J. Henriques

发表

Towards large-scale in free-standing graphene and N-graphene sheets

N. Bundaleski, U. Cvelbar, A. Dias, 2017, Scientific Reports.

Calculation of the nonlinear response functions of intraexciton transitions in two-dimensional transition metal dichalcogenides

N. Peres, T. Pedersen, J. Henriques, 2021, 2103.03322.

Microwave plasma source operating with atmospheric pressure air-water mixtures

E. Tatarova, J. Henriques, E. Felizardo, 2012 .

Microwave N2-Ar plasmas applied for N-graphene post synthesis

Z. Rakočević, N. Bundaleski, U. Cvelbar, 2018, Materials Research Express.

Modelling of large-scale microwave plasma sources

E. Tatarova, J. Henriques, C. Ferreira, 2009 .

Simultaneous Synthesis and Nitrogen Doping of Free-Standing Graphene Applying Microwave Plasma

A. Dias, M. Abrashev, E. Tatarova, 2020, Materials.

Air–water microwave plasma torch as a NO source for biomedical applications

E. Tatarova, J. Henriques, C. Ferreira, 2012 .

Perturbative approach to the polaron shift of excitons in transition metal dichalcogenides

N. Peres, J. Henriques, 2021, 2102.07368.

Optical polarizability and the observation of dark np states in WSe2

N. Peres, J. Henriques, M. F. C. M. Quintela, 2020, 2012.03335.

Production of N-graphene by microwave N2-Ar plasma

N. Bundaleski, U. Cvelbar, M. Abrashev, 2016 .

Analytical quantitative semiclassical approach to the Lo Surdo–Stark effect and ionization in two-dimensional excitons

N. Peres, T. Pedersen, J. Henriques, 2020, 2004.11646.

Microwave air plasma source at atmospheric pressure: Experiment and theory

M. Pinheiro, E. Tatarova, J. Henriques, 2010 .

Exciton energies and wave functions in hexagonal boron nitride using Miller and Good’s uniform approach

N. Peres, J. Henriques, 2021 .

Excitons in phosphorene: A semi-analytical perturbative approach

N. Peres, J. Henriques, J. C. Henriques, 2019, Physical Review B.

Excitonic magneto-optical Kerr effect in two-dimensional transition metal dichalcogenides induced by spin proximity

N. Peres, António Manuel de Almeida Costa, J. Henriques, 2020, Physical Review B.

Low total electron yield graphene coatings produced by electrophoretic deposition

Z. Rakočević, N. Bundaleski, E. Tatarova, 2020 .

Prospects for microwave plasma synthesized N-graphene in secondary electron emission mitigation applications

N. Bundaleski, U. Cvelbar, J. Zavašnik, 2020, Scientific Reports.

Experimental investigation of surface wave propagation in collisional plasma columns

C. M. Ferreira, E. Tatarova, J. Henriques, 1999 .

Spatial structure of a slot-antenna excited microwave N2–Ar plasma source

E. Tatarova, J. Henriques, C. Ferreira, 2008 .

Microwave plasma enabled synthesis of free standing carbon nanostructures at atmospheric pressure conditions.

A. Dias, M. Abrashev, E. Tatarova, 2018, Physical chemistry chemical physics : PCCP.

Microwave plasma-based direct synthesis of free-standing N-graphene.

A. Dias, M. Abrashev, E. Tatarova, 2020, Physical chemistry chemical physics : PCCP.

Microwave N2–Ar plasma torch. I. Modeling

E. Tatarova, J. Henriques, C. Ferreira, 2011 .

Wave driven N2–Ar discharge. I. Self-consistent theoretical model

E. Tatarova, J. Henriques, C. Ferreira, 2002 .

Modeling of Wave Driven Molecular ( H 2 , N 2 , N 2 – Ar ) Discharges as Atomic Sources

M. Pinheiro, E. Tatarova, J. Henriques, 2001 .

Nitrogen dissociation in low-pressure microwave plasmas

E. Tatarova, J. Henriques, C. Ferreira, 2007 .

Wave driven N2–Ar discharge. II. Experiment and comparison with theory

E. Tatarova, J. Henriques, C. Ferreira, 2002 .

Large-scale Ar and N2–Ar microwave plasma sources

E. Tatarova, J. Henriques, C. Ferreira, 2006 .

A large-scale Ar plasma source excited by a TM/sub 330/ mode

E. Tatarova, J. Henriques, C. Ferreira, 2005, IEEE Transactions on Plasma Science.

Microwave N2–Ar plasma torch. II. Experiment and comparison with theory

E. Tatarova, J. Henriques, C. Ferreira, 2011 .

Towards large-scale in free-standing graphene and N-graphene sheets

N. Bundaleski, U. Cvelbar, A. Dias, 2017, Scientific Reports.

Vacuum ultraviolet radiation emitted by microwave driven argon plasmas

E. Tatarova, J. Henriques, E. Felizardo, 2017 .

Ionization rate and Stark shift of a one-dimensional model of the hydrogen molecular ion

N. Peres, T. Pedersen, J. Henriques, 2020, 2008.04645.

Determination of N-, H- and O-Atom Densities in N2–H2 and in N2–O2 Gas Mixtures by Optical Actinometry in Flowing Microwave Discharges and by NO Titration in Post-Discharges

J. Amorim, A. Ricard, J. Henriques, 2007 .

Densities of N- and O-atoms in N2–O2 flowing glow discharges by actinometry

J. Amorim, A. Ricard, J. Henriques, 2005 .

A Large-Scale Ar Plasma Source Excited by a Mode

E. Tatarova, J. Henriques, C. Ferreira, 2005 .

Microwave Plasma Source for Biomedical Applications

E. Tatarova, J. Henriques, C. Ferreira, 2011 .

Microwave plasma based single step method for free standing graphene synthesis at atmospheric conditions

A. Dias, M. Abrashev, E. Tatarova, 2013 .

Topological photonic Tamm states and the Su-Schrieffer-Heeger model

N. Peres, M. Vasilevskiy, J. Henriques, 2020, Physical Review A.

Effect of gas heating on the spatial structure of a traveling wave sustained Ar discharge

E. Tatarova, J. Henriques, C. Ferreira, 2001 .

Electrical conductivity of free-standing N-graphene sheets

E. Tatarova, J. Henriques, N. Bundaleska, 2019 .

Exciton-polariton mediated interaction between two nitrogen-vacancy color centers in diamond using two-dimensional transition metal dichalcogenides

N. Peres, J. Henriques, B. Amorim, 2020, 2009.12194.

Large-scale synthesis of free-standing N-doped graphene using microwave plasma

M. Abrashev, E. Tatarova, J. Henriques, 2018, Scientific Reports.

Large-scale synthesis of free-standing N-doped graphene using microwave plasma

M. Abrashev, A. Almeida, E. Tatarova, 2018, Scientific Reports.