On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Ashutosh Dwibedi; Subhalaxmi Nayak; Sathe Subodh Kiran; Sabyasachi Ghosh; Sesha Vempati

doi:10.1143/JPSJ.67.2421

Paper details

Research paper

TheoreticalComputational Kinetic Model

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Ashutosh Dwibedi, Subhalaxmi Nayak, Sathe Subodh Kiran, Sabyasachi Ghosh et al.

arXiv preprint·2025·10.1143/JPSJ.67.2421·arXiv:2501.00490

Samples

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

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

1 characterization3 properties4 figures

SimulatedCStudied Material

Materials

Graphene

Studied Material

studied material

Characterization

Transport

TransportCalculated

Conditions

Why these are connected

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

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems | Matter42 Literature

Properties

Type	Label	Value	Material	Sample	Source
Fet Carrier Concentration	net carrier density	10^10cm⁻²	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	energy density	0.1 to 1eV/cm2	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	pressure	half of energy density	C	Monolayer graphene treated within a two-band low-energy elec	—

Properties

Type	Label	Value	Material	Sample	Source
Fet Carrier Concentration	net carrier density	10^10cm⁻²	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	energy density	0.1 to 1eV/cm2	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	pressure	half of energy density	C	Monolayer graphene treated within a two-band low-energy elec	—

Properties

Type	Label	Value	Material	Sample	Source
Fet Carrier Concentration	net carrier density	10^10cm⁻²	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	energy density	0.1 to 1eV/cm2	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	pressure	half of energy density	C	Monolayer graphene treated within a two-band low-energy elec	—

Properties

Type	Label	Value	Material	Sample	Source
Fet Carrier Concentration	net carrier density	10^10cm⁻²	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	energy density	0.1 to 1eV/cm2	C	Monolayer graphene treated within a two-band low-energy elec	—
Transport	pressure	half of energy density	C	Monolayer graphene treated within a two-band low-energy elec	—

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

On the Wiedemann–Franz law violation in Graphene and quark-gluon plasma systems

Samples

Monolayer graphene treated within a two-band low-energy electron-hole plasma model for thermodynamic and transport calculations.

Materials

Characterization

Why these are connected

Properties

Simulations

Properties

Simulations

Properties

Simulations

Properties

Simulations