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Garikoitz Balerdi

Researcher at Complutense University of Madrid

Publications -  10
Citations -  315

Garikoitz Balerdi is an academic researcher from Complutense University of Madrid. The author has contributed to research in topics: Rydberg state & Photodissociation. The author has an hindex of 7, co-authored 10 publications receiving 255 citations.

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Control of ultrafast molecular photodissociation by laser-field-induced potentials

TL;DR: This work explores the transition from the weak- to the strong-field regimes of laser control for the dissociation of a polyatomic molecule, methyl iodide, and finds that the control over the yield of the photodissociation reaction proceeds through the creation of a light-induced conical intersection.
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Structural dynamics effects on the ultrafast chemical bond cleavage of a photodissociation reaction

TL;DR: Femtosecond time-resolved velocity map imaging spectroscopy reveals specificity of the ultrafast carbon-iodine (C-I) bond breakage for a series of linear and branched alkyl iodides, due to the interplay between the pure reaction coordinate and the rest of the degrees of freedom associated with the molecular structure details.
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Comparing the electronic relaxation dynamics of aniline and d(7)-aniline following excitation at 272-238 nm.

TL;DR: The results of femtosecond time-resolved photoelectron spectroscopy experiments used to compare the electronic relaxation dynamics of aniline and d7-aniline following photoexcitation find that tunnelling does not play a role in the Electronic relaxation dynamics, which is surprising given that Tunnelling plays an important role inThe electronic relaxation of isoelectronic phenol and in pyrrole.
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Femtosecond predissociation dynamics of the methyl radical from the 3p(z) Rydberg state.

TL;DR: The real time dynamics of electronic predissociation of the CH3 radical from selected vibrational states of the 3pz Rydberg state have been measured for the first time using a novel methodology based on a femtosecond three-color experiment to generate, two-photon excite and ionize methyl radicals as a function of time in combination with velocity map imaging detection.