📣📃Can electric fields help grow better protein crystals? ⚡🔬 Our review explores how static and alternating fields can control nucleation and growth, producing larger, better-ordered crystals for structural biology. 🔎👉https://t.co/eXdWcFLmCQ
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
📣📃Can electric fields reshape a #protein’s energy landscape? ⚡ Our review highlights simulations showing how EFs can shift conformational stability and energy barriers, influencing protein folding and interactions.🔎👉https://t.co/eXdWcFLmCQ
#MolecularDynamics
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
🚨💡Can electric fields unravel proteins? ⚡ Our review explores how simulations reveal EF-induced disruption of α-helices and β-sheets, sometimes driving unfolding along distinct pathways.🔎👉https://t.co/eXdWcFLUso
#ElectricFields#ProteinFolding#Biophysics#MolecularDynamics
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
📣⚡Conference alert from Florida! 🇺🇸 Our team leader @mcer33 is representing our group at #WCE2026. https://t.co/Pk9swIFeMH
We wish Michal a successful conference full of inspiring discussions, new connections, and exciting science!😊🤞
#Electroporation#PEF
📣📰⚡Oscillating or static? The outcome can be strikingly different. Our review highlights #simulations where oscillating fields irreversibly disassemble amyloid-β #aggregates, while static fields promote alignment and reversible bundling. 🔎👉https://t.co/eXdWcFLmCQ
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
🚨⚡ 📰Electric fields can do more than orient proteins—they can reshape their 3D conformation and alter their function. Our review brings together experimental and computational evidence revealing these effects from pulsed to sub-THz fields.🔎👉https://t.co/eXdWcFLmCQ
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
📣📰#Protein dipoles can act as tiny handles for electric-field-driven molecular orientation. Our review explores this underutilized effect—including “orientation before destruction”—and its exciting potential for single-particle X-ray imaging. 🔎👉https://t.co/eXdWcFLmCQ
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
🚨📰Can we control the molecular machines of life with electric fields? In our recent review, we highlight how EFs can influence protein motion, structure, interactions and function—and explore their potential as a reagent-free tool for protein control.🔎👉https://t.co/eXdWcFLmCQ
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
🚨⚡📰In our recently published review, we explore how #ElectricFields can modulate #protein structure, dynamics, and function—offering a reagent-free physical approach with exciting potential across #biomedicine and #biotechnology. 🔎👇
https://t.co/eXdWcFLmCQ
@NeuronColl
📢 Conference Alert!🚨
@mcer33 and Přemysl Klajs are set to attend #URSIGASS2026 in Kraków! 🇵🇱
They’ll be representing our group, sharing our research, and connecting with the international #RadioScience community.
Wishing them an inspiring and successful #conference! 🧑🏫🖖
A glimpse from BioEM 2026! 🌏
Our team leader, @mcer33, sharing our latest research and engaging in inspiring discussions with the international bioelectromagnetics community.
Thank you to everyone who made this year's conference such a memorable experience!
🚨From presentations to great conversations 💡
Michaela Poplová, Kateřina Červinková, and @mcer33 had a wonderful time at the #QuantumBiology Forum in Washington, with many inspiring and fruitful discussions along the way.
https://t.co/7lBQRGYAlf
🛎️Conference season is on 🌍
Michaela Poplová, Kateřina Červinková and @mcer33 will represent our team next week in Washington at the #Quantum Biology Forum and #Optica Level Up.
Wishing them great conversations and exciting discoveries!💡👩🏫
🛎️Conference season is on 🌍
Michaela Poplová, Kateřina Červinková and @mcer33 will represent our team next week in Washington at the #Quantum Biology Forum and #Optica Level Up.
Wishing them great conversations and exciting discoveries!💡👩🏫
🔬⚡We introduce a calibrated, non-contact sub-THz probe station for microfluidic chips, delivering highly repeatable liquid and protein measurements across the F-band, with scalability toward 1 THz. Congratulations to @DanielHavelka5 and all the authors on this excellent work!👇
🔊🔬⚡We developed a sub-THz probe station for contact-free liquid sensing in transparent microfluidic chips. F-band tests show clear, stable signals—enabling reliable dielectric spectroscopy up to 1 THz.🔎📖👉https://t.co/PhqflDkbkA
🔬⚡We built a precision alignment workflow for integrating microfluidic flow-cells on sub-THz chips. The result: clear, repeatable transmission signatures for ethanol and protein solutions, with low uncertainty and strong system-level selectivity. 🔎📖👉https://t.co/PhqflDjDv2
🔊🔬⚡We developed a sub-THz probe station for contact-free liquid sensing in transparent microfluidic chips. F-band tests show clear, stable signals—enabling reliable dielectric spectroscopy up to 1 THz.🔎📖👉https://t.co/PhqflDkbkA
⚡🔬We bridge the sub-THz gap with a broadband, non-contact on-chip microfluidic probing platform above 110 GHz. It enables accurate VNA-grade liquid and biomolecular spectroscopy for next-gen 5G/6G and lab-on-chip systems.🔎📖👉https://t.co/PhqflDkbkA
🔊🔬⚡We developed a sub-THz probe station for contact-free liquid sensing in transparent microfluidic chips. F-band tests show clear, stable signals—enabling reliable dielectric spectroscopy up to 1 THz.🔎📖👉https://t.co/PhqflDkbkA