We are delighted to be taking submission for the Six-Member Ring (SMR) materials collection for Nanoscale. Find out more about and submit today 👇
www.rsc.org/publishi...
#sixmemberring #highthroughput #electronics #optoelectronics #battery #electrocatalysis #supercapacitor #photonics #spintronics
www.rsc.org/publishi...
#sixmemberring #highthroughput #electronics #optoelectronics #battery #electrocatalysis #supercapacitor #photonics #spintronics
November 3, 2026 at 11:00 AM
We are delighted to be taking submission for the Six-Member Ring (SMR) materials collection for Nanoscale. Find out more about and submit today 👇
www.rsc.org/publishi...
#sixmemberring #highthroughput #electronics #optoelectronics #battery #electrocatalysis #supercapacitor #photonics #spintronics
www.rsc.org/publishi...
#sixmemberring #highthroughput #electronics #optoelectronics #battery #electrocatalysis #supercapacitor #photonics #spintronics
Changing electrode potential also changes the environment in which a reaction occurs. This study separates driving-force and interfacial-polarization effects, offering a useful perspective on interpreting electrocatalytic kinetics.
Fritz Haber Institute Team Separates Driving Force from Electric-Field Effects in Electrocatalysis
Disentanglement of interfacial electric fields and electrochemical potential gradients reveals a multidimensional kinetic landscape - Nature ChemistryElectrochemical kinetics are shaped by both the th...
research-pop.com
November 4, 2026 at 2:43 PM
Changing electrode potential also changes the environment in which a reaction occurs. This study separates driving-force and interfacial-polarization effects, offering a useful perspective on interpreting electrocatalytic kinetics.
"...the findings point to a potential autonomous, closed-loop approach that uses electrocatalysis to treat diabesity. 'For decades, we have treated diabetes by telling the body how to manage glucose. We are now showing that we can take control of glucose directly, using electronics'..."
An implantable device that uses electricity to lower blood sugar shows promise for controlling diabetes without medications or insulin >>> www.biotechniques.com/biochemistry... 🧪
New implant reduces blood sugar with electricity, offering promise for drug-free diabetes treatment
An implantable device that uses an electrically powered catalyst to lower blood sugar may offer a drug-free approach to managing diabesity.
www.biotechniques.com
November 3, 2026 at 4:13 PM
"...the findings point to a potential autonomous, closed-loop approach that uses electrocatalysis to treat diabesity. 'For decades, we have treated diabetes by telling the body how to manage glucose. We are now showing that we can take control of glucose directly, using electronics'..."
New paper in ACS Catalysis from @thdept-fhi-mpg.bsky.social! 🎉 A shifting prefactor in temperature-dependent electrocatalysis isn’t necessarily a solvent effect: even a minimal model of hydrogen evolution shows entropy–enthalpy compensation once the kinetic regime changes.
📄 doi.org/10.1021/acsc...
📄 doi.org/10.1021/acsc...
Entropy–Enthalpy Compensation in Electrocatalytic Rates
AbstractMeasuring the temperature dependence of electrocatalytic reaction rates is a powerful, yet underexplored, way of investigating the underlying kinet
doi.org
November 4, 2026 at 8:20 AM
New paper in ACS Catalysis from @thdept-fhi-mpg.bsky.social! 🎉 A shifting prefactor in temperature-dependent electrocatalysis isn’t necessarily a solvent effect: even a minimal model of hydrogen evolution shows entropy–enthalpy compensation once the kinetic regime changes.
📄 doi.org/10.1021/acsc...
📄 doi.org/10.1021/acsc...
Prof. Tao Wang's team developed MuKiP, which enables mechanistic understanding of complex physicochemical processes at the gas–liquid–solid three-phase interface in electrocatalysis with multiscale simulations.
🔗 https://bit.ly/4e9DsJ8
🔗 https://bit.ly/4zBy5v7
🔗 https://go.nature.com/4zdBvnj
🔗 https://bit.ly/4e9DsJ8
🔗 https://bit.ly/4zBy5v7
🔗 https://go.nature.com/4zdBvnj
October 30, 2026 at 9:15 AM
Prof. Tao Wang's team developed MuKiP, which enables mechanistic understanding of complex physicochemical processes at the gas–liquid–solid three-phase interface in electrocatalysis with multiscale simulations.
🔗 https://bit.ly/4e9DsJ8
🔗 https://bit.ly/4zBy5v7
🔗 https://go.nature.com/4zdBvnj
🔗 https://bit.ly/4e9DsJ8
🔗 https://bit.ly/4zBy5v7
🔗 https://go.nature.com/4zdBvnj
I’ll be wrapping up my MSCA fellowship soon and am exploring opportunities from Jan 2027 🔬⚡
Materials electrochemistry | Electrocatalysis | Power-to-X | Green Hydrogen
Interested in R&D/research, group leader & faculty roles in Europe/UK. All leads very welcome!
Email: manila.ozhukil @icn2.cat
Materials electrochemistry | Electrocatalysis | Power-to-X | Green Hydrogen
Interested in R&D/research, group leader & faculty roles in Europe/UK. All leads very welcome!
Email: manila.ozhukil @icn2.cat
October 30, 2026 at 4:55 PM
I’ll be wrapping up my MSCA fellowship soon and am exploring opportunities from Jan 2027 🔬⚡
Materials electrochemistry | Electrocatalysis | Power-to-X | Green Hydrogen
Interested in R&D/research, group leader & faculty roles in Europe/UK. All leads very welcome!
Email: manila.ozhukil @icn2.cat
Materials electrochemistry | Electrocatalysis | Power-to-X | Green Hydrogen
Interested in R&D/research, group leader & faculty roles in Europe/UK. All leads very welcome!
Email: manila.ozhukil @icn2.cat
Excited to share our latest preprint from the Derosa Lab and Gutierrez Lab, where we report an electrocatalytic strategy for E-selective alkyne semi-hydrogenation using tandem electrocatalysis.
Preprint: chemrxiv.org/doi/full/10.26…
Preprint: chemrxiv.org/doi/full/10.26…
October 26, 2026 at 11:10 PM
Excited to share our latest preprint from the Derosa Lab and Gutierrez Lab, where we report an electrocatalytic strategy for E-selective alkyne semi-hydrogenation using tandem electrocatalysis.
Preprint: chemrxiv.org/doi/full/10.26…
Preprint: chemrxiv.org/doi/full/10.26…
💧 This review explores how scalable electrode manufacturing, faster oxygen-bubble removal, and durability under fluctuating renewable power can reduce the cost of industrial water electrolysis.
📖 Read for free: rdcu.be/79Ytr6RoTTqa
#GreenHydrogen #Electrocatalysis #WaterElectrolysis
📖 Read for free: rdcu.be/79Ytr6RoTTqa
#GreenHydrogen #Electrocatalysis #WaterElectrolysis
October 28, 2026 at 7:47 AM
💧 This review explores how scalable electrode manufacturing, faster oxygen-bubble removal, and durability under fluctuating renewable power can reduce the cost of industrial water electrolysis.
📖 Read for free: rdcu.be/79Ytr6RoTTqa
#GreenHydrogen #Electrocatalysis #WaterElectrolysis
📖 Read for free: rdcu.be/79Ytr6RoTTqa
#GreenHydrogen #Electrocatalysis #WaterElectrolysis
An implantable, wirelessly powered electronic device could offer a drug-free approach to managing the intertwined metabolic disorders of obesity and type 2 diabetes.
The device uses electrocatalysis to remove excess glucose from the bloodstream on demand.
Learn more in Science: scim.ag/4BkQNrR
The device uses electrocatalysis to remove excess glucose from the bloodstream on demand.
Learn more in Science: scim.ag/4BkQNrR
Wireless electrocatalytic closed-loop system for drug-free management of diabesity
Lifestyle-related type 2 diabetes and associated obesity (diabesity) affect >2.5 billion people worldwide and impose nearly $3 trillion in annual health care costs. We developed an implantable, wirele...
scim.ag
October 30, 2026 at 12:20 PM
An implantable, wirelessly powered electronic device could offer a drug-free approach to managing the intertwined metabolic disorders of obesity and type 2 diabetes.
The device uses electrocatalysis to remove excess glucose from the bloodstream on demand.
Learn more in Science: scim.ag/4BkQNrR
The device uses electrocatalysis to remove excess glucose from the bloodstream on demand.
Learn more in Science: scim.ag/4BkQNrR
⚗️ AI lab finds platinum rivals
A self-driving lab searched 12 variables at once for hydrogen catalysts. It found earth-abundant materials at least comparable to platinum ones, and the AI showed its reasoning.
🔗 doi.org/10.1038/s41467-026-78335-w
#Chemistry #AI #CleanEnergy 🧪
A self-driving lab searched 12 variables at once for hydrogen catalysts. It found earth-abundant materials at least comparable to platinum ones, and the AI showed its reasoning.
🔗 doi.org/10.1038/s41467-026-78335-w
#Chemistry #AI #CleanEnergy 🧪
Chemistry-infused bandit framework for interpretable autonomous campaign of electrocatalysis - Nature Communications
Autonomous catalyst discovery is often guided by black-box models that provide limited chemical insight. Here, the authors report a chemistry-informed autonomous workflow that identifies high-performa...
doi.org
October 25, 2026 at 1:01 PM
⚗️ AI lab finds platinum rivals
A self-driving lab searched 12 variables at once for hydrogen catalysts. It found earth-abundant materials at least comparable to platinum ones, and the AI showed its reasoning.
🔗 doi.org/10.1038/s41467-026-78335-w
#Chemistry #AI #CleanEnergy 🧪
A self-driving lab searched 12 variables at once for hydrogen catalysts. It found earth-abundant materials at least comparable to platinum ones, and the AI showed its reasoning.
🔗 doi.org/10.1038/s41467-026-78335-w
#Chemistry #AI #CleanEnergy 🧪
University of Groningen (@rug.nl) is hiring:
Postdoc in Management of Electrocatalysis Group
#postdoc #chemsky #electrocatalysis
Postdoc in Management of Electrocatalysis Group
#postdoc #chemsky #electrocatalysis
October 23, 2026 at 9:30 PM
University of Groningen (@rug.nl) is hiring:
Postdoc in Management of Electrocatalysis Group
#postdoc #chemsky #electrocatalysis
Postdoc in Management of Electrocatalysis Group
#postdoc #chemsky #electrocatalysis
researchers- used chemical reactions to convert the patient’s excess glucose into gluconate. The new implantable device uses electrocatalysis and is connected to an external glucose monitor-this reduced blood sugar in mice
October 24, 2026 at 2:57 PM
researchers- used chemical reactions to convert the patient’s excess glucose into gluconate. The new implantable device uses electrocatalysis and is connected to an external glucose monitor-this reduced blood sugar in mice
Researchers from Switzerland and France developed the wireless implant ECHO, which uses electrocatalysis to remove excess glucose from the bloodstream on demand. In tests on mice with diabesity, the device autonomously regulated metabolism without usin…
#Diabesity #Electrocatalysis #WirelessImplant
#Diabesity #Electrocatalysis #WirelessImplant
ECHO device restores normal sugar levels for weeks
Source: GEN (Genetic Eng News)
realfeedapp.com
October 23, 2026 at 4:40 PM
Researchers from Switzerland and France developed the wireless implant ECHO, which uses electrocatalysis to remove excess glucose from the bloodstream on demand. In tests on mice with diabesity, the device autonomously regulated metabolism without usin…
#Diabesity #Electrocatalysis #WirelessImplant
#Diabesity #Electrocatalysis #WirelessImplant
Extract: The University of Groningen seeks a postdoctoral researcher with experience in electrochemistry and managerial skills to manage a research group in electrocatalysis for 4 months.
October 23, 2026 at 9:30 PM
Extract: The University of Groningen seeks a postdoctoral researcher with experience in electrochemistry and managerial skills to manage a research group in electrocatalysis for 4 months.
→ What they did
Researchers from Switzerland and France developed an implantable device called ECHO, which uses electrocatalysis to remove excess glucose from the blood without drugs.
Researchers from Switzerland and France developed an implantable device called ECHO, which uses electrocatalysis to remove excess glucose from the blood without drugs.
October 23, 2026 at 4:40 PM
→ What they did
Researchers from Switzerland and France developed an implantable device called ECHO, which uses electrocatalysis to remove excess glucose from the blood without drugs.
Researchers from Switzerland and France developed an implantable device called ECHO, which uses electrocatalysis to remove excess glucose from the blood without drugs.
3️⃣Why does it matter?
More geometric detail doesn’t always mean better predictions.
Surface roughness may be enough to predict selectivity—making electrocatalysis models simpler without sacrificing accuracy.
More geometric detail doesn’t always mean better predictions.
Surface roughness may be enough to predict selectivity—making electrocatalysis models simpler without sacrificing accuracy.
October 23, 2026 at 12:24 PM
3️⃣Why does it matter?
More geometric detail doesn’t always mean better predictions.
Surface roughness may be enough to predict selectivity—making electrocatalysis models simpler without sacrificing accuracy.
More geometric detail doesn’t always mean better predictions.
Surface roughness may be enough to predict selectivity—making electrocatalysis models simpler without sacrificing accuracy.
Postdoc – Management of Electrocatalysis Group https://www.academictransfer.com/364979/ @Univgroningen
October 22, 2026 at 12:43 PM
Postdoc – Management of Electrocatalysis Group https://www.academictransfer.com/364979/ @Univgroningen
In this #MRSEnergyJournal review, authors summarize the recent advances in #SECCM studies on #HER #electrocatalysis using #TMDC #nanosheets.
October 22, 2026 at 4:03 PM
In this #MRSEnergyJournal review, authors summarize the recent advances in #SECCM studies on #HER #electrocatalysis using #TMDC #nanosheets.
1️⃣ What is this paper about? 🧵
How does catalyst surface morphology affect selectivity in electrocatalysis?
During CO₂ reduction on copper, intermediates can leave the surface as CO or re-adsorb and undergo further reactions. This competition influences which products form.
How does catalyst surface morphology affect selectivity in electrocatalysis?
During CO₂ reduction on copper, intermediates can leave the surface as CO or re-adsorb and undergo further reactions. This competition influences which products form.
October 23, 2026 at 12:24 PM
1️⃣ What is this paper about? 🧵
How does catalyst surface morphology affect selectivity in electrocatalysis?
During CO₂ reduction on copper, intermediates can leave the surface as CO or re-adsorb and undergo further reactions. This competition influences which products form.
How does catalyst surface morphology affect selectivity in electrocatalysis?
During CO₂ reduction on copper, intermediates can leave the surface as CO or re-adsorb and undergo further reactions. This competition influences which products form.
Cooling water to near freezing breaks the activity-stability trade-off of water oxidation electrocatalysis
->Nature | More on "Water oxidation electrocatalysis efficiency" at BigEarthData.ai | #water
->Nature | More on "Water oxidation electrocatalysis efficiency" at BigEarthData.ai | #water
Cooling water to near freezing breaks the activity-stability trade-off of water oxidation electrocatalysis
Arrhenius, S. Über die reaktionsgeschwindigkeit bei der inversion von Rohrzucker durch Säuren. Z. Phys. Chem. 4, 226–248 (1889). Atkins, P. & de Paula, J. The rates of chemical reactions. In Physical Chemistry 9th edn 799–802 (Oxford Univ. Press, 2010). Murakami, K. et al. Key factor for the anti-Arrhenius low-temperature heterogeneous catalysis induced by H+ migration: H+ coverage over support. Chem. Commun. 56, 3365–3368 (2020). Sargeant, E., Kolodziej, A., Le Duff, C. S. & Rodriguez, P. Electrochemical conversion of CO2 and CH4 at subzero temperatures. ACS Catal. 10, 7464–7474 (2020). Vos, R. E. et al. How temperature affects the selectivity of the electrochemical CO2 reduction on copper. ACS Catal. 13, 8080–8091 (2023). Jo, S. W., Kim, J. Y., Lee, M. W., Kim, Y. & Ahn, H. S. Highly selective reduction of CO2 to methane induced by subzero depression of the electrode surface temperature. ACS Catal. 13, 5122–5126 (2023). Herbst, E. Unusual chemical processes in interstellar chemistry: past and present. Front. Astron. Space Sci. 8, 776942 (2021). Marks, J. H. et al. Thermal synthesis of carbamic acid and its dimer in interstellar ices: a reservoir of interstellar amino acids. ACS Cent. Sci. 9, 2241–2250 (2023). Åqvist, J., Kazemi, M., Isaksen, G. V...
www.nature.com
October 21, 2026 at 3:48 AM
Cooling water to near freezing breaks the activity–stability trade-off of water oxidation electrocatalysis #chemsky
Cooling water to near freezing breaks the activity–stability trade-off of water oxidation electrocatalysis
Nature Chemistry, Published online: 21 October 2026; doi:10.1038/s41557-026-02274-8Temperature can influence competing catalytic pathways differently, but its role in balancing electrocatalytic activity and stability remains underexplored. Now it has been shown that cooling water to near freezing selectively suppresses manganese dioxide dissolution, extending water oxidation lifetime and revealing anomalous subzero kinetics.
dlvr.it
October 21, 2026 at 1:50 AM
Cooling water to near freezing breaks the activity–stability trade-off of water oxidation electrocatalysis #chemsky
Research Fellow (AI for Electrocatalysis)
Nanyang Technological University - Singapore, Singapore
Read the full job description and apply⤵️
jobrxiv.org/job/research...
#ScienceJobs
Nanyang Technological University - Singapore, Singapore
Read the full job description and apply⤵️
jobrxiv.org/job/research...
#ScienceJobs
October 20, 2026 at 5:30 AM
Research Fellow (AI for Electrocatalysis)
Nanyang Technological University - Singapore, Singapore
Read the full job description and apply⤵️
jobrxiv.org/job/research...
#ScienceJobs
Nanyang Technological University - Singapore, Singapore
Read the full job description and apply⤵️
jobrxiv.org/job/research...
#ScienceJobs
Modeling Reactions
on the Solid–Liquid Interface
with Next Generation Extended Lagrangian Quantum-Based Molecular Dynamics pubs.acs.org/jpccck/artic.... 🧪. first demonstration of XL-BOMD applied to heterogeneous electrocatalysis, simulating electrode & electrolyte together in a unified framework
on the Solid–Liquid Interface
with Next Generation Extended Lagrangian Quantum-Based Molecular Dynamics pubs.acs.org/jpccck/artic.... 🧪. first demonstration of XL-BOMD applied to heterogeneous electrocatalysis, simulating electrode & electrolyte together in a unified framework
Modeling Reactions
on the Solid–Liquid Interface
with Next Generation Extended Lagrangian Quantum-Based Molecular Dynamics
Abstract. We present a series of simulations of the oxygen reduction
reaction
(ORR) using a novel framework for atomistic simulations of surface
catalysis
pubs.acs.org
October 21, 2026 at 10:34 AM
Modeling Reactions
on the Solid–Liquid Interface
with Next Generation Extended Lagrangian Quantum-Based Molecular Dynamics pubs.acs.org/jpccck/artic.... 🧪. first demonstration of XL-BOMD applied to heterogeneous electrocatalysis, simulating electrode & electrolyte together in a unified framework
on the Solid–Liquid Interface
with Next Generation Extended Lagrangian Quantum-Based Molecular Dynamics pubs.acs.org/jpccck/artic.... 🧪. first demonstration of XL-BOMD applied to heterogeneous electrocatalysis, simulating electrode & electrolyte together in a unified framework
The outside back cover for Issue 60 features research by Swee Tiam Tan,
Boon-Junn Ng and colleagues: Nanostructured MBene-MOF with interfacial dual active sites for bifunctional electrocatalysis toward coupled ammonia production and glycerol oxidation. Read the full article: http://xlink.rsc.org...
Boon-Junn Ng and colleagues: Nanostructured MBene-MOF with interfacial dual active sites for bifunctional electrocatalysis toward coupled ammonia production and glycerol oxidation. Read the full article: http://xlink.rsc.org...
October 20, 2026 at 6:20 AM
The outside back cover for Issue 60 features research by Swee Tiam Tan,
Boon-Junn Ng and colleagues: Nanostructured MBene-MOF with interfacial dual active sites for bifunctional electrocatalysis toward coupled ammonia production and glycerol oxidation. Read the full article: http://xlink.rsc.org...
Boon-Junn Ng and colleagues: Nanostructured MBene-MOF with interfacial dual active sites for bifunctional electrocatalysis toward coupled ammonia production and glycerol oxidation. Read the full article: http://xlink.rsc.org...
🎤 Meet our first 𝘀𝗽𝗲𝗮𝗸𝗲𝗿𝘀!
🔬 Stefania Cacovich · IPVF
🔬 Nicola Gasparini · Imperial College
🔬 Inke Siewert · Georg-August-Universität
Perovskites, solar cells and electrocatalysis take the stage on 𝗡𝗼𝘃𝗲𝗺𝗯𝗲𝗿 𝟭𝟮!
More speakers coming soon 👀
#INAMSymposium2026 #SomUJI #INAM #CiènciaUJI @uji.es
🔬 Stefania Cacovich · IPVF
🔬 Nicola Gasparini · Imperial College
🔬 Inke Siewert · Georg-August-Universität
Perovskites, solar cells and electrocatalysis take the stage on 𝗡𝗼𝘃𝗲𝗺𝗯𝗲𝗿 𝟭𝟮!
More speakers coming soon 👀
#INAMSymposium2026 #SomUJI #INAM #CiènciaUJI @uji.es
October 19, 2026 at 7:52 AM
🎤 Meet our first 𝘀𝗽𝗲𝗮𝗸𝗲𝗿𝘀!
🔬 Stefania Cacovich · IPVF
🔬 Nicola Gasparini · Imperial College
🔬 Inke Siewert · Georg-August-Universität
Perovskites, solar cells and electrocatalysis take the stage on 𝗡𝗼𝘃𝗲𝗺𝗯𝗲𝗿 𝟭𝟮!
More speakers coming soon 👀
#INAMSymposium2026 #SomUJI #INAM #CiènciaUJI @uji.es
🔬 Stefania Cacovich · IPVF
🔬 Nicola Gasparini · Imperial College
🔬 Inke Siewert · Georg-August-Universität
Perovskites, solar cells and electrocatalysis take the stage on 𝗡𝗼𝘃𝗲𝗺𝗯𝗲𝗿 𝟭𝟮!
More speakers coming soon 👀
#INAMSymposium2026 #SomUJI #INAM #CiènciaUJI @uji.es