Skip to content

Biophysics

Upcoming events

Seminar

Deciphering the cortical output code – A multiscale approach to predictive brain modelling

Marcel Oberlaender · Dept. of Integrative Neurophysiology, Vrije Universiteit Amsterdam, Netherlands

Mon, Oct 5 · 07:30 UTC

The study tests whether cortex preserves information during sparse-to-dense coding by targeting thalamocortical synapses to dendritic calcium-spike initiation zones, enabling output neurons to multiplex information through a 1-2-3 action-potential syntax. Evidence across long-range pathways suggests that this anatomically and biophysically distinct dendritic nexus may provide a general mechanism for transforming sparse cortical representations into dense output streams.

AI-generated summary
cortical output code+9
Seminar

Human balance: Delays, sensory dead zones and micro-chaos!

John G. Milton · The University of Texas at Austin

Tue, Oct 6 · 16:00 UTC · Online

How do humans stabilize an inverted pendulum, and why does a balanced pole eventually fall? Drawing on 25 years of fingertip pole-balancing research, this talk examines neural correction delays: longer poles move more slowly relative to the nervous system’s response time. Delay-differential models can stabilize the upright position, yet skilled people still experience falls. The proposed explanation is microchaos arising from interactions among delay, sensory dead zones and frequency-dependent force encoding. A region of transient falling solutions lies next to stable microchaotic dynamics. Such microchaos is absent in virtual frontal-plane balancing tasks, while models of standing postural sway lack the corresponding transient regime. The comparison suggests that human falls, unlike pole falls, are more plausibly associated with medical events or slips and trips.

comp-neuro+1
Seminar

Mimicking Nature: Controlling Charge, Heat, and Spin at Interfaces

Paul S. Weiss · California NanoSystems Institute, UCLA Center for Quantum Science & Engineering, and Departments of Chemistry & Biochemistry, Bioengineering, and Materials Science & Engineering, UCLA

Wed, Oct 7 · 16:00 UTC · Hybrid

Paul S. Weiss (UCLA) explores low-energy interactions and balanced cycling in natural systems as models for efficient synthetic devices and recycling. Because the relevant energies fall below visible-photon energies, tunnelling spectroscopy and imaging are used to probe these processes. Replicating biochemical cycling and low-energy transport could reduce the energy needed for devices and materials recovery. The work seeks missing physical principles, including spin conservation in chiral molecules and polarizability in biological and synthetic systems. This perspective has led to thermal-control advances in scale, speed and magnitude. Atomic-resolution imaging, spectroscopy and functional measurements help build precise structures while revealing heterogeneous nanoscale behaviour. The talk relates these advances to the physical, electronic, mechanical, thermal and chemical connections between materials and their surroundings that determine future nanomaterial measurements and devices.

spin conservation+3
Seminar

“Quantum Biology”: How nature might be optimized to harness quantum mechanics

Clarice D. Aiello · Quantum Biology Ecosystem; Quantum Biology Institute

Wed, Oct 7 · 23:30 UTC · Online

Clarice D. Aiello examines evidence that quantum effects influence biological function, including magnetic sensing used in animal navigation, cellular metabolism and enzyme activity, and the capture of light energy in photosynthesis. The talk reviews proposed biophysical mechanisms and their implications for human, plant and environmental biology, while considering the difficulty of connecting observations from nanometre scales to whole organisms. A central question is whether quantum mechanics can be established or ruled out as the explanation for physiologically relevant effects, and whether those effects can be controlled for useful applications. Potential directions include biomimetic electromagnetic probes, quantum-computing architectures that operate at room temperature, improved solar-energy devices and new therapies. Progress will require work across disciplines and scales, with theory and experiment developed together.

quantum biology+2

Recordings

Open deadlines

Fund collaborative research on electron transfer between biological and synthetic components, including enzyme–electrode interfaces and electroactive microbes. The programme encourages rigorous mechanistic work and integration of data science or AI, rather than development of a specific end product. Consortia of two to four groups may request DKK 30–75 million over six years. A qualifying European lead institution and Danish participation are required. First-stage applications close on 7 October 2026.

Job

PhD Research Fellow in Soft Matter

Deadline Sat, Oct 10

Doctoral research in the PERMEATE project on peptide–membrane interactions and lipid nanoparticles for cancer therapy and bacterial-infection treatments. Combine organic synthesis and click chemistry with scattering, surface measurements, spectroscopy and quantitative analysis. The paid appointment lasts three years, with a possible fourth year including other career-development duties. Work is at the Department of Chemistry in Oslo’s Life Science Building; start must be no later than 1 January 2027.

Investigate mitochondrial DNA architecture and function at LNBio/CNPEM in Campinas with Thayna Mendonça Avelino. Combine coherent X-ray diffraction imaging with STED microscopy, develop multimodal imaging strategies and integrate structural and functional measurements. The fellowship starts in November 2026. Submit a CV, motivation letter and recommendation letter to the investigator’s address on the official call by 12 October 2026.

Study microbes confined within synthetic hydrogels in the Engineered Living Materials programme led by Aránzazu del Campo. Combine imaging, microfluidics and molecular biology to understand microbial behaviour under dynamic environmental conditions, collaborating across materials science and synthetic biology. Responsibilities include student supervision and digital research practices. The appointment is initially two years at EG13 TV-L, with hybrid working; part-time arrangements are possible. Applications close on 15 October 2026.

New and updated

Seminar

Deciphering the cortical output code – A multiscale approach to predictive brain modelling

Marcel Oberlaender · Dept. of Integrative Neurophysiology, Vrije Universiteit Amsterdam, Netherlands

Mon, Oct 5 · 07:30 UTC

The study tests whether cortex preserves information during sparse-to-dense coding by targeting thalamocortical synapses to dendritic calcium-spike initiation zones, enabling output neurons to multiplex information through a 1-2-3 action-potential syntax. Evidence across long-range pathways suggests that this anatomically and biophysically distinct dendritic nexus may provide a general mechanism for transforming sparse cortical representations into dense output streams.

AI-generated summary
cortical output code+9
Conference

APS Global Physics Summit 2027

Atlanta, USA

Apr 11–16, 2027

The American Physical Society's Global Physics Summit, the world's largest annual physics research conference, joining the March Meeting and April Meeting; the 2027 edition is announced for April 11-16, 2027 in Atlanta, Georgia.

Conference

Biophysical Society 71st Annual Meeting

Philadelphia, USA

Feb 20–24, 2027

The 71st Annual Meeting of the Biophysical Society, held Saturday, February 20 through Wednesday, February 24, 2027 at the Pennsylvania Convention Center in Philadelphia, PA, convening the international biophysics community.

Seminar

Mimicking Nature: Controlling Charge, Heat, and Spin at Interfaces

Paul S. Weiss · California NanoSystems Institute, UCLA Center for Quantum Science & Engineering, and Departments of Chemistry & Biochemistry, Bioengineering, and Materials Science & Engineering, UCLA

Wed, Oct 7 · 16:00 UTC · Hybrid

Paul S. Weiss (UCLA) explores low-energy interactions and balanced cycling in natural systems as models for efficient synthetic devices and recycling. Because the relevant energies fall below visible-photon energies, tunnelling spectroscopy and imaging are used to probe these processes. Replicating biochemical cycling and low-energy transport could reduce the energy needed for devices and materials recovery. The work seeks missing physical principles, including spin conservation in chiral molecules and polarizability in biological and synthetic systems. This perspective has led to thermal-control advances in scale, speed and magnitude. Atomic-resolution imaging, spectroscopy and functional measurements help build precise structures while revealing heterogeneous nanoscale behaviour. The talk relates these advances to the physical, electronic, mechanical, thermal and chemical connections between materials and their surroundings that determine future nanomaterial measurements and devices.

spin conservation+3

We use cookies for analytics.