{ "id": 991281, "date": "2026-09-12T15:02:05", "date_gmt": "2026-09-12T07:02:05", "guid": { "rendered": "https:\/\/genixenergy.com.ua\/ua\/?p=991281" }, "modified": "2026-09-12T18:32:11", "modified_gmt": "2026-09-12T10:32:11", "slug": "es-box36-series-home-battery-guide", "status": "publish", "type": "post", "link": "https:\/\/genixenergy.com.ua\/en\/blog\/es-box36-series-home-battery-guide\/", "title": { "rendered": "ES-BOX36 Series Explained: Which Battery Capacity Fits Your Home Backup System?" }, "content": { "rendered": "
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The ES-BOX36 Series gives home-backup projects four 51.2 V LFP\noptions: 5.12, 10.24, 14.34 and 16.08 kWh. The right choice follows the\ncritical-load profile, required backup window, inverter current limit,\ncommunication settings and installation conditions, not capacity alone.\nGenixgreen has operated since 2011, as stated on its About page<\/a>, and this\nguide turns those checks into a clear shortlist. Start with the wider Genixgreen battery range<\/a> if you are still comparing\nbattery formats.<\/p>\n

The short answer<\/h2>\n

Choose ES-BOX36 by answering three questions in order: how much\nenergy critical loads require, whether the inverter can accept the\nbattery current and communication protocol, and whether the installation\nsite supports the battery’s weight and temperature range. The supplied\nB00 datasheet lists all four models at 51.2 V, with maximum charge and\ndischarge current from 100 A to 200 A. It also specifies charging from 0\nto 55\u00b0C. Source<\/a><\/p>\n

Compare the four\nES-BOX36 configurations<\/h2>\n

The product decision starts with nominal energy, but a site survey\nshould also include current, dimensions and weight. The B00 datasheet\nlists LFP cells, USB, RS485 and CAN interfaces, and wall-mounted or\nfloor-standing installation for the series.<\/p>\n

Electrical and\nmechanical specifications<\/h3>\n

The four models step up in stored energy and mass. The bracket and\nwheel notes in the datasheet matter when measuring the final\ninstallation space.<\/p>\n

Nominal energy,\ncurrent, dimensions and weight<\/h4>\n\n\n\n\n\n\n\n\n
Model<\/th>\nNominal energy<\/th>\nNominal capacity<\/th>\nMax. charge\/discharge current<\/th>\nDimensions<\/th>\nNet weight<\/th>\n<\/tr>\n<\/thead>\n
ES-BOX36<\/td>\n5.12 kWh<\/td>\n100 Ah<\/td>\n100 A<\/td>\n450 \u00d7 620 \u00d7 160 mm<\/td>\n51 kg<\/td>\n<\/tr>\n
ES-BOX36 PLUS<\/td>\n10.24 kWh<\/td>\n200 Ah<\/td>\n150 A<\/td>\n480 \u00d7 650 \u00d7 245 mm<\/td>\n92 kg<\/td>\n<\/tr>\n
ES-BOX36 MAX<\/td>\n14.34 kWh<\/td>\n280 Ah<\/td>\n200 A<\/td>\n460 \u00d7 880 \u00d7 245 mm<\/td>\n122 kg<\/td>\n<\/tr>\n
ES-BOX36 MAX+<\/td>\n16.08 kWh<\/td>\n314 Ah<\/td>\n200 A<\/td>\n460 \u00d7 880 \u00d7 245 mm<\/td>\n122 kg<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

The ES-BOX36 and PLUS dimensions exclude wall brackets. The MAX and\nMAX+ dimensions exclude wheels. Use the listed figures as layout inputs,\nthen have the installer verify clearances and access.<\/p>\n

Build a\nshortlist from load and backup duration<\/h3>\n

Capacity changes the energy available to a project, while current and\nphysical size also increase across the range. That makes the four\nconfigurations useful planning steps, but it does not justify assigning\nany model to a particular apartment or house without measured loads.<\/p>\nA\nfour-model decision matrix keeps the choice evidence-bounded<\/h4>\n\n\n\n\n\n\n\n\n
Model<\/th>\nWhat changes from the previous step<\/th>\nDecision value<\/th>\nCheck before selecting<\/th>\n<\/tr>\n<\/thead>\n
ES-BOX36, 5.12 kWh<\/td>\nEntry energy level, 100 Ah and 100 A<\/td>\nA starting point for a compact critical-load plan<\/td>\nTarget duration and 100 A current limit<\/td>\n<\/tr>\n
ES-BOX36 PLUS, 10.24 kWh<\/td>\nDoubled nominal energy, 200 Ah and 150 A<\/td>\nMore stored energy with a larger enclosure<\/td>\nMounting surface, inverter current and space<\/td>\n<\/tr>\n
ES-BOX36 MAX, 14.34 kWh<\/td>\nHigher nominal energy, 280 Ah and 200 A<\/td>\nAdds energy and current headroom in the same 122 kg class<\/td>\nAccess route, support and protective design<\/td>\n<\/tr>\n
ES-BOX36 MAX+, 16.08 kWh<\/td>\nHighest listed nominal energy, 314 Ah and 200 A<\/td>\nLargest single-unit energy option in this datasheet<\/td>\nActual critical-load profile, inverter fit and live inventory<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

The matrix compares declared product attributes, not expected home\nautonomy. The installed inverter, the allowed usable-energy setting and\nthe load pattern decide how much of each nameplate value becomes backup\ntime.<\/p>\n

Ukraine stock needs\na current confirmation<\/h3>\n

The ES-BOX36 Series was confirmed as available from Ukraine stock on\n21 August 2026. That confirmation applies to the series, not to every\nmodel or quantity.<\/p>\n

Confirm model and\nquantity before ordering<\/h4>\n

Ask for the exact model name and available quantity before committing\na project. A dated stock statement is useful for an initial enquiry, but\ncurrent inventory must win over a historic article.<\/p>\n

Use a\nruntime estimate without turning it into a promise<\/h3>\n

The appropriate formula starts from usable battery energy, not simply\nthe number printed on the enclosure. It must also include inverter\nefficiency and the average critical load during the outage.<\/p>\nEstimated\nhours depend on usable energy, efficiency and average load<\/h4>\n

Estimated hours = usable battery energy (kWh) \u00d7 inverter efficiency \u00f7 average critical load (kW)<\/code><\/p>\n

Usable battery energy must be confirmed for the commissioned\nconfiguration. Inverter efficiency and average critical load also vary\nby project, so the result is an estimate, not a fixed runtime. Enter\nmeasured or reasonable design values in the battery sizing calculator<\/a>, then validate the\nfinal system with the installer.<\/p>\n

Use\nthe display and monitoring options as operating inputs<\/h3>\n

The B00 datasheet lists an RGB LED and touchscreen display across the\nseries. It lists a 3.2-inch LCD touchscreen for ES-BOX36 and ES-BOX36\nPLUS, and a 4.3-inch LCD touchscreen for ES-BOX36 MAX and MAX+. Optional\nWiFi remote monitoring is also listed. Source<\/a><\/p>\nLCD\nsize, RGB LED and optional WiFi do not establish a monitoring feature\nset<\/h4>\n

These entries confirm that the product datasheet lists local display\nhardware and an optional remote-monitoring item. They do not identify\nthe WiFi module, app, portal, displayed values, alert rules or\nremote-control functions. Confirm the exact monitoring package and its\navailability with the offered configuration.<\/p>\n

Check inverter\nfit before selecting a battery<\/h2>\n

Battery energy in kWh and battery current in amps solve different\nparts of the same design problem. Use the battery\nsizing calculator<\/a> to estimate energy from actual loads, then have a\nqualified installer verify electrical limits and protection.<\/p>\n

Energy and\ncurrent answer different questions<\/h3>\n

The B00 datasheet gives 51.2 V nominal voltage and a maximum charge\nand discharge current for each model. Multiplying them gives a nominal\nDC-side reference, not an AC output promise or a complete system\nrating.<\/p>\n

Nominal\nDC-side reference values are 5.12 to 10.24 kW<\/h4>\n\n\n\n\n\n\n\n\n
Model<\/th>\nNominal calculation<\/th>\nDC-side reference<\/th>\n<\/tr>\n<\/thead>\n
ES-BOX36<\/td>\n51.2 V \u00d7 100 A<\/td>\n5.12 kW<\/td>\n<\/tr>\n
ES-BOX36 PLUS<\/td>\n51.2 V \u00d7 150 A<\/td>\n7.68 kW<\/td>\n<\/tr>\n
ES-BOX36 MAX<\/td>\n51.2 V \u00d7 200 A<\/td>\n10.24 kW<\/td>\n<\/tr>\n
ES-BOX36 MAX+<\/td>\n51.2 V \u00d7 200 A<\/td>\n10.24 kW<\/td>\n<\/tr>\n<\/tbody>\n<\/table>\n

State of charge, operating voltage, BMS limits, cables, protective\ndevices, temperature and inverter settings all affect the commissioned\nsystem. The figures above are engineering references derived from\nnominal voltage and maximum current, not guaranteed AC power. Source<\/a><\/p>\n

Communication must\nmatch the exact inverter<\/h3>\n

The ES-BOX36 datasheet lists CAN and RS485. A connector alone does\nnot establish compatibility, because inverter model, firmware and\nprotocol mapping have to align.<\/p>\n

CAN\nand RS485 require protocol and firmware confirmation<\/h4>\n

Send the exact inverter model, firmware version, intended battery\nquantity, critical-load list and installation location for a pre-check.\nIf protocol documentation is available, include it. The BMS guide<\/a> explains why this verification\nmatters for safe charge and discharge control. Do not infer universal\ninverter compatibility from an interface label.<\/p>\n

Plan the\ninstallation around the datasheet boundaries<\/h2>\n

The selected model must fit the physical space as well as the\nelectrical plan. This is especially important for the two 122 kg\nmodels.<\/p>\n

Weight and\nmounting require a site assessment<\/h3>\n

The B00 datasheet allows wall-mounted or floor-standing installation,\nbut this does not replace structural, electrical or local-rule\nchecks.<\/p>\n

The MAX and\nMAX+ each list a net weight of 122 kg<\/h4>\n

Have a qualified installer assess the supporting surface, access\nroute, fastening method, cabling and DC protection. Do not treat a\nwall-mount label as approval to use an unverified wall.<\/p>\n

Charging has a 0\u00b0C\nspecified lower limit<\/h3>\n

The datasheet specifies charging at 0 to 55\u00b0C and discharging at -20\nto 55\u00b0C. It does not list an IP rating, an integrated heater or a\nbelow-freezing charging mode.<\/p>\nDo\nnot infer outdoor, heated or below-freezing charging capability<\/h4>\n

Plan a dry, protected location that remains inside the stated\ncharging range. If the site may fall below 0\u00b0C, request written guidance\nfor the exact design before charging. Charging lithium batteries at low\ntemperature can cause lithium plating and permanent cell damage.\nSource<\/a><\/p>\nReview\nstandards and lifecycle claims with their conditions attached<\/h2>\n

The B00 datasheet lists IEC 62619, UL 1973 by Intertek, UN 38.3 and\nother marks or documents. These entries are valuable procurement\nprompts, but they do not independently verify the applicable certificate\nfor a supplied unit.<\/p>\n

Request\ndocuments for the offered configuration<\/h3>\n

IEC 62619 specifies safety requirements for industrial secondary\nlithium cells and batteries, including stationary applications. Source<\/a>\nAsk for documents that match the offered model, their scope and their\ndate before confirming a project.<\/p>\nDatasheet\nlistings are not independently verified certificates<\/h4>\n

The safe procurement step is to verify the applicable paperwork\nrather than treating a datasheet line as a complete project-compliance\nconclusion.<\/p>\n

Read\ncycle-life figures with temperature, C-rate and DoD<\/h3>\n

Cycle-life data means little when its conditions are removed. The B00\ndatasheet keeps those conditions visible, and this article does the\nsame.<\/p>\n

The stated results use\n25\u00b0C and 90% DoD<\/h4>\n

For ES-BOX36 and ES-BOX36 PLUS, the datasheet lists more than 8,000\ncycles at 25\u00b0C \u00b12\u00b0C, 0.5C, 90% DoD and 65% EOL. For ES-BOX36 MAX and\nMAX+, it lists more than 10,000 cycles at 25\u00b0C \u00b12\u00b0C, 0.35C, 90% DoD and\n65% EOL. These are stated test conditions, not a fixed service-life or\nwarranty promise. Source<\/a><\/p>\n

For generic chemistry and lifecycle context, read LiFePO4 home batteries<\/a>. For the\nwhole sizing method, use how to choose a LiFePO4\nbattery<\/a>.<\/p>\n

Frequently asked questions<\/h2>\n

Is ES-BOX36 available\nfrom Ukraine stock?<\/strong><\/h3>\n

Yes, the series was confirmed as available from Ukraine stock on 21\nAugust 2026. Confirm the exact variant and quantity at the time of\nenquiry or order.<\/p>\n

Can ES-BOX36 work with my\ninverter?<\/strong><\/h3>\n

The datasheet lists CAN and RS485 interfaces, but compatibility\nrequires the exact inverter model, firmware and protocol\nconfirmation.<\/p>\n

Can ES-BOX36 charge below\nfreezing?<\/strong><\/h3>\n

The supplied datasheet specifies charging from 0\u00b0C to 55\u00b0C. It does\nnot document below-freezing charging or an integrated heater.<\/p>\n

How many hours\nwill a 10.24 or 16.08 kWh unit run?<\/strong><\/h3>\n

Runtime depends on average and peak critical load, permitted usable\nenergy, temperature and inverter losses. A nameplate capacity alone\ncannot support a fixed-hour promise.<\/p>\n

The right next step<\/h2>\n

Send a complete brief through the Genixgreen\ncontact page<\/a> rather than a capacity-only request. That gives the\ntechnical team enough information to check current Ukraine-stock\navailability, physical fit and the communication questions that need\nanswering before order.<\/p>\n

Send a complete\npre-enquiry checklist<\/h3>\n

The most useful first enquiry combines electrical, operational and\nsite information. It also makes it clear which points are still\nassumptions.<\/p>\nInverter,\nloads, site and stock request create a usable technical brief<\/h4>\n