Sergio Gámez-Valenzuela
Linköping University, Southern University of Science and Technology, University of Malaga, Universidad de Málaga
About
I graduated in Chemistry from the University of Malaga (UMA) in 2016 and completed a Master in Applied Chemistry and Nanotechnology in 2017 with honors. That year, I received a competitive UMA fellowship, enabling my first research project on the spectroscopic and theoretical characterization of π-conjugated materials. In 2018, I was awarded the highly competitive FPU fellowship (FPU17/04908) to begin my PhD in Materials and Nanotechnology at UMA, which I completed with Cum-Laude and international distinctions in 2023. My thesis, awarded as one of the Best PhD Theses by the GENAM group of the RSEQ, and the UMA´s Extraordinary PhD Award, investigated how intramolecular π-conjugation efficiency and supramolecular arrangements influence charge transport and device performance. To tackle this challenge, I developed a multidisciplinary skillset. I gained broad expertise in organic semiconductors characterization using spectroscopic (IR, Raman, UV-Vis, XPS, EPR), electrochemical (CV and spectroelectrochemistry) and microstructural (GIXRD and AFM) techniques, along with device fabrication (electro-optic modulators and field effect transistors (OFETs)), and theoretical modelling of electronic and charge transport properties via quantum-chemical calculations. Research stays at the University of Stuttgart (4 months, Prof. S. Ludwigs) and ICMM of Madrid (3 months, Prof. J. Martínez Ruiz) strengthened my skills in electrochemical doping, conductance measurements, and developing a computational methodology for modelling 2D polymers.
I then completed a nearly two-year postdoctoral stay at SUSTech (Shenzhen, China, Prof. X. Guo), focusing on efficient molecular doping strategies for n(electron transporting)-type polymers in organic thermoelectrics (OTEs). This work led to 3 patents and 19 high-impact publications (7 as first author), including: (i) an ultra-efficient solution-processable n-doping technology achieving the highest n-type OTE power factor to date; (ii) a new dopant providing record electrical conductivity for molecularly doped n-type OTEs; and (iii) a novel electron-deficient building block enabling the highest OTE figure of merit. These accomplishments secured independent funding via the Juan de la Cierva (JDC2024-055129-I) and Marie Skłodowska-Curie (OASYS, 101208856) postdoctoral fellowships. I am currently at Linköping University (LiU, Sweden) carrying out my MSCA fellowship in Prof. S. Fabiano´s group, developing advanced materials and neuron-mimicking electrochemical devices.
Employment
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Linköping University Marie Skłodowska-Curie Postdoctoral Fellow2025 - 2027
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Southern University of Science and Technology Postdoctoral Researcher2023 - 2025
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Universidad de Málaga Postdoctoral Researcher2023 - 2023
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University of Malaga PhD Student2018 - 2023
Education
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University of Malaga PhD in " Chemistry and chemical Technology, materials and nanotechnology"
Projects & Funding
Projects & funding information is unavailable.
Publications (41)
- Synergistic Tuning of Doping Efficiency and Charge Transport in n-Type Thermoelectric Polymers via Rational Backbone Design Save
- Towards single-crystalline two-dimensional poly(arylene vinylene) covalent organic frameworks Save
- Facile One-Pot Direct Arylation Synthesis of Crystalline Additive Molecules for High-Efficiency Organic Solar Cells Save
- Tuning NiOx/Perovskite Heterointerface via Synergistic Molecular Design Strategy of Carbazole Phosphonic Acid for High-Performance Inverted Perovskite Solar Cells Save
- Three-dimensional bowl-shaped solid additive achieves 20.52% efficiency organic solar cells with enhanced thermal stability via curvature-mediated morphology regulation Save
- Stimuli responsive behavior in a D–A–D organic fluorophore: the role of cold crystallization Save
- One-Step Synthesis of Cyanated Quinoxaline Regioisomers Enables n-Type Polymers with Record Ambient-Processed Thermoelectric Performance Save
- Non-fullerene electron-transporting materials for high-performance and stable perovskite solar cells Save
- High-Performance Organic Solar Cells Enabled by 3D Globally Aromatic Carboranyl Solid Additive Save
- High-Molecular-Weight Polymer Donors Based on Bithiophene Imide for High-Efficiency and Durable All-Polymer Solar Cells Save