The IPB series is a high-frequency sine wave inverter designed for reliable power solutions. With its utility bypass function, the IPB series uses utility power when available, switching to bypass mode to ensure uninterrupted power.
The inverter features a digital design and a voltage-current control algorithm, ensuring efficiency and reliability in every application. This makes the IPB series suitable for various DC-AC off-grid systems, including vehicle systems, security monitoring systems, emergency lighting systems, and household power systems.
The IPB series is a dependable option in the market for those needing consistent and efficient power solutions. It provides a reliable and straightforward approach to power management with features like utility bypass and digital control algorithms, which ensure seamless operation and optimal performance.
The IPB series inverters come with several key features that enhance their performance and reliability:
The IPB series incorporates advanced technologies to enhance user experience and system performance:
The features of the IPB series inverters provide several benefits:
The IPB series inverters have a specific naming convention that helps to quickly identify their key features and specifications. Here’s a breakdown of what each part of the name represents:
IPB: The prefix ‘IPB’ indicates the series name.
2000: This number represents the continuous output power in hundreds of watts.
1: This one indicates the rated input voltage, the digit “1” signifies 12VDC.
2: The second single digit “2” reveals the inverter output voltage. “2” corresponds to an output of 220/230/240VAC, suitable for many household and commercial applications.
E: This alphabet denotes the AC output port is applicable to European socket.
R: Here, ‘R’ means the device has reverse polarity protection.
The IPB series inverters offer a range of performance metrics suitable for various applications:
The IPB series inverters are designed with compact dimensions and varying weights to suit different installation environments:
These inverters are equipped with robust electrical specifications to handle diverse power requirements:
The IPB series inverters are designed for seamless integration and compatibility:
The IPB series inverters are versatile and can be applied to various real-world scenarios to provide reliable power solutions. Here are some practical use cases:
For the IPB series inverters, a variety of resources are available to help you get the most out of your product. These include:
You can download these resources directly from our website: IPB series
EPEVER offers robust technical support to assist you with any issues or questions you might have. You can access support through multiple channels:
The IPB series inverters adhere to high standards of quality and safety. They are certified for various international standards, ensuring reliability and compliance:
To help you better understand the construction and design of the IPB series inverters, we will break down the model IPB500-12 as an example. This overview will give you insight into the key components and their functions.
Here are the schematic diagrams of the connection of the three different IPB models. All models support utility and battery charging, and can provide power to your household appliances in your daily life.
The input ports of this type are all on the same side. The output ports are on the other side.
The DC input terminals of this product is on one side alone, and the other ports are on the other side.
All the terminals and switch are on one side.
Installing the IPB inverter correctly is important to ensure its optimal performance and longevity. Here are the key steps for a successful installation:
Mounting
The inverter shall be installed in a place with sufficient airflow through the dissipation pad of the inverter. And a minimum clearance of 150mm from the upper and lower edges of the inverter is recommended to ensure natural thermal convection. The following takes IPB2000-12 as an example.
1. Ground connection
The wire size for the ground connection must be thicker or equal to that for the AC output.
2. Battery connection
A fast-acting fuse must be installed on the battery side, conformed to the following requirements:
3. AC load connection
4. Connect the Utility
The Utility input can generate dangerous high-voltage. Please disconnect the circuit breaker or fast-acting fuse before wiring, and ensure correct pole connections.
Once the utility is connected, do not ground the battery; instead, ensure the inverter cover is reliably grounded to shield against electromagnetic interference and prevent electric shock.
5. Remote switch connection
6. Power on the inverter
Parameter | IPB500-12 | IPB1000-12 | IPB1500-12 | IPB2000-12 | IPB3000-12 | |
AC Input Voltage Range | 190~265VAC | |||||
Fast-acting Fuse① Rated Current | 3A | 5A | 8A | 10A | 15A | |
AC Input Frequency Range | 45Hz~55Hz/55Hz~65Hz | |||||
Battery Rated Voltage | 12VDC | |||||
Battery Work Voltage Range | 10.8 ~ 16.0VDC | |||||
Battery Rated Input Current | 46.7A | 92.3A | 141.1A | 185.6A | 283.7A | |
Continuous Output Power | 500W@35℃@Battery Rated Voltage | 1000W@35℃@Battery Rated Voltage | 1500W@35℃@Battery Rated Voltage | 2000W@35℃@Battery Rated Voltage | 3000W@35℃@Battery Rated Voltage | |
5-second Transient Surge Output Power | 1000W | 2000W | 3000W | 4000W | 6000W | |
Inverter Output Voltage | 220VAC (±3%); 230VAC (-6%~+3%); 240VAC (-9%~+3%) | |||||
Inverter Frequency | 50/60Hz ± 0.2% | |||||
Output Voltage Waveform | Pure Sine Wave | |||||
Output Voltage Harmonic Distortion Rate | ≤ 3% (Resistive load) | |||||
Load Power Factor | 0.2 ~ 1 (Load power ≤ Continuous output power) | |||||
Maximum Output Current | 4.6A | 9.2A | 13.8A | 18.4A | 27.6A | |
Rated Output Current | 2.3A | 4.6A | 6.9A | 9.2A | 13.8A | |
Rated Output Efficiency② | 90.2% | 91.4% | 89.7% | 90.9% | 89.2% | |
Maximum Output Efficiency③ | > 91.0% (40% loads) | > 93.0% (40% loads) | > 93.0% (30% loads) | > 94.0% (30% loads) | > 94.0% (30% loads) | |
Idle Current | < 0.15A | < 0.2A | < 0.2A | < 0.2A | < 0.2A | |
No-load Current | < 0.9A | < 1.1A | < 1.2A | < 1.2A | < 1.6A | |
RS485 Communication Port | 5VDC/200mA | |||||
Mechanical parameters | ||||||
Input Terminal | M6 | M6 | M6 | M10 | M10 | |
Dimension (Length x Width x Height) | 335 × 160 × 73mm | 371 × 228 × 118mm | 387 × 228 × 118mm | 420 × 228 × 118mm | 545 × 228 × 118mm | |
Mounting Size (Length x Width) | 311 × 75mm | 345 × 145mm | 361 × 145mm | 395 × 145mm | 520 × 145mm | |
Mounting Hole Size | Φ5mm | Φ6mm | Φ6mm | Φ6mm | Φ6mm | |
Net Weight | 2.3kg | 4.8kg | 6.0kg | 7.0kg | 9.5kg |
Environment parameters | |
Work Temperature Range | -20℃ ~ +60℃ (Refer to the Derating Curve) |
Storage Temperature Range | -35 ℃ ~ +70 ℃ |
Relative Humidity | ≤ 95% (N.C.) |
Enclosure | IP20 |
Altitude | < 5000m (If the altitude exceeds 1000 meters, the rated power will be reduced according to IEC62040.) |
Cookie | Duration | Description |
---|---|---|
cookielawinfo-checkbox-analytics | 11 months | This cookie is set by GDPR Cookie Consent plugin. The cookie is used to store the user consent for the cookies in the category "Analytics". |
cookielawinfo-checkbox-functional | 11 months | The cookie is set by GDPR cookie consent to record the user consent for the cookies in the category "Functional". |
cookielawinfo-checkbox-necessary | 11 months | This cookie is set by GDPR Cookie Consent plugin. The cookies is used to store the user consent for the cookies in the category "Necessary". |
cookielawinfo-checkbox-others | 11 months | This cookie is set by GDPR Cookie Consent plugin. The cookie is used to store the user consent for the cookies in the category "Other. |
cookielawinfo-checkbox-performance | 11 months | This cookie is set by GDPR Cookie Consent plugin. The cookie is used to store the user consent for the cookies in the category "Performance". |
viewed_cookie_policy | 11 months | The cookie is set by the GDPR Cookie Consent plugin and is used to store whether or not user has consented to the use of cookies. It does not store any personal data. |