Momentum tunneling between nanoscale liquid flows

Baptiste Coquinot; Anna T. Bui; Damien Toquer; Angelos Michaelides; Nikita Kavokine; Stephen J. Cox; Lydéric Bocquet

doi:10.17863/CAM.113204

Paper details

Research paper

TheoreticalComputational MD

Momentum tunneling between nanoscale liquid flows

Baptiste Coquinot, Anna T. Bui, Damien Toquer, Angelos Michaelides et al.

2025·10.17863/CAM.113204·arXiv:2501.01253

Samples

Each sample groups how it was prepared, characterized, and measured. Click a card to expand.

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

2 properties

H₂OStudied MaterialCStudied Material

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

2 properties

H₂OStudied Materialgeneric two-dimensional solid wallStudied Material

Materials

water

H₂O

Studied Material

Also known as

liquid water

studied material

graphene

Studied Material

Also known as

Why these are connected

Related documents with shared materials, methods, properties, or citations.

Momentum tunneling between nanoscale liquid flows | Matter42 Literature

Properties

Type	Label	Value	Material	Sample	Source
Flow Tunneling Velocity Ratio	vB/vA maximum	~1	H₂O C	Simulated nanoscale liquid-solid-liquid geometry consisting	—
Flow Tunneling Velocity Ratio	vB/vA at large separation	<0.01	H₂O generic two-dimensional solid wall	Simulated passive-wall geometry used as a comparison case, w	—
Hydron Frequency	Debye frequency used in passive-wall estimate	0.3THz	H₂O	Simulated nanoscale liquid-solid-liquid geometry consisting Simulated passive-wall geometry used as a comparison case, w	—

Properties

Type	Label	Value	Material	Sample	Source
Flow Tunneling Velocity Ratio	vB/vA maximum	~1	H₂O C	Simulated nanoscale liquid-solid-liquid geometry consisting	—
Flow Tunneling Velocity Ratio	vB/vA at large separation	<0.01	H₂O generic two-dimensional solid wall	Simulated passive-wall geometry used as a comparison case, w	—
Hydron Frequency	Debye frequency used in passive-wall estimate	0.3THz	H₂O	Simulated nanoscale liquid-solid-liquid geometry consisting Simulated passive-wall geometry used as a comparison case, w	—

Properties

Type	Label	Value	Material	Sample	Source
Flow Tunneling Velocity Ratio	vB/vA maximum	~1	H₂O C	Simulated nanoscale liquid-solid-liquid geometry consisting	—
Flow Tunneling Velocity Ratio	vB/vA at large separation	<0.01	H₂O generic two-dimensional solid wall	Simulated passive-wall geometry used as a comparison case, w	—
Hydron Frequency	Debye frequency used in passive-wall estimate	0.3THz	H₂O	Simulated nanoscale liquid-solid-liquid geometry consisting Simulated passive-wall geometry used as a comparison case, w	—

Properties

Type	Label	Value	Material	Sample	Source
Flow Tunneling Velocity Ratio	vB/vA maximum	~1	H₂O C	Simulated nanoscale liquid-solid-liquid geometry consisting	—
Flow Tunneling Velocity Ratio	vB/vA at large separation	<0.01	H₂O generic two-dimensional solid wall	Simulated passive-wall geometry used as a comparison case, w	—
Hydron Frequency	Debye frequency used in passive-wall estimate	0.3THz	H₂O	Simulated nanoscale liquid-solid-liquid geometry consisting Simulated passive-wall geometry used as a comparison case, w	—

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Momentum tunneling between nanoscale liquid flows

Samples

Simulated nanoscale liquid-solid-liquid geometry consisting of two water slabs separated by N two-dimensional solid layers, used to study flow tunneling through an electronically active wall.

Simulated passive-wall geometry used as a comparison case, where the solid layers act only as a static potential between two water slabs.

Materials

Why these are connected

Properties

Simulations

Properties

Simulations

Properties

Simulations

Properties

Simulations