitable losses during energy conversion. Typically the difference is from 30 to 40%, i.e. a model with a conventional battery capacity of 10,000 mAh will not fully charge a smartphone with a 3,000 mAh battery three times, but at best will provide two power cycles, because in practice its working capacity is about 6,000 mAh. Therefore, it is not entirely correct to compare the mAh values of your gadget’s battery with the nominal capacity of the built-in battery - you should definitely take into account that the real capacity is always less than the “rated” one.
USB-A
Full-sized USB-A connectors are popular in computer technology and are standardly used in chargers-adapters for household 230 V networks and 12 V car sockets. These outputs have also become widespread in starter devices for charging gadgets. These ports are characterized by a low power output, not exceeding 15 W (which is quite sufficient for charging gadgets) and a stable current, which remains constant throughout the charging process.
USB-A (fast charge)
Full-size USB-A ports with fast charging support. This allows you to charge your smartphone, tablet, or other connected device significantly faster. The charging process takes place at increased power, with the current and voltage at each stage regulated (for example, 5V/3A, 9V/2A, 12V/1.5A) to remain within optimal values.
IP code
The level of protection against dirt and moisture provided by the body of the charger. It is indicated according to the IP standard in two numbers: the first (from 1 to 6) means resistance to the penetration of foreign objects and dust, the second (from 1 to 9) - protection against moisture. A detailed explanation of these designations can be found in additional reference materials, but here we note that the larger the number, the higher the level of protection provided.
Power source
External power sources for which the device is designed.
— 230 V. Powered by a normal household network. Most devices with such a power supply allow connection directly to the outlet; however, if the power consumption exceeds 3.5 kW, another method of connection may be required — directly to the panel. These details should be clarified in the instructions.
— 12/230 V. Possibility of power supply both from a standard 230 V household network and from a 12-volt vehicle on-board network. This option is found mainly among boosters, while the connection to the 12 V network is usually carried out through the cigarette lighter and is used to charge the built-in battery of the device.
— 400 V. Powered by 400 V three-phase networks. Three-phase connection is not as common as 230 V, it is available mainly in workshops, large car park garages and other industrial premises. Therefore, power supply from 400 V is provided only in the most powerful "starters", for which 230 V is no longer enough. Such devices are designed mainly for heavy equipment such as buses, trucks, bulldozers, etc.
— 230/400 V. Ability to connect the device to both 230-volt and 400-volt networks. See above for details on the features of both. Here we note that such versatility is found in some high-power units that regularly use three-phase networks, however, in the absen...ce of such a connection, they can also work from single-phase ones. Note that such a device, most likely, will not be able to connect to a regular outlet — it will need a special connection format.
— From the cigarette lighter. Connection to the car's on-board network through a standard cigarette lighter socket. In this case, it is meant to work only from the cigarette lighter, without any other options for external power supply. This option is extremely rare (more often such a connection is combined with the ability to work from 230 V, see above for details). It is used in some models of chargers designed to work in the "cigarette lighter to cigarette lighter" format. This format allows you to charge the battery directly in the car without removing it: one plug is inserted into the cigarette lighter of the car with the engine running, which plays the role of a “field power station”, the second plug is inserted into the cigarette lighter of the car, where the rechargeable battery is installed.
— From the generator. Models designed for connection to generators with unstable voltage indicators. The most popular way to use such devices is to connect directly to a car generator, hence the name. However, in addition to this, compatibility with less traditional energy sources, such as solar panels or wind turbines, may be envisaged. Anyway, with such a connection, it is necessary to constantly monitor signal fluctuations and respond to them, leaving the current parameters at the output practically unchanged; only automatic charger devices are fully capable of this (see "Type").
— 230 V. Powered by a normal household network. Most devices with such a power supply allow connection directly to the outlet; however, if the power consumption exceeds 3.5 kW, another method of connection may be required — directly to the panel. These details should be clarified in the instructions.
— 12/230 V. Possibility of power supply both from a standard 230 V household network and from a 12-volt vehicle on-board network. This option is found mainly among boosters, while the connection to the 12 V network is usually carried out through the cigarette lighter and is used to charge the built-in battery of the device.
— 400 V. Powered by 400 V three-phase networks. Three-phase connection is not as common as 230 V, it is available mainly in workshops, large car park garages and other industrial premises. Therefore, power supply from 400 V is provided only in the most powerful "starters", for which 230 V is no longer enough. Such devices are designed mainly for heavy equipment such as buses, trucks, bulldozers, etc.
— 230/400 V. Ability to connect the device to both 230-volt and 400-volt networks. See above for details on the features of both. Here we note that such versatility is found in some high-power units that regularly use three-phase networks, however, in the absen...ce of such a connection, they can also work from single-phase ones. Note that such a device, most likely, will not be able to connect to a regular outlet — it will need a special connection format.
— From the cigarette lighter. Connection to the car's on-board network through a standard cigarette lighter socket. In this case, it is meant to work only from the cigarette lighter, without any other options for external power supply. This option is extremely rare (more often such a connection is combined with the ability to work from 230 V, see above for details). It is used in some models of chargers designed to work in the "cigarette lighter to cigarette lighter" format. This format allows you to charge the battery directly in the car without removing it: one plug is inserted into the cigarette lighter of the car with the engine running, which plays the role of a “field power station”, the second plug is inserted into the cigarette lighter of the car, where the rechargeable battery is installed.
— From the generator. Models designed for connection to generators with unstable voltage indicators. The most popular way to use such devices is to connect directly to a car generator, hence the name. However, in addition to this, compatibility with less traditional energy sources, such as solar panels or wind turbines, may be envisaged. Anyway, with such a connection, it is necessary to constantly monitor signal fluctuations and respond to them, leaving the current parameters at the output practically unchanged; only automatic charger devices are fully capable of this (see "Type").














