Innovative, reliable storage products — engineered end-to-end, delivered turnkey, supported for the full lifecycle.
To accelerate the world's transition to sustainable energy through innovative, reliable storage products.
One company, four phases — Teplore takes ownership end-to-end so complex multi-vendor handoffs never become the customer's problem. Local engineers, local spare parts and locally registered entities keep response times short and lifecycle support stable.
Site survey, system sizing, technical proposal and grid-code review with the customer's local utility.
Global logistics coordination — safe and timely delivery of all equipment to the project site.
On-site installation supervision, factory acceptance, energization and handover to operations.
24/7 monitoring, preventive maintenance, troubleshooting and spare-parts support.
Standard Tensorpack units held in our Netherlands, Hungary and Australia warehouses — ready for short-lead-time dispatch across Europe and APAC.
Full-spectrum coverage — AC- and DC-coupled Commercial & Industrial systems, a utility-scale platform, and a microgrid solution.

Air-cooled commercial & industrial system — available AC-coupled (grid-tied PCS) or DC-coupled (hybrid PCS with PV and diesel input for on-/off-grid microgrids).

Liquid-cooled commercial & industrial system — available AC-coupled (grid-tied PCS) or DC-coupled (hybrid PCS with PV and diesel input for on-/off-grid microgrids).

Utility-scale platform with 690 V / 800 V AC output that can be stepped up to medium voltage for grid-side and large-site deployments.

Engineered for the North American market — an AC-coupled, all-in-one integrated BESS with battery, PCS and controls in a single enclosure, grid-tied at 480 V.

Two-cabinet system for the Japanese low-voltage grid — battery in the DC cabinet, 49.9 kW PCS and isolation transformer in the AC cabinet. Under 50 kW, so it connects at AC 202 V with no step-down transformer panel.

400 V grid-tied microgrid platform — coordinating the battery with solar PV and diesel generation for stable, resilient supply across on-grid, off-grid and transition modes.
| Model | Energy | Duration |
|---|---|---|
| T-B217-G100 | 217 kWh | 2.2 h |
| T-B241-G100 | 241 kWh | 2.4 h |
| T-B265-G100 | 265 kWh | 2.7 h |
| T-B434-G100 | 434 kWh | 4.3 h |
| T-B482-G100 | 482 kWh | 4.8 h |
| T-B530-G100 | 530 kWh | 5.3 h |
| Model | Energy | Duration |
|---|---|---|
| T-B265-G130 | 265 kWh | 2.0 h |
| T-B434-G130 | 434 kWh | 3.3 h |
| T-B482-G130 | 482 kWh | 3.7 h |
| T-B530-G130 | 530 kWh | 4.1 h |
| Model | Power | Energy | Duration | Max PV |
|---|---|---|---|---|
| T-B120-H50 | 50 kW | 120 kWh | 2.4 h | 100 kW |
| T-B120-H60 | 60 kW | 120 kWh | 2.0 h | 100 kW |
| T-B217-H50 | 50 kW | 217 kWh | 4.3 h | 100 kW |
| T-B217-H60 | 60 kW | 217 kWh | 3.6 h | 100 kW |
| T-B217-H100 | 100 kW | 217 kWh | 2.2 h | 200 kW |
| T-B241-H100 | 100 kW | 241 kWh | 2.4 h | 200 kW |
| T-B265-H100 | 100 kW | 265 kWh | 2.7 h | 200 kW |
| T-B265-H125 | 125 kW | 265 kWh | 2.1 h | 250 kW |
| Model | Power | Energy | Duration | Max PV |
|---|---|---|---|---|
| T-B434-H100 | 100 kW | 434 kWh | 4.3 h | 200 kW |
| T-B434-H125 | 125 kW | 434 kWh | 3.5 h | 250 kW |
| T-B482-H100 | 100 kW | 482 kWh | 4.8 h | 200 kW |
| T-B482-H125 | 125 kW | 482 kWh | 3.9 h | 250 kW |
| T-B530-H100 | 100 kW | 530 kWh | 5.3 h | 200 kW |
| T-B530-H125 | 125 kW | 530 kWh | 4.2 h | 250 kW |
| Model | Power | Energy | Duration |
|---|---|---|---|
| L-B261-G100 | 100 kW | 261 kWh | 2.6 h |
| L-B261-G130 | 130 kW | 261 kWh | 2.0 h |
| L-B522-G100 | 100 kW | 522 kWh | 5.2 h |
| L-B522-G130 | 130 kW | 522 kWh | 4.0 h |
| Model | Power | Energy | Duration | Max PV |
|---|---|---|---|---|
| L-B261-H100 | 100 kW | 261 kWh | 2.6 h | 200 kW |
| L-B261-H125 | 125 kW | 261 kWh | 2.1 h | 250 kW |
| L-B522-H100 | 100 kW | 522 kWh | 5.2 h | 200 kW |
| L-B522-H125 | 125 kW | 522 kWh | 4.2 h | 250 kW |
| Model | Power | Energy | Duration | Output |
|---|---|---|---|---|
| S-B836-G215 | 215 kW | 836 kWh | 3.9 h | 690 V |
| S-B836-G215 | 215 kW | 836 kWh | 3.9 h | 800 V |
| S-B836-G418 | 418 kW | 836 kWh | 2.0 h | 690 V |
| S-B836-G418 | 418 kW | 836 kWh | 2.0 h | 800 V |
Product specs, user manuals and installation guides — all available on the download page.
From the cell to the cabinet, multiple independent systems watch, isolate and contain faults — backed by international product and environmental certification.
Per-cell voltage and temperature monitoring, balancing, and over- / under-voltage and over-temperature protection.
Over-current and short-circuit protection, temperature and insulation monitoring, and module-level disconnection.
DC + AC breakers, coordinated BMS / EMS trip, emergency stop, and earth-fault / leakage protection.
Per-cabinet aerosol suppression that releases on a confirmed fire signal.
System-level water suppression that can connect to an external fire hydrant.
Explosion-proof enclosure that contains and safely vents pressure.
Explosion-proof ventilation that clears flammable gas build-up.
Central fire alarm unit that can link into the customer's building fire system.
CW1310-07A multi-gas detector plus heat-sensitive cable for cabinet-level sensing.
Monitoring, dispatch and protection coordination — every local control task except energy trading.
Diagnostics, alarms and preventive scheduling across multi-site fleets.
End-to-end encryption, role-based access and compliant regional AWS storage.
Customers standardised on a regional EMS can keep it. Powerview's open APIs and Modbus interfaces interoperate with leading independent platforms across Europe, APAC and the Americas.

Store surplus solar instead of exporting it cheaply, then discharge into evening peaks — lifting self-consumption, shaving demand charges and shifting load to the most valuable hours. AC- or DC-coupled to fit new-build or retrofit sites.

Buffer fast-charger demand spikes behind the meter so the site stays within its transformer rating — adding chargers without a costly grid upgrade, while smoothing peaks and keeping charging available during high-demand windows.

Coordinate battery, solar PV and diesel generation for remote sites or weak grids — cutting fuel burn and runtime, bridging outages seamlessly, and holding stable supply across on-grid, off-grid and transition modes.

Provide fast frequency response and voltage regulation, and earn from ancillary-service and arbitrage markets — turning the asset into a revenue stream through services such as FCAS, FFR and FCR-D where they are available.
From portfolio-scale solar farms to EV charging, microgrids and frequency regulation — a representative selection across four application families.
🇭🇺HungaryFlagshipTwelve 500 kW / 1.325 MWh Tensorpack T units across Hungarian solar farms, trading in the energy market while improving renewable integration and returning stable yields to owners.
🇦🇺AustraliaA utility-scale BESS supporting remote solar generation, smoothing output and trading energy into the wholesale market for steady, predictable project revenue.
🇺🇸USATariff-aware peak shaving for a confectionery plant, built to UL 9540A and U.S. fire-protection standards, with the site engineered and pre-wired for rooftop solar integration.
🇨🇳ChinaDistributed storage across six 400 V transformers — charging in low-tariff windows and discharging into peak demand to cut the factory’s electricity bill, coordinated with on-site PV.
🇧🇪BelgiumCombined with rooftop solar to cut energy costs for end users through tariff-aware self-consumption, replicated at a 100 kW / 265 kWh sister site nearby.
🇦🇹AustriaAn outdoor BESS cabinet paired with rooftop PV, delivering peak shaving and active participation in the local energy market for a commercial building owner.
🇺🇸USAFlagshipThe BESS continuously senses load and charges or discharges so the transformer’s rated capacity is never exceeded, letting Ford add more chargers without any upstream grid upgrade.
🇦🇺AustraliaBehind-the-meter capacity expansion equipped for FCAS ancillary-market participation to add a revenue stream on top of the network upgrade it helps the owner avoid.
🇧🇷BrazilDetects load and dynamically charges or discharges to keep the transformer within its rated capacity, supporting added PV and deferring a costly upstream grid upgrade.
🇳🇱NetherlandsFlagshipA 540 kW / 1.06 MWh BESS forming a hybrid microgrid with solar PV and diesel, orchestrating sources to expand capacity and keep the load reliably supplied.
🇭🇺HungaryOn- and off-grid operation that enhances solar integration and ensures reliable backup power for the customer’s facility during grid outages and peak periods.
🇦🇺AustraliaA fully off-grid microgrid at a remote mine site, orchestrating battery, solar PV and diesel generation to power operations reliably with no grid connection.
🇸🇪SwedenActive participation in Sweden’s FFR and FCR-D frequency services, earning revenue from both up- and down-regulation across two co-located battery units.
🇧🇪BelgiumA farm-sited BESS paired with on-site solar PV, providing grid support and balancing services while improving the site’s solar self-consumption.
🇫🇮FinlandA cold-climate energy storage build for northern Finland, engineered to operate reliably in temperatures down to −30 °C while delivering grid services.
Since 1 May 2026, EU-backed financing — EIB, EIF and EBRD — is closed to renewable and storage projects whose inverter or battery PCS comes from suppliers owned or controlled in high-risk countries. The PCS decides eligibility. Teplore integrates a European-made PCS from a non-high-risk supplier, keeps Powerview EMS hosted in the EU, and builds to the EU Cyber Resilience Act — so your project keeps EU financing and public tenders, with the same Tensorpack system, delivery and warranty.
Four minutes of self-service replaces the first three rounds of "send us a spec." Customers leave with hard numbers, not a brochure.
Available in EN · DE · FR · ES · PT · NL · HU · IT · RO · UK · PL · CS · TR · BG · EL · HR · ZH · JA · typical session ≈ 4 min