#electrochemistry — Public Fediverse posts

We have open positions for one PhD student (experiment) and two postdocs (theory and experiment).
The PhD position is on investigating electrochemical interfaces of battery electrodes and semiconductor photoelectrodes by different operando spectroscopies.
The computational postdoc position is on code development for computational reflection anisotropy spectroscopy in electrochemical environments, either in the YAMBO code or in CP2K.
The experimental postdoc position is on solar water splitting and carbon dioxide removal.
All to start as soon as possible. For more information, see https://www.uni-tuebingen.de/specsy
#PostDoc #PhD #job #electrochemistry

We have open positions for one PhD student (experiment) and two postdocs (theory and experiment).
The PhD position is on investigating electrochemical interfaces of battery electrodes and semiconductor photoelectrodes by different operando spectroscopies.
The computational postdoc position is on code development for computational reflection anisotropy spectroscopy in electrochemical environments, either in the YAMBO code or in CP2K.
The experimental postdoc position is on solar water splitting and carbon dioxide removal.
All to start as soon as possible. For more information, see https://www.uni-tuebingen.de/specsy
#PostDoc #PhD #job #electrochemistry

We have open positions for one PhD student (experiment) and two postdocs (theory and experiment).
The PhD position is on investigating electrochemical interfaces of battery electrodes and semiconductor photoelectrodes by different operando spectroscopies.
The computational postdoc position is on code development for computational reflection anisotropy spectroscopy in electrochemical environments, either in the YAMBO code or in CP2K.
The experimental postdoc position is on solar water splitting and carbon dioxide removal.
All to start as soon as possible. For more information, see https://www.uni-tuebingen.de/specsy
#PostDoc #PhD #job #electrochemistry

We have open positions for one PhD student (experiment) and two postdocs (theory and experiment).
The PhD position is on investigating electrochemical interfaces of battery electrodes and semiconductor photoelectrodes by different operando spectroscopies.
The computational postdoc position is on code development for computational reflection anisotropy spectroscopy in electrochemical environments, either in the YAMBO code or in CP2K.
The experimental postdoc position is on solar water splitting and carbon dioxide removal.
All to start as soon as possible. For more information, see https://www.uni-tuebingen.de/specsy
#PostDoc #PhD #job #electrochemistry

We have open positions for one PhD student (experiment) and two postdocs (theory and experiment).
The PhD position is on investigating electrochemical interfaces of battery electrodes and semiconductor photoelectrodes by different operando spectroscopies.
The computational postdoc position is on code development for computational reflection anisotropy spectroscopy in electrochemical environments, either in the YAMBO code or in CP2K.
The experimental postdoc position is on solar water splitting and carbon dioxide removal.
All to start as soon as possible. For more information, see https://www.uni-tuebingen.de/specsy
#PostDoc #PhD #job #electrochemistry

Researchers have developed an electrochemical strategy to convert urea into hydrazine, a critical chemical used in energy storage and pharmaceuticals.
#ChemicalEngineering #Electrochemistry #sflorg
https://www.sflorg.com/2026/08/chm08182602.html

Researchers have developed an electrochemical strategy to convert urea into hydrazine, a critical chemical used in energy storage and pharmaceuticals.
#ChemicalEngineering #Electrochemistry #sflorg
https://www.sflorg.com/2026/08/chm08182602.html

Researchers have developed an electrochemical strategy to convert urea into hydrazine, a critical chemical used in energy storage and pharmaceuticals.
#ChemicalEngineering #Electrochemistry #sflorg
https://www.sflorg.com/2026/08/chm08182602.html

Researchers have developed an electrochemical strategy to convert urea into hydrazine, a critical chemical used in energy storage and pharmaceuticals.
#ChemicalEngineering #Electrochemistry #sflorg
https://www.sflorg.com/2026/08/chm08182602.html

Researchers have developed an electrochemical strategy to convert urea into hydrazine, a critical chemical used in energy storage and pharmaceuticals.
#ChemicalEngineering #Electrochemistry #sflorg
https://www.sflorg.com/2026/08/chm08182602.html

DMFSA is a highly optimized, small-molecule solvent designed to serve as an electrolyte in sodium-metal batteries, facilitating rapid ion transport while maintaining chemical stability.
#MaterialsScience #Electrochemistry #ComputationalChemistry #PowerEngineering #sflorg
https://www.sflorg.com/2026/08/ms08042601.html

DMFSA is a highly optimized, small-molecule solvent designed to serve as an electrolyte in sodium-metal batteries, facilitating rapid ion transport while maintaining chemical stability.
#MaterialsScience #Electrochemistry #ComputationalChemistry #PowerEngineering #sflorg
https://www.sflorg.com/2026/08/ms08042601.html

DMFSA is a highly optimized, small-molecule solvent designed to serve as an electrolyte in sodium-metal batteries, facilitating rapid ion transport while maintaining chemical stability.
#MaterialsScience #Electrochemistry #ComputationalChemistry #PowerEngineering #sflorg
https://www.sflorg.com/2026/08/ms08042601.html

DMFSA is a highly optimized, small-molecule solvent designed to serve as an electrolyte in sodium-metal batteries, facilitating rapid ion transport while maintaining chemical stability.
#MaterialsScience #Electrochemistry #ComputationalChemistry #PowerEngineering #sflorg
https://www.sflorg.com/2026/08/ms08042601.html

DMFSA is a highly optimized, small-molecule solvent designed to serve as an electrolyte in sodium-metal batteries, facilitating rapid ion transport while maintaining chemical stability.
#MaterialsScience #Electrochemistry #ComputationalChemistry #PowerEngineering #sflorg
https://www.sflorg.com/2026/08/ms08042601.html

Epitaxial solid solutions are compositionally complex materials that maintain a randomly mixed chemical state across multiple elements while achieving a highly ordered, single-crystal-like structural arrangement.
#MaterialsScience #Electrochemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07312601.html

Epitaxial solid solutions are compositionally complex materials that maintain a randomly mixed chemical state across multiple elements while achieving a highly ordered, single-crystal-like structural arrangement.
#MaterialsScience #Electrochemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07312601.html

Epitaxial solid solutions are compositionally complex materials that maintain a randomly mixed chemical state across multiple elements while achieving a highly ordered, single-crystal-like structural arrangement.
#MaterialsScience #Electrochemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07312601.html

Epitaxial solid solutions are compositionally complex materials that maintain a randomly mixed chemical state across multiple elements while achieving a highly ordered, single-crystal-like structural arrangement.
#MaterialsScience #Electrochemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07312601.html

Epitaxial solid solutions are compositionally complex materials that maintain a randomly mixed chemical state across multiple elements while achieving a highly ordered, single-crystal-like structural arrangement.
#MaterialsScience #Electrochemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07312601.html

A novel electrochemical platform that simultaneously desalinates industrial wastewater and selectively recovers valuable dissolved heavy metals in a single, continuous process.
#EnvironmentalEngineering #Electrochemistry #MaterialsScience #PhysicalChemistry #sflorg
https://www.sflorg.com/2026/07/eng07302601.html

A novel electrochemical platform that simultaneously desalinates industrial wastewater and selectively recovers valuable dissolved heavy metals in a single, continuous process.
#EnvironmentalEngineering #Electrochemistry #MaterialsScience #PhysicalChemistry #sflorg
https://www.sflorg.com/2026/07/eng07302601.html

A novel electrochemical platform that simultaneously desalinates industrial wastewater and selectively recovers valuable dissolved heavy metals in a single, continuous process.
#EnvironmentalEngineering #Electrochemistry #MaterialsScience #PhysicalChemistry #sflorg
https://www.sflorg.com/2026/07/eng07302601.html

A novel electrochemical platform that simultaneously desalinates industrial wastewater and selectively recovers valuable dissolved heavy metals in a single, continuous process.
#EnvironmentalEngineering #Electrochemistry #MaterialsScience #PhysicalChemistry #sflorg
https://www.sflorg.com/2026/07/eng07302601.html

A novel electrochemical platform that simultaneously desalinates industrial wastewater and selectively recovers valuable dissolved heavy metals in a single, continuous process.
#EnvironmentalEngineering #Electrochemistry #MaterialsScience #PhysicalChemistry #sflorg
https://www.sflorg.com/2026/07/eng07302601.html

A collaborative research team has developed a new, battery-like electrochemical device capable of directly extracting carbon dioxide from the atmosphere to combat climate change.
#MechanicalEngineering #Electrochemistry #PhysicalChemistry #EnvironmentalScience #ClimateChange #sflorg
https://www.sflorg.com/2026/07/env07122601.html

A collaborative research team has developed a new, battery-like electrochemical device capable of directly extracting carbon dioxide from the atmosphere to combat climate change.
#MechanicalEngineering #Electrochemistry #PhysicalChemistry #EnvironmentalScience #ClimateChange #sflorg
https://www.sflorg.com/2026/07/env07122601.html

A collaborative research team has developed a new, battery-like electrochemical device capable of directly extracting carbon dioxide from the atmosphere to combat climate change.
#MechanicalEngineering #Electrochemistry #PhysicalChemistry #EnvironmentalScience #ClimateChange #sflorg
https://www.sflorg.com/2026/07/env07122601.html

A collaborative research team has developed a new, battery-like electrochemical device capable of directly extracting carbon dioxide from the atmosphere to combat climate change.
#MechanicalEngineering #Electrochemistry #PhysicalChemistry #EnvironmentalScience #ClimateChange #sflorg
https://www.sflorg.com/2026/07/env07122601.html

A collaborative research team has developed a new, battery-like electrochemical device capable of directly extracting carbon dioxide from the atmosphere to combat climate change.
#MechanicalEngineering #Electrochemistry #PhysicalChemistry #EnvironmentalScience #ClimateChange #sflorg
https://www.sflorg.com/2026/07/env07122601.html

How to Rebuild an 1800s Victorian Leclanché cell

https://fed.brid.gy/r/https://hackaday.com/2026/07/06/how-to-rebuild-an-1800s-victorian-leclanche-cell/

How to Rebuild an 1800s Victorian Leclanché cell

https://fed.brid.gy/r/https://hackaday.com/2026/07/06/how-to-rebuild-an-1800s-victorian-leclanche-cell/

How to Rebuild an 1800s Victorian Leclanché cell

https://fed.brid.gy/r/https://hackaday.com/2026/07/06/how-to-rebuild-an-1800s-victorian-leclanche-cell/

Solid-state batteries utilize solid electrolytes to achieve high energy densities, but they often fail prematurely due to the formation of lithium metal spikes, known as dendrites. Recent research reveals that hidden electrical imbalances at the microscopic boundaries between electrolyte grains drive the formation of these destructive structures.
#MaterialsScience #Engineering #Electrochemistry #SolidStateChemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07062603.html

Solid-state batteries utilize solid electrolytes to achieve high energy densities, but they often fail prematurely due to the formation of lithium metal spikes, known as dendrites. Recent research reveals that hidden electrical imbalances at the microscopic boundaries between electrolyte grains drive the formation of these destructive structures.
#MaterialsScience #Engineering #Electrochemistry #SolidStateChemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07062603.html

Solid-state batteries utilize solid electrolytes to achieve high energy densities, but they often fail prematurely due to the formation of lithium metal spikes, known as dendrites. Recent research reveals that hidden electrical imbalances at the microscopic boundaries between electrolyte grains drive the formation of these destructive structures.
#MaterialsScience #Engineering #Electrochemistry #SolidStateChemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07062603.html

Solid-state batteries utilize solid electrolytes to achieve high energy densities, but they often fail prematurely due to the formation of lithium metal spikes, known as dendrites. Recent research reveals that hidden electrical imbalances at the microscopic boundaries between electrolyte grains drive the formation of these destructive structures.
#MaterialsScience #Engineering #Electrochemistry #SolidStateChemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07062603.html

Solid-state batteries utilize solid electrolytes to achieve high energy densities, but they often fail prematurely due to the formation of lithium metal spikes, known as dendrites. Recent research reveals that hidden electrical imbalances at the microscopic boundaries between electrolyte grains drive the formation of these destructive structures.
#MaterialsScience #Engineering #Electrochemistry #SolidStateChemistry #Nanotechnology #sflorg
https://www.sflorg.com/2026/07/ms07062603.html

Testing Coffee With Current

Coffee is a key ingredient in the scientific process for many researchers, so it’s no wonder that researchers often develop an interest in the drink’s physics and chemistry. In a new study, a research team devised an objective method to test both a coffee’s strength and its roast color.

The researchers used a potentiostat to test how an electric current interacted with the brewed coffee and showed how the measurements related to the coffee’s flavor. The method was even robust enough that they could identify which coffee sample came from a batch of beans that had failed a roaster’s quality controls.

While you’re unlikely to use such a method at home, it could be helpful in coffee shops, where baristas try to pin down the variables to produce the same flavor in every cup. (Image credit: M. Kenneally; research credit: R. Bumbaugh et al.; via Ars Technica)

Testing Coffee With Current

Coffee is a key ingredient in the scientific process for many researchers, so it’s no wonder that researchers often develop an interest in the drink’s physics and chemistry. In a new study, a research team devised an objective method to test both a coffee’s strength and its roast color.

The researchers used a potentiostat to test how an electric current interacted with the brewed coffee and showed how the measurements related to the coffee’s flavor. The method was even robust enough that they could identify which coffee sample came from a batch of beans that had failed a roaster’s quality controls.

While you’re unlikely to use such a method at home, it could be helpful in coffee shops, where baristas try to pin down the variables to produce the same flavor in every cup. (Image credit: M. Kenneally; research credit: R. Bumbaugh et al.; via Ars Technica)

Testing Coffee With Current

Coffee is a key ingredient in the scientific process for many researchers, so it’s no wonder that researchers often develop an interest in the drink’s physics and chemistry. In a new study, a research team devised an objective method to test both a coffee’s strength and its roast color.

The researchers used a potentiostat to test how an electric current interacted with the brewed coffee and showed how the measurements related to the coffee’s flavor. The method was even robust enough that they could identify which coffee sample came from a batch of beans that had failed a roaster’s quality controls.

While you’re unlikely to use such a method at home, it could be helpful in coffee shops, where baristas try to pin down the variables to produce the same flavor in every cup. (Image credit: M. Kenneally; research credit: R. Bumbaugh et al.; via Ars Technica)

Testing Coffee With Current

Coffee is a key ingredient in the scientific process for many researchers, so it’s no wonder that researchers often develop an interest in the drink’s physics and chemistry. In a new study, a research team devised an objective method to test both a coffee’s strength and its roast color.

The researchers used a potentiostat to test how an electric current interacted with the brewed coffee and showed how the measurements related to the coffee’s flavor. The method was even robust enough that they could identify which coffee sample came from a batch of beans that had failed a roaster’s quality controls.

While you’re unlikely to use such a method at home, it could be helpful in coffee shops, where baristas try to pin down the variables to produce the same flavor in every cup. (Image credit: M. Kenneally; research credit: R. Bumbaugh et al.; via Ars Technica)

Testing Coffee With Current

Coffee is a key ingredient in the scientific process for many researchers, so it’s no wonder that researchers often develop an interest in the drink’s physics and chemistry. In a new study, a research team devised an objective method to test both a coffee’s strength and its roast color.

The researchers used a potentiostat to test how an electric current interacted with the brewed coffee and showed how the measurements related to the coffee’s flavor. The method was even robust enough that they could identify which coffee sample came from a batch of beans that had failed a roaster’s quality controls.

While you’re unlikely to use such a method at home, it could be helpful in coffee shops, where baristas try to pin down the variables to produce the same flavor in every cup. (Image credit: M. Kenneally; research credit: R. Bumbaugh et al.; via Ars Technica)

It's hard to pull Mg out of seawater, and we know that minerals with it, like dolomite, form along a redox profile. But why?
We decided to look at it a bit differently - with electrochemistry!
What we think is going on is a process called “proton-driven cation pumping,” which pulls out the Mg and pushes it (and Ca) into the mineral phase, driven by the electrical potential gradient.

Link: https://doi.org/10.1016/j.gca.2026.05.034

#Electrochemistry #Dolomite #Redox

It's hard to pull Mg out of seawater, and we know that minerals with it, like dolomite, form along a redox profile. But why?
We decided to look at it a bit differently - with electrochemistry!
What we think is going on is a process called “proton-driven cation pumping,” which pulls out the Mg and pushes it (and Ca) into the mineral phase, driven by the electrical potential gradient.

Link: https://doi.org/10.1016/j.gca.2026.05.034

#Electrochemistry #Dolomite #Redox

It's hard to pull Mg out of seawater, and we know that minerals with it, like dolomite, form along a redox profile. But why?
We decided to look at it a bit differently - with electrochemistry!
What we think is going on is a process called “proton-driven cation pumping,” which pulls out the Mg and pushes it (and Ca) into the mineral phase, driven by the electrical potential gradient.

Link: https://doi.org/10.1016/j.gca.2026.05.034

#Electrochemistry #Dolomite #Redox

It's hard to pull Mg out of seawater, and we know that minerals with it, like dolomite, form along a redox profile. But why?
We decided to look at it a bit differently - with electrochemistry!
What we think is going on is a process called “proton-driven cation pumping,” which pulls out the Mg and pushes it (and Ca) into the mineral phase, driven by the electrical potential gradient.

Link: https://doi.org/10.1016/j.gca.2026.05.034

#Electrochemistry #Dolomite #Redox

It's hard to pull Mg out of seawater, and we know that minerals with it, like dolomite, form along a redox profile. But why?
We decided to look at it a bit differently - with electrochemistry!
What we think is going on is a process called “proton-driven cation pumping,” which pulls out the Mg and pushes it (and Ca) into the mineral phase, driven by the electrical potential gradient.

Link: https://doi.org/10.1016/j.gca.2026.05.034

#Electrochemistry #Dolomite #Redox

Lab Notebook Entry #18

Designed static frames for flooded cells, started first all-Fe test, Zn-I dev kit probably needs to be remade

https://dualpower.supply/posts/lab-notebook-18/

#academia #OpenScience #Quarto #batteries #EnergyStorage #energy #science #electrochemistry #OpenSource #OpenSourceHardware

Lab Notebook Entry #18

Designed static frames for flooded cells, started first all-Fe test, Zn-I dev kit probably needs to be remade

https://dualpower.supply/posts/lab-notebook-18/

#academia #OpenScience #Quarto #batteries #EnergyStorage #energy #science #electrochemistry #OpenSource #OpenSourceHardware