about
Strong Enhancement of Second Harmonic Emission by Plasmonic Resonances at the Second Harmonic Wavelength.Nonlinear Refractory Plasmonics with Titanium Nitride Nanoantennas.Probing the Near-Field of Second-Harmonic Light around Plasmonic Nanoantennas.Chiral plasmonics.Plasmonic diastereomers: adding up chiral centers.Plasmonic oligomers in cylindrical vector light beams.Linear and nonlinear optical properties of hybrid metallic-dielectric plasmonic nanoantennas.Third Harmonic Mechanism in Complex Plasmonic Fano Structures.Au nanotip as luminescent near-field probe.Nanoantenna-Enhanced Infrared Spectroscopic Chemical Imaging.Spatial extent of plasmonic enhancement of vibrational signals in the infrared.Hybrid Lithographic and DNA-Directed Assembly of a Configurable Plasmonic Metamaterial That Exhibits Electromagnetically Induced Transparency.Refractory Plasmonics without Refractory Materials.Transition from Isolated to Collective Modes in Plasmonic OligomersMerging transformation optics with electron-driven photon sourcesDoubling the Efficiency of Third Harmonic Generation by Positioning ITO Nanocrystals into the Hot-Spot of Plasmonic Gap-AntennasInfrared perfect absorber and its application as plasmonic sensorExcitation and tuning of higher-order Fano resonances in plasmonic oligomer clustersBabinet to the half: coupling of solid and inverse plasmonic structuresNear- and far-field properties of plasmonic oligomers under radially and azimuthally polarized light excitationHighly Sensitive Refractive Index Sensors with Plasmonic Nanoantennas-Utilization of Optimal Spectral Detuning of Fano ResonancesIn Vitro Monitoring Conformational Changes of Polypeptide Monolayers Using Infrared Plasmonic NanoantennasPurcell-Enhanced Spontaneous Emission of Molecular VibrationsObservation of Uncompensated Bound Charges at Improper Ferroelectric Domain WallsVibrational Sensing Using Infrared Nanoantennas: Toward the Noninvasive Quantitation of Physiological Levels of Glucose and FructoseChiral Plasmonic Nanostructures Enabled by Bottom-Up ApproachesResonant Plasmonic Nanoslits Enable in Vitro Observation of Single-Monolayer Collagen-Peptide DynamicsHybrid Organic-Plasmonic Nanoantennas with Enhanced Third-Harmonic GenerationWatching in situ the hydrogen diffusion dynamics in magnesium on the nanoscale
P50
Q35600233-06B01A11-8BF8-4436-91DE-EB14E2E51B1AQ36096073-7B35421F-7CE1-4D6A-B869-5BA5266B2797Q36275120-3005B310-51D1-45D0-A325-2FDC2B48E542Q39339674-54C4F490-7452-47E0-B926-497F59614EF2Q39494527-4387A4AA-F912-4455-BD2E-7E267B02B978Q41915630-C4E9BD26-453A-4E50-9632-EE25B55512C8Q42539126-00D385BC-AFDE-457F-8B05-65008E5676A8Q43071086-F8AB3D5B-E040-4E6E-A7CD-CA8A96C4A425Q43517902-74A690A1-5DCA-46F1-9184-013A62141FEDQ46333877-8052B67A-C295-48EE-9BD7-2B1455F27826Q46896192-8C9EFDE4-98B2-470F-9C9C-CB5EF73826F2Q48044633-44A4CEBA-0686-487B-9BFA-3B025F7289DAQ48155377-CB248C51-204C-4C0F-989A-09D1254F7B46Q56920968-AC033BAF-D97A-4D10-B13D-99C6E01B4848Q61799395-905609B3-EA9D-4240-9EDB-A69769E79108Q62575868-95683302-6404-4572-A2A7-1DF79950A9ECQ84436694-A42DAB9C-D3F3-4495-A999-6610E14650DAQ84861538-BF412BB4-60E2-4971-9BD2-374C30F1215BQ87311689-FE92B620-B86D-43E9-9754-DBFE0E3CF43BQ87737400-467207E7-6851-4448-A044-D44BF6640CD9Q88511223-AE6629C2-69E8-436C-B842-CCB031A3017CQ90716987-B7813A18-33DA-49E9-AD55-4641A2B81C1DQ91185166-ECD28133-61EB-441F-8B50-2BAD4A1BE295Q91478041-0D31889D-3BB2-470F-BB61-2EFE13A87B57Q91630722-C715D6E8-08D4-4F76-A4EE-1E67DB7416F4Q92187731-B0C9697F-4570-4FD4-A4D4-95045BD6ABFCQ92332521-2191BA2D-29EA-483B-AAAB-C1D846F9A9DCQ92928508-EDFCC314-D7F2-4F74-9072-D9CD8D716DCFQ96136980-37F73BCC-90A0-4618-A7DD-639BBB96F4D5
P50
description
investigador
@es
researcher
@en
wetenschapper
@nl
name
Mario Hentschel
@en
Mario Hentschel
@nl
type
label
Mario Hentschel
@en
Mario Hentschel
@nl
prefLabel
Mario Hentschel
@en
Mario Hentschel
@nl
P31
P496
0000-0002-6882-4183