SOLETKS TP/V Pro is a next-generation photovoltaic-thermal (PVT) hybrid module that generates electricity and useful heat from the same solar surface. It is designed for projects that need power, hot-water or heat-pump support, energy storage and EV charging from one integrated system. Verified product data lists up to 88% combined instantaneous efficiency, 336.3 W electrical power at 48°C, 0.71 peak thermal efficiency, and -25°C to +80°C operating temperature.
Hotels, resorts, schools, hospitals, apartments, premium villas, industrial pre-heating, solar-assisted heat pumps, seasonal thermal storage and distributed clean-energy systems where roof area is limited and both electricity and heat have real value.
Projects that only want the lowest PV module price, have no usable heat load, cannot use or store recovered heat, or do not have budget for professional hydraulic, electrical and control design.
A TP/V Pro type solar panel is SOLETKS’ professional photovoltaic-thermal hybrid module. The PV layer generates DC electricity, while the thermal layer removes heat from the module and transfers it into a water or water-glycol circuit. Instead of wasting module heat into the air, TP/V Pro turns part of that heat into useful thermal energy for domestic hot water, pool heating, space-heating support, process pre-heating or heat-pump source input.
TP/V Pro is engineered as a system-ready PVT module with active thermal recovery, an S-type flow channel, one-step lamination, polyurethane insulation and verified electrical and thermal performance. This makes it especially relevant for buyers who need predictable useful heat, not only PV cooling.
Compared with PVT-E or PVT-T pages that focus on general dual-energy output, TP/V Pro is the premium solution for projects that need stronger thermal usability, heat-pump integration, storage integration and visible sustainability performance.
Standard PV discards module heat into the air, and conventional PVT often treats heat as a by-product of cooling. TP/V Pro is thermal-performance oriented — built to deliver stable, controllable heat while generating electricity.
Electricity and useful heat from the same module area — more total useful energy per square meter than PV-only systems on limited roof or façade space.
The thermal circuit removes heat from the PV layer, helping reduce heat stress and maintain more stable electrical behaviour under high irradiation.
A unique S-shaped channel enhances heat exchange and supports 0.6 MPa pressure resistance for engineered, pressurized hydraulic circuits.
Integrated lamination improves structural integrity and reduces leakage risk under thermal cycling — critical for dual electrical + hydraulic reliability.
Insulation with thermal conductivity of just 0.03643 W/m·K reduces backside heat loss and supports useful thermal delivery.
Designed as a complete system: PV strings, inverter, hydraulic loop, buffer tank, heat exchanger, heat-pump logic and monitoring — not loose panels.
Every value below is taken from SOLETKS official product data. Where a value is project-specific, it is clearly flagged as an RFQ/datasheet item rather than invented.
| Fact | Verified value | Why it matters |
|---|---|---|
| Product type | PVT hybrid module | One module produces electricity and recoverable heat. |
| Combined instantaneous efficiency | Up to 88% | Total solar utilization when electrical + thermal are both counted. |
| Electrical power | 336.3 W @ 48°C | Realistic heated PVT operating condition, not just STC marketing. |
| Open-circuit voltage | 41.676 V | Needed for string and inverter sizing. |
| Short-circuit current | 11.275 A | Needed for protection and cable design. |
| Operating V / I @ 48°C | 34.126 V / 9.859 A | Useful for electrical design and simulation. |
| Cell technology | Mono PERC | Proven crystalline PV technology. |
| Cell efficiency | 23.3% | Indicates PV cell performance level. |
| Module efficiency (cell area) | 20.05% | Compares electrical conversion under the listed test basis. |
| Peak thermal efficiency (CTP L1) | 0.71 | Indicates strong thermal collection capability. |
| Instantaneous thermal efficiency | ≥60% | Supports heat-pump, DHW and process pre-heating. |
| Thermal test condition | G = 800 W/m² | Transparent basis instead of an isolated headline figure. |
| Max hot-water temperature | 75°C | Suitable for DHW, process pre-heat and heat-pump buffer use. |
| Pressure resistance | 0.6 MPa | Supports pressurized hydraulic system design. |
| Operating temperature | -25°C to +80°C | Cold-climate and high-temperature roof operation. |
| Max system voltage | 1500 V | Important for commercial PV string design. |
| Application class / fuse | Class A / 20 A | Electrical safety class and protection design. |
| Module dimensions | 1800×1080×48 mm | Roof layout, racking and logistics planning. |
| Weight | 38 kg | Roof load and handling assessment. |
| Junction box / connector | IP68 / MC4 | Long-term outdoor reliability and easy PV integration. |
| Open-circuit voltage (Voc) | 41.676 V |
| Short-circuit current (Isc) | 11.275 A |
| Operating voltage @48°C (Vmp) | 34.126 V |
| Operating current @48°C (Imp) | 9.859 A |
| Module power @48°C (Pmax) | 336.3 W |
| Module efficiency (cell area) | 20.05% |
| Max system voltage | 1500 V |
| Application class | Class A |
| Series fuse rating | 20 A |
| Junction box | IP68 |
| Output cable / connector | 4 mm² / MC4 |
| Combined instantaneous efficiency | Up to 88% |
| Peak thermal efficiency (CTP L1) | 0.71 |
| Instantaneous thermal efficiency | ≥60% |
| Thermal test condition | G = 800 W/m² |
| Max hot-water temperature | 75°C |
| Operating temperature | -25°C ~ +80°C |
| Pressure resistance | 0.6 MPa |
| Flow channel | S-type |
| Insulation | Polyurethane |
| Insulation conductivity | 0.03643 W/m·K |
| Heat-transfer medium | Water / glycol |
| Cell type | Monocrystalline PERC | Cell size: 166 × 60 mm · efficiency 23.3% |
| Module dimensions | 1800×1080×48 mm | For roof layout, racking and logistics. |
| Weight | 38 kg | Roof load and handling assessment. |
| Back sheet / rear panel | TPT black | Durable backside protection. |
| Frame material | Black anodized aluminium | Corrosion resistance and premium appearance. |
| Packaging reference | 150 / container | Confirm loading plan before order. |
A TP/V Pro system combines electrical, hydraulic and control subsystems into a single intelligent energy plant.
The front converts sunlight into DC power for an inverter, hybrid inverter or charge controller. Design around 1500 V, 41.676 V Voc, 11.275 A Isc and a 20 A series fuse.
The thermal layer transfers heat to a water/glycol loop feeding DHW tanks, buffer tanks, heat exchangers, pools, heat-pump source or process pre-heating.
A controller prioritises energy flow: direct use first, then storage, thermal storage when heat is useful, and heat-pump or boiler backup only when required.
Tracks electrical kWh, thermal kWh, tank temperature, avoided boiler/grid use and CO₂ reduction — so a weak thermal loop never hides behind a normal-looking PV side.
TP/V Pro deeply integrates green power generation, residual-heat utilization, intelligent charging and multi-level energy storage — a system designed for full synergy.
TP/V Pro is strongest where recovered heat has a clear destination every day or every season.
These buildings need electricity and hot water at the same time — one roof area supplies both without a separate PV array and thermal array.
| Installation area | 30–80 m² |
| Module quantity | 15–40 modules |
| Hot-water demand | 40–60 L/person/day |
| Suitable scale | 10–40 households |
Stable DHW demand plus rising electricity use. TP/V Pro preheats water while generating power, cutting both boiler load and grid dependence.
| Installation area | 100–300 m² |
| Module quantity | 50–150 modules |
| Small hotel demand | 3–5 m³/day |
| Medium facility | 5–15 m³/day |
Provides low-grade heat to a heat-pump source loop or buffer tank, while PV offsets compressor electricity — reducing defrost frequency and seasonal consumption.
| PVT area | 50–200 m² |
| Heat-pump capacity | 10–50 kW |
| System role | Source / buffer |
Medium-temperature hot water plus on-site electricity reduces fossil-fuel or electric-boiler load while supporting electrical demand.
| Installation area | 200–500 m²+ |
| Hot-water temperature | 40–70°C |
| System role | Solar pre-heating |
Zero-energy buildings, agricultural facilities, modular buildings, swimming pools, desalination pre-heating, remote sites, containerized systems and semi-off-grid energy stations. TP/V Pro provides controllable thermal input while maintaining electricity generation — pairing naturally with buffer tanks, batteries, EV chargers and seasonal storage concepts where there is enough space and engineering support.
Published references that strengthen buyer confidence across PVT, heat-pump and solar-thermal projects worldwide.
| Project | Year / location | Scale | Published result |
|---|---|---|---|
| Tianjin School TPV Pro + Heat Pump | 2024, Tianjin | 3,000 m² | Heating + on-site power |
| APEC Summit Hotel Hot Water | 2014, Beijing | 50 t/day | −74 t CO₂ / yr |
| Saga County Centralized Heating | 2019, Tibet | 107,000 m² | −2,424 t coal / yr |
| Florida Resort Villa Hot Water | 2022, USA | 200 L/day | Per-villa DHW |
| Harz Church Hot Water | 2021, Germany | 22 t/day | Reliable supply |
A school has high heating demand and strong daytime electricity use, making it an ideal demonstration of a PVT + heat-pump system. The Tianjin project uses a 3,000 m² TPV Pro + heat-pump field to support student heating needs while generating on-site electricity — proving the product’s role as more than a panel: a complete energy plant combining solar-thermal input, heat-pump operation and PV electricity.
| Product | Positioning | Best fit | Buyer decision logic |
|---|---|---|---|
| PVT-E | Electricity-first hybrid | Roofs where PV output stays the priority | Choose when electrical output is the main value and heat is secondary. |
| PVT-T | Thermal-focused hybrid | Hot-water, pool and heat-pump projects | Choose when heat demand is strong but the full premium TP/V Pro system isn’t needed. |
| TP/V Pro | Premium professional PVT | Power + stable useful heat + storage + EV + heat pump | Choose when usable heat is a core requirement and roof area is valuable. |
| Factor | Separate PV + solar thermal | TP/V Pro PVT hybrid |
|---|---|---|
| Roof use | Separate areas for PV and collectors | One field produces electricity + heat |
| Appearance | Mixed collector types | Unified hybrid panel field |
| Mounting | Separate structures / penetrations | Shared mounting strategy possible |
| Energy output | PV kWh + thermal kWh separately | Electrical + thermal from same surface |
| Best case | Large roofs, simple, separated trades | Limited roofs, premium buildings, high energy/m² |
| Main design risk | More roof space & coordination | Heat must be used, stored or safely dissipated |
If the building can’t use or store recovered heat, TP/V Pro loses much of its advantage. Confirm DHW, pool, process, heating or heat-pump loads first.
Too much thermal capacity causes summer overheating or wasted heat. Size against real demand and storage capacity, not just roof area.
PVT systems need correct flow, pump sizing, expansion volume, air release, pressure protection, heat exchangers and freeze protection.
Simple pump-on/off is not enough. Use delta-T control, tank priority, heat-pump logic, overheat & freeze protection and monitoring.
A TP/V Pro quotation should include project design. Per-panel selling pushes buyers toward module cost over total system value.
Only publish values backed by datasheets, test reports or official pages. If a value is missing, ask engineering — never assume.
A professional buyer should compare total useful energy and system value, collecting these inputs for a credible payback estimate.
| Input | Example value to collect |
|---|---|
| Building type | Hotel, school, hospital, villa, apartment, factory |
| Location | Country, city, solar irradiation, freeze risk |
| Usable roof area | m², orientation, slope, shading |
| Daily hot-water load | m³/day and target temperature |
| Electricity tariff | Local commercial or residential rate |
| Heating fuel cost | Gas, LPG, diesel, boiler or heat-pump electricity |
| Existing equipment | Boiler, heat pump, pool, tank, battery, EV charger |
| Project goal | Savings, decarbonization, ESG, off-grid, demonstration |
Choose the path that matches your project for the fastest technical response.
Submit room count, daily hot-water demand, pool/spa info, laundry use, roof area and energy tariffs.
Get hot-water + power conceptSubmit building area, schedule, heating season, current boiler/heat-pump, roof area and carbon target.
Get PVT + heat-pump proposalSubmit roof layout, hot-water demand, battery requirement, EV charger type and grid info.
Design PVT + battery + EVSubmit process temperature, daily water volume, current fuel, operating hours and roof/ground area.
Calculate pre-heating savingsRequest datasheet, installation guidance, packaging, certificates, warranty terms and reference projects.
Request OEM/ODM spec packSend your load, roof and goal — engineers will recommend TP/V Pro, PVT-E, PVT-T, PV or solar thermal.
Ask the engineering teamWe are evaluating SOLETKS TP/V Pro for a PVT hybrid project. The project is located in [city/country]. Available roof area is [m²], with [tilt/orientation/shading]. The building type is [hotel/school/villa/hospital/factory]. Daily hot-water demand is [m³/day] at [°C]. Existing equipment includes [boiler/heat pump/tank/battery/EV charger]. We need support for [DHW/heat pump/pool/process/EV/storage]. Please advise whether TP/V Pro, PVT-E, PVT-T or another SOLETKS solution is the best fit and provide a concept design, datasheet and quotation.
A high-quality inquiry describes the load, roof and goal — not just “how much is one panel?”
Send SOLETKS your project type, country, available roof area, electrical demand and thermal load directly via WhatsApp. No form submission is required.
Request TP/V Pro Engineering Proposal on WhatsAppSOLETKS’ PVT advantage comes from deep solar-thermal engineering — absorber coatings, flat-plate structure, hydraulic design and system-level integration — not photovoltaics alone.
Send your location, roof area, daily hot-water demand, heat-pump or boiler connection plan, battery/EV charging needs and target purchase time. SOLETKS engineers will recommend TP/V Pro, PVT-E, PVT-T, standard PV or a dedicated solar thermal collector based on your actual load.
Engineering proposals available for hotels, schools, hospitals, villas, factories, distributors and EPC companies.
TP/V Pro performance values should be checked against the current SOLETKS datasheet and project calculation before procurement. The standards below are reference context for PV and solar thermal verification, not a substitute for product-specific certificates.
Review record: Content reviewed for SEO, AEO readability, schema alignment and engineering-source discipline on July 1, 2026.