15.36 kWh nominal system energy
Review this attribute together with the complete system, destination requirements, and operating conditions.
solar storage
PowerHom-X 15.36 kWh High-Voltage Stacked Home Battery System
A three-module high-voltage stacked LFP home battery system with 15.36 kWh nominal energy, 153.6 V nominal system voltage, and IP54 enclosure rating.
- 15.36 kWh nominal system energy
- 153.6 V nominal system voltage
- Three 51.2 V / 100 Ah modules
- IP54 enclosure rating
- Model
- HZF-51.2-100-SI
- Battery chemistry
- LFP
- Standard configuration
- 3 × 51.2 V / 100 Ah battery modules
- Nominal system voltage
- 153.6 V
Product overview
PowerHom-X is a modular high-voltage battery architecture for residential photovoltaic self-use and selected backup loads. Final selection depends on the approved inverter, operating-voltage window, module topology, essential-load plan, and installation conditions.
Configuration note: nameplate values help define the starting point. Final usable energy, interfaces, operating limits, document scope, and commercial terms are confirmed for the specific project.
153.6 V nominal system voltage
Review this attribute together with the complete system, destination requirements, and operating conditions.
Three 51.2 V / 100 Ah modules
Review this attribute together with the complete system, destination requirements, and operating conditions.
IP54 enclosure rating
Review this attribute together with the complete system, destination requirements, and operating conditions.
Key specifications
| Parameter | Value | Condition or note |
|---|---|---|
| Model | HZF-51.2-100-SI | Confirm final operating conditions in the project proposal. |
| Battery chemistry | LFP | Confirm final operating conditions in the project proposal. |
| Standard configuration | 3 × 51.2 V / 100 Ah battery modules | Confirm final operating conditions in the project proposal. |
| Nominal system voltage | 153.6 V | Confirm final operating conditions in the project proposal. |
| Nominal system energy | 15.36 kWh | Confirm final operating conditions in the project proposal. |
| System operating voltage | 129.6–175.2 V | Confirm final operating conditions in the project proposal. |
| Maximum continuous charge / discharge current | 50 A at 25 ± 3 °C | Confirm final operating conditions in the project proposal. |
| Communications | CAN / RS485 | Confirm final operating conditions in the project proposal. |
| Remote monitoring | Wi-Fi module | Confirm final operating conditions in the project proposal. |
| Enclosure rating | IP54 | Confirm final operating conditions in the project proposal. |
| Published altitude range | 0–3000 m | Confirm final operating conditions in the project proposal. |
| Battery-module dimensions | 660 × 400 × 180 mm | Confirm final operating conditions in the project proposal. |
| Operating temperature | Charge 0–45 °C; discharge -10–60 °C | Confirm final operating conditions in the project proposal. |
Applications to evaluate
Residential photovoltaic self-consumption
Validate the duty cycle, site, interfaces, and operating objective before confirming model suitability.
Selected critical-load backup
Validate the duty cycle, site, interfaces, and operating objective before confirming model suitability.
Time-of-use energy management
Validate the duty cycle, site, interfaces, and operating objective before confirming model suitability.
Review the application requirements
Selection, supply scope and engineering notes
- Confirm the inverter's high-voltage battery window, CAN or RS485 protocol, charge settings, and approved topology.
- Calculate backup duration from usable rather than nominal energy, including inverter losses and operating reserve.
- Confirm the allowed expansion architecture, installed dimensions, mass, floor loading, clearances, protective devices, and cable scope.
- Request the current controlled data sheet before contracting because the supplied Chinese and English sheets disagree on cycle conditions and component weights.
- Confirm warranty, compliance documents, monitoring access, commissioning, and acceptance criteria in the quotation.
Confirm the project responsibility matrix
The product rating does not define a turnkey project scope. The quotation should identify who supplies, integrates, installs, commissions, and accepts each applicable item.
- Battery system, BMS, thermal management, enclosure, internal protection, and communications
- PCS, EMS or SCADA, transformer, switchgear, metering, external protection, and grid interface
- Fire strategy, foundations, lifting, cable routing, installation, testing, and commissioning
- Documentation, training, spare parts, warranty conditions, maintenance, and acceptance records
Published evidence and controlled documents
Source status: Published values are limited to the reviewed technical fields recorded for this model. A controlled model-specific technical brief is not currently published on this website.
Use the public page and any available procurement brief for initial comparison. Request the applicable controlled data sheet, drawings, test or certificate evidence, and commercial documents for the exact quoted model and destination.
Guides for your technical review
Home Battery Sizing
Size a home battery from the loads that must run, their coincident and starting power, required backup hours, usable-energy assumptions, recharge opportunity, and the inverter's supported battery configuration.
Read guide →Home Battery Formats
Rack, stacked, and wall-mounted batteries mainly differ in mechanical format, expansion method, service access, footprint, cable routing, and integration. Energy needs and inverter compatibility remain the first filters.
Read guide →Solar Battery Decision Guide
A solar battery is worth evaluating when it supports a defined objective that can be modeled from interval loads, solar production, outage needs, export limits, tariffs, and operating constraints.
Read guide →Frequently asked questions
What buyers ask before specifying a battery system
Answers cover the information needed to confirm configuration, operating conditions, documentation, price, and delivery.
How is a battery sized for a solar project?
Sizing starts with interval load data, photovoltaic production, desired backup loads, outage duration, export limits, tariff periods, and the operating objective. Oversizing from monthly consumption alone can produce a poor technical and commercial result.
Can a home battery back up every household load?
Only if the inverter power, battery energy, surge requirement, wiring, and changeover design support those loads. Critical-load backup and whole-home backup are different designs and should be specified separately.
How do rack-mounted, stacked, and wall-mounted home batteries differ?
They primarily differ in installation format, expansion method, service access, footprint, and system integration. Select the format after checking space, inverter compatibility, required energy, cable routing, and local installation rules.
Is nameplate energy the same as usable energy?
Not necessarily. Usable energy depends on the permitted state-of-charge window, operating conditions, conversion losses, control strategy, and project limits. Ask for both nominal and usable values in the final proposal.
Which certifications are available?
Certification scope varies by model and destination. Request the current certificate and test-report package for the exact quoted model; legacy or expired certificates are not presented as current product credentials.
Why are prices not published on the product pages?
The listed products are project-configured B2B systems or battery series. Pricing depends on configuration, quantity, accessories, packaging, destination, and commercial terms, so quotations are prepared against a defined project scope.
Discuss the PowerHom-X
The inquiry keeps this product context attached, so the receiving team can see which specifications and application triggered the request.