Book a demo

Cut patent&paper research from weeks to hours with PatSnap Eureka AI!

Try now

PVT Hybrid Collector Technology 2026 — PatSnap Eureka

PVT Hybrid Collector Technology 2026 — PatSnap Eureka
Technology Landscape 2026

Photovoltaic Thermal Hybrid Collector Technology

PVT hybrid collectors simultaneously extract electrical and thermal energy from a single solar collector — achieving combined efficiencies that exceed standalone PV or solar thermal panels. Explore the full patent landscape from 1998 to 2026.

PVT Hybrid Collector: Simultaneous Electrical and Thermal Energy Extraction from a Single Solar Collector Diagram showing how a PVT hybrid collector splits incident solar radiation into electrical output (via PV cells) and useful thermal output (via rear heat absorber), achieving combined system efficiency exceeding standalone panels. PV Cell Layer — Electrical Output Thermal Absorber — Heat Output Elec. 🔥 Heat Combined System Efficiency Exceeds Standalone PV or Thermal Patent dataset: 1998–2026 · PatSnap Eureka
28yr
Patent dataset span (1998–2026)
22+
PVT-specific patent records analysed
85%+
Total solar utilization claimed by trigeneration systems
Korean hardware filings 2019–2025 vs pre-2019
Technology Overview

What Is PVT Hybrid Collector Technology?

Photovoltaic Thermal (PVT) hybrid collector technology simultaneously extracts electrical energy and useful thermal energy from a single solar collector, achieving combined system efficiencies that exceed standalone photovoltaic or solar thermal panels. The technology is gaining renewed strategic importance as building decarbonization mandates, district heating integration, and the push for higher rooftop energy density converge.

PVT hybrid collector technology encompasses panel-level devices that bond photovoltaic modules to thermal absorbers, concentrating systems that redirect solar radiation to both PV cells and heat-exchange cavities, and large-scale hybrid plant architectures that combine heliostat fields with distributed PV arrays. Among the retrieved results, 11 records describe core PVT hardware or system architectures; the remainder address adjacent monitoring, prediction, and management technologies.

The foundational hardware concept — laminating a crystalline silicon solar cell array directly to a rear-mounted heat absorber with interposed thermally conductive material — was established as early as 1998–1999. More recent filings extend this into flexible materials, concentrating optics, wavelength-selective filtering, and integrated air-conditioning loops. This landscape is derived from patent and literature records retrieved across targeted searches and represents a snapshot of innovation signals within this dataset. Research bodies such as the International Energy Agency and IRENA provide complementary market context for PVT deployment trajectories.

1998
Earliest PVT roof-panel filing (Sekisui Chemical, JP)
1999
Core laminate architecture established (TU Eindhoven, NL)
11
Core PVT hardware or system architecture records in dataset
6
Active filing jurisdictions: DE, KR, GR, ES, JP, NL
  • Flat-plate laminate collectors — most mature architecture
  • Concentrating CPV-T — highest thermal output temperatures
  • Large-scale CSP+PV hybrid plants — dispatchable renewable power
  • AI-driven efficiency prediction — emerging optimization cluster
Patent Intelligence

Geographic Filing Distribution & Innovation Timeline

Patent activity mapped across key jurisdictions and technology eras, derived from PVT-specific hardware records in the PatSnap Eureka dataset (1998–2026).

PVT Patent Filings by Jurisdiction

Korea leads recent filing activity (2019–2025) with 5 hardware-level records; Germany hosts the most diverse assignee set including PVT Solar AG and IBM.

PVT Patent Filings by Jurisdiction: Korea 5, Germany 4, Spain 4, Greece 3, Japan 2, Netherlands 1 Horizontal bar chart showing PVT-specific hardware patent filings by country from the PatSnap Eureka dataset (1998–2026). Korea dominates recent activity with 5 filings in 2019–2025, while Germany and Spain each have 4 filings. Source: PatSnap Eureka patent analysis. Filings 0 5 5 Korea (KR) 4 Germany (DE) 4 Spain (ES) 3 Greece (GR) 2 Japan (JP) 1 Netherlands (NL) Source: PatSnap Eureka · PVT hardware patent records · 1998–2026

PVT Innovation Eras: Filing Activity by Period

Five distinct innovation eras from 1998 foundational filings through 2022–2026 AI-enhanced and HVAC-integrated modules.

PVT Innovation Eras: 1998–2002 Foundational (2 records), 2006–2013 System Diversification (5 records), 2011–2015 CPV-T (3 records), 2019–2022 Korean Integration (3 records), 2022–2026 Advanced Modules (4 records) Bar chart showing the number of PVT patent records per innovation era from 1998 to 2026. The 2006–2013 system diversification period and 2022–2026 advanced module era show the highest activity, reflecting both historical diversification and current growth. Source: PatSnap Eureka. 5 4 3 2 2 1998–2002 Foundational 5 2006–2013 Diversification 3 2011–2015 CPV-T 3 2019–2022 KR Integration 4 2022–2026 Advanced AI Source: PatSnap Eureka · PVT patent records by innovation era

Run your own PVT patent landscape analysis in PatSnap Eureka

Analyse PVT Patents Now
Core Architectures

Key PVT Technology Approaches

Four distinct collector architectures span the dataset, from foundational flat-plate laminates through utility-scale CSP+PV hybrid plants. Each approach targets different efficiency profiles and application domains.

Architecture 1

Flat-Plate Laminate PVT Collectors

The most prevalent architecture bonds a crystalline or thin-film PV module to a rear-mounted fluid-loop thermal absorber, with bonding achieved via thermally conductive adhesives or composite polymer layers. The thermal absorber removes heat from the PV cells — reducing cell temperature and improving electrical efficiency — while producing useful heat output for domestic hot water or space heating. Pioneered by Technische Universiteit Eindhoven (NL, 1999) and Sekisui Chemical Co., Ltd. (JP, 1998).

Most mature commercial application
Architecture 2

Concentrating PV-Thermal (CPV-T) Systems

These systems use optical concentrators — parabolic reflectors, Fresnel lenses, or composite parabolic concentrators — to focus sunlight onto high-efficiency multi-junction or single-junction PV cells. The concentrated thermal load on the cells is managed by cooling fluid circuits, capturing heat at elevated temperatures suitable for industrial or air-conditioning applications. Concentration ratios from moderate (10–50×) to very high (500–1500 suns) are represented in the dataset. Papadopoulos's trigeneration systems claim total solar utilization exceeding 85%.

Highest thermal output temperatures
Architecture 3

Structured Absorber & Selective Coverage Collectors

A distinct sub-approach decouples the PV and thermal absorber zones within a single panel, optimizing each zone's performance independently. SolarHybrid AG's absorber design ensures that at least 70% of the absorber's high-absorption cold zones receive radiation that passes through the transparent regions of the PV module, while the non-transparent PV cells cast shade only on lower-priority warm zones of the absorber. Hermann Ross extended this concept explicitly for watercraft integration using fiber-matrix composite fluid conduit systems.

Zone-decoupled optimization
Architecture 4

Large-Scale Hybrid Thermosolar + PV Plant Architectures

At the utility scale, patents describe modular combinations of concentrating solar power (CSP) tower plants with distributed PV modules co-located on the heliostat field, tower surfaces, and plant rooftops. These architectures exploit thermal storage from the CSP component to firm up PV intermittency and improve overall grid dispatch capability. Abengoa Solar New Technologies S.A. (ES) introduced a structured three-tier generation hierarchy in filings spanning ES, EP, US, and SA jurisdictions (2012–2015). IEA Solar Heating and Cooling Programme tracks related deployment data.

Dispatchable renewable power
PatSnap Eureka

Map the full PVT collector IP landscape

Search 200M+ patent records to identify white spaces, active assignees, and expiring patents in PVT technology.

Explore PVT IP Landscape
Application Domains

Where PVT Hybrid Collectors Are Deployed

PVT systems span residential rooftops to utility-scale plants, with distinct technology clusters serving each application domain.

Application Domain Key Assignee(s) Jurisdiction Filing Year Technology Highlight
Residential Hot Water & Space Heating Sekisui Chemical Co., Ltd. JP 1998 Purpose-designed roof-integrated PVT panel with refrigerant paths
Residential Hot Water & Space Heating Yuone Industries KR 2019 CNT-doped synthetic rubber thermal block bonded to rear of PV panel
Building HVAC Integration KJ Partners KR 2025 PVT thermal output drives integrated heating and cooling device
Small-Scale / Off-Grid Geum Bi Electronics KR 2020 200–500 W system; grid-connected and standalone; Li-ion battery storage
🔒
Unlock All 8 Application Domain Records
See marine, industrial trigeneration, utility-scale CSP+PV, and AI efficiency prediction domains — with assignee details and technology highlights.
Marine / Watercraft Industrial Trigeneration >85% Utility CSP+PV + more
View Full Application Map in Eureka →

Track PVT application patent activity by sector

PatSnap Eureka lets you filter by IPC code, assignee, jurisdiction, and filing date to map the exact competitive landscape for your target application.

Search by Application Domain
Emerging Directions 2022–2026

Five Innovation Signals Shaping PVT Technology

Based on filings dated 2022–2026 in this dataset, four directional signals are evident — plus one early-stage AI cluster gaining traction in China.

🌡️

PVT-Driven HVAC Integration

KJ Partners' pending Korean application (KR, 2025) describes a fully integrated PVT-based heating and cooling system in which the PVT module's thermal output drives an adjacent heat energy supply device with both heating and cooling capability. This represents a shift from PVT as a hot water source to PVT as the primary driver of building climate control.

🔆

High-Concentration CPV-T with Quad CPC Arrays

C.K. Howard Sales Agency Limited's 2024 Korean filing introduces quad CPC arrays — four seamlessly integrated composite parabolic concentrators per optical assembly — feeding sequential cooling fluid circuits across CPV cell arrays. This represents a modular approach to high-concentration thermal harvesting at the module level.

🧪

Silicone Encapsulant Engineering for Durability

Avora Energia's patent (JP, 2022) explicitly targets delamination failure and degradation in PVT laminates, introducing dual-layer silicone bonding — encapsulating silicone plus thermal adhesive silicone — to improve operating lifetime and reduce inter-layer thermal resistance.

🔩

Structured Heat Exchanger Geometry in PV Frames

PVT Solar AG's 2025 German filing details a heat exchanger module with explicitly designed transverse and longitudinal pipe sections integrated within the aluminum frame perimeter of a standard PV module — enabling retrofittable PVT conversion of commercial modules.

🔒
Unlock AI & Strategic White Space Signals
Access the AI efficiency evaluation cluster (CN, 2025) and CPV-T white space analysis — including which foundational patents are now inactive.
Neural network PVT evaluation CPV-T white space map Inactive patent analysis
Explore Emerging Signals in Eureka →
Assignee Landscape

Who Holds PVT Collector IP?

Innovation in core PVT collector hardware remains relatively concentrated among a small number of specialist assignees and individual inventors. Broad industrial players — IBM, Abengoa, Sekisui — have engaged episodically but do not dominate by volume in this dataset. The Korean SME ecosystem is emerging as a volume contributor in integrated system applications.

Abengoa Solar New Technologies S.A. leads by filing volume with 4+ filings across ES, EP, US, and SA jurisdictions, establishing the large-scale hybrid thermosolar-photovoltaic plant architecture. Alexandros Papadopoulos (individual/GR entity) holds 3 filings in concentrating trigeneration systems. PVT Solar AG (DE) is notable as an active dedicated PVT panel manufacturer with a 2025 filing, while Avora Energia (ES-origin, filed JP) represents a 2022 entrant targeting laminate durability.

The collector hardware IP space remains relatively open. Foundational flat-plate and CPV-T patents from the 1998–2015 era are predominantly inactive, reducing freedom-to-operate barriers for new entrants. R&D strategists should monitor Korean SMEs and university spinouts — five Korea-based hardware or system-level PVT filings appear in the 2019–2025 window versus only one before 2019. For deeper competitive intelligence, PatSnap Analytics provides assignee citation mapping and portfolio benchmarking. The European Patent Office and WIPO maintain public filing records for cross-referencing. See PatSnap's customer success stories for how IP teams use these tools in practice.

Top Assignees by PVT Filing Volume
Abengoa Solar
4+ filings (ES, EP, US, SA)
A. Papadopoulos
3 filings (GR) — concentrating CPV-T
PVT Solar AG
1 filing (DE, 2025) — active manufacturer
Avora Energia
1 filing (JP, 2022) — laminate durability
Strategic Signal

Korea is an accelerating innovation hub for PVT system integration. Five Korea-based hardware or system-level PVT filings appear in the 2019–2025 window versus only one before 2019.

Strategic Intelligence

Technology Architecture Comparison

A comparative view of PVT collector architectures across key strategic dimensions, derived from patent record analysis in the PatSnap Eureka dataset.

PVT Hardware Records by Architecture Type

Flat-plate laminate and CPV-T systems together account for the majority of PVT-specific hardware records in this dataset.

PVT Hardware Records by Architecture Type: Flat-Plate Laminate 36%, Concentrating CPV-T 27%, Large-Scale CSP+PV 27%, Structured Absorber 9% Donut chart showing the distribution of PVT-specific hardware patent records across four architecture types in the PatSnap Eureka dataset. Flat-plate laminate is the most represented at approximately 36%, followed by CPV-T and large-scale CSP+PV at 27% each. Source: PatSnap Eureka patent analysis 1998–2026. 11 hardware records Flat-Plate Laminate ~36% of records Concentrating CPV-T ~27% of records Large-Scale CSP+PV ~27% of records Structured Absorber ~9% of records Source: PatSnap Eureka · PVT hardware patent records · 1998–2026

Korea PVT Filing Acceleration: Pre-2019 vs 2019–2025

Five Korea-based hardware or system-level PVT filings appear in 2019–2025 versus only one before 2019 — a 5× acceleration in Korean PVT patent activity.

Korea PVT Filing Acceleration: 1 filing before 2019 (Kim Hyun Jin, 2011), 5 filings in 2019–2025 (Yuone 2019, Geum Bi 2020, Kookmin 2020, C.K. Howard 2024, KJ Partners 2025) Bar comparison showing the dramatic acceleration of Korean PVT patent activity from 1 pre-2019 filing to 5 filings in 2019–2025, reflecting Korea's emergence as the fastest-growing PVT innovation jurisdiction. Source: PatSnap Eureka. 5 4 3 2 1 Before 2019 (Kim Hyun Jin, 2011) 5 2019–2025 (5 assignees) 5× acceleration Source: PatSnap Eureka · Korean PVT patent filings · 1998–2026

Monitor Korean PVT assignees and track new filings as they publish

Set Up Patent Monitoring in Eureka
Frequently asked questions

Photovoltaic Thermal Hybrid Collectors — key questions answered

Still have questions about PVT hybrid collector patents? Let PatSnap Eureka answer them instantly.

Ask Eureka AI About PVT Patents
PatSnap Eureka

Accelerate Your PVT Innovation Intelligence

Join 18,000+ innovators already using PatSnap Eureka to map technology landscapes, identify white spaces, and monitor competitor filings in solar energy and beyond.

References

  1. Photoelectric-power generating-heat collecting hybrid panel, roof panel and roof unit — Sekisui Chemical Co., Ltd., 1998, JP
  2. Panel-type hybrid photovoltaic/thermal device — Technische Universiteit Eindhoven, 1999, NL
  3. Triple hybrid solar concentrated-type system for simultaneous production of electrical, thermal and cooling energy — Alexandros Christou Papadopoulos, 2002, GR
  4. Hybrid photovoltaic concentrating system with corrected total reflection reflectors for very large concentrating ratios — Alexandros Chr. Papadopoulos, 2006, GR
  5. Hybrid collector — SolarHybrid AG, 2010, DE
  6. Hybrid solar thermal system using CPV module — Kim Hyun Jin, 2011, KR
  7. Manageable hybrid plant using photovoltaic and solar thermal technology and associated operating method — Abengoa Solar New Technologies S.A., 2012, ES
  8. Managed hybrid plant of solar thermal and photovoltaic technology and method of operation thereof — Abengoa Solar New Technologies S.A., 2013, ES
  9. Manageable hybrid plant using photovoltaic and solar thermal technology and associated operating method — Fernandez Calderon, Lucia / Abengoa, 2013, US
  10. Hybrid collector for integrating in watercraft for combined utilization of solar energy — Hermann Ross, 2013, DE
  11. Cost-free infiltration technology of solar trigeneration in the energy market through solar peak power shaving — Alexandros Christou Papadopoulos, 2013, GR
  12. Hybrid thermosolar and photovoltaic solar plant and functioning method of the same — Abengoa Solar New Technologies S.A., 2015, SA
  13. Photovoltaic thermal hybrid systems and methods for operating the same — International Business Machines Corporation, 2015, DE
  14. System for heating and hot water using sunlight energy — Yuone Industries, 2019, KR
  15. Prediction apparatus for the efficiency of the PVT systems using wavelength selective filters and method thereof — Kookmin University Industry Academy Cooperation Foundation, 2020, KR
  16. Small-scale solar light/solar heat convergence system capable of operating utility-connection type and stand alone type — Geum Bi Electronics, 2020, KR
  17. Hybrid solar panels for generating electrical and thermal energy — Avora Energia, 2022, JP
  18. High-concentration solar thermal modules and related components for combined heat and power solar power systems — C.K. Howard Sales Agency Limited, 2024, KR
  19. Photothermie-Modul — PVT Solar AG, 2025, DE
  20. Hybrid Air Conditioning System Using Photo Voltaic-Thermal Module — KJ Partners, 2025, KR
  21. Photovoltaic thermal energy conversion evaluation method and system — Huaneng Zuoquan Coal Power Co., Ltd., 2025, CN
  22. International Energy Agency (IEA) — Solar Energy Market and Technology Reports
  23. International Renewable Energy Agency (IRENA) — Solar Thermal and PV Technology Outlook
  24. European Patent Office (EPO) — Patent Search and Filing Data
  25. World Intellectual Property Organization (WIPO) — International Patent Filing Records
  26. IEA Solar Heating and Cooling Programme — PVT Technology Deployment Data

All patent data and statistics on this page are sourced from the references above and from PatSnap's proprietary innovation intelligence platform. This landscape represents a snapshot of innovation signals within the retrieved dataset only and should not be interpreted as a comprehensive view of the full industry.

Ask PatSnap Eureka
Ask PatSnap Eureka
AI innovation intelligence · always on
Ask anything about PVT hybrid collector technology.
PatSnap Eureka searches patents and research to answer instantly.
Try asking
Powered by PatSnap Eureka