Engineering QUAntum materials for TErahertz applications
This project aims to leverage the ultrafast thermodynamic properties of quantum materials to develop advanced THz technologies, enhancing performance and capabilities in the terahertz regime.
Projectdetails
Introduction
I propose to demonstrate a novel design paradigm for terahertz (THz) technologies, which places the ultrafast thermodynamic properties of quantum materials at the heart. Approaches with conventional semiconductors and metals, as well as recent attempts with two-dimensional materials, typically aim to exploit the optoelectronic properties of materials towards developing THz components and systems.
Current Challenges
This has so far not led to the desired breakthrough that the currently still underdeveloped terahertz regime so greatly needs. The vision of this project is that the truly game-changing potential of quantum materials for THz applications lies in their exceptional ultrafast thermodynamic properties.
Quantum Materials
Quantum materials, such as graphene and topological insulators, have giant thermodynamic THz nonlinearities and generate ultrafast and efficient THz-induced thermoelectric photocurrents. They can be combined with photonic structures into quantum metamaterials with strongly enhanced light-matter interaction and are compatible with established electronic and photonic technologies.
Project Goals
Exploiting these and more remarkable properties, we will demonstrate:
- THz emitters
- Nonlinear THz converters
- THz detectors
All based primarily on thermodynamic design principles. These will outperform currently available THz components on several fronts and establish quantum materials as the ideal material platform for integrated THz photonics with novel capabilities.
Research Focus
Specifically, we will focus on a combination of quantum materials that are relatively well understood, and novel material systems that are promising yet less well understood.
Expected Impact
As a result, we expect major impacts both on a fundamental level in terms of understanding ultrafast thermodynamic phenomena, and on an applied level in terms of engineering these thermodynamic properties towards concrete THz technologies.
Conclusion
The ultimate goal is to unlock the full potential of the THz range and bring utility and benefit to society.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.999.233 |
Totale projectbegroting | € 1.999.233 |
Tijdlijn
Startdatum | 1-6-2024 |
Einddatum | 31-5-2029 |
Subsidiejaar | 2024 |
Partners & Locaties
Projectpartners
- TECHNISCHE UNIVERSITEIT EINDHOVENpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
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Ultrafast atomic-scale imaging and control of nonequilibrium phenomena in quantum materialsThe project aims to utilize ultrafast Terahertz-lightwave-driven scanning tunneling microscopy to explore and induce new quantum properties in correlated electron states at atomic scales. | ERC Starting... | € 1.572.500 | 2025 | Details |
Quantum Materials for Quantum DevicesDevelop new transition metal dichalcogenides for quantum technology, enabling advanced materials with unique properties for ultra-fast, low-power devices. | ERC Starting... | € 2.457.970 | 2024 | Details |
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Design and Engineering of Optoelectronic MetamaterialsThis project aims to engineer tunable optoelectronic metamaterials using colloidal quantum dots and metal halide perovskites to enhance device performance in the visible and near-infrared spectrum. | ERC Advanced... | € 2.500.000 | 2022 | Details |
Ultrafast topological engineering of quantum materialsThe project aims to develop innovative methodologies for real-time monitoring of ultrafast topological phase transitions in quantum materials using tailored light pulses and advanced photoemission techniques. | ERC Starting... | € 1.754.304 | 2023 | Details |
Ultrafast atomic-scale imaging and control of nonequilibrium phenomena in quantum materials
The project aims to utilize ultrafast Terahertz-lightwave-driven scanning tunneling microscopy to explore and induce new quantum properties in correlated electron states at atomic scales.
Quantum Materials for Quantum Devices
Develop new transition metal dichalcogenides for quantum technology, enabling advanced materials with unique properties for ultra-fast, low-power devices.
Quantum light-controlled topological phases of matter
This project aims to engineer topological states in solid-state materials using quantum light, enhancing control over phase transitions and advancing quantum technologies.
Design and Engineering of Optoelectronic Metamaterials
This project aims to engineer tunable optoelectronic metamaterials using colloidal quantum dots and metal halide perovskites to enhance device performance in the visible and near-infrared spectrum.
Ultrafast topological engineering of quantum materials
The project aims to develop innovative methodologies for real-time monitoring of ultrafast topological phase transitions in quantum materials using tailored light pulses and advanced photoemission techniques.
Vergelijkbare projecten uit andere regelingen
Project | Regeling | Bedrag | Jaar | Actie |
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Nano-scale Development of Plasmonic Amplifiers Based on 2D MaterialsThis project aims to develop efficient THz wave amplifiers using surface plasmons in novel 2D materials to bridge the THz source gap and enhance THz technology applications. | EIC Pathfinder | € 2.999.191 | 2023 | Details |
Nano-scale Development of Plasmonic Amplifiers Based on 2D Materials
This project aims to develop efficient THz wave amplifiers using surface plasmons in novel 2D materials to bridge the THz source gap and enhance THz technology applications.