![]() master, lord comitatus comitatus m company munera, munerum n. money, property accensus, accensa, accensum inflamed, on fire pictus, picta, pictum painted, embroidered, coloured libo, libare, libavi, libatum to pour a libation of, pour a libation on to pour ritually to sip, touch gently horreo, horrere, horrui to tremble in fear dominus, domini, m. light immemor, immemoris forgetful turpis, turpe ugly shameful, base, disgraceful passim in all directions, far and wide diffundo, diffundere, diffudi, diffusus pour about, scatter protinus immediately, at once satus, sata, satum born of latus, lata, latum wide, broad pecunia, pecuniae, f. tower repleo, replere, replevi, repletus fill again complete, fill lux, lucis, f. breeze solum, i ground nubilum, i cloud extremus, a, um at the edge progredior, progredi, progressus sum advance, produce horrendus, -a, -um horrible volo, velle, volui to wish, want lumen, luminis eye custos, custodis, m. ![]() force adquiro, adquirere, adquisivi, adquisitus acquire aura, -ae, f. ![]() Sirringhaus†, Two-Dimensional Carrier Distribution in Top-Gate Polymer Field-Effect Transistors: Correlation between Width of Density of Localized States and Urbach Energy, Advanced Materials, 26, 728–733, 2014.DOI: 10.1002/adma.Malum, -i evil vis, vis, f. Sirringhaus†, Approaching Disorder-Free Transport in High-Mobility Conjugated Polymers, Nature, 515, 384–388, 2014. Sirringhaus†, Scanning Kelvin Probe Microscopy Investigation of the Role of Minority Carriers on the Switching Characteristics of Organic Field-Effect Transistors, Advanced Materials, 28, 4713–4719, 2016. Sirringhaus†*, Trap Healing for High-Performance Low-Voltage Polymer Transistors and Solution-Based Analog Amplifiers on Foil, Advanced Materials, 29, 1606938, 2017. Sirringhaus, Inkjet Printed Nanocavities on a Photonic Crystal Template, Advanced Materials, 29 (47), 1704425, 2017. Pecunia†*, Efficiency and Spectral Performance of Narrowband Organic and Perovskite Photodetectors: a Cross-Sectional Review, Journal of Physics: Materials, 2, 042001, 2019. Li, Perovskite-Inspired Lead-Free Ag2BiI5 for Self-Powered NIR-Blind Visible Light Photodetection, Nano-Micro Letters, 12:27, 2020. Pecunia†*, Microstructural and Photoconversion Efficiency Enhancement of Compact Films of Lead-Free Perovskite Derivative Rb3Sb2I9, Journal of Materials Chemistry A, 8, 4396–4406, 2020. Pecunia†*, Narrowband-Absorption-Type Organic Photodetectors for the Far-Red Range Based on Fullerene-Free Bulk Heterojunctions, Advanced Optical Materials, 1902056, 2020. Pecunia†*, Enhanced photoconversion efficiency in cesium-antimony-halide perovskite derivatives by tuning crystallographic dimensionality, Applied Materials Today, 19, 100637, 2020. Pecunia†*, Ambipolar Deep-Subthreshold Printed-Carbon-Nanotube Transistors for Ultralow-Voltage and Ultralow-Power Electronics, ACS Nano, 14, 10, 14036–14046, 2020. Peng, Lead-Free Halide Perovskite Photovoltaics: Challenges, Open Questions and Opportunities, APL Materials, 8(10), 100901, 2020. Hoye†, V.Pecunia†, Lead-Free Perovskite-Inspired Absorbers for Indoor Photovoltaics, Advanced Energy Materials, 11(1), 2002761, 2021. Sirringhaus, Assessing the Impact of Defects on Lead-Free Perovskite-Inspired Photovoltaics via Photo-Induced Current Transient Spectroscopy, Advanced Energy Materials, 11(22), 2003968, 2021. Hoye†, Emerging Indoor Photovoltaic Technologies for Sustainable Internet of Things, Advanced Energy Materials, 2100698, 2021. Pecunia*†, Two-Dimensional Antimony-Based Perovskite-Inspired Materials for High-Performance Self-Powered Photodetectors, Advanced Functional Materials, 2106295, 2021. ![]()
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