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Команда Sinterlab
Шичалин Олег Олегович
научный сотрудник | кандидат химических наук
Область научных интересов
Функциональные наноматериалы, наноструктуры, неорганический синтез, физико-химические закономерности, сорбция, катализ, биотехнологии, высокотемпературные материалы, ядерные технологии, золь-гель процесс, искровое плазменное спекание
Наукометрия
- Общее количество публикаций – более 100
- Web of Science – 30
- Scopus – 88
- РИНЦ – 193
- Количество патентов - 7
- Индекс Хирша (Web of Science / Scopus / РИНЦ) – 17 / 21 / 18
Профили и контакты
Профессиональный путь
Достижения
09- 01
Лауреат премии академика им. В.А. Легасова ''за исследования и идеи в области химии и технологии новых неорганических материалов'' за 2019 год. (2019, Москва)
- 02
Лучший Выпускник ДВФУ 2017 «Топ 100 лучших выпускников»
- 03
Стипендиат ''Благотворительного фонда Потанина'', 2016-2017;
- 04
Стипендиат компании British Petroleum 2016-2017;
- 05
Лауреат премии «Аякс-2016», персона года ДВФУ за научные достижения;
- 06
Стипендиат Губернатора Приморского края 2016-2017;
- 07
Стипендиат Губернатора Приморского края 2015-2016;
- 08
Стипендиат Правительства РФ 2015-2016;
- 09
Лауреат малой Премии издательства «Наука/Интерпериодика» за лучшую публикацию в издаваемых ею журналах в 2014 году (2014 г., Москва).
Научные работы
Публикации
100001Synthetic Calcium Silicate Biocomposite Based on Sea Urchin Skeleton for 5-Fluorouracil Cancer DeliveryОткрыть ↗002Solidification of cesium containing magnetic zeolite sorbent by spark plasma sinteringОткрыть ↗003Reactive SPS of Al2O3–RE:YAG (RE = Ce; Ce+Gd) composite ceramic phosphorsОткрыть ↗004Properties of Li1.3Al0.3Ti1.7(PO4)3 Lithium-Conducting Ceramics Synthesized by Spark Plasma SinteringОткрыть ↗005Ionizing radiation source-open type fabrication using additive technology and spark plasma sinteringОткрыть ↗006Functionally Gradient Material Fabrication Based on Cr, Ti, Fe, Ni, Co, Cu Metal Layers via Spark Plasma SinteringОткрыть ↗007Effect of nanocrystalline SiC addition on reactive SPS and oxidation resistance of Ta4HfC5 ceramicsОткрыть ↗008CaSiO3-HAp Metal-Reinforced Biocomposite Ceramics for Bone Tissue EngineeringОткрыть ↗009Wide Concentration Range of Tb3+ Doping Influence on Scintillation Properties of (Ce, Tb, Gd)3 Ga2 Al3 O12 Crystals Grown by the Optical Floating Zone MethodОткрыть ↗010Synthesis of Calcium Aluminosilicates from Nanostructured Synthetic Na Zeolites and Study of Their Sorption PropertiesОткрыть ↗011Synthesis of amorphous KAlSi3O8 for cesium radionuclide immobilization into solid matrices using spark plasma sintering techniqueОткрыть ↗012Synthesis and spark plasma sintering of solid-state matrices based on calcium silicate for 60Co immobilizationОткрыть ↗013Study of Strontium Sorption by Amorphous Calcium SilicateОткрыть ↗014Stable growth of (Ce,Gd)3Ga2Al3O12 crystal scintillators by the traveling solvent floating zone methodОткрыть ↗015Sorption Composites Based on K-Ni and K-Zn Mixed-Metal Ferrocyanides for Extracting Cesium from SeawaterОткрыть ↗016Reaction synthesis of SrTiO3 mineral-like ceramics for strontium-90 immobilization via additional in-situ synchrotron studiesОткрыть ↗017Rabbit’s cranial defect regeneration using a fine-grained ZrO2- (15 wt%)HAp ceramic implant fabricated by SPS-RS techniqueОткрыть ↗018Hydrothermal synthesis, structure and sorption performance to cesium and strontium ions of nanostructured magnetic zeolite compositesОткрыть ↗019Hydrothermal synthesis and spark plasma sintering of NaY zeolite as solid-state matrices for cesium-137 immobilizationОткрыть ↗020Hybrid Microwave Solid-Phase Synthesis of Wollastonite Based on Natural Renewable Raw MaterialsОткрыть ↗021Fast (Ce,Gd)3Ga2Al3O12 Scintillators Grown by the Optical Floating Zone MethodОткрыть ↗022Fabrication and thermoelectric properties of SrTiO3–TiO2 composite ceramicsОткрыть ↗023Comparative study of WC-based hard alloys fabrication via spark plasma sintering using Co, Fe, Ni, Cr, and Ti bindersОткрыть ↗024Ce3+, Pr3+ Co-Doped Lu3Al5O12 Single Crystals and Ceramics: A Comparative StudyОткрыть ↗025Ce3+ doped Lu3Al5O12 ceramics prepared by spark plasma sintering technology using micrometre powders: Microstructure, luminescence, and scintillation propertiesОткрыть ↗026Adsorption of Co(II) ions using Zr-Ca-Mg and Ti-Ca-Mg phosphates: adsorption modeling and mechanistic aspectsОткрыть ↗027A Study of the Wear Mechanism of Composites Modified with Silicate FillerОткрыть ↗028A novel approach for rice straw agricultural waste utilization: Synthesis of solid aluminosilicate matrices for cesium immobilizationОткрыть ↗029WC-5TiC-10Co hard metal alloy fabrication via mechanochemical and SPS techniquesОткрыть ↗030UO2–Y2O3 ceramic nuclear fuel: SPS fabrication, physico-chemical investigation and neutron absorption evaluationОткрыть ↗031Synthetic nanostructured wollastonite: Composition, structure and “in vitro” biocompatibility investigationОткрыть ↗032Synthesis of Perovskite-Like SrTiO3 Ceramics for Radioactive Strontium Immobilization by Spark Plasma Sintering-Reactive SynthesisОткрыть ↗033Synthesis of Mineral-Like SrWO4 Ceramics with the Scheelite Structure and a Radioisotope Product Based on ItОткрыть ↗034SrAl2Si2O8 ceramic matrices for 90Sr immobilization obtained via spark plasma sintering-reactive synthesisОткрыть ↗035Spark Plasma Sintering-Reactive Synthesis of SiC and SiC–HfB2 Ceramics Based on Natural Renewable Raw MaterialsОткрыть ↗036Reactive SPS of Nd3+:YAG transparent ceramics with LiF sintering additivetОткрыть ↗037Influence of sintering parameters on transparency of reactive SPSed Nd3+:YAG ceramicsОткрыть ↗038Influence of Carbon Deficiency and Hafnium Oxide Doping on Reactive Spark Plasma Sintering of the Ta2O5–C SystemОткрыть ↗039Al2O3–Ce:YAG and Al2O3–Ce:(Y,Gd)AG composite ceramics for high brightness lighting: Effect of microstructureОткрыть ↗040A novel IR-transparent Ho3+:Y2O3–MgO nanocomposite ceramics for potential laser applicationsОткрыть ↗041Иммобилизация стронция-90 в матрицу микрокристаллического цеолита Na-AОткрыть ↗042UO2-Eu2O3 compound fuel fabrication via spark plasma sinteringОткрыть ↗043Synthesis and Spark Plasma Sintering of Microcrystalline Thorium Dioxide for Nuclear Fuel ProductsОткрыть ↗044SPS hard metal alloy WC-8Ni-8Fe fabrication based on mechanochemical synthetic tungsten carbide powderОткрыть ↗045Spark plasma sintering-reactive synthesis of SrWO4 ceramic matrices for 90Sr immobilizationОткрыть ↗046Spark plasma sintering of UO2 fuel composite with Gd2O3 integral fuel burnable absorberОткрыть ↗047Sol-gel (template) synthesis of osteoplastic CaSiO3 HAp powder biocomposite: “in vivo” biocompatibility assessmentОткрыть ↗048Refractory HfC-HfN ceramics tested in a plasma flowОткрыть ↗049Reactive Spark Plasma Synthesis of Porous Bioceramic WollastoniteОткрыть ↗050Phase formation and densification peculiarities of Hf–C–N solid solution ceramics during reactive SPSОткрыть ↗051Influence of sintering temperature on structural and optical properties of Y2O3–MgO composite SPS ceramicsОткрыть ↗052Influence of carbon contamination on transparency of reactive SPSed Nd3+:YAG ceramicsОткрыть ↗053CaSiO3-HAp structural bioceramic by sol-gel and SPS-RS techniques: Bacteria test assessmentОткрыть ↗054Радиационно безопасные керамоматричные композици как активные зоны источников ионизирующего излучения на основе 137CsОткрыть ↗055ZrO2 -phosphates porous ceramic obtained via SPS-RS “in situ” technique: Bacteria test assessmentОткрыть ↗056Synthetic CaSiO3 sol-gel powder and SPS ceramic derivatives: “In vivo” toxicity assessmentОткрыть ↗057Synthesis of Hf-C-N ceramics by spark plasma sinteringОткрыть ↗058Synthesis of Ceramic and Glass Ceramic Matrices with Immobilized Cesium Radionuclides for Active Zones of Ionizing Radiation SourcesОткрыть ↗059Synthesis of BaCe0.9-xZrxY0.1O3-δ nanopowders and the study of proton conductors fabricated on their basis by low-temperature spark plasma sinteringОткрыть ↗060SPS technique for ionizing radiation source fabrication based on dense cesium-containing coreОткрыть ↗061Spark plasma sintering of alumosilicate ceramic matriсes for immobilization of cesium radionuclidesОткрыть ↗062Sol–Gel Synthesis of Functionally Graded SiC–TiC Ceramic MaterialОткрыть ↗063Sol-gel synthesis of SiC@Y3Al5O12 composite nanopowder and preparation of porous SiC-ceramics derived from itОткрыть ↗064UO2 fuel pellets fabrication via Spark Plasma Sintering using nonstandard molybdenum dieОткрыть ↗065Synthesis of high-density pellets of uranium dioxide by Spark Plasma Sinteringin dies of different typesОткрыть ↗066SPS-RS technique for solid-phase “in situ” synthesis of biocompatible ZrO2 porous ceramicsОткрыть ↗067Spark plasma sintering of nanopowders in the CeO2-Y2O3system as a promising approach to the creation of nanocrystalline intermediate-temperature solid electrolytesОткрыть ↗068Influence of vacuum heating on magnetic characteristics of α-Fe2O3 ceramics obtained via spark plasma sinteringОткрыть ↗069Impact of a Supersonic Dissociated Air Flow on the Surface of HfB2–30 vol % SiC UHTC Produced by the Sol–Gel MethodОткрыть ↗070A complex approach to assessing porous structure of structured ceramics obtained by SPS techniqueОткрыть ↗071Spark Plasma Sintering as a High-Tech Approach in a New Generation of Synthesis of Nanostructured Functional CeramicsОткрыть ↗072Sol-gel and SPS combined synthesis of highly porous wollastonite ceramic materials with immobilized Au-NPsОткрыть ↗073Preparation of porous SiC-ceramics by sol – gel and spark plasma sinteringОткрыть ↗074Технология искрового плазменного спекания как перспективное решение для создания функциональных наноструктурированных керамикОткрыть ↗075Wollastonite ceramics with bimodal porous structures prepared by sol – gel and SPS techniquesОткрыть ↗076Behavior of HfB2 -SiC (10, 15, and 20 vol %) Ceramic Materials in High-Enthalpy Air FlowsОткрыть ↗077Макропористые катализаторы для жидкофазного окисления на основе оксидов вольфрамаОткрыть ↗078Behavior of a sample of the ceramic material HfB2-SiC (45 vol %) in the flow of dissociated air and the analysis of the emission spectrum of the boundary layer above its surfaceОткрыть ↗079Application of carbonaceous template for porous structure control of ceramic composites based on synthetic wollastonite obtained via Spark Plasma SinteringОткрыть ↗080Темплатный синтез пористых оксидов железа с магнитными и каталитическими свойствамиОткрыть ↗081Ceramic materials: Manufacture and behavior under long-term exposure to dissociated air streamsОткрыть ↗082Ceramic Materials: Manufacture and Behavior under Long-Term Exposure to Dissociated Air Jet FlowОткрыть ↗083Production of ultrahigh temperature composite materials HfB2-SiC and the study of their behavior under the action of a dissociated air flowОткрыть ↗084Synthesis of nanostructured iron oxides and new magnetic ceramics using sol-gel and SPS techniquesОткрыть ↗085Темплатный синтез и исследование структурных характеристик материалов на основе оксидов вольфрама с развитой макропористой структуройОткрыть ↗086Spark plasma sintering of special-purpose functional ceramics based on UO2, ZrO2, Fe3O4/α-Fe2O3Открыть ↗087Fabrication of highly-doped Nd3+:YAG transparent ceramics by reactive SPSОткрыть ↗088Технология SPS-RS для твердофазного «in situ» синтеза биокерамики на основе ZrO2Открыть ↗