🎓 6GTandem Spring School 2026: THz Communications & Wireless Sensing
📅 On 24 April 2026, researchers, PhD students, and industry experts will gather in Linköping, Sweden for the 6GTandem Spring School.
The event will explore the latest advances in #THz communications, wireless sensing, and beyond-5G/6G technologies, combining research insights with hands-on experience using a sub-THz simulation framework.
📌 Find out more and register: https://tinyurl.com/ypcfxtt7
@rohm lancia i dispositivi #terahertz più piccoli del settore:
✅ RTD da 0,5×0,5 mm
✅ Frequenza: 320 GHz
✅ Potenza: 10–20 µW
✅ Package PLCC 4×4,3 mm
✅ Nessun raffreddamento necessario
#ROHM #THz #semiconduttori #innovazione
Leggi la notizia completa 👉🏻 https://www.elettronica-tech.it/dispositivi-di-oscillazione-e-rilevamento-delle-onde-terahertz-piu-piccoli-del-settore/?utm_source=mastodon&utm_medium=Zoho+Social e registrati su #ElettronicaTECH per non perdere tutti gli aggiornamenti!
@rohm lancia i dispositivi #terahertz più piccoli del settore:
✅ RTD da 0,5×0,5 mm
✅ Frequenza: 320 GHz
✅ Potenza: 10–20 µW
✅ Package PLCC 4×4,3 mm
✅ Nessun raffreddamento necessario
#ROHM #THz #semiconduttori #innovazione
Leggi la notizia completa 👉🏻 https://www.elettronica-tech.it/dispositivi-di-oscillazione-e-rilevamento-delle-onde-terahertz-piu-piccoli-del-settore/?utm_source=mastodon&utm_medium=Zoho+Social e registrati su #ElettronicaTECH per non perdere tutti gli aggiornamenti!
@rohm lancia i dispositivi #terahertz più piccoli del settore:
✅ RTD da 0,5×0,5 mm
✅ Frequenza: 320 GHz
✅ Potenza: 10–20 µW
✅ Package PLCC 4×4,3 mm
✅ Nessun raffreddamento necessario
#ROHM #THz #semiconduttori #innovazione
Leggi la notizia completa 👉🏻 https://www.elettronica-tech.it/dispositivi-di-oscillazione-e-rilevamento-delle-onde-terahertz-piu-piccoli-del-settore/?utm_source=mastodon&utm_medium=Zoho+Social e registrati su #ElettronicaTECH per non perdere tutti gli aggiornamenti!
@rohm lancia i dispositivi #terahertz più piccoli del settore:
✅ RTD da 0,5×0,5 mm
✅ Frequenza: 320 GHz
✅ Potenza: 10–20 µW
✅ Package PLCC 4×4,3 mm
✅ Nessun raffreddamento necessario
#ROHM #THz #semiconduttori #innovazione
Leggi la notizia completa 👉🏻 https://www.elettronica-tech.it/dispositivi-di-oscillazione-e-rilevamento-delle-onde-terahertz-piu-piccoli-del-settore/?utm_source=mastodon&utm_medium=Zoho+Social e registrati su #ElettronicaTECH per non perdere tutti gli aggiornamenti!
Terahertz Revolution: Ultrafast Pulses Enable Precision Control Of Atomically Thin Semiconductors
#Terahertz #2DMaterials #Semiconductors #QuantumTechnology #UltrafastScience #NanoTech #Photonics #MaterialsScience #CoherentControl #THz #Petahertz #TechBreakthrough
✨ 100 talents, 4 days, 1 focus: the future of #OpticalCommunication!
During the Summer School on Optical Communication 2025, nearly 100 young professionals explored #THz, #QuantumTech, #6G, and more with lab tours, industry insights, and lively networking. 🌐🔬🚤
📜New preprint: We finally found #THz -driven #StructuralDynamics as ultrafast fingerprints for hidden symmetry breaking in 2D layered (Ruddlesden-Popper) hybrid #Perovskites. Feedback highly appreciated.
https://arxiv.org/abs/2503.02529
Great team effort of by @fhi_mpg_de , @HZDR, @freieuniversitaet , École Polytechnique, ENS Paris-Saclay
Metal-halide perovskites (MHPs) emerged as a family of novel semiconductors with outstanding optoelectronic properties for applications in photovoltaics and light emission. Recently, they also attract interest as promising candidates for spintronics. In materials lacking inversion symmetry, spin-orbit coupling (SOC) leads to the Rashba-Dresselhaus effect, offering a pathway for spin current control. Therefore, inversion symmetry breaking in MHPs, which are characterized by strong SOC, has crucial implications. Yet, in complex low-dimensional hybrid organic-inorganic perovskites (HOIPs), the presence of and structural contributions to inversion symmetry breaking remain elusive. Here, employing intense THz fields, we coherently drive lattice dynamics carrying spectroscopic fingerprints of inversion symmetry breaking in Ruddlesden-Popper (PEA)$_2$(MA)$_{n-1}$PbnI${3n+1}$ perovskites, which are globally assigned to a centrosymmetric space group. We demonstrate coherent control by THz pulses over specific phonons, which we assign to either purely inorganic or highly anharmonic hybrid cage-ligand vibrations. By developing a general polarization analysis for THz-driven phonons, we pinpoint linear and nonlinear driving mechanisms. From this, we identify simultaneous IR- and Raman-activity of inorganic cage modes below 1.5 THz, indicating mode-selective inversion symmetry breaking. By exploring the driving pathways of these coherent phonons, we lay the groundwork for simultaneous ultrafast control of optoelectronic and spintronic properties in 2D HOIPs.
Researchers from the Fritz Haber Institute of @maxplanckgesellschaft and @HZDR have developed a novel experimental platform to measure electric fields of light trapped between two mirrors with sub-cycle precision. The study opens new avenues for exploring ultrafast control of material properties.
#THz
▶️ https://www.hzdr.de/presse/eoc
Image: Spencer/Mährlein (FHI)
Researchers from the Department of Physical Chemistry at the Fritz Haber Institute of the Max Planck Society and the Institute of Radiation Physics at Helmholtz-Zentrum Dresden-Rossendorf (HZDR) have developed a novel experimental platform to measure the electric fields of light trapped between two mirrors with a sub-cycle precision. These so-called electro-optic Fabry-Pérot resonators will allow for precise control and observation of light-matter interactions, particularly in the terahertz (THz) spectral range. By developing a tunable hybrid-cavity design, and measuring and modeling its complex sets of allowed modes, the physicists can switch between nodes and maxima of the light waves exactly at the location of interest. The study opens new avenues for exploring quantum electrodynamics and ultrafast control of material properties.
⁉️ How to directly measure intra-cavity fields? How to implement a tunable electro-optic #THz cavity, which can additionally host an active material to control light-matter coupling? How to decode avoided crossing signatures of hybrid cavity dispersions?
💥 See our new work lead by M. Spencer in Nature - Light: Science & Applications:
https://www.nature.com/articles/s41377-024-01685-x
🎓 Collaboration by @HZDR and @fhi_mpg_de
We design, implement, and model electro-optic cavities (EOCs) to unlock time-domain measurements of intra-cavity fields. Furthermore, we decode avoided crossings in continuously tunable EOCs, enabling switchable light-matter coupling in the future.
SNS JU
Antonio Cirella
Jacky Kapadia
Fraunhofer HHI
S. F. Maehrlein
HZDR