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Sungwon Yoon

Researcher at Catholic University of Korea

Publications -  21
Citations -  378

Sungwon Yoon is an academic researcher from Catholic University of Korea. The author has contributed to research in topics: Muon spin spectroscopy & Magnetization. The author has an hindex of 10, co-authored 21 publications receiving 350 citations.

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An End‐On Azide‐Bridged Antiferromagnetic Single‐Chain Magnet Involving Spin Canting and Field‐Induced Two‐Step Magnetic Transitions

TL;DR: The spin-canted phenomenon in the antiferromagnetic chain complex plays a pivotal role in establishing the slow magnetic relaxation.
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One‐Dimensional End‐To‐End Azide‐Bridged MnIII Complexes Incorporating Alkali Metal Ions: Slow Magnetic Relaxations and Metamagnetism

TL;DR: In this system, spin canting definitely plays a central role in giving rise to the apparent slow magnetic relaxations in 1 and 2 because application of a high external magnetic field tends to destroy single-chain magnet (SCM) properties.
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Putative spin liquid in the triangle-based iridate Ba3IrTi2O9

TL;DR: In this paper, thermodynamic, magnetization, and muon spin relaxation measurements of the strong spin-orbit coupled iridate were reported, which constitutes a distinct frustration motif made up of a mixture of edge-and corner-sharing triangles.
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Cyanide-bridged WVMnIII single-chain magnet with isolated MnIII moieties exhibiting two types of relaxation dynamics

TL;DR: It is demonstrated that two types of relaxation processes are involved in the system; the low-T dynamics may come from magnetic domain dynamics and the high-T relaxation stems from the anionic chain, revealing single-chain magnet character.
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End-to-end azide-bridged manganese(III) chain compounds: field-induced magnetic phase transitions and variation of T(C) to 38 K depending on the side groups of the Schiff bases.

TL;DR: Three one-dimensional coordination polymers bridged by end-to-end azides exhibit a field-induced metamagnetic transition from an antiferromagnetic state to a weak ferromagnetic phase, whereas 2 embraces aField-induced two-step magnetic phase transition.